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After Yusimry’s steep discount, little clarity on future adalimumab biosimilar pricing
Adalimumab, sold under the brand name Humira, enjoyed a long run as one of the world’s best-selling medicines. But its 20-year, competition-free period has ended, and despite its best efforts to delay their arrival, drug manufacturer AbbVie now faces increasing competition from biosimilars entering the marketplace.
But one biosimilar about to be launched may be something of a game changer. Coherus BioSciences has announced plans to market its biosimilar Yusimry (adalimumab-aqvh) at a cost of $995 for two autoinjectors. This represents an approximate 85% discount over Humira’s sale list price of $6922.
This price, however, is slated to plunge even further as Coherus has also revealed that it will work with the Mark Cuban Cost Plus Drug Company (MCCPDC) to offer an even lower price. When Yusimry launches in July, it will sell for about $579 for two autoinjectors, making it the lowest-priced adalimumab biosimilar on the market.
“Coherus and Cost Plus Drug Company share a common mission, to increase access to high-quality medicine for patients at an affordable price,” said Dennis Lanfear, MBA, president, CEO and chairman of Coherus. “Mark Cuban and his team offer innovative solutions to health care problems, and Coherus is also a highly innovative company focused on unmet patient needs.”
He noted that, with adalimumab biosimilar pricing, this translates to a low list price approach. “We are pleased that Yusimry will be a part of that, as the first biologic they carry,” Mr. Lanfear said.
MCCPDC prices are based on the cost of ingredients and manufacturing plus 15% margin, a $3 pharmacy dispensing fee, and a $5 shipping fee. The company has expanded its inventory from 100 generics to more than 350 medications since it launched in January 2022. While MCCPDC is primarily directed to people who are paying cash for drugs, it does take insurance from select plans. And even for people who are covered by other insurers, the cost of drugs from Mr. Cuban’s company may be less than their out-of-pocket costs if they did go through their payer.
The low pricing of Yusimry is welcome, said Marcus Snow, MD, an assistant professor in the division of rheumatology at the University of Nebraska Medical Center, Omaha, but he pointed out that it is still a very expensive drug. “For patients who can’t afford Humira due to poor insurance coverage and high out-of-pocket costs, it is a welcome option. But it’s also unclear how many patients who lack adequate health insurance coverage can afford to pay $579 a month out of their own pockets.”
The biosimilars are coming
By early December 2022, the Food and Drug Administration had approved seven Humira biosimilars, and Amgen launched the first biosimilar to come on the market, Amjevita, soon afterward. By July 2023, half a dozen more are expected to enter the marketplace, said Steven Horvitz, managing director of EMC Analytics Group, a pharmaceutical research firm.
Mr. Horvitz agrees that the system is out of control, but it is unclear how much of an effect the low price tag on the Coherus product will have. “Some insurers may say, ‘we want the lowest price, and we don’t care about rebates,’ and will go with it,” he said. “PBMs [pharmacy benefit managers] are all about economics, so we have to see how many of their major clients will ask for the lowest price.”
Amgen has more or less followed the status quo on pricing for its biosimilar, but with a twist. It›s being offered at two different prices: $85,494 a year, which is only a 5% discount from Humira’s list price, or at $40,497 a year, a 55% discount. However, to date, the lower price has generally not been granted favorable formulary placement by PBMs. The plans that adopt the higher-priced biosimilar will get bigger rebates, but patients with coinsurance and deductibles will pay more out of pocket.
It is yet unknown how the pricing on Yusimry will affect the biosimilars ready to launch. “Will it give them pause for thought or not make any difference?” Mr. Horvitz said. “The companies do not reveal their pricing before the fact, so we have to wait and see.”
Large PBMs have not jumped at the opportunity to offer the Coherus biosimilar, but SmithRx, which bills itself as “next-generation pharmacy benefits management,” announced that it will offer Yusimry to its members at a discount of more than 90%.
“Unlike traditional PBMs, SmithRx prioritizes transparency and up-front cost savings. Humira is often an employer’s top drug expense so offering a low-cost alternative will have significant impact,” Jake Frenz, CEO and founder of SmithRx, said in a statement. “We’re excited to work with Cost Plus Drugs to bring this biosimilar to our members – and significantly reduce costs for them and their employers.”
A version of this article first appeared on Medscape.com.
Adalimumab, sold under the brand name Humira, enjoyed a long run as one of the world’s best-selling medicines. But its 20-year, competition-free period has ended, and despite its best efforts to delay their arrival, drug manufacturer AbbVie now faces increasing competition from biosimilars entering the marketplace.
But one biosimilar about to be launched may be something of a game changer. Coherus BioSciences has announced plans to market its biosimilar Yusimry (adalimumab-aqvh) at a cost of $995 for two autoinjectors. This represents an approximate 85% discount over Humira’s sale list price of $6922.
This price, however, is slated to plunge even further as Coherus has also revealed that it will work with the Mark Cuban Cost Plus Drug Company (MCCPDC) to offer an even lower price. When Yusimry launches in July, it will sell for about $579 for two autoinjectors, making it the lowest-priced adalimumab biosimilar on the market.
“Coherus and Cost Plus Drug Company share a common mission, to increase access to high-quality medicine for patients at an affordable price,” said Dennis Lanfear, MBA, president, CEO and chairman of Coherus. “Mark Cuban and his team offer innovative solutions to health care problems, and Coherus is also a highly innovative company focused on unmet patient needs.”
He noted that, with adalimumab biosimilar pricing, this translates to a low list price approach. “We are pleased that Yusimry will be a part of that, as the first biologic they carry,” Mr. Lanfear said.
MCCPDC prices are based on the cost of ingredients and manufacturing plus 15% margin, a $3 pharmacy dispensing fee, and a $5 shipping fee. The company has expanded its inventory from 100 generics to more than 350 medications since it launched in January 2022. While MCCPDC is primarily directed to people who are paying cash for drugs, it does take insurance from select plans. And even for people who are covered by other insurers, the cost of drugs from Mr. Cuban’s company may be less than their out-of-pocket costs if they did go through their payer.
The low pricing of Yusimry is welcome, said Marcus Snow, MD, an assistant professor in the division of rheumatology at the University of Nebraska Medical Center, Omaha, but he pointed out that it is still a very expensive drug. “For patients who can’t afford Humira due to poor insurance coverage and high out-of-pocket costs, it is a welcome option. But it’s also unclear how many patients who lack adequate health insurance coverage can afford to pay $579 a month out of their own pockets.”
The biosimilars are coming
By early December 2022, the Food and Drug Administration had approved seven Humira biosimilars, and Amgen launched the first biosimilar to come on the market, Amjevita, soon afterward. By July 2023, half a dozen more are expected to enter the marketplace, said Steven Horvitz, managing director of EMC Analytics Group, a pharmaceutical research firm.
Mr. Horvitz agrees that the system is out of control, but it is unclear how much of an effect the low price tag on the Coherus product will have. “Some insurers may say, ‘we want the lowest price, and we don’t care about rebates,’ and will go with it,” he said. “PBMs [pharmacy benefit managers] are all about economics, so we have to see how many of their major clients will ask for the lowest price.”
Amgen has more or less followed the status quo on pricing for its biosimilar, but with a twist. It›s being offered at two different prices: $85,494 a year, which is only a 5% discount from Humira’s list price, or at $40,497 a year, a 55% discount. However, to date, the lower price has generally not been granted favorable formulary placement by PBMs. The plans that adopt the higher-priced biosimilar will get bigger rebates, but patients with coinsurance and deductibles will pay more out of pocket.
It is yet unknown how the pricing on Yusimry will affect the biosimilars ready to launch. “Will it give them pause for thought or not make any difference?” Mr. Horvitz said. “The companies do not reveal their pricing before the fact, so we have to wait and see.”
Large PBMs have not jumped at the opportunity to offer the Coherus biosimilar, but SmithRx, which bills itself as “next-generation pharmacy benefits management,” announced that it will offer Yusimry to its members at a discount of more than 90%.
“Unlike traditional PBMs, SmithRx prioritizes transparency and up-front cost savings. Humira is often an employer’s top drug expense so offering a low-cost alternative will have significant impact,” Jake Frenz, CEO and founder of SmithRx, said in a statement. “We’re excited to work with Cost Plus Drugs to bring this biosimilar to our members – and significantly reduce costs for them and their employers.”
A version of this article first appeared on Medscape.com.
Adalimumab, sold under the brand name Humira, enjoyed a long run as one of the world’s best-selling medicines. But its 20-year, competition-free period has ended, and despite its best efforts to delay their arrival, drug manufacturer AbbVie now faces increasing competition from biosimilars entering the marketplace.
But one biosimilar about to be launched may be something of a game changer. Coherus BioSciences has announced plans to market its biosimilar Yusimry (adalimumab-aqvh) at a cost of $995 for two autoinjectors. This represents an approximate 85% discount over Humira’s sale list price of $6922.
This price, however, is slated to plunge even further as Coherus has also revealed that it will work with the Mark Cuban Cost Plus Drug Company (MCCPDC) to offer an even lower price. When Yusimry launches in July, it will sell for about $579 for two autoinjectors, making it the lowest-priced adalimumab biosimilar on the market.
“Coherus and Cost Plus Drug Company share a common mission, to increase access to high-quality medicine for patients at an affordable price,” said Dennis Lanfear, MBA, president, CEO and chairman of Coherus. “Mark Cuban and his team offer innovative solutions to health care problems, and Coherus is also a highly innovative company focused on unmet patient needs.”
He noted that, with adalimumab biosimilar pricing, this translates to a low list price approach. “We are pleased that Yusimry will be a part of that, as the first biologic they carry,” Mr. Lanfear said.
MCCPDC prices are based on the cost of ingredients and manufacturing plus 15% margin, a $3 pharmacy dispensing fee, and a $5 shipping fee. The company has expanded its inventory from 100 generics to more than 350 medications since it launched in January 2022. While MCCPDC is primarily directed to people who are paying cash for drugs, it does take insurance from select plans. And even for people who are covered by other insurers, the cost of drugs from Mr. Cuban’s company may be less than their out-of-pocket costs if they did go through their payer.
The low pricing of Yusimry is welcome, said Marcus Snow, MD, an assistant professor in the division of rheumatology at the University of Nebraska Medical Center, Omaha, but he pointed out that it is still a very expensive drug. “For patients who can’t afford Humira due to poor insurance coverage and high out-of-pocket costs, it is a welcome option. But it’s also unclear how many patients who lack adequate health insurance coverage can afford to pay $579 a month out of their own pockets.”
The biosimilars are coming
By early December 2022, the Food and Drug Administration had approved seven Humira biosimilars, and Amgen launched the first biosimilar to come on the market, Amjevita, soon afterward. By July 2023, half a dozen more are expected to enter the marketplace, said Steven Horvitz, managing director of EMC Analytics Group, a pharmaceutical research firm.
Mr. Horvitz agrees that the system is out of control, but it is unclear how much of an effect the low price tag on the Coherus product will have. “Some insurers may say, ‘we want the lowest price, and we don’t care about rebates,’ and will go with it,” he said. “PBMs [pharmacy benefit managers] are all about economics, so we have to see how many of their major clients will ask for the lowest price.”
Amgen has more or less followed the status quo on pricing for its biosimilar, but with a twist. It›s being offered at two different prices: $85,494 a year, which is only a 5% discount from Humira’s list price, or at $40,497 a year, a 55% discount. However, to date, the lower price has generally not been granted favorable formulary placement by PBMs. The plans that adopt the higher-priced biosimilar will get bigger rebates, but patients with coinsurance and deductibles will pay more out of pocket.
It is yet unknown how the pricing on Yusimry will affect the biosimilars ready to launch. “Will it give them pause for thought or not make any difference?” Mr. Horvitz said. “The companies do not reveal their pricing before the fact, so we have to wait and see.”
Large PBMs have not jumped at the opportunity to offer the Coherus biosimilar, but SmithRx, which bills itself as “next-generation pharmacy benefits management,” announced that it will offer Yusimry to its members at a discount of more than 90%.
“Unlike traditional PBMs, SmithRx prioritizes transparency and up-front cost savings. Humira is often an employer’s top drug expense so offering a low-cost alternative will have significant impact,” Jake Frenz, CEO and founder of SmithRx, said in a statement. “We’re excited to work with Cost Plus Drugs to bring this biosimilar to our members – and significantly reduce costs for them and their employers.”
A version of this article first appeared on Medscape.com.
Did ob.gyn. residencies take a hit from abortion bans?
Emilee Gibson, MD, recently graduated from Southern Illinois University, Springfield, and starts her ob.gyn. residency at Vanderbilt University Medical Center in Nashville, Tenn., later this month. Abortion is permitted in Illinois but banned in Tennessee, a factor she weighed cautiously when she applied for residencies.
Dr. Gibson told this news organization that medical students, not just those interested in ob.gyn., are starting to think more about what it means to move to a state where it might be difficult to access abortion care. “Just from a personal standpoint, that’s a little scary.”
The Supreme Court’s decision to overturn Roe v. Wade abortion rights last June threatened to derail ob.gyns. in training from pursuing the specialty or locating in states that have banned or limited abortion.
, but some industry leaders, residents, and medical students say it may be too early to judge the full impact of the ruling because most students were already far along in their decision and application for a 2023 residency position.
At this point, some ob.gyn. students are planning careers on the basis of whether they have family ties in a particular state, whether limiting their search might hurt their potential to match in a competitive specialty, and whether their faith in the family planning and abortion training being offered by a program outweighs the drawbacks of being in a state with abortion bans or restrictions.
Lucy Brown, MD, a recent graduate of Indiana University, Indianapolis, said in an interview that she’d be “very nervous” about living and practicing in abortion-restricted Indiana if she were ready to start a family.
Dr. Brown said that she mostly limited applications in the recent Match to ob.gyn. residencies in states that protected abortion rights. Though she applied to a program in her home state of Kentucky, she noted that it – along with a program in Missouri – was very low on her rank list because of their abortion restrictions.
Ultimately, Dr. Brown matched at Johns Hopkins University, Baltimore, where she will receive abortion training and assist with abortions throughout her residency. Maryland’s abortion rights status was a big attraction, she said. “Abortion is integrated into every aspect of the education.”
By the numbers
For students applying to residencies this summer, evaluating the state legislative landscape is a little clearer than it was 1 year ago but is still evolving. As of June 1, 56 ob.gyn. residency programs and more than 1,100 medical residents are in states with the most restrictive bans in the country (19% of all programs), according to the Bixby Center for Reproductive Health at the University of California, San Francisco.
In terms of the latest abortion laws: 14 states banned abortion, 2 states banned abortion between 6 and 12 weeks, and 9 states banned abortion between 15 and 22 weeks, whereas abortion is legal in 25 states and Washington, according to a recent analysis by the Kaiser Family Foundation.
The impact on residencies? The Association of American Medical Colleges recently reported a 2% drop in the number of U.S. MD seniors who applied to residencies and a 5% decline in the number of seniors who applied to ob.gyn. residencies. In states where abortion was banned, the number of senior applicants to ob.gyn. programs dropped by more than 10%, according to AAMC’s Research and Action Institute.
“U.S. MD seniors appear, in general, more likely to avoid states where abortions are banned,” said Atul Grover, MD, PhD, executive director of the Research and Action Institute. “That’s a big difference between states where there are abortion bans and gestational limits and states with no bans or limits; it’s almost twice as large,” Dr. Grover said in an interview. “The question is: Was it a 1-year blip or something that will be the beginning of a trend?”
In a statement to this news organization, officials from the American College of Obstetricians and Gynecologists and the Association of Professors of Gynecology and Obstetrics said that they were aware of the AAMC data but needed to further evaluate the impact of the Dobbs ruling.
A survey released at ACOG’s annual meeting in May found that 58% of third- and fourth-year medical students were unlikely to apply to a residency program in a state with abortion restrictions. Conducted after the Dobbs ruling last year, the survey found that future physicians are choosing where to attend residency according to state abortion policies, indicating that access to abortion care is changing the landscape of medical practice.
“For personal as well as professional reasons, reproductive health care access is now a key factor in residency match decisions as a result of Dobbs,” lead author Ariana Traub, MPH, said. She studies at Emory University, Atlanta, where abortion is restricted.
“Many students, including myself, struggle when trying to decide whether to stay in restricted states where the need is greatest (highest maternal mortality, infant mortality, lower number of physicians), versus going to an unrestricted state” for more comprehensive training and care, Ms. Traub said. “Regardless of this decision, Dobbs and subsequent abortion laws are making students question what matters most and how they can provide the best care.”
In another recently published survey, University of Miami fourth-year student Morgan Levy, MD, MPH, and colleagues found that 77% of students would prefer to apply to a residency program in a state that preserves access to abortion. Ensuring access to those services for themselves or a family member was a key factor, according to the paper published in the Journal of General Internal Medicine.
For Dr. Levy, who recently graduated from a school in abortion-restricted Florida and will soon apply to ob.gyn. residencies, the Dobbs decision made her more committed to becoming an ob.gyn., an interest she’s had since college, she said.
“I do not intend to limit my search,” Dr. Levy said in an interview. “In the states where there are restrictions in place, it’s really important to make sure that people are getting good care,” she said.
Differing perspective
Though survey and anecdotal data show that students and residents expressing hesitation about states with bans or restrictive laws, it appears that most who applied to residency programs during the 2023 Match did not shy away from those states. Almost all the open ob.gyn. residency positions were filled, according to the National Resident Matching Program.
There was no change in how U.S. MD seniors applying for 2023 residency ranked programs on the basis of whether abortion was legal, limited, or banned in the state where a program was based, Donna Lamb, DHSc, MBA, BSN, president and CEO of the NRMP, said.
“We’re seeing what we’ve seen over the past 5 years, and that is a very high fill rate, a very high rate of preference for ob.gyn., and not a heck of a lot of change,” Dr. Lamb said, noting that ob.gyn. programs continue to be very competitive. “We have more applicants than we have positions available,” she said.
In the most recent Match, there were 2,100 applicants (more than half U.S. MD seniors) for about 1,500 slots, with 1,499 initial matches, according to NRMP data. The overall fill rate was 99.7% after the Supplemental Offer and Assistance Program and Electronic Residency Applications process, NRMP reported. The results are similar to what NRMP reported as its previous all-time high year for ob.gyn. placements.
There was a dip in applicants from 2022 to 2023, even though the slots available stayed the same, but it was not markedly different from the previous 5 years, Dr. Lamb said.
“While the Dobbs decision may, indeed, have impacted applicant and application numbers to residency programs, interventions such as signaling may also contribute to the decrease in numbers of applications submitted as well,” AnnaMarie Connolly, MD, ACOG chief of education and academic affairs, and Arthur Ollendorff, MD, APOG president, said in a statement to this news organization.
For the first time in 2022, Match Day applicants were required to “signal” interest in a particular program in an effort to reduce the number of applications and cost to medical students, they noted.
Personal view
When it was time for Dr. Gibson to apply for ob.gyn. residencies, she wondered: Where do you apply in this landscape? But she did not limit her applications: “If I don’t apply to Indiana, Missouri, Tennessee, Wisconsin, Iowa, I’m taking a lot of really great programs off the table.” She did not want to hurt her chances for a match in a competitive specialty, she said.
“Being in Tennessee is going to give me a very different, unique opportunity to hopefully do a lot of advocacy and lobbying and hopefully have my voice heard in maybe a different way than [in Illinois],” Dr. Gibson added.
Cassie Crifase, MPH, a fourth-year student at the University of Wisconsin–Madison applying to ob.gyn. residencies in next year’s Match, said in an interview that she’s concerned about the health risk of living in a state with abortion restrictions. Wisconsin is one of those.
“My list skews toward programs that are in abortion-protected states, but I also am applying to some programs that are in restricted states.” Those states would have to help her meet the Accreditation Council for Graduate Medical Education training requirements. And, she said, she’d want to know if she could still advocate for abortion access in the state.
Sereena Jivraj, a third-year medical student at Texas Christian University in Fort Worth, said that she won’t apply to programs in Alabama, Mississippi, Arkansas, and other nearby states with abortion restrictions. However, Texas is still on her list. “I’m from Texas, my family lives in Texas, and I go to school in Fort Worth, so I have made those connections,” Ms. Jivraj said.
Student advisers generally encourage ob.gyn. hopefuls to apply to 60-100 programs to ensure that they will match, Ms. Jivraj said. “How are you supposed to apply to 100 programs if many of them fall within states with high restrictions?”
What the future holds
Ms. Jivraj said that she’s concerned about what the future holds, especially if the law does not change in Texas. “I don’t want to go to work every day wondering if I’m going to go to jail for something that I say,” she said.
Dr. Crifase has similar fears. “I want to be able to provide the best care for my patients and that would require being able to do those procedures without having to have my first thought be: Is this legal?”
“Things feel very volatile and uncertain,” Pamela Merritt, executive director of the nonprofit Medical Students for Choice in Philadelphia, where abortion is permitted, said. “What we’re asking medical students to do right now is to envision a future in a profession, a lifetime of providing care, where the policies and procedures and standards of the profession are under attack by 26 state legislatures and the federal court system,” she said.
“I don’t think you’re going to see people as willing to take risk.” She added that if someone matches to a program and then has regrets, “You can’t easily jump from residency program to residency program.”
Dr. Levy believes that the impact of the Dobbs decision is “definitely going to be a more common question of applicants to their potential programs.”
Applicants undoubtedly are thinking about how abortion restrictions or bans might affect their own health or that of their partners or families, she said. In a 2022 survey, Dr. Levy and colleagues reported that abortion is not uncommon among physicians, with 11.5% of the 1,566 respondents who had been pregnant saying they had at least one therapeutic abortion.
Students are also considering the potential ramification of a ban on emergency contraception and laws that criminalize physicians’ provision of abortion care, Dr. Levy said. Another complicating factor is individuals’ family ties or roots in specific geographic areas, she said.
Prospective residents will also have a lot of questions about how they will receive family planning training, Dr. Levy commented. “If you’re somewhere that you can’t really provide full-spectrum reproductive health care, then the question will become: How is the program going to provide that training?”
A version of this article first appeared on Medscape.com.
Emilee Gibson, MD, recently graduated from Southern Illinois University, Springfield, and starts her ob.gyn. residency at Vanderbilt University Medical Center in Nashville, Tenn., later this month. Abortion is permitted in Illinois but banned in Tennessee, a factor she weighed cautiously when she applied for residencies.
Dr. Gibson told this news organization that medical students, not just those interested in ob.gyn., are starting to think more about what it means to move to a state where it might be difficult to access abortion care. “Just from a personal standpoint, that’s a little scary.”
The Supreme Court’s decision to overturn Roe v. Wade abortion rights last June threatened to derail ob.gyns. in training from pursuing the specialty or locating in states that have banned or limited abortion.
, but some industry leaders, residents, and medical students say it may be too early to judge the full impact of the ruling because most students were already far along in their decision and application for a 2023 residency position.
At this point, some ob.gyn. students are planning careers on the basis of whether they have family ties in a particular state, whether limiting their search might hurt their potential to match in a competitive specialty, and whether their faith in the family planning and abortion training being offered by a program outweighs the drawbacks of being in a state with abortion bans or restrictions.
Lucy Brown, MD, a recent graduate of Indiana University, Indianapolis, said in an interview that she’d be “very nervous” about living and practicing in abortion-restricted Indiana if she were ready to start a family.
Dr. Brown said that she mostly limited applications in the recent Match to ob.gyn. residencies in states that protected abortion rights. Though she applied to a program in her home state of Kentucky, she noted that it – along with a program in Missouri – was very low on her rank list because of their abortion restrictions.
Ultimately, Dr. Brown matched at Johns Hopkins University, Baltimore, where she will receive abortion training and assist with abortions throughout her residency. Maryland’s abortion rights status was a big attraction, she said. “Abortion is integrated into every aspect of the education.”
By the numbers
For students applying to residencies this summer, evaluating the state legislative landscape is a little clearer than it was 1 year ago but is still evolving. As of June 1, 56 ob.gyn. residency programs and more than 1,100 medical residents are in states with the most restrictive bans in the country (19% of all programs), according to the Bixby Center for Reproductive Health at the University of California, San Francisco.
In terms of the latest abortion laws: 14 states banned abortion, 2 states banned abortion between 6 and 12 weeks, and 9 states banned abortion between 15 and 22 weeks, whereas abortion is legal in 25 states and Washington, according to a recent analysis by the Kaiser Family Foundation.
The impact on residencies? The Association of American Medical Colleges recently reported a 2% drop in the number of U.S. MD seniors who applied to residencies and a 5% decline in the number of seniors who applied to ob.gyn. residencies. In states where abortion was banned, the number of senior applicants to ob.gyn. programs dropped by more than 10%, according to AAMC’s Research and Action Institute.
“U.S. MD seniors appear, in general, more likely to avoid states where abortions are banned,” said Atul Grover, MD, PhD, executive director of the Research and Action Institute. “That’s a big difference between states where there are abortion bans and gestational limits and states with no bans or limits; it’s almost twice as large,” Dr. Grover said in an interview. “The question is: Was it a 1-year blip or something that will be the beginning of a trend?”
In a statement to this news organization, officials from the American College of Obstetricians and Gynecologists and the Association of Professors of Gynecology and Obstetrics said that they were aware of the AAMC data but needed to further evaluate the impact of the Dobbs ruling.
A survey released at ACOG’s annual meeting in May found that 58% of third- and fourth-year medical students were unlikely to apply to a residency program in a state with abortion restrictions. Conducted after the Dobbs ruling last year, the survey found that future physicians are choosing where to attend residency according to state abortion policies, indicating that access to abortion care is changing the landscape of medical practice.
“For personal as well as professional reasons, reproductive health care access is now a key factor in residency match decisions as a result of Dobbs,” lead author Ariana Traub, MPH, said. She studies at Emory University, Atlanta, where abortion is restricted.
“Many students, including myself, struggle when trying to decide whether to stay in restricted states where the need is greatest (highest maternal mortality, infant mortality, lower number of physicians), versus going to an unrestricted state” for more comprehensive training and care, Ms. Traub said. “Regardless of this decision, Dobbs and subsequent abortion laws are making students question what matters most and how they can provide the best care.”
In another recently published survey, University of Miami fourth-year student Morgan Levy, MD, MPH, and colleagues found that 77% of students would prefer to apply to a residency program in a state that preserves access to abortion. Ensuring access to those services for themselves or a family member was a key factor, according to the paper published in the Journal of General Internal Medicine.
For Dr. Levy, who recently graduated from a school in abortion-restricted Florida and will soon apply to ob.gyn. residencies, the Dobbs decision made her more committed to becoming an ob.gyn., an interest she’s had since college, she said.
“I do not intend to limit my search,” Dr. Levy said in an interview. “In the states where there are restrictions in place, it’s really important to make sure that people are getting good care,” she said.
Differing perspective
Though survey and anecdotal data show that students and residents expressing hesitation about states with bans or restrictive laws, it appears that most who applied to residency programs during the 2023 Match did not shy away from those states. Almost all the open ob.gyn. residency positions were filled, according to the National Resident Matching Program.
There was no change in how U.S. MD seniors applying for 2023 residency ranked programs on the basis of whether abortion was legal, limited, or banned in the state where a program was based, Donna Lamb, DHSc, MBA, BSN, president and CEO of the NRMP, said.
“We’re seeing what we’ve seen over the past 5 years, and that is a very high fill rate, a very high rate of preference for ob.gyn., and not a heck of a lot of change,” Dr. Lamb said, noting that ob.gyn. programs continue to be very competitive. “We have more applicants than we have positions available,” she said.
In the most recent Match, there were 2,100 applicants (more than half U.S. MD seniors) for about 1,500 slots, with 1,499 initial matches, according to NRMP data. The overall fill rate was 99.7% after the Supplemental Offer and Assistance Program and Electronic Residency Applications process, NRMP reported. The results are similar to what NRMP reported as its previous all-time high year for ob.gyn. placements.
There was a dip in applicants from 2022 to 2023, even though the slots available stayed the same, but it was not markedly different from the previous 5 years, Dr. Lamb said.
“While the Dobbs decision may, indeed, have impacted applicant and application numbers to residency programs, interventions such as signaling may also contribute to the decrease in numbers of applications submitted as well,” AnnaMarie Connolly, MD, ACOG chief of education and academic affairs, and Arthur Ollendorff, MD, APOG president, said in a statement to this news organization.
For the first time in 2022, Match Day applicants were required to “signal” interest in a particular program in an effort to reduce the number of applications and cost to medical students, they noted.
Personal view
When it was time for Dr. Gibson to apply for ob.gyn. residencies, she wondered: Where do you apply in this landscape? But she did not limit her applications: “If I don’t apply to Indiana, Missouri, Tennessee, Wisconsin, Iowa, I’m taking a lot of really great programs off the table.” She did not want to hurt her chances for a match in a competitive specialty, she said.
“Being in Tennessee is going to give me a very different, unique opportunity to hopefully do a lot of advocacy and lobbying and hopefully have my voice heard in maybe a different way than [in Illinois],” Dr. Gibson added.
Cassie Crifase, MPH, a fourth-year student at the University of Wisconsin–Madison applying to ob.gyn. residencies in next year’s Match, said in an interview that she’s concerned about the health risk of living in a state with abortion restrictions. Wisconsin is one of those.
“My list skews toward programs that are in abortion-protected states, but I also am applying to some programs that are in restricted states.” Those states would have to help her meet the Accreditation Council for Graduate Medical Education training requirements. And, she said, she’d want to know if she could still advocate for abortion access in the state.
Sereena Jivraj, a third-year medical student at Texas Christian University in Fort Worth, said that she won’t apply to programs in Alabama, Mississippi, Arkansas, and other nearby states with abortion restrictions. However, Texas is still on her list. “I’m from Texas, my family lives in Texas, and I go to school in Fort Worth, so I have made those connections,” Ms. Jivraj said.
Student advisers generally encourage ob.gyn. hopefuls to apply to 60-100 programs to ensure that they will match, Ms. Jivraj said. “How are you supposed to apply to 100 programs if many of them fall within states with high restrictions?”
What the future holds
Ms. Jivraj said that she’s concerned about what the future holds, especially if the law does not change in Texas. “I don’t want to go to work every day wondering if I’m going to go to jail for something that I say,” she said.
Dr. Crifase has similar fears. “I want to be able to provide the best care for my patients and that would require being able to do those procedures without having to have my first thought be: Is this legal?”
“Things feel very volatile and uncertain,” Pamela Merritt, executive director of the nonprofit Medical Students for Choice in Philadelphia, where abortion is permitted, said. “What we’re asking medical students to do right now is to envision a future in a profession, a lifetime of providing care, where the policies and procedures and standards of the profession are under attack by 26 state legislatures and the federal court system,” she said.
“I don’t think you’re going to see people as willing to take risk.” She added that if someone matches to a program and then has regrets, “You can’t easily jump from residency program to residency program.”
Dr. Levy believes that the impact of the Dobbs decision is “definitely going to be a more common question of applicants to their potential programs.”
Applicants undoubtedly are thinking about how abortion restrictions or bans might affect their own health or that of their partners or families, she said. In a 2022 survey, Dr. Levy and colleagues reported that abortion is not uncommon among physicians, with 11.5% of the 1,566 respondents who had been pregnant saying they had at least one therapeutic abortion.
Students are also considering the potential ramification of a ban on emergency contraception and laws that criminalize physicians’ provision of abortion care, Dr. Levy said. Another complicating factor is individuals’ family ties or roots in specific geographic areas, she said.
Prospective residents will also have a lot of questions about how they will receive family planning training, Dr. Levy commented. “If you’re somewhere that you can’t really provide full-spectrum reproductive health care, then the question will become: How is the program going to provide that training?”
A version of this article first appeared on Medscape.com.
Emilee Gibson, MD, recently graduated from Southern Illinois University, Springfield, and starts her ob.gyn. residency at Vanderbilt University Medical Center in Nashville, Tenn., later this month. Abortion is permitted in Illinois but banned in Tennessee, a factor she weighed cautiously when she applied for residencies.
Dr. Gibson told this news organization that medical students, not just those interested in ob.gyn., are starting to think more about what it means to move to a state where it might be difficult to access abortion care. “Just from a personal standpoint, that’s a little scary.”
The Supreme Court’s decision to overturn Roe v. Wade abortion rights last June threatened to derail ob.gyns. in training from pursuing the specialty or locating in states that have banned or limited abortion.
, but some industry leaders, residents, and medical students say it may be too early to judge the full impact of the ruling because most students were already far along in their decision and application for a 2023 residency position.
At this point, some ob.gyn. students are planning careers on the basis of whether they have family ties in a particular state, whether limiting their search might hurt their potential to match in a competitive specialty, and whether their faith in the family planning and abortion training being offered by a program outweighs the drawbacks of being in a state with abortion bans or restrictions.
Lucy Brown, MD, a recent graduate of Indiana University, Indianapolis, said in an interview that she’d be “very nervous” about living and practicing in abortion-restricted Indiana if she were ready to start a family.
Dr. Brown said that she mostly limited applications in the recent Match to ob.gyn. residencies in states that protected abortion rights. Though she applied to a program in her home state of Kentucky, she noted that it – along with a program in Missouri – was very low on her rank list because of their abortion restrictions.
Ultimately, Dr. Brown matched at Johns Hopkins University, Baltimore, where she will receive abortion training and assist with abortions throughout her residency. Maryland’s abortion rights status was a big attraction, she said. “Abortion is integrated into every aspect of the education.”
By the numbers
For students applying to residencies this summer, evaluating the state legislative landscape is a little clearer than it was 1 year ago but is still evolving. As of June 1, 56 ob.gyn. residency programs and more than 1,100 medical residents are in states with the most restrictive bans in the country (19% of all programs), according to the Bixby Center for Reproductive Health at the University of California, San Francisco.
In terms of the latest abortion laws: 14 states banned abortion, 2 states banned abortion between 6 and 12 weeks, and 9 states banned abortion between 15 and 22 weeks, whereas abortion is legal in 25 states and Washington, according to a recent analysis by the Kaiser Family Foundation.
The impact on residencies? The Association of American Medical Colleges recently reported a 2% drop in the number of U.S. MD seniors who applied to residencies and a 5% decline in the number of seniors who applied to ob.gyn. residencies. In states where abortion was banned, the number of senior applicants to ob.gyn. programs dropped by more than 10%, according to AAMC’s Research and Action Institute.
“U.S. MD seniors appear, in general, more likely to avoid states where abortions are banned,” said Atul Grover, MD, PhD, executive director of the Research and Action Institute. “That’s a big difference between states where there are abortion bans and gestational limits and states with no bans or limits; it’s almost twice as large,” Dr. Grover said in an interview. “The question is: Was it a 1-year blip or something that will be the beginning of a trend?”
In a statement to this news organization, officials from the American College of Obstetricians and Gynecologists and the Association of Professors of Gynecology and Obstetrics said that they were aware of the AAMC data but needed to further evaluate the impact of the Dobbs ruling.
A survey released at ACOG’s annual meeting in May found that 58% of third- and fourth-year medical students were unlikely to apply to a residency program in a state with abortion restrictions. Conducted after the Dobbs ruling last year, the survey found that future physicians are choosing where to attend residency according to state abortion policies, indicating that access to abortion care is changing the landscape of medical practice.
“For personal as well as professional reasons, reproductive health care access is now a key factor in residency match decisions as a result of Dobbs,” lead author Ariana Traub, MPH, said. She studies at Emory University, Atlanta, where abortion is restricted.
“Many students, including myself, struggle when trying to decide whether to stay in restricted states where the need is greatest (highest maternal mortality, infant mortality, lower number of physicians), versus going to an unrestricted state” for more comprehensive training and care, Ms. Traub said. “Regardless of this decision, Dobbs and subsequent abortion laws are making students question what matters most and how they can provide the best care.”
In another recently published survey, University of Miami fourth-year student Morgan Levy, MD, MPH, and colleagues found that 77% of students would prefer to apply to a residency program in a state that preserves access to abortion. Ensuring access to those services for themselves or a family member was a key factor, according to the paper published in the Journal of General Internal Medicine.
For Dr. Levy, who recently graduated from a school in abortion-restricted Florida and will soon apply to ob.gyn. residencies, the Dobbs decision made her more committed to becoming an ob.gyn., an interest she’s had since college, she said.
“I do not intend to limit my search,” Dr. Levy said in an interview. “In the states where there are restrictions in place, it’s really important to make sure that people are getting good care,” she said.
Differing perspective
Though survey and anecdotal data show that students and residents expressing hesitation about states with bans or restrictive laws, it appears that most who applied to residency programs during the 2023 Match did not shy away from those states. Almost all the open ob.gyn. residency positions were filled, according to the National Resident Matching Program.
There was no change in how U.S. MD seniors applying for 2023 residency ranked programs on the basis of whether abortion was legal, limited, or banned in the state where a program was based, Donna Lamb, DHSc, MBA, BSN, president and CEO of the NRMP, said.
“We’re seeing what we’ve seen over the past 5 years, and that is a very high fill rate, a very high rate of preference for ob.gyn., and not a heck of a lot of change,” Dr. Lamb said, noting that ob.gyn. programs continue to be very competitive. “We have more applicants than we have positions available,” she said.
In the most recent Match, there were 2,100 applicants (more than half U.S. MD seniors) for about 1,500 slots, with 1,499 initial matches, according to NRMP data. The overall fill rate was 99.7% after the Supplemental Offer and Assistance Program and Electronic Residency Applications process, NRMP reported. The results are similar to what NRMP reported as its previous all-time high year for ob.gyn. placements.
There was a dip in applicants from 2022 to 2023, even though the slots available stayed the same, but it was not markedly different from the previous 5 years, Dr. Lamb said.
“While the Dobbs decision may, indeed, have impacted applicant and application numbers to residency programs, interventions such as signaling may also contribute to the decrease in numbers of applications submitted as well,” AnnaMarie Connolly, MD, ACOG chief of education and academic affairs, and Arthur Ollendorff, MD, APOG president, said in a statement to this news organization.
For the first time in 2022, Match Day applicants were required to “signal” interest in a particular program in an effort to reduce the number of applications and cost to medical students, they noted.
Personal view
When it was time for Dr. Gibson to apply for ob.gyn. residencies, she wondered: Where do you apply in this landscape? But she did not limit her applications: “If I don’t apply to Indiana, Missouri, Tennessee, Wisconsin, Iowa, I’m taking a lot of really great programs off the table.” She did not want to hurt her chances for a match in a competitive specialty, she said.
“Being in Tennessee is going to give me a very different, unique opportunity to hopefully do a lot of advocacy and lobbying and hopefully have my voice heard in maybe a different way than [in Illinois],” Dr. Gibson added.
Cassie Crifase, MPH, a fourth-year student at the University of Wisconsin–Madison applying to ob.gyn. residencies in next year’s Match, said in an interview that she’s concerned about the health risk of living in a state with abortion restrictions. Wisconsin is one of those.
“My list skews toward programs that are in abortion-protected states, but I also am applying to some programs that are in restricted states.” Those states would have to help her meet the Accreditation Council for Graduate Medical Education training requirements. And, she said, she’d want to know if she could still advocate for abortion access in the state.
Sereena Jivraj, a third-year medical student at Texas Christian University in Fort Worth, said that she won’t apply to programs in Alabama, Mississippi, Arkansas, and other nearby states with abortion restrictions. However, Texas is still on her list. “I’m from Texas, my family lives in Texas, and I go to school in Fort Worth, so I have made those connections,” Ms. Jivraj said.
Student advisers generally encourage ob.gyn. hopefuls to apply to 60-100 programs to ensure that they will match, Ms. Jivraj said. “How are you supposed to apply to 100 programs if many of them fall within states with high restrictions?”
What the future holds
Ms. Jivraj said that she’s concerned about what the future holds, especially if the law does not change in Texas. “I don’t want to go to work every day wondering if I’m going to go to jail for something that I say,” she said.
Dr. Crifase has similar fears. “I want to be able to provide the best care for my patients and that would require being able to do those procedures without having to have my first thought be: Is this legal?”
“Things feel very volatile and uncertain,” Pamela Merritt, executive director of the nonprofit Medical Students for Choice in Philadelphia, where abortion is permitted, said. “What we’re asking medical students to do right now is to envision a future in a profession, a lifetime of providing care, where the policies and procedures and standards of the profession are under attack by 26 state legislatures and the federal court system,” she said.
“I don’t think you’re going to see people as willing to take risk.” She added that if someone matches to a program and then has regrets, “You can’t easily jump from residency program to residency program.”
Dr. Levy believes that the impact of the Dobbs decision is “definitely going to be a more common question of applicants to their potential programs.”
Applicants undoubtedly are thinking about how abortion restrictions or bans might affect their own health or that of their partners or families, she said. In a 2022 survey, Dr. Levy and colleagues reported that abortion is not uncommon among physicians, with 11.5% of the 1,566 respondents who had been pregnant saying they had at least one therapeutic abortion.
Students are also considering the potential ramification of a ban on emergency contraception and laws that criminalize physicians’ provision of abortion care, Dr. Levy said. Another complicating factor is individuals’ family ties or roots in specific geographic areas, she said.
Prospective residents will also have a lot of questions about how they will receive family planning training, Dr. Levy commented. “If you’re somewhere that you can’t really provide full-spectrum reproductive health care, then the question will become: How is the program going to provide that training?”
A version of this article first appeared on Medscape.com.
New bill would provide greater length of time to sue doctors
A bill in the Maine legislature would have the medical malpractice statute of limitations clock start running when a patient discovers the negligence, which could be years after treatment took place. And other states could follow suit with similar bills. What danger does this pose for doctors?
As it stands, the time limit for patients to be able to bring a medical malpractice lawsuit varies by state.
“The theory behind a statute of limitations is that states want to provide a reasonable, but not indefinite, amount of time for someone to bring a case to court,” says Patrick T. O’Rourke, Esq., adjunct professor at University of Colorado School of Law, Boulder.
Without a statute of limitations, people could bring claims many years after the fact, which makes it harder to obtain and preserve evidence, Mr. O’Rourke says.
In most cases, it isn’t necessary for a patient to know the full extent of their injury or that their physician acted wrongfully or negligently for the statute of limitations to begin running.
Time of injury versus time of discovery
Most states’ laws dictate that the statute of limitations begins at a set time “after the cause of action accrues.” That means that the clock starts ticking from the date of the procedure, surgery, or treatment. In most states, that time is 2 or 3 years.
This can bar some patients from taking any action at all because the statute of limitations ran out. Because of these hurdles, the proposed bill in Maine would extend the statute of limitations.
Proponents of the bill say that patients would still have 3 years to file suit; it just changes when the clock starts. But opponents feel it could open the door to a limitless system in which people have an indefinite time to sue.
Many states already have discovery rules that extend the statute of limitations when the harm was not immediately obvious to the patient. The legal expectation is that patients who have significant pain or unexpected health conditions will seek medical treatment to investigate what’s wrong. Patients who don’t address the situation promptly are not protected by the discovery rule.
“It is the injured person’s obligation, once learning of the injury, to take action to protect their rights,” says Mr. O’Rourke.
Some states have also enacted other claims requirements in medical malpractice cases that are prerequisites for bringing lawsuits that have periods attached to them. For instance, in Florida, parties have 10 days to provide relevant medical records during the investigation period for a malpractice suit, and in Maine, before filing any malpractice action, a plaintiff must file a complaint with a prelitigation screening panel.
Medical malpractice statutes of limitations by state
Although each state has a basic statute of limitations, many states also include clauses for discovery rules. For example, in Vermont, in addition to the 3-year statute of limitations, a patient can pursue legal recourse “2 years from the date the injury is or reasonably should have been discovered, whichever occurs later, but not later than 7 years from the date of the incident.”
In some states, such as Virginia, special extensions apply in cases in which fraud, concealment, or intentional misrepresentation prevented discovery of the injury within the statute of limitations. And in most states, the statute of limitations is much longer for cases in which medical malpractice involves a child, usually at least until the child turns 18.
Statutes of limitations by state
1 Year: California, Kentucky, Louisiana, Ohio, Tennessee
2 Years: Alabama, Alaska, Arizona, Arkansas, Colorado, Connecticut, Delaware, Florida, Georgia, Hawaii, Idaho, Illinois, Indiana, Iowa, Kansas, Michigan, Mississippi, Missouri, Nebraska, New Hampshire, New Jersey, North Dakota, Oklahoma, Oregon, Pennsylvania, South Dakota, Texas, Utah, Virginia, West Virginia, Wyoming
2.5 Years: New York
3 Years: Washington D.C., Maine, Maryland, Massachusetts, Montana, Nevada, New Mexico, North Carolina, Rhode Island, South Carolina, Vermont, Washington, Wisconsin
4 Years: Minnesota
To protect yourself
Mr. O’Rourke says that if your state enacts a law that extends the statute of limitations for medical malpractice, there aren’t any proactive changes you need to make in terms of your day-to-day practice of medicine.
“Physicians should continue to provide care that is consistent with the standards of care for their specialty and ensure that the documentation accurately reflects the care they rendered,” he says.
Always be candid and up-front about a patient’s condition, Mr. O’Rourke says, especially if malpractice is on the table.
“If a physician misleads a patient about the nature or extent of an injury, that could prevent the statute of limitations from beginning to run,” he says. “Being open and honest about an injury doesn’t mean that a physician must admit any fault. The patient is owed timely, accurate, and candid information about their condition.”
Keep good records
If the statute of limitations increases, you’ll need to have access to the medical records for as long as the statute is in place, but this shouldn’t have an effect on your records keeping if you’re up to date with HIPAA compliance, says Mr. O’Rourke.
“I don’t think an extension of the statute should cause physicians to change their practices, particularly with the retention of medical records, which should be maintained consistently with HIPAA requirements irrespective of the limitations period in a particular state,” he adds.
Keep an eye on malpractice insurance rates
It’s possible that your malpractice insurance could go up as a result of laws that increase the statute of limitations. But Mr. O’Rourke thinks it likely won’t be a significant amount.
He says it’s “theoretically possible” that an increase in a limitations period could result in an increase in your malpractice insurance, since some claims that would otherwise have been barred because of time could then proceed, but the increase would be nominal.
“I would expect any increase to be fairly marginal because the majority of claims will already be accounted for on an actuarial basis,” he says. “I also don’t think that the extension of a limitations period would increase the award of damages in a particular case. The injuries should be the same under either limitations period, so the compensable loss should not increase.”
Anything that makes it easier for patients to recover should increase the cost of professional liability insurance, and vice versa, says Charles Silver, McDonald Endowed Chair in Civil Procedure at University of Texas at Austin School of Law and coauthor of “Medical Malpractice Litigation: How It Works – Why Tort Reform Hasn’t Helped.” But the long-term trend across the country is toward declining rates of liability and declining payouts on claims.
“The likelihood of being sued successfully by a former patient is low, as is the risk of having to pay out of pocket to settle a claim,” he says. In 2022, the number of adverse reports nationally was 38,938, and out of those, 10,807 resulted in a payout.
In his research on medical malpractice in Texas, Mr. Silver says physicians who carried $1 million in coverage essentially never faced any personal liability on medical malpractice claims. “[This means] that they never had to write a check to a victim,” he says. “Insurers provided all the money. I suspect that the same is true nationwide.”
Key takeaways
Ultimately, to protect yourself and your practice, you can do the following:
- Know the statute of limitations and discovery rules for your state.
- Review your coverage with your insurer to better understand your liability.
- Keep accurate records for as long as your statute requires.
- Notify your insurer or risk management department as soon as possible in the event of an adverse outcome with a patient, Mr. O’Rourke advises.
“The most important thing a physician can do to avoid being sued, even when negligent, is to treat patients with kindness and respect,” says Mr. Silver. “Patients don’t expect doctors to be perfect, and they rarely sue doctors they like.”
A version of this article first appeared on Medscape.com.
A bill in the Maine legislature would have the medical malpractice statute of limitations clock start running when a patient discovers the negligence, which could be years after treatment took place. And other states could follow suit with similar bills. What danger does this pose for doctors?
As it stands, the time limit for patients to be able to bring a medical malpractice lawsuit varies by state.
“The theory behind a statute of limitations is that states want to provide a reasonable, but not indefinite, amount of time for someone to bring a case to court,” says Patrick T. O’Rourke, Esq., adjunct professor at University of Colorado School of Law, Boulder.
Without a statute of limitations, people could bring claims many years after the fact, which makes it harder to obtain and preserve evidence, Mr. O’Rourke says.
In most cases, it isn’t necessary for a patient to know the full extent of their injury or that their physician acted wrongfully or negligently for the statute of limitations to begin running.
Time of injury versus time of discovery
Most states’ laws dictate that the statute of limitations begins at a set time “after the cause of action accrues.” That means that the clock starts ticking from the date of the procedure, surgery, or treatment. In most states, that time is 2 or 3 years.
This can bar some patients from taking any action at all because the statute of limitations ran out. Because of these hurdles, the proposed bill in Maine would extend the statute of limitations.
Proponents of the bill say that patients would still have 3 years to file suit; it just changes when the clock starts. But opponents feel it could open the door to a limitless system in which people have an indefinite time to sue.
Many states already have discovery rules that extend the statute of limitations when the harm was not immediately obvious to the patient. The legal expectation is that patients who have significant pain or unexpected health conditions will seek medical treatment to investigate what’s wrong. Patients who don’t address the situation promptly are not protected by the discovery rule.
“It is the injured person’s obligation, once learning of the injury, to take action to protect their rights,” says Mr. O’Rourke.
Some states have also enacted other claims requirements in medical malpractice cases that are prerequisites for bringing lawsuits that have periods attached to them. For instance, in Florida, parties have 10 days to provide relevant medical records during the investigation period for a malpractice suit, and in Maine, before filing any malpractice action, a plaintiff must file a complaint with a prelitigation screening panel.
Medical malpractice statutes of limitations by state
Although each state has a basic statute of limitations, many states also include clauses for discovery rules. For example, in Vermont, in addition to the 3-year statute of limitations, a patient can pursue legal recourse “2 years from the date the injury is or reasonably should have been discovered, whichever occurs later, but not later than 7 years from the date of the incident.”
In some states, such as Virginia, special extensions apply in cases in which fraud, concealment, or intentional misrepresentation prevented discovery of the injury within the statute of limitations. And in most states, the statute of limitations is much longer for cases in which medical malpractice involves a child, usually at least until the child turns 18.
Statutes of limitations by state
1 Year: California, Kentucky, Louisiana, Ohio, Tennessee
2 Years: Alabama, Alaska, Arizona, Arkansas, Colorado, Connecticut, Delaware, Florida, Georgia, Hawaii, Idaho, Illinois, Indiana, Iowa, Kansas, Michigan, Mississippi, Missouri, Nebraska, New Hampshire, New Jersey, North Dakota, Oklahoma, Oregon, Pennsylvania, South Dakota, Texas, Utah, Virginia, West Virginia, Wyoming
2.5 Years: New York
3 Years: Washington D.C., Maine, Maryland, Massachusetts, Montana, Nevada, New Mexico, North Carolina, Rhode Island, South Carolina, Vermont, Washington, Wisconsin
4 Years: Minnesota
To protect yourself
Mr. O’Rourke says that if your state enacts a law that extends the statute of limitations for medical malpractice, there aren’t any proactive changes you need to make in terms of your day-to-day practice of medicine.
“Physicians should continue to provide care that is consistent with the standards of care for their specialty and ensure that the documentation accurately reflects the care they rendered,” he says.
Always be candid and up-front about a patient’s condition, Mr. O’Rourke says, especially if malpractice is on the table.
“If a physician misleads a patient about the nature or extent of an injury, that could prevent the statute of limitations from beginning to run,” he says. “Being open and honest about an injury doesn’t mean that a physician must admit any fault. The patient is owed timely, accurate, and candid information about their condition.”
Keep good records
If the statute of limitations increases, you’ll need to have access to the medical records for as long as the statute is in place, but this shouldn’t have an effect on your records keeping if you’re up to date with HIPAA compliance, says Mr. O’Rourke.
“I don’t think an extension of the statute should cause physicians to change their practices, particularly with the retention of medical records, which should be maintained consistently with HIPAA requirements irrespective of the limitations period in a particular state,” he adds.
Keep an eye on malpractice insurance rates
It’s possible that your malpractice insurance could go up as a result of laws that increase the statute of limitations. But Mr. O’Rourke thinks it likely won’t be a significant amount.
He says it’s “theoretically possible” that an increase in a limitations period could result in an increase in your malpractice insurance, since some claims that would otherwise have been barred because of time could then proceed, but the increase would be nominal.
“I would expect any increase to be fairly marginal because the majority of claims will already be accounted for on an actuarial basis,” he says. “I also don’t think that the extension of a limitations period would increase the award of damages in a particular case. The injuries should be the same under either limitations period, so the compensable loss should not increase.”
Anything that makes it easier for patients to recover should increase the cost of professional liability insurance, and vice versa, says Charles Silver, McDonald Endowed Chair in Civil Procedure at University of Texas at Austin School of Law and coauthor of “Medical Malpractice Litigation: How It Works – Why Tort Reform Hasn’t Helped.” But the long-term trend across the country is toward declining rates of liability and declining payouts on claims.
“The likelihood of being sued successfully by a former patient is low, as is the risk of having to pay out of pocket to settle a claim,” he says. In 2022, the number of adverse reports nationally was 38,938, and out of those, 10,807 resulted in a payout.
In his research on medical malpractice in Texas, Mr. Silver says physicians who carried $1 million in coverage essentially never faced any personal liability on medical malpractice claims. “[This means] that they never had to write a check to a victim,” he says. “Insurers provided all the money. I suspect that the same is true nationwide.”
Key takeaways
Ultimately, to protect yourself and your practice, you can do the following:
- Know the statute of limitations and discovery rules for your state.
- Review your coverage with your insurer to better understand your liability.
- Keep accurate records for as long as your statute requires.
- Notify your insurer or risk management department as soon as possible in the event of an adverse outcome with a patient, Mr. O’Rourke advises.
“The most important thing a physician can do to avoid being sued, even when negligent, is to treat patients with kindness and respect,” says Mr. Silver. “Patients don’t expect doctors to be perfect, and they rarely sue doctors they like.”
A version of this article first appeared on Medscape.com.
A bill in the Maine legislature would have the medical malpractice statute of limitations clock start running when a patient discovers the negligence, which could be years after treatment took place. And other states could follow suit with similar bills. What danger does this pose for doctors?
As it stands, the time limit for patients to be able to bring a medical malpractice lawsuit varies by state.
“The theory behind a statute of limitations is that states want to provide a reasonable, but not indefinite, amount of time for someone to bring a case to court,” says Patrick T. O’Rourke, Esq., adjunct professor at University of Colorado School of Law, Boulder.
Without a statute of limitations, people could bring claims many years after the fact, which makes it harder to obtain and preserve evidence, Mr. O’Rourke says.
In most cases, it isn’t necessary for a patient to know the full extent of their injury or that their physician acted wrongfully or negligently for the statute of limitations to begin running.
Time of injury versus time of discovery
Most states’ laws dictate that the statute of limitations begins at a set time “after the cause of action accrues.” That means that the clock starts ticking from the date of the procedure, surgery, or treatment. In most states, that time is 2 or 3 years.
This can bar some patients from taking any action at all because the statute of limitations ran out. Because of these hurdles, the proposed bill in Maine would extend the statute of limitations.
Proponents of the bill say that patients would still have 3 years to file suit; it just changes when the clock starts. But opponents feel it could open the door to a limitless system in which people have an indefinite time to sue.
Many states already have discovery rules that extend the statute of limitations when the harm was not immediately obvious to the patient. The legal expectation is that patients who have significant pain or unexpected health conditions will seek medical treatment to investigate what’s wrong. Patients who don’t address the situation promptly are not protected by the discovery rule.
“It is the injured person’s obligation, once learning of the injury, to take action to protect their rights,” says Mr. O’Rourke.
Some states have also enacted other claims requirements in medical malpractice cases that are prerequisites for bringing lawsuits that have periods attached to them. For instance, in Florida, parties have 10 days to provide relevant medical records during the investigation period for a malpractice suit, and in Maine, before filing any malpractice action, a plaintiff must file a complaint with a prelitigation screening panel.
Medical malpractice statutes of limitations by state
Although each state has a basic statute of limitations, many states also include clauses for discovery rules. For example, in Vermont, in addition to the 3-year statute of limitations, a patient can pursue legal recourse “2 years from the date the injury is or reasonably should have been discovered, whichever occurs later, but not later than 7 years from the date of the incident.”
In some states, such as Virginia, special extensions apply in cases in which fraud, concealment, or intentional misrepresentation prevented discovery of the injury within the statute of limitations. And in most states, the statute of limitations is much longer for cases in which medical malpractice involves a child, usually at least until the child turns 18.
Statutes of limitations by state
1 Year: California, Kentucky, Louisiana, Ohio, Tennessee
2 Years: Alabama, Alaska, Arizona, Arkansas, Colorado, Connecticut, Delaware, Florida, Georgia, Hawaii, Idaho, Illinois, Indiana, Iowa, Kansas, Michigan, Mississippi, Missouri, Nebraska, New Hampshire, New Jersey, North Dakota, Oklahoma, Oregon, Pennsylvania, South Dakota, Texas, Utah, Virginia, West Virginia, Wyoming
2.5 Years: New York
3 Years: Washington D.C., Maine, Maryland, Massachusetts, Montana, Nevada, New Mexico, North Carolina, Rhode Island, South Carolina, Vermont, Washington, Wisconsin
4 Years: Minnesota
To protect yourself
Mr. O’Rourke says that if your state enacts a law that extends the statute of limitations for medical malpractice, there aren’t any proactive changes you need to make in terms of your day-to-day practice of medicine.
“Physicians should continue to provide care that is consistent with the standards of care for their specialty and ensure that the documentation accurately reflects the care they rendered,” he says.
Always be candid and up-front about a patient’s condition, Mr. O’Rourke says, especially if malpractice is on the table.
“If a physician misleads a patient about the nature or extent of an injury, that could prevent the statute of limitations from beginning to run,” he says. “Being open and honest about an injury doesn’t mean that a physician must admit any fault. The patient is owed timely, accurate, and candid information about their condition.”
Keep good records
If the statute of limitations increases, you’ll need to have access to the medical records for as long as the statute is in place, but this shouldn’t have an effect on your records keeping if you’re up to date with HIPAA compliance, says Mr. O’Rourke.
“I don’t think an extension of the statute should cause physicians to change their practices, particularly with the retention of medical records, which should be maintained consistently with HIPAA requirements irrespective of the limitations period in a particular state,” he adds.
Keep an eye on malpractice insurance rates
It’s possible that your malpractice insurance could go up as a result of laws that increase the statute of limitations. But Mr. O’Rourke thinks it likely won’t be a significant amount.
He says it’s “theoretically possible” that an increase in a limitations period could result in an increase in your malpractice insurance, since some claims that would otherwise have been barred because of time could then proceed, but the increase would be nominal.
“I would expect any increase to be fairly marginal because the majority of claims will already be accounted for on an actuarial basis,” he says. “I also don’t think that the extension of a limitations period would increase the award of damages in a particular case. The injuries should be the same under either limitations period, so the compensable loss should not increase.”
Anything that makes it easier for patients to recover should increase the cost of professional liability insurance, and vice versa, says Charles Silver, McDonald Endowed Chair in Civil Procedure at University of Texas at Austin School of Law and coauthor of “Medical Malpractice Litigation: How It Works – Why Tort Reform Hasn’t Helped.” But the long-term trend across the country is toward declining rates of liability and declining payouts on claims.
“The likelihood of being sued successfully by a former patient is low, as is the risk of having to pay out of pocket to settle a claim,” he says. In 2022, the number of adverse reports nationally was 38,938, and out of those, 10,807 resulted in a payout.
In his research on medical malpractice in Texas, Mr. Silver says physicians who carried $1 million in coverage essentially never faced any personal liability on medical malpractice claims. “[This means] that they never had to write a check to a victim,” he says. “Insurers provided all the money. I suspect that the same is true nationwide.”
Key takeaways
Ultimately, to protect yourself and your practice, you can do the following:
- Know the statute of limitations and discovery rules for your state.
- Review your coverage with your insurer to better understand your liability.
- Keep accurate records for as long as your statute requires.
- Notify your insurer or risk management department as soon as possible in the event of an adverse outcome with a patient, Mr. O’Rourke advises.
“The most important thing a physician can do to avoid being sued, even when negligent, is to treat patients with kindness and respect,” says Mr. Silver. “Patients don’t expect doctors to be perfect, and they rarely sue doctors they like.”
A version of this article first appeared on Medscape.com.
Protecting your practice data
While data protection is important in any industry, it is particularly critical in health care because in addition to the usual financial records, trade secrets, and other valuable data, confidential patient information is also at risk.
You may think that your computer vendor is responsible for safeguarding your data, but third parties can only do so much. And if your data is compromised, the ultimate responsibility is yours – not to mention the financial loss, and the damage to your practice’s reputation.
In addition to the security vulnerabilities inherent in any system, there are external vulnerabilities, such as weak passwords, viruses, and hacking (either externally or internally). And as hardware becomes more and more portable, there is the increasing risk of theft of platforms and storage media containing confidential data.
A close and ongoing relationship with your hardware and software vendors is essential to good data protection. Your office should have a permanent contact at each company, and you should talk to them regularly. Ask them what sort of firewalls, antivirus software, and other safeguards are in place to protect your system. Whenever they identify a bug or other vulnerability, you should know about it. They should tell you about each software update, what improvements it makes, and what defects it fixes. You should also know about any changes to your data encryption.
Encryption has become an essential component of data protection. It is especially important if you use portable devices such as laptops, pads, or smart phones to store and transport patient information. If you lose one of these devices, or a thumb drive or other storage media, HIPAA will probably not consider it a breach if the data it contains is encrypted.
Encryption isn’t perfect, of course. Log-in credentials can be stolen; and data that is stored in house is can be hacked with malware and phishing techniques, especially if the key to decryption is located on that server. And make sure that employees are not putting any medical data on their own private (unencrypted) devices.
Each employee should have his or her own password, and sharing should be strictly prohibited. Multifactor authentication is becoming increasingly popular for an extra level of security.
Your vendor should require you to change your passwords every few months. If it doesn’t, you need to establish a timetable to do it yourself. All passwords should be strong (no birthdays, pet names, etc.), and they shouldn’t be the same or similar to old passwords.
In some offices, I’ve been surprised to see that every employee has unrestricted access to all practice data. The vulnerabilities of such an arrangement are obvious. There is no reason why receptionists, for example, should have access to medical histories, and insurance people don’t need to know what medications a patient is on. Your vendor can help you design partitions that restrict each employee to only the information they need access to.
Ask if your vendor provides security training for employees. If not, look into hiring a security firm to do it. Regular security training can help employees to recognize data security attacks like phishing, and instills a heightened sense of security awareness and vigilance among staff. They will also gain a better understanding of the role they play in maintaining the overall security of your office.
It goes without saying that third parties, such as business vendors, payers, and managed care providers, should never have access to patient records or other personal health information.
Backing up data
I have written many times about the importance of regularly backing up your data. Industry statistics show that fully 10% of hard drives fail in any given year, and 43% of computer users lose one or more files every year in the form of clinical data, financial records, photos, email, documents, and other important information. Recovery of lost data, when it’s possible at all, can be very expensive.
Even if your EHR vendor backs up your data, you should consider making a separate backup of your own. Backup drives have been known to fail too; and if you decide to switch computer vendors, you don’t want to be at the mercy of the old company that might be reluctant to transfer your data without a hefty payment.
The first rule of backing up is to store your backup drives in a different location from your computers. Unfortunately, that’s a pain; and external drives can be lost or stolen, creating a HIPAA nightmare. So an increasingly popular alternative is automatic remote backup. Several companies offer that service, and the cost is very reasonable for individual computers. Backing up an entire office costs more, depending on how many computers and/or servers you have, but it’s still very reasonable and includes other services, such as operating system and network share support.
The procedure is simple: You create an account and tell the service which files you want copied. Your first backup can take a long time, often days, depending on how much data you are sending and how fast your Internet connection runs. After that the program runs in the background, copying only those files that have changed since the previous backup. Files are encrypted before leaving your computer, and they remain encrypted at the service’s data center, making them HIPAA compliant and, theoretically, only accessible by you.
Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].
While data protection is important in any industry, it is particularly critical in health care because in addition to the usual financial records, trade secrets, and other valuable data, confidential patient information is also at risk.
You may think that your computer vendor is responsible for safeguarding your data, but third parties can only do so much. And if your data is compromised, the ultimate responsibility is yours – not to mention the financial loss, and the damage to your practice’s reputation.
In addition to the security vulnerabilities inherent in any system, there are external vulnerabilities, such as weak passwords, viruses, and hacking (either externally or internally). And as hardware becomes more and more portable, there is the increasing risk of theft of platforms and storage media containing confidential data.
A close and ongoing relationship with your hardware and software vendors is essential to good data protection. Your office should have a permanent contact at each company, and you should talk to them regularly. Ask them what sort of firewalls, antivirus software, and other safeguards are in place to protect your system. Whenever they identify a bug or other vulnerability, you should know about it. They should tell you about each software update, what improvements it makes, and what defects it fixes. You should also know about any changes to your data encryption.
Encryption has become an essential component of data protection. It is especially important if you use portable devices such as laptops, pads, or smart phones to store and transport patient information. If you lose one of these devices, or a thumb drive or other storage media, HIPAA will probably not consider it a breach if the data it contains is encrypted.
Encryption isn’t perfect, of course. Log-in credentials can be stolen; and data that is stored in house is can be hacked with malware and phishing techniques, especially if the key to decryption is located on that server. And make sure that employees are not putting any medical data on their own private (unencrypted) devices.
Each employee should have his or her own password, and sharing should be strictly prohibited. Multifactor authentication is becoming increasingly popular for an extra level of security.
Your vendor should require you to change your passwords every few months. If it doesn’t, you need to establish a timetable to do it yourself. All passwords should be strong (no birthdays, pet names, etc.), and they shouldn’t be the same or similar to old passwords.
In some offices, I’ve been surprised to see that every employee has unrestricted access to all practice data. The vulnerabilities of such an arrangement are obvious. There is no reason why receptionists, for example, should have access to medical histories, and insurance people don’t need to know what medications a patient is on. Your vendor can help you design partitions that restrict each employee to only the information they need access to.
Ask if your vendor provides security training for employees. If not, look into hiring a security firm to do it. Regular security training can help employees to recognize data security attacks like phishing, and instills a heightened sense of security awareness and vigilance among staff. They will also gain a better understanding of the role they play in maintaining the overall security of your office.
It goes without saying that third parties, such as business vendors, payers, and managed care providers, should never have access to patient records or other personal health information.
Backing up data
I have written many times about the importance of regularly backing up your data. Industry statistics show that fully 10% of hard drives fail in any given year, and 43% of computer users lose one or more files every year in the form of clinical data, financial records, photos, email, documents, and other important information. Recovery of lost data, when it’s possible at all, can be very expensive.
Even if your EHR vendor backs up your data, you should consider making a separate backup of your own. Backup drives have been known to fail too; and if you decide to switch computer vendors, you don’t want to be at the mercy of the old company that might be reluctant to transfer your data without a hefty payment.
The first rule of backing up is to store your backup drives in a different location from your computers. Unfortunately, that’s a pain; and external drives can be lost or stolen, creating a HIPAA nightmare. So an increasingly popular alternative is automatic remote backup. Several companies offer that service, and the cost is very reasonable for individual computers. Backing up an entire office costs more, depending on how many computers and/or servers you have, but it’s still very reasonable and includes other services, such as operating system and network share support.
The procedure is simple: You create an account and tell the service which files you want copied. Your first backup can take a long time, often days, depending on how much data you are sending and how fast your Internet connection runs. After that the program runs in the background, copying only those files that have changed since the previous backup. Files are encrypted before leaving your computer, and they remain encrypted at the service’s data center, making them HIPAA compliant and, theoretically, only accessible by you.
Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].
While data protection is important in any industry, it is particularly critical in health care because in addition to the usual financial records, trade secrets, and other valuable data, confidential patient information is also at risk.
You may think that your computer vendor is responsible for safeguarding your data, but third parties can only do so much. And if your data is compromised, the ultimate responsibility is yours – not to mention the financial loss, and the damage to your practice’s reputation.
In addition to the security vulnerabilities inherent in any system, there are external vulnerabilities, such as weak passwords, viruses, and hacking (either externally or internally). And as hardware becomes more and more portable, there is the increasing risk of theft of platforms and storage media containing confidential data.
A close and ongoing relationship with your hardware and software vendors is essential to good data protection. Your office should have a permanent contact at each company, and you should talk to them regularly. Ask them what sort of firewalls, antivirus software, and other safeguards are in place to protect your system. Whenever they identify a bug or other vulnerability, you should know about it. They should tell you about each software update, what improvements it makes, and what defects it fixes. You should also know about any changes to your data encryption.
Encryption has become an essential component of data protection. It is especially important if you use portable devices such as laptops, pads, or smart phones to store and transport patient information. If you lose one of these devices, or a thumb drive or other storage media, HIPAA will probably not consider it a breach if the data it contains is encrypted.
Encryption isn’t perfect, of course. Log-in credentials can be stolen; and data that is stored in house is can be hacked with malware and phishing techniques, especially if the key to decryption is located on that server. And make sure that employees are not putting any medical data on their own private (unencrypted) devices.
Each employee should have his or her own password, and sharing should be strictly prohibited. Multifactor authentication is becoming increasingly popular for an extra level of security.
Your vendor should require you to change your passwords every few months. If it doesn’t, you need to establish a timetable to do it yourself. All passwords should be strong (no birthdays, pet names, etc.), and they shouldn’t be the same or similar to old passwords.
In some offices, I’ve been surprised to see that every employee has unrestricted access to all practice data. The vulnerabilities of such an arrangement are obvious. There is no reason why receptionists, for example, should have access to medical histories, and insurance people don’t need to know what medications a patient is on. Your vendor can help you design partitions that restrict each employee to only the information they need access to.
Ask if your vendor provides security training for employees. If not, look into hiring a security firm to do it. Regular security training can help employees to recognize data security attacks like phishing, and instills a heightened sense of security awareness and vigilance among staff. They will also gain a better understanding of the role they play in maintaining the overall security of your office.
It goes without saying that third parties, such as business vendors, payers, and managed care providers, should never have access to patient records or other personal health information.
Backing up data
I have written many times about the importance of regularly backing up your data. Industry statistics show that fully 10% of hard drives fail in any given year, and 43% of computer users lose one or more files every year in the form of clinical data, financial records, photos, email, documents, and other important information. Recovery of lost data, when it’s possible at all, can be very expensive.
Even if your EHR vendor backs up your data, you should consider making a separate backup of your own. Backup drives have been known to fail too; and if you decide to switch computer vendors, you don’t want to be at the mercy of the old company that might be reluctant to transfer your data without a hefty payment.
The first rule of backing up is to store your backup drives in a different location from your computers. Unfortunately, that’s a pain; and external drives can be lost or stolen, creating a HIPAA nightmare. So an increasingly popular alternative is automatic remote backup. Several companies offer that service, and the cost is very reasonable for individual computers. Backing up an entire office costs more, depending on how many computers and/or servers you have, but it’s still very reasonable and includes other services, such as operating system and network share support.
The procedure is simple: You create an account and tell the service which files you want copied. Your first backup can take a long time, often days, depending on how much data you are sending and how fast your Internet connection runs. After that the program runs in the background, copying only those files that have changed since the previous backup. Files are encrypted before leaving your computer, and they remain encrypted at the service’s data center, making them HIPAA compliant and, theoretically, only accessible by you.
Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].
WOW! You spend that much time on the EHR?
Unlike many of you, maybe even most of you, I can recall when my office records were handwritten, some would say scribbled, on pieces of paper. They were decipherable by a select few. Some veteran assistants never mastered the skill. Pages were sometimes lavishly illustrated with drawings of body parts, often because I couldn’t remember or spell the correct anatomic term. When I needed to send a referring letter to another provider I typed it myself because dictating never quite suited my personality.
When I joined a small primary care group, the computer-savvy lead physician and a programmer developed our own homegrown EHR. It relied on scanning documents, as so many of us still generated handwritten notes. Even the most vociferous Luddites among us loved the system from day 2.
However, for a variety of reasons, some defensible some just plain bad, our beloved system needed to be replaced after 7 years. We then invested in an off-the-shelf EHR system that promised more capabilities. We were told there would be a learning curve but the plateau would come quickly and we would enjoy our new electronic assistant.
You’ve lived the rest of the story. The learning curve was steep and long and the plateau was a time gobbler. I was probably the most efficient provider in the group, and after 6 months I was leaving the office an hour later than I had been and was seeing the same number of patients. Most of my coworkers were staying and/or working on the computer at home for an extra 2 hours. This change could be easily documented by speaking with our spouses and children. I understand from my colleagues who have stayed in the business that over the ensuing decade and a half since my first experience with the EHR, its insatiable appetite for a clinician’s time has not abated.
The authors of a recent article in Annals of Family Medicine offer up some advice on how this tragic situation might be brought under control. First, the investigators point out that the phenomenon of after-hours EHR work, sometimes referred to as WOW (work outside of work), has not gone unnoticed by health system administrators and vendors who develop and sell the EHRs. However, analyzing the voluminous data necessary is not any easy task and for the most part has resulted in metrics that cannot be easily applied over a variety of practice scenarios. Many health care organizations, even large ones, have simply given up and rely on the WOW data and recommendations provided by the vendors, obviously lending the situation a faint odor of conflict of interest.
The bottom line is that . It would seem to me just asking the spouses and significant others of the clinicians would be sufficient. But, authors of the paper have more specific recommendations. First, they suggest that time working on the computer outside of scheduled time with patients should be separated from any other calculation of EHR usage. They encourage vendors and time-management researchers to develop standardized and validated methods for measuring active EHR use. And, finally they recommend that all EHR work done outside of time scheduled with patients be attributed to WOW. They feel that clearly labeling it work outside of work offers health care organizations a better chance of developing policies that will address the scourge of burnout.
This, unfortunately, is another tragic example of how clinicians have lost control of our work environments. The fact that 20 years have passed and there is still no standardized method for determining how much time we spend on the computer is more evidence we need to raise our voices.
Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].
Unlike many of you, maybe even most of you, I can recall when my office records were handwritten, some would say scribbled, on pieces of paper. They were decipherable by a select few. Some veteran assistants never mastered the skill. Pages were sometimes lavishly illustrated with drawings of body parts, often because I couldn’t remember or spell the correct anatomic term. When I needed to send a referring letter to another provider I typed it myself because dictating never quite suited my personality.
When I joined a small primary care group, the computer-savvy lead physician and a programmer developed our own homegrown EHR. It relied on scanning documents, as so many of us still generated handwritten notes. Even the most vociferous Luddites among us loved the system from day 2.
However, for a variety of reasons, some defensible some just plain bad, our beloved system needed to be replaced after 7 years. We then invested in an off-the-shelf EHR system that promised more capabilities. We were told there would be a learning curve but the plateau would come quickly and we would enjoy our new electronic assistant.
You’ve lived the rest of the story. The learning curve was steep and long and the plateau was a time gobbler. I was probably the most efficient provider in the group, and after 6 months I was leaving the office an hour later than I had been and was seeing the same number of patients. Most of my coworkers were staying and/or working on the computer at home for an extra 2 hours. This change could be easily documented by speaking with our spouses and children. I understand from my colleagues who have stayed in the business that over the ensuing decade and a half since my first experience with the EHR, its insatiable appetite for a clinician’s time has not abated.
The authors of a recent article in Annals of Family Medicine offer up some advice on how this tragic situation might be brought under control. First, the investigators point out that the phenomenon of after-hours EHR work, sometimes referred to as WOW (work outside of work), has not gone unnoticed by health system administrators and vendors who develop and sell the EHRs. However, analyzing the voluminous data necessary is not any easy task and for the most part has resulted in metrics that cannot be easily applied over a variety of practice scenarios. Many health care organizations, even large ones, have simply given up and rely on the WOW data and recommendations provided by the vendors, obviously lending the situation a faint odor of conflict of interest.
The bottom line is that . It would seem to me just asking the spouses and significant others of the clinicians would be sufficient. But, authors of the paper have more specific recommendations. First, they suggest that time working on the computer outside of scheduled time with patients should be separated from any other calculation of EHR usage. They encourage vendors and time-management researchers to develop standardized and validated methods for measuring active EHR use. And, finally they recommend that all EHR work done outside of time scheduled with patients be attributed to WOW. They feel that clearly labeling it work outside of work offers health care organizations a better chance of developing policies that will address the scourge of burnout.
This, unfortunately, is another tragic example of how clinicians have lost control of our work environments. The fact that 20 years have passed and there is still no standardized method for determining how much time we spend on the computer is more evidence we need to raise our voices.
Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].
Unlike many of you, maybe even most of you, I can recall when my office records were handwritten, some would say scribbled, on pieces of paper. They were decipherable by a select few. Some veteran assistants never mastered the skill. Pages were sometimes lavishly illustrated with drawings of body parts, often because I couldn’t remember or spell the correct anatomic term. When I needed to send a referring letter to another provider I typed it myself because dictating never quite suited my personality.
When I joined a small primary care group, the computer-savvy lead physician and a programmer developed our own homegrown EHR. It relied on scanning documents, as so many of us still generated handwritten notes. Even the most vociferous Luddites among us loved the system from day 2.
However, for a variety of reasons, some defensible some just plain bad, our beloved system needed to be replaced after 7 years. We then invested in an off-the-shelf EHR system that promised more capabilities. We were told there would be a learning curve but the plateau would come quickly and we would enjoy our new electronic assistant.
You’ve lived the rest of the story. The learning curve was steep and long and the plateau was a time gobbler. I was probably the most efficient provider in the group, and after 6 months I was leaving the office an hour later than I had been and was seeing the same number of patients. Most of my coworkers were staying and/or working on the computer at home for an extra 2 hours. This change could be easily documented by speaking with our spouses and children. I understand from my colleagues who have stayed in the business that over the ensuing decade and a half since my first experience with the EHR, its insatiable appetite for a clinician’s time has not abated.
The authors of a recent article in Annals of Family Medicine offer up some advice on how this tragic situation might be brought under control. First, the investigators point out that the phenomenon of after-hours EHR work, sometimes referred to as WOW (work outside of work), has not gone unnoticed by health system administrators and vendors who develop and sell the EHRs. However, analyzing the voluminous data necessary is not any easy task and for the most part has resulted in metrics that cannot be easily applied over a variety of practice scenarios. Many health care organizations, even large ones, have simply given up and rely on the WOW data and recommendations provided by the vendors, obviously lending the situation a faint odor of conflict of interest.
The bottom line is that . It would seem to me just asking the spouses and significant others of the clinicians would be sufficient. But, authors of the paper have more specific recommendations. First, they suggest that time working on the computer outside of scheduled time with patients should be separated from any other calculation of EHR usage. They encourage vendors and time-management researchers to develop standardized and validated methods for measuring active EHR use. And, finally they recommend that all EHR work done outside of time scheduled with patients be attributed to WOW. They feel that clearly labeling it work outside of work offers health care organizations a better chance of developing policies that will address the scourge of burnout.
This, unfortunately, is another tragic example of how clinicians have lost control of our work environments. The fact that 20 years have passed and there is still no standardized method for determining how much time we spend on the computer is more evidence we need to raise our voices.
Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].
The timekeeper
This little fellow greets you at my office. He’s been there for 25 years.
I don’t know where he came from originally. When I started out he was up front with the physician I subleased from and when he retired he passed him on to me (thanks, Fran!).
From the beginning he’s been the first thing I see when I arrive each morning. Because of my suprachiasmatic nucleus kicking me out of bed between 4 and 5 each morning, I’m always the first one in the office and so I update him. At this point he’s as much a part of my morning ritual as coffee and tea. I juggle the cubes to change the day (12 times a year I change the month) and once this is done I don’t think of him again until the next morning.
When I started setting him each morning I didn’t have kids. Now I have three, all grown. Patients, years, drug reps, and even a pandemic have all been marked by the clicking of his cubes when I change them each morning.
Now two-thirds of the way through my career, he’s taken on a different meaning. He’s counting down the days until I walk away and leave neurology in the hands of another generation. I don’t have a date for doing that, nor a plan to do so anytime soon, but sooner or later I’ll be changing his cubes for the last office day of my life as a neurologist.
What will happen to him then? Seems like a strange question to ask about an inanimate object, but after this much time I’ve gotten attached to the little guy. He’s come to symbolize more than just the date – he’s the passage of time. Maybe he’ll stay on a shelf at home, giving me something to do each morning of my retirement. Maybe one of my kids will want him.
Inevitably, he’ll probably end up at a charity store, awaiting a new owner. When that happens I hope he gives them something to pause, smile, and think about each day, like he did with me, as we travel around the sun together.
Dr. Block has a solo neurology practice in Scottsdale, Ariz.
This little fellow greets you at my office. He’s been there for 25 years.
I don’t know where he came from originally. When I started out he was up front with the physician I subleased from and when he retired he passed him on to me (thanks, Fran!).
From the beginning he’s been the first thing I see when I arrive each morning. Because of my suprachiasmatic nucleus kicking me out of bed between 4 and 5 each morning, I’m always the first one in the office and so I update him. At this point he’s as much a part of my morning ritual as coffee and tea. I juggle the cubes to change the day (12 times a year I change the month) and once this is done I don’t think of him again until the next morning.
When I started setting him each morning I didn’t have kids. Now I have three, all grown. Patients, years, drug reps, and even a pandemic have all been marked by the clicking of his cubes when I change them each morning.
Now two-thirds of the way through my career, he’s taken on a different meaning. He’s counting down the days until I walk away and leave neurology in the hands of another generation. I don’t have a date for doing that, nor a plan to do so anytime soon, but sooner or later I’ll be changing his cubes for the last office day of my life as a neurologist.
What will happen to him then? Seems like a strange question to ask about an inanimate object, but after this much time I’ve gotten attached to the little guy. He’s come to symbolize more than just the date – he’s the passage of time. Maybe he’ll stay on a shelf at home, giving me something to do each morning of my retirement. Maybe one of my kids will want him.
Inevitably, he’ll probably end up at a charity store, awaiting a new owner. When that happens I hope he gives them something to pause, smile, and think about each day, like he did with me, as we travel around the sun together.
Dr. Block has a solo neurology practice in Scottsdale, Ariz.
This little fellow greets you at my office. He’s been there for 25 years.
I don’t know where he came from originally. When I started out he was up front with the physician I subleased from and when he retired he passed him on to me (thanks, Fran!).
From the beginning he’s been the first thing I see when I arrive each morning. Because of my suprachiasmatic nucleus kicking me out of bed between 4 and 5 each morning, I’m always the first one in the office and so I update him. At this point he’s as much a part of my morning ritual as coffee and tea. I juggle the cubes to change the day (12 times a year I change the month) and once this is done I don’t think of him again until the next morning.
When I started setting him each morning I didn’t have kids. Now I have three, all grown. Patients, years, drug reps, and even a pandemic have all been marked by the clicking of his cubes when I change them each morning.
Now two-thirds of the way through my career, he’s taken on a different meaning. He’s counting down the days until I walk away and leave neurology in the hands of another generation. I don’t have a date for doing that, nor a plan to do so anytime soon, but sooner or later I’ll be changing his cubes for the last office day of my life as a neurologist.
What will happen to him then? Seems like a strange question to ask about an inanimate object, but after this much time I’ve gotten attached to the little guy. He’s come to symbolize more than just the date – he’s the passage of time. Maybe he’ll stay on a shelf at home, giving me something to do each morning of my retirement. Maybe one of my kids will want him.
Inevitably, he’ll probably end up at a charity store, awaiting a new owner. When that happens I hope he gives them something to pause, smile, and think about each day, like he did with me, as we travel around the sun together.
Dr. Block has a solo neurology practice in Scottsdale, Ariz.
The Critical Value of Telepathology in the COVID-19 Era
Advances in technology, including ubiquitous access to the internet and the capacity to transfer high-resolution representative images, have facilitated the adoption of telepathology by laboratories worldwide.1-5 Telepathology includes the use of telecommunication links that enable transmission of digital pathology images for primary diagnosis, quality assurance (QA), education, research, or second opinion diagnoses.3 This improvement has culminated in approvals by the US Food and Drug Administration (FDA) of whole slide imaging (WSI) systems for surgical pathology slides: specifically, the Philips IntelliSite Digital Pathology Solution in 2017 and the Leica Aperio AT2 DX in 2020.6-8 However, the approvals do not include telecytology due to lack of whole slide multiplanar scanning at different planes of focus or z-stacking capabilities.7
Long-term trends in pathology, specifically the slow reduction in the number of practicing pathologists available in the workforce compared with the total served population, along with the social distancing imperatives and disruptions brought about by the COVID-19 pandemic have made telepathology implementation pertinent to continue and improve pathology practice.8-10
Description and Definitions
The primary modes of telepathology (static image telepathology, robotic telepathology, video microscopy, WSI, and multimodality telepathology) have been defined by the American Telemedicine Association (ATA).2 WSI has been particularly suited for telepathology due to the ability to view digital slides in high resolution at various magnifications. These image files can also be viewed and shared with ease with other observers. Also, they take a shorter time to view compared with the use of a robotic microscope.3
Selection, Validation, and Implementation
WSI platforms vary in their characteristics and have several parameters, including but not limited to batch scanning vs continuous or random-access processing, throughput volume capacities, scan speed, cost, manual vs automatic loading of slides, image quality, slide capacity, flexibility for different slide sizes/features, telepathology capabilities once slide scanned, z-stacking, and regulatory approval status.8 Selection of the WSI device is dependent on need and cost considerations. For example, use for frozen section requires faster scanning speed and does not generally require a high throughput scanner.
Validation of telepathology by the testing site demonstrates that the new system performs as expected for its intended clinical use before being put into service and that the digital slides produced are acceptable for clinical diagnostic interpretation.11 The College of American Pathologists (CAP) established WSI validation guidelines are part of the published laboratory standard of care.11-13 An appropriate validation enables the benefits of telepathology while mitigating the risks.
There are 3 major CAP recommendations for validation. First, ≥ 60 cases should be included for each use case being validated with 20 additional cases for relevant ancillary applications not included in the 60 cases. Second, diagnostic concordance (ideally ≥ 95%) should be established between digital and glass slides for the same observer. Third, there should be a 2-week washout period between the viewing of digital and glass slides (Table 2).12,13
Guidelines from the ATA establish that telepathology systems should be validated for clinical use, including non-WSI platforms.2 Published validations of other non-WSI platforms (such as by robotic or multimodality telepathology) have followed the structure proposed in the guidelines by CAP for validating WSI.14,15
Ensuring that all relevant responsibilities (clinical, facility, technical, training, documentation/archiving, quality management, and operations related) for the use of telepathology are met is another aspect of validation and implementation.2 Clinical responsibilities include an agreement between the sending (referring) and receiving (consulting) parties on the information to accompany the digital material.2 From ATA clinical guidelines, this includes identification information, provision to the consulting pathologist of all relevant clinical data, provision to retrieve for access any needed and/or relevant diagnostic material, and responsibility by referrer that the correct image/metadata was sent.2 Involved parties should be trained to manage the materials being transmitted.2
Facility responsibilities include maintaining the standard of care defined by the facility and regulatory agencies.2 The maintenance of accreditation, adherence to licensure requirements, and proper management of privileges to practice telepathology are also important.2 Technical responsibilities include ensuring a proper validation that meets the standard of care and covers use cases.2,11-13
All processes, training, and competencies should be followed and documented per standard facility operating procedures.2 ATA recommends that telepathology should result in a formal report for diagnostic consultations, maintain logs of telepathology interactions or disclaimer statements, and have an appropriate retention policy.2 The CAP recommends digital images used for primary diagnosis should be kept for 10 years if the original glass slides are not available.16 Once implemented, telepathology reports must be incorporated into the pathology and laboratory medicine department’s quality management plan for both the technical performance of the telepathology system and diagnostic performance of the pathologists using the system.2 Operations responsibilities include ensuring that the telepathology system is maintained according to vendor recommendations and regulatory standards. Appropriate provisions for space and associated needs should be developed in conjunction with the information technology team of the facility to ensure appropriate security, privacy, and regulatory compliance.2
Applications and Uses
Telecytology. Rapid real-time telecytology has been documented to be useful in rapid on-site evaluations (ROSE) of the adequacy of fine needle aspirations (FNA).17-21 Nevertheless, current Medicare reimbursement is limited given that ROSE is cost prohibitive, time consuming, and affects productivity in cytology laboratories.17,22,23 Estimates of the time to provide ROSE for 1 procedure without telecytology range from 48.7 to 56.2 minutes.17,23 The use of telecytology significantly reduces pathologist ROSE time without losing quality to about 12 minutes, of which only an average of 7.5 minutes was spent by the cytopathologist for the ROSE diagnosis.17-21 ROSE also can be used for distant and remote locations to improve patient care.17-21 Multiple vendors provide real-time telecytology service. Innovations using smartphone adapters, digital cameras that could work as their own IP addresses, and connection with high-speed dedicated connections with viewing platforms on high-sensitivity monitors can facilitate ROSE to improve patient management.24,25 The successful accurate use of ROSE has been described; however, there are currently no FDA-approved telepathology ROSE platforms.17-19,21-25
To date, the FDA has not approved any telecytology whole slide scanner due to a lack of z-stacking capability in submitted scanners.7,21 Not all whole slide scanners offer z-stacking, though even in those that do offer it, the time necessary to scan the entire slide with adequate z-stacking takes too long to be clinically acceptable for many situations involving ROSE.21 WSI has also been used to develop international consensus for cytologic samples.26 Published recommendations for the validation of these other modalities before usage follow the spirit of the CAP guidelines (as far as multiple cases with high concordance rates) for validation of WSI for diagnostic purposes but vary on the exact number of slides and acceptable concordance rate.21,27 For ROSE with a robotic microscope without any on-site cytology personnel, documented standardized training of nonpathology staff members, such as the radiologist or other physician performing the FNA procedure, may be needed to enable the performance of ROSE telecytology and ensure compliance with regulations.2,21 Besides ROSE, there are published validations for telecytology in primary diagnosis and QA, indicating a role for telecytology for diagnosis for laboratories that have properly validated and implemented the laboratory-developed test.28-30
Frozen section. Telepathology has significant potential to improve access to frozen section consultation.5,31-33 Benefits to improving access to frozen section include providing frozen section consultation at remote or off-site locations, increasing access to subspecialty consultation, improving workflow by eliminating the need to travel off-site to the frozen section case, cost savings in staff work time, and providing educational opportunities for pathology trainees.5,31-33 In our experience, WSI with real-time viewing of frozen section allows for the assessment of transplant tissues, which is an evaluation that generally occurs at night. Discrepancies from frozen section telepathology using WSI to the final diagnosis may occur and those specific to WSI could result from slide or image quality, internet connectivity, and lack of training in using the telepathology system.32 Other issues that may lead to discrepancies between the frozen section diagnosis and the final diagnosis may occur with the review of glass slides by light microscopy.34 Appropriate performance of validation, training, implementation, and quality control for telepathology can help in reaping the benefits while mitigating the risks.2 In a large study comparing frozen section evaluation by telepathology with light microscopy, the sensitivity and specificity of frozen section were comparable between telepathology and light microscopy with a trend toward greater sensitivity by telepathology (0.92 and 0.99 for telepathology vs 0.90 and 0.99 by light microscopy alone, sensitivity and specificity, respectively).33
Other applications. Evidence for efficacy in surgical pathology diagnosis led to FDA approval of the Philips IntelliSite Digital Pathology in 2017 and the Leica Aperio AT2 DX in 2020 WSI platforms.6-8 The use of WSI in surgical pathology has been successfully validated or used in clinical practice at several pathology laboratory settings with documented benefits in the literature for primary and secondary diagnoses, QA, research, and education.6-8,35-45 Benefits of telepathology include improved ergonomics and access to real-time pathologic services in remote areas or during on-site pathologist absence and expert second opinions. Telepathology also may reduce risk of slide loss during transport, shortened turnaround time, reduced costs of operation through workflow efficiencies, better load balancing, improve virtual collaboration, and digital storage of slides that may be irreplaceable.3-8,35-45 Telepathology also has been shown to be useful for education, improving access to learning materials and increasing quality instructional materials at a lower cost.45 The increased ease of collaboration with remote experts and access to slide material for other pathologists improves QA capabilities.3-8,35-45 The availability of virtual slides is expected to promote further research in telepathology and pathology due to the increased availability of virtual material to researchers.1,5,46
Telehematology. Published validations have shown effectiveness for hematopathology specimens, such as the peripheral smear. Telehematology also has demonstrated potential in a laboratory after proper validation and implementation as a laboratory-developed test.37,47-49
Telemicrobiology and Computer-Assisted Pathologic Diagnosis. Telemicrobiology also has been successfully used for clinical, educational, and QA purposes.50 The digitalization of slides involved with telepathology enables further innovation in machine learning for computer-assisted pathologic diagnosis (CAPD), which is already being used clinically for cervical Pap smears.20 An artificial intelligence (AI)–based algorithm analyzes the slides to identify cells of interest, which are presented to the cytopathologist for confirmation.20 However, the expansion of CAPD to include a variety of specimen types or diagnostic situations as well as safely and effectively take initiative in completing an accurate automated diagnosis requires additional development.20,51,52 One of the key factors for machine learning to develop AI is the provision of a corpus of data.51,52 Public, open-source data sources have been limited in size while private proprietary sources have highly restricted and expensive access; to address this, there is a current effort to build the world’s largest public open-source digital pathology corpus at Temple University Hospital, which may help enable innovations in the future.52
Long-Term Trends/Applications
The COVID-19 pandemic has been unprecedented not only in its widespread morbidity and mortality, but also for the significant socioeconomic, health, lifestyle, societal, and workspace changes.53-57 Specifically, the pandemic has introduced not only a need for social distancing and staff quarantines to prevent the spread of infection, but also a reduction in the workforce due to the stresses of COVID-19 (also known as the Great Resignation).55 Before the pandemic, there was an existing downtrend in the number of pathologists in the US workforce.9-10,58,59 From 2007 to 2017, the number of active pathologists in the US declined by 17.5% despite the increasing national population, resulting in not only an absolute decrease in the number of pathologists, but also an increasing population served per pathologist ratio.59 Since 2017, this downtrend has continued; given the increasing loss of active pathologists from the workforce and the decreasing training of new pathologists, this decrease shows no signs of reversing even as the impact of the COVID-19 pandemic has begun to wane.9,10,58-60
The advantages of telepathology in enabling social distancing and reducing travel to remote sites are known.3-7,17 Given these advantages, some medical centers in the US have previously successfully validated and implemented telepathology operations earlier during the COVID-19 pandemic to ease workflow and ensure continued operations.56,57 The use of telepathology also helps in balancing workload and continuing pathology operations even in light of the workforce reduction as cases no longer need to be signed out on site with glass slides but instead can be signed out at a remote laboratory. Although the impact of the COVID-19 pandemic on operations is decreasing, the capabilities for social distancing and reducing travel remain important to both improve operations and ensure resiliency in response to similar potential events.3-7,17,60
Considering the long-term trends, the lessons of the COVID-19 pandemic, and the potential for future pandemics or other disasters, telepathology’s validation and implementation remains a reasonable choice for pathology practices looking to improve. A variety of practices not just in the general population, but also among US Department of Veterans Affairs medical centers (VAMCs) and the US Department of Defense Military Health System treating a veteran population can benefit from telepathology where it has previously been reported to have been reliable or successfully implemented.61-63 Although the veteran population differs from the general population in several characteristics, such as the severity of disease, coexisting morbidities, and other history, given proper validation and implementation, telepathology’s usefulness extends across different pathology practice settings.35-43,61-66
Limitations of Telepathology
In telepathology’s current state, there are limitations despite its immense promise.6,35 These include initial capital costs, the additional training requirement, the additional time necessary to scan slides, technical challenges (ie, laboratory information system integration, color calibration, display artifacts, potential for small particle scanner omissions, and information technology dependence), the potential for slower evaluation per slide compared with optical microscopes, limitations of slide imaging (ie, z-stacking or lack of polarization on digital pathology), and occupational concerns regarding eye strain with increased computer monitor usage (ie, computer vision syndrome).6,35 In addition, there are few telepathology scanners with FDA approval for WSI.6-8
The improving technology of telepathology has made these limitations surmountable, including faster slide scanning and increasing digital storage capacity for large WSI files. Due to this improvement in technology, an increasing number of laboratory settings, have adopted telepathology as its advantages have begun to outweigh the limitations.2-5 Additionally, the proper validation performed before implementing telepathology can help laboratories identify their unique challenges, troubleshoot, and resolve the limitations before use in clinical care.11-13 Continuing QA during its use and implementation is important to ensure that telepathology performs as expected for clinical purposes despite its limitations.2
Conclusions
Telepathology is a promising technology that may improve pathology practice once properly validated and implemented.1-8 Though there are barriers to this validation and implementation, particularly the capital costs and training, there are several potential benefits, including increased productivity, cost savings, improvement in the workflow, enhanced access to pathologic consultation, and adaptability of the pathology laboratory in an era of a decreased workforce and social distancing due to the COVID-19 pandemic.1-8,55-56 This potential applies across the wide spectrum of potential telepathology uses from frozen section, telecytology (including ROSE) to primary and second opinion diagnoses.1-8,17-33 The benefits also extends to QA, education, and research, as diagnoses can not only be rereviewed by specialty or second opinion consultation with ease, but also digital slides can be produced for educational and research purposes.3-8,35-45 Settings that treat the general population and those focused on the care of veterans or members of the armed forces have reported similar reliability or successful implementation.35-44,61-63 All in all, the use of telepathology represents an innovation that may transform the practice of pathology tomorrow.
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65. Eibner C, Krull H, Brown KM, et al. Current and projected characteristics and unique health care needs of the patient population served by the Department of Veterans Affairs. Rand Health Q. 2016;5(4):13. Published 2016 May 9.
66. Morgan RO, Teal CR, Reddy SG, Ford ME, Ashton CM. Measurement in Veterans Affairs Health Services Research: veterans as a special population. Health Serv Res. 2005;40(5, pt 2):1573-1583. doi:10.1111/j.1475-6773.2005.00448
Advances in technology, including ubiquitous access to the internet and the capacity to transfer high-resolution representative images, have facilitated the adoption of telepathology by laboratories worldwide.1-5 Telepathology includes the use of telecommunication links that enable transmission of digital pathology images for primary diagnosis, quality assurance (QA), education, research, or second opinion diagnoses.3 This improvement has culminated in approvals by the US Food and Drug Administration (FDA) of whole slide imaging (WSI) systems for surgical pathology slides: specifically, the Philips IntelliSite Digital Pathology Solution in 2017 and the Leica Aperio AT2 DX in 2020.6-8 However, the approvals do not include telecytology due to lack of whole slide multiplanar scanning at different planes of focus or z-stacking capabilities.7
Long-term trends in pathology, specifically the slow reduction in the number of practicing pathologists available in the workforce compared with the total served population, along with the social distancing imperatives and disruptions brought about by the COVID-19 pandemic have made telepathology implementation pertinent to continue and improve pathology practice.8-10
Description and Definitions
The primary modes of telepathology (static image telepathology, robotic telepathology, video microscopy, WSI, and multimodality telepathology) have been defined by the American Telemedicine Association (ATA).2 WSI has been particularly suited for telepathology due to the ability to view digital slides in high resolution at various magnifications. These image files can also be viewed and shared with ease with other observers. Also, they take a shorter time to view compared with the use of a robotic microscope.3
Selection, Validation, and Implementation
WSI platforms vary in their characteristics and have several parameters, including but not limited to batch scanning vs continuous or random-access processing, throughput volume capacities, scan speed, cost, manual vs automatic loading of slides, image quality, slide capacity, flexibility for different slide sizes/features, telepathology capabilities once slide scanned, z-stacking, and regulatory approval status.8 Selection of the WSI device is dependent on need and cost considerations. For example, use for frozen section requires faster scanning speed and does not generally require a high throughput scanner.
Validation of telepathology by the testing site demonstrates that the new system performs as expected for its intended clinical use before being put into service and that the digital slides produced are acceptable for clinical diagnostic interpretation.11 The College of American Pathologists (CAP) established WSI validation guidelines are part of the published laboratory standard of care.11-13 An appropriate validation enables the benefits of telepathology while mitigating the risks.
There are 3 major CAP recommendations for validation. First, ≥ 60 cases should be included for each use case being validated with 20 additional cases for relevant ancillary applications not included in the 60 cases. Second, diagnostic concordance (ideally ≥ 95%) should be established between digital and glass slides for the same observer. Third, there should be a 2-week washout period between the viewing of digital and glass slides (Table 2).12,13
Guidelines from the ATA establish that telepathology systems should be validated for clinical use, including non-WSI platforms.2 Published validations of other non-WSI platforms (such as by robotic or multimodality telepathology) have followed the structure proposed in the guidelines by CAP for validating WSI.14,15
Ensuring that all relevant responsibilities (clinical, facility, technical, training, documentation/archiving, quality management, and operations related) for the use of telepathology are met is another aspect of validation and implementation.2 Clinical responsibilities include an agreement between the sending (referring) and receiving (consulting) parties on the information to accompany the digital material.2 From ATA clinical guidelines, this includes identification information, provision to the consulting pathologist of all relevant clinical data, provision to retrieve for access any needed and/or relevant diagnostic material, and responsibility by referrer that the correct image/metadata was sent.2 Involved parties should be trained to manage the materials being transmitted.2
Facility responsibilities include maintaining the standard of care defined by the facility and regulatory agencies.2 The maintenance of accreditation, adherence to licensure requirements, and proper management of privileges to practice telepathology are also important.2 Technical responsibilities include ensuring a proper validation that meets the standard of care and covers use cases.2,11-13
All processes, training, and competencies should be followed and documented per standard facility operating procedures.2 ATA recommends that telepathology should result in a formal report for diagnostic consultations, maintain logs of telepathology interactions or disclaimer statements, and have an appropriate retention policy.2 The CAP recommends digital images used for primary diagnosis should be kept for 10 years if the original glass slides are not available.16 Once implemented, telepathology reports must be incorporated into the pathology and laboratory medicine department’s quality management plan for both the technical performance of the telepathology system and diagnostic performance of the pathologists using the system.2 Operations responsibilities include ensuring that the telepathology system is maintained according to vendor recommendations and regulatory standards. Appropriate provisions for space and associated needs should be developed in conjunction with the information technology team of the facility to ensure appropriate security, privacy, and regulatory compliance.2
Applications and Uses
Telecytology. Rapid real-time telecytology has been documented to be useful in rapid on-site evaluations (ROSE) of the adequacy of fine needle aspirations (FNA).17-21 Nevertheless, current Medicare reimbursement is limited given that ROSE is cost prohibitive, time consuming, and affects productivity in cytology laboratories.17,22,23 Estimates of the time to provide ROSE for 1 procedure without telecytology range from 48.7 to 56.2 minutes.17,23 The use of telecytology significantly reduces pathologist ROSE time without losing quality to about 12 minutes, of which only an average of 7.5 minutes was spent by the cytopathologist for the ROSE diagnosis.17-21 ROSE also can be used for distant and remote locations to improve patient care.17-21 Multiple vendors provide real-time telecytology service. Innovations using smartphone adapters, digital cameras that could work as their own IP addresses, and connection with high-speed dedicated connections with viewing platforms on high-sensitivity monitors can facilitate ROSE to improve patient management.24,25 The successful accurate use of ROSE has been described; however, there are currently no FDA-approved telepathology ROSE platforms.17-19,21-25
To date, the FDA has not approved any telecytology whole slide scanner due to a lack of z-stacking capability in submitted scanners.7,21 Not all whole slide scanners offer z-stacking, though even in those that do offer it, the time necessary to scan the entire slide with adequate z-stacking takes too long to be clinically acceptable for many situations involving ROSE.21 WSI has also been used to develop international consensus for cytologic samples.26 Published recommendations for the validation of these other modalities before usage follow the spirit of the CAP guidelines (as far as multiple cases with high concordance rates) for validation of WSI for diagnostic purposes but vary on the exact number of slides and acceptable concordance rate.21,27 For ROSE with a robotic microscope without any on-site cytology personnel, documented standardized training of nonpathology staff members, such as the radiologist or other physician performing the FNA procedure, may be needed to enable the performance of ROSE telecytology and ensure compliance with regulations.2,21 Besides ROSE, there are published validations for telecytology in primary diagnosis and QA, indicating a role for telecytology for diagnosis for laboratories that have properly validated and implemented the laboratory-developed test.28-30
Frozen section. Telepathology has significant potential to improve access to frozen section consultation.5,31-33 Benefits to improving access to frozen section include providing frozen section consultation at remote or off-site locations, increasing access to subspecialty consultation, improving workflow by eliminating the need to travel off-site to the frozen section case, cost savings in staff work time, and providing educational opportunities for pathology trainees.5,31-33 In our experience, WSI with real-time viewing of frozen section allows for the assessment of transplant tissues, which is an evaluation that generally occurs at night. Discrepancies from frozen section telepathology using WSI to the final diagnosis may occur and those specific to WSI could result from slide or image quality, internet connectivity, and lack of training in using the telepathology system.32 Other issues that may lead to discrepancies between the frozen section diagnosis and the final diagnosis may occur with the review of glass slides by light microscopy.34 Appropriate performance of validation, training, implementation, and quality control for telepathology can help in reaping the benefits while mitigating the risks.2 In a large study comparing frozen section evaluation by telepathology with light microscopy, the sensitivity and specificity of frozen section were comparable between telepathology and light microscopy with a trend toward greater sensitivity by telepathology (0.92 and 0.99 for telepathology vs 0.90 and 0.99 by light microscopy alone, sensitivity and specificity, respectively).33
Other applications. Evidence for efficacy in surgical pathology diagnosis led to FDA approval of the Philips IntelliSite Digital Pathology in 2017 and the Leica Aperio AT2 DX in 2020 WSI platforms.6-8 The use of WSI in surgical pathology has been successfully validated or used in clinical practice at several pathology laboratory settings with documented benefits in the literature for primary and secondary diagnoses, QA, research, and education.6-8,35-45 Benefits of telepathology include improved ergonomics and access to real-time pathologic services in remote areas or during on-site pathologist absence and expert second opinions. Telepathology also may reduce risk of slide loss during transport, shortened turnaround time, reduced costs of operation through workflow efficiencies, better load balancing, improve virtual collaboration, and digital storage of slides that may be irreplaceable.3-8,35-45 Telepathology also has been shown to be useful for education, improving access to learning materials and increasing quality instructional materials at a lower cost.45 The increased ease of collaboration with remote experts and access to slide material for other pathologists improves QA capabilities.3-8,35-45 The availability of virtual slides is expected to promote further research in telepathology and pathology due to the increased availability of virtual material to researchers.1,5,46
Telehematology. Published validations have shown effectiveness for hematopathology specimens, such as the peripheral smear. Telehematology also has demonstrated potential in a laboratory after proper validation and implementation as a laboratory-developed test.37,47-49
Telemicrobiology and Computer-Assisted Pathologic Diagnosis. Telemicrobiology also has been successfully used for clinical, educational, and QA purposes.50 The digitalization of slides involved with telepathology enables further innovation in machine learning for computer-assisted pathologic diagnosis (CAPD), which is already being used clinically for cervical Pap smears.20 An artificial intelligence (AI)–based algorithm analyzes the slides to identify cells of interest, which are presented to the cytopathologist for confirmation.20 However, the expansion of CAPD to include a variety of specimen types or diagnostic situations as well as safely and effectively take initiative in completing an accurate automated diagnosis requires additional development.20,51,52 One of the key factors for machine learning to develop AI is the provision of a corpus of data.51,52 Public, open-source data sources have been limited in size while private proprietary sources have highly restricted and expensive access; to address this, there is a current effort to build the world’s largest public open-source digital pathology corpus at Temple University Hospital, which may help enable innovations in the future.52
Long-Term Trends/Applications
The COVID-19 pandemic has been unprecedented not only in its widespread morbidity and mortality, but also for the significant socioeconomic, health, lifestyle, societal, and workspace changes.53-57 Specifically, the pandemic has introduced not only a need for social distancing and staff quarantines to prevent the spread of infection, but also a reduction in the workforce due to the stresses of COVID-19 (also known as the Great Resignation).55 Before the pandemic, there was an existing downtrend in the number of pathologists in the US workforce.9-10,58,59 From 2007 to 2017, the number of active pathologists in the US declined by 17.5% despite the increasing national population, resulting in not only an absolute decrease in the number of pathologists, but also an increasing population served per pathologist ratio.59 Since 2017, this downtrend has continued; given the increasing loss of active pathologists from the workforce and the decreasing training of new pathologists, this decrease shows no signs of reversing even as the impact of the COVID-19 pandemic has begun to wane.9,10,58-60
The advantages of telepathology in enabling social distancing and reducing travel to remote sites are known.3-7,17 Given these advantages, some medical centers in the US have previously successfully validated and implemented telepathology operations earlier during the COVID-19 pandemic to ease workflow and ensure continued operations.56,57 The use of telepathology also helps in balancing workload and continuing pathology operations even in light of the workforce reduction as cases no longer need to be signed out on site with glass slides but instead can be signed out at a remote laboratory. Although the impact of the COVID-19 pandemic on operations is decreasing, the capabilities for social distancing and reducing travel remain important to both improve operations and ensure resiliency in response to similar potential events.3-7,17,60
Considering the long-term trends, the lessons of the COVID-19 pandemic, and the potential for future pandemics or other disasters, telepathology’s validation and implementation remains a reasonable choice for pathology practices looking to improve. A variety of practices not just in the general population, but also among US Department of Veterans Affairs medical centers (VAMCs) and the US Department of Defense Military Health System treating a veteran population can benefit from telepathology where it has previously been reported to have been reliable or successfully implemented.61-63 Although the veteran population differs from the general population in several characteristics, such as the severity of disease, coexisting morbidities, and other history, given proper validation and implementation, telepathology’s usefulness extends across different pathology practice settings.35-43,61-66
Limitations of Telepathology
In telepathology’s current state, there are limitations despite its immense promise.6,35 These include initial capital costs, the additional training requirement, the additional time necessary to scan slides, technical challenges (ie, laboratory information system integration, color calibration, display artifacts, potential for small particle scanner omissions, and information technology dependence), the potential for slower evaluation per slide compared with optical microscopes, limitations of slide imaging (ie, z-stacking or lack of polarization on digital pathology), and occupational concerns regarding eye strain with increased computer monitor usage (ie, computer vision syndrome).6,35 In addition, there are few telepathology scanners with FDA approval for WSI.6-8
The improving technology of telepathology has made these limitations surmountable, including faster slide scanning and increasing digital storage capacity for large WSI files. Due to this improvement in technology, an increasing number of laboratory settings, have adopted telepathology as its advantages have begun to outweigh the limitations.2-5 Additionally, the proper validation performed before implementing telepathology can help laboratories identify their unique challenges, troubleshoot, and resolve the limitations before use in clinical care.11-13 Continuing QA during its use and implementation is important to ensure that telepathology performs as expected for clinical purposes despite its limitations.2
Conclusions
Telepathology is a promising technology that may improve pathology practice once properly validated and implemented.1-8 Though there are barriers to this validation and implementation, particularly the capital costs and training, there are several potential benefits, including increased productivity, cost savings, improvement in the workflow, enhanced access to pathologic consultation, and adaptability of the pathology laboratory in an era of a decreased workforce and social distancing due to the COVID-19 pandemic.1-8,55-56 This potential applies across the wide spectrum of potential telepathology uses from frozen section, telecytology (including ROSE) to primary and second opinion diagnoses.1-8,17-33 The benefits also extends to QA, education, and research, as diagnoses can not only be rereviewed by specialty or second opinion consultation with ease, but also digital slides can be produced for educational and research purposes.3-8,35-45 Settings that treat the general population and those focused on the care of veterans or members of the armed forces have reported similar reliability or successful implementation.35-44,61-63 All in all, the use of telepathology represents an innovation that may transform the practice of pathology tomorrow.
Advances in technology, including ubiquitous access to the internet and the capacity to transfer high-resolution representative images, have facilitated the adoption of telepathology by laboratories worldwide.1-5 Telepathology includes the use of telecommunication links that enable transmission of digital pathology images for primary diagnosis, quality assurance (QA), education, research, or second opinion diagnoses.3 This improvement has culminated in approvals by the US Food and Drug Administration (FDA) of whole slide imaging (WSI) systems for surgical pathology slides: specifically, the Philips IntelliSite Digital Pathology Solution in 2017 and the Leica Aperio AT2 DX in 2020.6-8 However, the approvals do not include telecytology due to lack of whole slide multiplanar scanning at different planes of focus or z-stacking capabilities.7
Long-term trends in pathology, specifically the slow reduction in the number of practicing pathologists available in the workforce compared with the total served population, along with the social distancing imperatives and disruptions brought about by the COVID-19 pandemic have made telepathology implementation pertinent to continue and improve pathology practice.8-10
Description and Definitions
The primary modes of telepathology (static image telepathology, robotic telepathology, video microscopy, WSI, and multimodality telepathology) have been defined by the American Telemedicine Association (ATA).2 WSI has been particularly suited for telepathology due to the ability to view digital slides in high resolution at various magnifications. These image files can also be viewed and shared with ease with other observers. Also, they take a shorter time to view compared with the use of a robotic microscope.3
Selection, Validation, and Implementation
WSI platforms vary in their characteristics and have several parameters, including but not limited to batch scanning vs continuous or random-access processing, throughput volume capacities, scan speed, cost, manual vs automatic loading of slides, image quality, slide capacity, flexibility for different slide sizes/features, telepathology capabilities once slide scanned, z-stacking, and regulatory approval status.8 Selection of the WSI device is dependent on need and cost considerations. For example, use for frozen section requires faster scanning speed and does not generally require a high throughput scanner.
Validation of telepathology by the testing site demonstrates that the new system performs as expected for its intended clinical use before being put into service and that the digital slides produced are acceptable for clinical diagnostic interpretation.11 The College of American Pathologists (CAP) established WSI validation guidelines are part of the published laboratory standard of care.11-13 An appropriate validation enables the benefits of telepathology while mitigating the risks.
There are 3 major CAP recommendations for validation. First, ≥ 60 cases should be included for each use case being validated with 20 additional cases for relevant ancillary applications not included in the 60 cases. Second, diagnostic concordance (ideally ≥ 95%) should be established between digital and glass slides for the same observer. Third, there should be a 2-week washout period between the viewing of digital and glass slides (Table 2).12,13
Guidelines from the ATA establish that telepathology systems should be validated for clinical use, including non-WSI platforms.2 Published validations of other non-WSI platforms (such as by robotic or multimodality telepathology) have followed the structure proposed in the guidelines by CAP for validating WSI.14,15
Ensuring that all relevant responsibilities (clinical, facility, technical, training, documentation/archiving, quality management, and operations related) for the use of telepathology are met is another aspect of validation and implementation.2 Clinical responsibilities include an agreement between the sending (referring) and receiving (consulting) parties on the information to accompany the digital material.2 From ATA clinical guidelines, this includes identification information, provision to the consulting pathologist of all relevant clinical data, provision to retrieve for access any needed and/or relevant diagnostic material, and responsibility by referrer that the correct image/metadata was sent.2 Involved parties should be trained to manage the materials being transmitted.2
Facility responsibilities include maintaining the standard of care defined by the facility and regulatory agencies.2 The maintenance of accreditation, adherence to licensure requirements, and proper management of privileges to practice telepathology are also important.2 Technical responsibilities include ensuring a proper validation that meets the standard of care and covers use cases.2,11-13
All processes, training, and competencies should be followed and documented per standard facility operating procedures.2 ATA recommends that telepathology should result in a formal report for diagnostic consultations, maintain logs of telepathology interactions or disclaimer statements, and have an appropriate retention policy.2 The CAP recommends digital images used for primary diagnosis should be kept for 10 years if the original glass slides are not available.16 Once implemented, telepathology reports must be incorporated into the pathology and laboratory medicine department’s quality management plan for both the technical performance of the telepathology system and diagnostic performance of the pathologists using the system.2 Operations responsibilities include ensuring that the telepathology system is maintained according to vendor recommendations and regulatory standards. Appropriate provisions for space and associated needs should be developed in conjunction with the information technology team of the facility to ensure appropriate security, privacy, and regulatory compliance.2
Applications and Uses
Telecytology. Rapid real-time telecytology has been documented to be useful in rapid on-site evaluations (ROSE) of the adequacy of fine needle aspirations (FNA).17-21 Nevertheless, current Medicare reimbursement is limited given that ROSE is cost prohibitive, time consuming, and affects productivity in cytology laboratories.17,22,23 Estimates of the time to provide ROSE for 1 procedure without telecytology range from 48.7 to 56.2 minutes.17,23 The use of telecytology significantly reduces pathologist ROSE time without losing quality to about 12 minutes, of which only an average of 7.5 minutes was spent by the cytopathologist for the ROSE diagnosis.17-21 ROSE also can be used for distant and remote locations to improve patient care.17-21 Multiple vendors provide real-time telecytology service. Innovations using smartphone adapters, digital cameras that could work as their own IP addresses, and connection with high-speed dedicated connections with viewing platforms on high-sensitivity monitors can facilitate ROSE to improve patient management.24,25 The successful accurate use of ROSE has been described; however, there are currently no FDA-approved telepathology ROSE platforms.17-19,21-25
To date, the FDA has not approved any telecytology whole slide scanner due to a lack of z-stacking capability in submitted scanners.7,21 Not all whole slide scanners offer z-stacking, though even in those that do offer it, the time necessary to scan the entire slide with adequate z-stacking takes too long to be clinically acceptable for many situations involving ROSE.21 WSI has also been used to develop international consensus for cytologic samples.26 Published recommendations for the validation of these other modalities before usage follow the spirit of the CAP guidelines (as far as multiple cases with high concordance rates) for validation of WSI for diagnostic purposes but vary on the exact number of slides and acceptable concordance rate.21,27 For ROSE with a robotic microscope without any on-site cytology personnel, documented standardized training of nonpathology staff members, such as the radiologist or other physician performing the FNA procedure, may be needed to enable the performance of ROSE telecytology and ensure compliance with regulations.2,21 Besides ROSE, there are published validations for telecytology in primary diagnosis and QA, indicating a role for telecytology for diagnosis for laboratories that have properly validated and implemented the laboratory-developed test.28-30
Frozen section. Telepathology has significant potential to improve access to frozen section consultation.5,31-33 Benefits to improving access to frozen section include providing frozen section consultation at remote or off-site locations, increasing access to subspecialty consultation, improving workflow by eliminating the need to travel off-site to the frozen section case, cost savings in staff work time, and providing educational opportunities for pathology trainees.5,31-33 In our experience, WSI with real-time viewing of frozen section allows for the assessment of transplant tissues, which is an evaluation that generally occurs at night. Discrepancies from frozen section telepathology using WSI to the final diagnosis may occur and those specific to WSI could result from slide or image quality, internet connectivity, and lack of training in using the telepathology system.32 Other issues that may lead to discrepancies between the frozen section diagnosis and the final diagnosis may occur with the review of glass slides by light microscopy.34 Appropriate performance of validation, training, implementation, and quality control for telepathology can help in reaping the benefits while mitigating the risks.2 In a large study comparing frozen section evaluation by telepathology with light microscopy, the sensitivity and specificity of frozen section were comparable between telepathology and light microscopy with a trend toward greater sensitivity by telepathology (0.92 and 0.99 for telepathology vs 0.90 and 0.99 by light microscopy alone, sensitivity and specificity, respectively).33
Other applications. Evidence for efficacy in surgical pathology diagnosis led to FDA approval of the Philips IntelliSite Digital Pathology in 2017 and the Leica Aperio AT2 DX in 2020 WSI platforms.6-8 The use of WSI in surgical pathology has been successfully validated or used in clinical practice at several pathology laboratory settings with documented benefits in the literature for primary and secondary diagnoses, QA, research, and education.6-8,35-45 Benefits of telepathology include improved ergonomics and access to real-time pathologic services in remote areas or during on-site pathologist absence and expert second opinions. Telepathology also may reduce risk of slide loss during transport, shortened turnaround time, reduced costs of operation through workflow efficiencies, better load balancing, improve virtual collaboration, and digital storage of slides that may be irreplaceable.3-8,35-45 Telepathology also has been shown to be useful for education, improving access to learning materials and increasing quality instructional materials at a lower cost.45 The increased ease of collaboration with remote experts and access to slide material for other pathologists improves QA capabilities.3-8,35-45 The availability of virtual slides is expected to promote further research in telepathology and pathology due to the increased availability of virtual material to researchers.1,5,46
Telehematology. Published validations have shown effectiveness for hematopathology specimens, such as the peripheral smear. Telehematology also has demonstrated potential in a laboratory after proper validation and implementation as a laboratory-developed test.37,47-49
Telemicrobiology and Computer-Assisted Pathologic Diagnosis. Telemicrobiology also has been successfully used for clinical, educational, and QA purposes.50 The digitalization of slides involved with telepathology enables further innovation in machine learning for computer-assisted pathologic diagnosis (CAPD), which is already being used clinically for cervical Pap smears.20 An artificial intelligence (AI)–based algorithm analyzes the slides to identify cells of interest, which are presented to the cytopathologist for confirmation.20 However, the expansion of CAPD to include a variety of specimen types or diagnostic situations as well as safely and effectively take initiative in completing an accurate automated diagnosis requires additional development.20,51,52 One of the key factors for machine learning to develop AI is the provision of a corpus of data.51,52 Public, open-source data sources have been limited in size while private proprietary sources have highly restricted and expensive access; to address this, there is a current effort to build the world’s largest public open-source digital pathology corpus at Temple University Hospital, which may help enable innovations in the future.52
Long-Term Trends/Applications
The COVID-19 pandemic has been unprecedented not only in its widespread morbidity and mortality, but also for the significant socioeconomic, health, lifestyle, societal, and workspace changes.53-57 Specifically, the pandemic has introduced not only a need for social distancing and staff quarantines to prevent the spread of infection, but also a reduction in the workforce due to the stresses of COVID-19 (also known as the Great Resignation).55 Before the pandemic, there was an existing downtrend in the number of pathologists in the US workforce.9-10,58,59 From 2007 to 2017, the number of active pathologists in the US declined by 17.5% despite the increasing national population, resulting in not only an absolute decrease in the number of pathologists, but also an increasing population served per pathologist ratio.59 Since 2017, this downtrend has continued; given the increasing loss of active pathologists from the workforce and the decreasing training of new pathologists, this decrease shows no signs of reversing even as the impact of the COVID-19 pandemic has begun to wane.9,10,58-60
The advantages of telepathology in enabling social distancing and reducing travel to remote sites are known.3-7,17 Given these advantages, some medical centers in the US have previously successfully validated and implemented telepathology operations earlier during the COVID-19 pandemic to ease workflow and ensure continued operations.56,57 The use of telepathology also helps in balancing workload and continuing pathology operations even in light of the workforce reduction as cases no longer need to be signed out on site with glass slides but instead can be signed out at a remote laboratory. Although the impact of the COVID-19 pandemic on operations is decreasing, the capabilities for social distancing and reducing travel remain important to both improve operations and ensure resiliency in response to similar potential events.3-7,17,60
Considering the long-term trends, the lessons of the COVID-19 pandemic, and the potential for future pandemics or other disasters, telepathology’s validation and implementation remains a reasonable choice for pathology practices looking to improve. A variety of practices not just in the general population, but also among US Department of Veterans Affairs medical centers (VAMCs) and the US Department of Defense Military Health System treating a veteran population can benefit from telepathology where it has previously been reported to have been reliable or successfully implemented.61-63 Although the veteran population differs from the general population in several characteristics, such as the severity of disease, coexisting morbidities, and other history, given proper validation and implementation, telepathology’s usefulness extends across different pathology practice settings.35-43,61-66
Limitations of Telepathology
In telepathology’s current state, there are limitations despite its immense promise.6,35 These include initial capital costs, the additional training requirement, the additional time necessary to scan slides, technical challenges (ie, laboratory information system integration, color calibration, display artifacts, potential for small particle scanner omissions, and information technology dependence), the potential for slower evaluation per slide compared with optical microscopes, limitations of slide imaging (ie, z-stacking or lack of polarization on digital pathology), and occupational concerns regarding eye strain with increased computer monitor usage (ie, computer vision syndrome).6,35 In addition, there are few telepathology scanners with FDA approval for WSI.6-8
The improving technology of telepathology has made these limitations surmountable, including faster slide scanning and increasing digital storage capacity for large WSI files. Due to this improvement in technology, an increasing number of laboratory settings, have adopted telepathology as its advantages have begun to outweigh the limitations.2-5 Additionally, the proper validation performed before implementing telepathology can help laboratories identify their unique challenges, troubleshoot, and resolve the limitations before use in clinical care.11-13 Continuing QA during its use and implementation is important to ensure that telepathology performs as expected for clinical purposes despite its limitations.2
Conclusions
Telepathology is a promising technology that may improve pathology practice once properly validated and implemented.1-8 Though there are barriers to this validation and implementation, particularly the capital costs and training, there are several potential benefits, including increased productivity, cost savings, improvement in the workflow, enhanced access to pathologic consultation, and adaptability of the pathology laboratory in an era of a decreased workforce and social distancing due to the COVID-19 pandemic.1-8,55-56 This potential applies across the wide spectrum of potential telepathology uses from frozen section, telecytology (including ROSE) to primary and second opinion diagnoses.1-8,17-33 The benefits also extends to QA, education, and research, as diagnoses can not only be rereviewed by specialty or second opinion consultation with ease, but also digital slides can be produced for educational and research purposes.3-8,35-45 Settings that treat the general population and those focused on the care of veterans or members of the armed forces have reported similar reliability or successful implementation.35-44,61-63 All in all, the use of telepathology represents an innovation that may transform the practice of pathology tomorrow.
1. Weinstein RS. Prospects for telepathology. Hum Pathol. 1986;17(5):433-434. doi:10.1016/s0046-8177(86)80028-4
2. Pantanowitz L, Dickinson K, Evans AJ, et al. American Telemedicine Association clinical guidelines for telepathology. J Pathol Inform. 2014;5(1):39. Published 2014 Oct 21. doi:10.4103/2153-3539.143329
3. Farahani N, Pantanowitz L. Overview of telepathology. Surg Pathol Clin. 2015;8(2):223-231. doi:10.1016/j.path. 2015.02.018 4. Petersen JM, Jhala D. Telepathology: a transforming practice for the efficient, safe, and best patient care at the regional Veteran Affairs medical center. Am J Clin Pathol. 2022;158(suppl 1):S97-S98. doi:10.1093/ajcp/aqac126.205
5. Bashshur RL, Krupinski EA, Weinstein RS, Dunn MR, Bashshur N. The empirical foundations of telepathology: evidence of feasibility and intermediate effects. Telemed J E Health. 2017;23(3):155-191. doi:10.1089/tmj.2016.0278
6. Jahn SW, Plass M, Moinfar F. Digital pathology: advantages, limitations and emerging perspectives. J Clin Med. 2020;9(11):3697. Published 2020 Nov 18. doi:10.3390/jcm9113697
7. Evans AJ, Bauer TW, Bui MM, et al. US Food and Drug Administration approval of whole slide imaging for primary diagnosis: a key milestone is reached and new questions are raised. Arch Pathol Lab Med. 2018;142(11):1383-1387. doi:10.5858/arpa.2017-0496-CP.
8. Patel A, Balis UGJ, Cheng J, et al. Contemporary whole slide imaging devices and their applications within the modern pathology department: a selected hardware review. J Pathol Inform. 2021;12:50. Published 2021 Dec 9. doi:10.4103/jpi.jpi_66_21
9. Association of American Medical Colleges. 2017 State Physician Workforce Data Book. November 2017. Accessed April 14, 2023. https://store.aamc.org/downloadable/download/sample/sample_id/30
10. Robboy SJ, Gross D, Park JY, et al. Reevaluation of the US pathologist workforce size. JAMA Netw Open. 2020;3(7):e2010648. Published 2020 Jul 1. doi:10.1001/jamanetworkopen.2020.10648
11. Pantanowitz L, Sinard JH, Henricks WH, et al. Validating whole slide imaging for diagnostic purposes in pathology: guideline from the College of American Pathologists Pathology and Laboratory Quality Center. Arch Pathol Lab Med. 2013;137(12):1710-1722. doi:10.5858/arpa.2013-0093-CP
12. Evans AJ, Brown RW, Bui MM, et al. Validating whole slide imaging systems for diagnostic purposes in pathology. Arch Pathol Lab Med. 2021;146(4):440-450. doi:10.5858/arpa.2020-0723-CP
13. Evans AJ, Lacchetti C, Reid K, Thomas NE. Validating whole slide imaging for diagnostic purposes in pathology: guideline update. College of American Pathologists. May 2021. Accessed April 13, 2023. https://documents.cap.org/documents/wsi-methodology.pdf
14. Chandraratnam E, Santos LD, Chou S, et al. Parathyroid frozen section interpretation via desktop telepathology systems: a validation study. J Pathol Inform. 2018;9:41. Published 2018 Dec 3. doi:10.4103/jpi.jpi_57_18
15. Thrall MJ, Rivera AL, Takei H, Powell SZ. Validation of a novel robotic telepathology platform for neuropathology intraoperative touch preparations. J Pathol Inform. 2014;5(1):21. Published 2014 Jul 28. doi:10.4103/2153-3539.137642
16. Balis UGJ, Williams CL, Cheng J, et al. Whole-Slide Imaging: Thinking Twice Before Hitting the Delete Key. AJSP: Reviews & Reports. 2018;23(6):p 249-250. doi:10.1097/PCR.0000000000000283
17. Kim B, Chhieng DC, Crowe DR, et al. Dynamic telecytopathology of on site rapid cytology diagnoses for pancreatic carcinoma. Cytojournal. 2006;3:27. Published 2006 Dec 11. doi:10.1186/1742-6413-3-27
18. Perez D, Stemmer MN, Khurana KK. Utilization of dynamic telecytopathology for rapid onsite evaluation of touch imprint cytology of needle core biopsy: diagnostic accuracy and pitfalls. Telemed J E Health. 2021;27(5):525-531. doi:10.1089/tmj.2020.0117
19. McCarthy EE, McMahon RQ, Das K, Stewart J 3rd. Internal validation testing for new technologies: bringing telecytopathology into the mainstream. Diagn Cytopathol. 2015;43(1):3-7. doi:10.1002/dc.23167
20. Marletta S, Treanor D, Eccher A, Pantanowitz L. Whole-slide imaging in cytopathology: state of the art and future directions. Diagn Histopathol (Oxf). 2021;27(11):425-430. doi:10.1016/j.mpdhp.2021.08.001
21. Lin O. Telecytology for rapid on-site evaluation: current status. J Am Soc Cytopathol. 2018;7(1):1-6. doi:10.1016/j.jasc.2017.10.002
22. Eloubeidi MA, Tamhane A, Jhala N, et al. Agreement between rapid onsite and final cytologic interpretations of EUS-guided FNA specimens: implications for the endosonographer and patient management. Am J Gastroenterol. 2006;101(12):2841-2847. doi:10.1111/j.1572-0241.2006.00852.x
23. Layfield LJ, Bentz JS, Gopez EV. Immediate on-site interpretation of fine-needle aspiration smears: a cost and compensation analysis. Cancer. 2001;93(5):319-322. doi:10.1002/cncr.9046
24. Fontelo P, Liu F, Yagi Y. Evaluation of a smartphone for telepathology: lessons learned. J Pathol Inform. 2015;6:35. Published 2015 Jun 23. doi:10.4103/2153-3539.158912
25. Lin O. Telecytology for rapid on-site evaluation: current status. J Am Soc Cytopathol. 2018;7(1):1-6. doi:10.1016/j.jasc.2017.10.002
26. Johnson DN, Onenerk M, Krane JF, et al. Cytologic grading of primary malignant salivary gland tumors: A blinded review by an international panel. Cancer Cytopathol. 2020;128(6):392-402. doi:10.1002/cncy.22271
27. Trabzonlu L, Chatt G, McIntire PJ, et al. Telecytology validation: is there a recipe for everybody? J Am Soc Cytopathol. 2022;11(4):218-225. doi:10.1016/j.jasc.2022.03.001
28. Canberk S, Behzatoglu K, Caliskan CK, et al. The role of telecytology in the primary diagnosis of thyroid fine-needle aspiration specimens. Acta Cytol. 2020;64(4):323-331. doi:10.1159/000503914.
29. Archondakis S, Roma M, Kaladelfou E. Implementation of pre-captured videos for remote diagnosis of cervical cytology specimens. Cytopathology. 2021;32(3):338-343. doi:10.1111/cyt.12948
30. Lee ES, Kim IS, Choi JS, et al. Accuracy and reproducibility of telecytology diagnosis of cervical smears. A tool for quality assurance programs. Am J Clin Pathol. 2003;119(3):356-360. doi:10.1309/7ytvag4xnr48t75h
31. Dietz RL, Hartman DJ, Pantanowitz L. Systematic review of the use of telepathology during intraoperative consultation. Am J Clin Pathol. 2020;153(2):198-209. doi:10.1093/ajcp/aqz155
32. Bauer TW, Slaw RJ, McKenney JK, Patil DT. Validation of whole slide imaging for frozen section diagnosis in surgical pathology. J Pathol Inform. 2015;6:49. Published 2015 Aug 31. doi:10.4103/2153-3539.163988
33. Vosoughi A, Smith PT, Zeitouni JA, et al. Frozen section evaluation via dynamic real-time nonrobotic telepathology system in a university cancer center by resident/faculty cooperation team. Hum Pathol. 2018;78:144-150. doi:10.1016/j.humpath.2018.04.012
34. Mahe E, Ara S, Bishara M, et al. Intraoperative pathology consultation: error, cause and impact. Can J Surg. 2013;56(3):E13-E18. doi:10.1503/cjs.011112.
35. Farahani N, Parwani AV, Pantanowitz L. Whole slide imaging in pathology: advantages, limitations, and emerging perspectives. Pathol Lab Med Int. 2015;7:23-33. doi:10.2147/PLMI.S59826
36. Thorstenson S, Molin J, Lundström C. Implementation of large-scale routine diagnostics using whole slide imaging in Sweden: digital pathology experiences 2006-2013. J Pathol Inform. 2014;5(1):14. Published 2014 Mar 28. doi:10.4103/2153-3539.129452
37. Pantanowitz L, Wiley CA, Demetris A, et al. Experience with multimodality telepathology at the University of Pittsburgh Medical Center. J Pathol Inform. 2012;3:45. doi:10.4103/2153-3539.104907
38. Al Habeeb A, Evans A, Ghazarian D. Virtual microscopy using whole-slide imaging as an enabler for teledermatopathology: a paired consultant validation study. J Pathol Inform. 2012;3:2. doi:10.4103/2153-3539.93399
39. Al-Janabi S, Huisman A, Vink A, et al. Whole slide images for primary diagnostics in dermatopathology: a feasibility study. J Clin Pathol. 2012;65(2):152-158. doi:10.1136/jclinpath-2011-200277
40. Nielsen PS, Lindebjerg J, Rasmussen J, Starklint H, Waldstrøm M, Nielsen B. Virtual microscopy: an evaluation of its validity and diagnostic performance in routine histologic diagnosis of skin tumors. Hum Pathol. 2010;41(12):1770-1776. doi:10.1016/j.humpath.2010.05.015
41. Leinweber B, Massone C, Kodama K, et al. Telederma-topathology: a controlled study about diagnostic validity and technical requirements for digital transmission. Am J Dermatopathol. 2006;28(5):413-416. doi:10.1097/01.dad.0000211523.95552.86
42. Koch LH, Lampros JN, Delong LK, Chen SC, Woosley JT, Hood AF. Randomized comparison of virtual microscopy and traditional glass microscopy in diagnostic accuracy among dermatology and pathology residents. Hum Pathol. 2009;40(5):662-667. doi:10.1016/j.humpath.2008.10.009
43. Farris AB, Cohen C, Rogers TE, Smith GH. Whole slide imaging for analytical anatomic pathology and telepathology: practical applications today, promises, and perils. Arch Pathol Lab Med. 2017;141(4):542-550. doi:10.5858/arpa.2016-0265-SA
44. Chong T, Palma-Diaz MF, Fisher C, et al. The California Telepathology Service: UCLA’s experience in deploying a regional digital pathology subspecialty consultation network. J Pathol Inform. 2019;10:31. Published 2019 Sep 27. doi:10.4103/jpi.jpi_22_19
45. Meyer J, Paré G. Telepathology impacts and implementation challenges: a scoping review. Arch Pathol Lab Med. 2015;139(12):1550-1557. doi:10.5858/arpa.2014-0606-RA
46. Weinstein RS, Descour MR, Liang C, et al. Telepathology overview: from concept to implementation. Hum Pathol. 2001;32(12):1283-1299. doi:10.1053/hupa.2001.29643
47. Riley RS, Ben-Ezra JM, Massey D, Cousar J. The virtual blood film. Clin Lab Med. 2002;22(1):317-345. doi:10.1016/s0272-2712(03)00077-5
48. Garcia CA, Hanna M, Contis LC, Pantanowitz L, Hyman R. Sharing Cellavision blood smear images with clinicians via the electronic medical record. Blood. 2017;130(suppl 1):5586. doi:10.1182/blood.V130.Suppl_1.5586.5586
49. Goswami R, Pi D, Pal J, Cheng K, Hudoba De Badyn M. Performance evaluation of a dynamic telepathology system (Panoptiq) in the morphologic assessment of peripheral blood film abnormalities. Int J Lab Hematol. 2015;37(3):365-371. doi:10.1111/ijlh.12294
50. Rhoads DD, Mathison BA, Bishop HS, da Silva AJ, Pantanowitz L. Review of telemicrobiology. Arch Pathol Lab Med. 2016;140(4):362-370. doi:10.5858/arpa.2015-0116-RA51. Nam S, Chong Y, Jung CK, et al. Introduction to digital pathology and computer-aided pathology. J Pathol Transl Med. 2020;54(2):125-134. doi:10.4132/jptm.2019.12.31
52. Houser D, Shadhin G, Anstotz R, et al. The Temple University Hospital Digital Pathology Corpus. IEEE Signal Process Med Biol Symp. 2018:1-7. doi:10.1109/SPMB.2018.8615619
53. Petersen J, Dalal S, Jhala D. Criticality of in-house preparation of viral transport medium in times of shortage during COVID-19 pandemic. Lab Med. 2021;52(2):e39-e45. doi:10.1093/labmed/lmaa099
54. Ranney ML, Griffeth V, Jha AK. Critical supply shortages—the need for ventilators and personal protective equipment during the Covid-19 pandemic. N Engl J Med. 2020;382(18):e41. doi:10.1056/NEJMp2006141
55. Ksinan Jiskrova G. Impact of COVID-19 pandemic on the workforce: from psychological distress to the Great Resignation. J Epidemiol Community Health. 2022;76(6):525-526. doi:10.1136/jech-2022-218826
56. Henriksen J, Kolognizak T, Houghton T, et al. Rapid validation of telepathology by an academic neuropathology practice during the COVID-19 pandemic. Arch Pathol Lab Med. 2020;144(11):1311-1320. doi:10.5858/arpa.2020-0372-SA
57. Ardon O, Reuter VE, Hameed M, et al. Digital pathology operations at an NYC tertiary cancer center during the first 4 months of COVID-19 pandemic response. Acad Pathol. 2021;8:23742895211010276. Published 2021 Apr 28. doi:10.1177/23742895211010276
58. Jajosky RP, Jajosky AN, Kleven DT, Singh G. Fewer seniors from United States allopathic medical schools are filling pathology residency positions in the Main Residency Match, 2008-2017. Hum Pathol. 2018;73:26-32. doi:10.1016/j.humpath.2017.11.014
59. Metter DM, Colgan TJ, Leung ST, Timmons CF, Park JY. Trends in the US and Canadian pathologist workforces from 2007 to 2017. JAMA Netw Open. 2019;2(5):e194337. Published 2019 May 3. doi:10.1001/jamanetworkopen.2019.4337
60. Murray CJL. COVID-19 will continue but the end of the pandemic is near. Lancet. 2022;399(10323):417-419. doi:10.1016/S0140-6736(22)00100-3
61. Ghosh A, Brown GT, Fontelo P. Telepathology at the Armed Forces Institute of Pathology: a retrospective review of consultations from 1996 to 1997. Arch Pathol Lab Med. 2018;142(2):248-252. doi:10.5858/arpa.2017-0055-OA
62. Dunn BE, Choi H, Almagro UA, Recla DL, Davis CW. Telepathology networking in VISN-12 of the Veterans Health Administration. Telemed J E Health. 2000;6(3):349-354. doi:10.1089/153056200750040200
63. Dunn BE, Almagro UA, Choi H, et al. Dynamic-robotic telepathology: Department of Veterans Affairs feasibility study. Hum Pathol. 1997;28(1):8-12. doi:10.1016/s0046-8177(97)90271-9
64. Agha Z, Lofgren RP, VanRuiswyk JV, Layde PM. Are patients at Veterans Affairs medical centers sicker? A comparative analysis of health status and medical resource use. Arch Intern Med. 2000;160(21):3252-3257. doi:10.1001/archinte.160.21.3252
65. Eibner C, Krull H, Brown KM, et al. Current and projected characteristics and unique health care needs of the patient population served by the Department of Veterans Affairs. Rand Health Q. 2016;5(4):13. Published 2016 May 9.
66. Morgan RO, Teal CR, Reddy SG, Ford ME, Ashton CM. Measurement in Veterans Affairs Health Services Research: veterans as a special population. Health Serv Res. 2005;40(5, pt 2):1573-1583. doi:10.1111/j.1475-6773.2005.00448
1. Weinstein RS. Prospects for telepathology. Hum Pathol. 1986;17(5):433-434. doi:10.1016/s0046-8177(86)80028-4
2. Pantanowitz L, Dickinson K, Evans AJ, et al. American Telemedicine Association clinical guidelines for telepathology. J Pathol Inform. 2014;5(1):39. Published 2014 Oct 21. doi:10.4103/2153-3539.143329
3. Farahani N, Pantanowitz L. Overview of telepathology. Surg Pathol Clin. 2015;8(2):223-231. doi:10.1016/j.path. 2015.02.018 4. Petersen JM, Jhala D. Telepathology: a transforming practice for the efficient, safe, and best patient care at the regional Veteran Affairs medical center. Am J Clin Pathol. 2022;158(suppl 1):S97-S98. doi:10.1093/ajcp/aqac126.205
5. Bashshur RL, Krupinski EA, Weinstein RS, Dunn MR, Bashshur N. The empirical foundations of telepathology: evidence of feasibility and intermediate effects. Telemed J E Health. 2017;23(3):155-191. doi:10.1089/tmj.2016.0278
6. Jahn SW, Plass M, Moinfar F. Digital pathology: advantages, limitations and emerging perspectives. J Clin Med. 2020;9(11):3697. Published 2020 Nov 18. doi:10.3390/jcm9113697
7. Evans AJ, Bauer TW, Bui MM, et al. US Food and Drug Administration approval of whole slide imaging for primary diagnosis: a key milestone is reached and new questions are raised. Arch Pathol Lab Med. 2018;142(11):1383-1387. doi:10.5858/arpa.2017-0496-CP.
8. Patel A, Balis UGJ, Cheng J, et al. Contemporary whole slide imaging devices and their applications within the modern pathology department: a selected hardware review. J Pathol Inform. 2021;12:50. Published 2021 Dec 9. doi:10.4103/jpi.jpi_66_21
9. Association of American Medical Colleges. 2017 State Physician Workforce Data Book. November 2017. Accessed April 14, 2023. https://store.aamc.org/downloadable/download/sample/sample_id/30
10. Robboy SJ, Gross D, Park JY, et al. Reevaluation of the US pathologist workforce size. JAMA Netw Open. 2020;3(7):e2010648. Published 2020 Jul 1. doi:10.1001/jamanetworkopen.2020.10648
11. Pantanowitz L, Sinard JH, Henricks WH, et al. Validating whole slide imaging for diagnostic purposes in pathology: guideline from the College of American Pathologists Pathology and Laboratory Quality Center. Arch Pathol Lab Med. 2013;137(12):1710-1722. doi:10.5858/arpa.2013-0093-CP
12. Evans AJ, Brown RW, Bui MM, et al. Validating whole slide imaging systems for diagnostic purposes in pathology. Arch Pathol Lab Med. 2021;146(4):440-450. doi:10.5858/arpa.2020-0723-CP
13. Evans AJ, Lacchetti C, Reid K, Thomas NE. Validating whole slide imaging for diagnostic purposes in pathology: guideline update. College of American Pathologists. May 2021. Accessed April 13, 2023. https://documents.cap.org/documents/wsi-methodology.pdf
14. Chandraratnam E, Santos LD, Chou S, et al. Parathyroid frozen section interpretation via desktop telepathology systems: a validation study. J Pathol Inform. 2018;9:41. Published 2018 Dec 3. doi:10.4103/jpi.jpi_57_18
15. Thrall MJ, Rivera AL, Takei H, Powell SZ. Validation of a novel robotic telepathology platform for neuropathology intraoperative touch preparations. J Pathol Inform. 2014;5(1):21. Published 2014 Jul 28. doi:10.4103/2153-3539.137642
16. Balis UGJ, Williams CL, Cheng J, et al. Whole-Slide Imaging: Thinking Twice Before Hitting the Delete Key. AJSP: Reviews & Reports. 2018;23(6):p 249-250. doi:10.1097/PCR.0000000000000283
17. Kim B, Chhieng DC, Crowe DR, et al. Dynamic telecytopathology of on site rapid cytology diagnoses for pancreatic carcinoma. Cytojournal. 2006;3:27. Published 2006 Dec 11. doi:10.1186/1742-6413-3-27
18. Perez D, Stemmer MN, Khurana KK. Utilization of dynamic telecytopathology for rapid onsite evaluation of touch imprint cytology of needle core biopsy: diagnostic accuracy and pitfalls. Telemed J E Health. 2021;27(5):525-531. doi:10.1089/tmj.2020.0117
19. McCarthy EE, McMahon RQ, Das K, Stewart J 3rd. Internal validation testing for new technologies: bringing telecytopathology into the mainstream. Diagn Cytopathol. 2015;43(1):3-7. doi:10.1002/dc.23167
20. Marletta S, Treanor D, Eccher A, Pantanowitz L. Whole-slide imaging in cytopathology: state of the art and future directions. Diagn Histopathol (Oxf). 2021;27(11):425-430. doi:10.1016/j.mpdhp.2021.08.001
21. Lin O. Telecytology for rapid on-site evaluation: current status. J Am Soc Cytopathol. 2018;7(1):1-6. doi:10.1016/j.jasc.2017.10.002
22. Eloubeidi MA, Tamhane A, Jhala N, et al. Agreement between rapid onsite and final cytologic interpretations of EUS-guided FNA specimens: implications for the endosonographer and patient management. Am J Gastroenterol. 2006;101(12):2841-2847. doi:10.1111/j.1572-0241.2006.00852.x
23. Layfield LJ, Bentz JS, Gopez EV. Immediate on-site interpretation of fine-needle aspiration smears: a cost and compensation analysis. Cancer. 2001;93(5):319-322. doi:10.1002/cncr.9046
24. Fontelo P, Liu F, Yagi Y. Evaluation of a smartphone for telepathology: lessons learned. J Pathol Inform. 2015;6:35. Published 2015 Jun 23. doi:10.4103/2153-3539.158912
25. Lin O. Telecytology for rapid on-site evaluation: current status. J Am Soc Cytopathol. 2018;7(1):1-6. doi:10.1016/j.jasc.2017.10.002
26. Johnson DN, Onenerk M, Krane JF, et al. Cytologic grading of primary malignant salivary gland tumors: A blinded review by an international panel. Cancer Cytopathol. 2020;128(6):392-402. doi:10.1002/cncy.22271
27. Trabzonlu L, Chatt G, McIntire PJ, et al. Telecytology validation: is there a recipe for everybody? J Am Soc Cytopathol. 2022;11(4):218-225. doi:10.1016/j.jasc.2022.03.001
28. Canberk S, Behzatoglu K, Caliskan CK, et al. The role of telecytology in the primary diagnosis of thyroid fine-needle aspiration specimens. Acta Cytol. 2020;64(4):323-331. doi:10.1159/000503914.
29. Archondakis S, Roma M, Kaladelfou E. Implementation of pre-captured videos for remote diagnosis of cervical cytology specimens. Cytopathology. 2021;32(3):338-343. doi:10.1111/cyt.12948
30. Lee ES, Kim IS, Choi JS, et al. Accuracy and reproducibility of telecytology diagnosis of cervical smears. A tool for quality assurance programs. Am J Clin Pathol. 2003;119(3):356-360. doi:10.1309/7ytvag4xnr48t75h
31. Dietz RL, Hartman DJ, Pantanowitz L. Systematic review of the use of telepathology during intraoperative consultation. Am J Clin Pathol. 2020;153(2):198-209. doi:10.1093/ajcp/aqz155
32. Bauer TW, Slaw RJ, McKenney JK, Patil DT. Validation of whole slide imaging for frozen section diagnosis in surgical pathology. J Pathol Inform. 2015;6:49. Published 2015 Aug 31. doi:10.4103/2153-3539.163988
33. Vosoughi A, Smith PT, Zeitouni JA, et al. Frozen section evaluation via dynamic real-time nonrobotic telepathology system in a university cancer center by resident/faculty cooperation team. Hum Pathol. 2018;78:144-150. doi:10.1016/j.humpath.2018.04.012
34. Mahe E, Ara S, Bishara M, et al. Intraoperative pathology consultation: error, cause and impact. Can J Surg. 2013;56(3):E13-E18. doi:10.1503/cjs.011112.
35. Farahani N, Parwani AV, Pantanowitz L. Whole slide imaging in pathology: advantages, limitations, and emerging perspectives. Pathol Lab Med Int. 2015;7:23-33. doi:10.2147/PLMI.S59826
36. Thorstenson S, Molin J, Lundström C. Implementation of large-scale routine diagnostics using whole slide imaging in Sweden: digital pathology experiences 2006-2013. J Pathol Inform. 2014;5(1):14. Published 2014 Mar 28. doi:10.4103/2153-3539.129452
37. Pantanowitz L, Wiley CA, Demetris A, et al. Experience with multimodality telepathology at the University of Pittsburgh Medical Center. J Pathol Inform. 2012;3:45. doi:10.4103/2153-3539.104907
38. Al Habeeb A, Evans A, Ghazarian D. Virtual microscopy using whole-slide imaging as an enabler for teledermatopathology: a paired consultant validation study. J Pathol Inform. 2012;3:2. doi:10.4103/2153-3539.93399
39. Al-Janabi S, Huisman A, Vink A, et al. Whole slide images for primary diagnostics in dermatopathology: a feasibility study. J Clin Pathol. 2012;65(2):152-158. doi:10.1136/jclinpath-2011-200277
40. Nielsen PS, Lindebjerg J, Rasmussen J, Starklint H, Waldstrøm M, Nielsen B. Virtual microscopy: an evaluation of its validity and diagnostic performance in routine histologic diagnosis of skin tumors. Hum Pathol. 2010;41(12):1770-1776. doi:10.1016/j.humpath.2010.05.015
41. Leinweber B, Massone C, Kodama K, et al. Telederma-topathology: a controlled study about diagnostic validity and technical requirements for digital transmission. Am J Dermatopathol. 2006;28(5):413-416. doi:10.1097/01.dad.0000211523.95552.86
42. Koch LH, Lampros JN, Delong LK, Chen SC, Woosley JT, Hood AF. Randomized comparison of virtual microscopy and traditional glass microscopy in diagnostic accuracy among dermatology and pathology residents. Hum Pathol. 2009;40(5):662-667. doi:10.1016/j.humpath.2008.10.009
43. Farris AB, Cohen C, Rogers TE, Smith GH. Whole slide imaging for analytical anatomic pathology and telepathology: practical applications today, promises, and perils. Arch Pathol Lab Med. 2017;141(4):542-550. doi:10.5858/arpa.2016-0265-SA
44. Chong T, Palma-Diaz MF, Fisher C, et al. The California Telepathology Service: UCLA’s experience in deploying a regional digital pathology subspecialty consultation network. J Pathol Inform. 2019;10:31. Published 2019 Sep 27. doi:10.4103/jpi.jpi_22_19
45. Meyer J, Paré G. Telepathology impacts and implementation challenges: a scoping review. Arch Pathol Lab Med. 2015;139(12):1550-1557. doi:10.5858/arpa.2014-0606-RA
46. Weinstein RS, Descour MR, Liang C, et al. Telepathology overview: from concept to implementation. Hum Pathol. 2001;32(12):1283-1299. doi:10.1053/hupa.2001.29643
47. Riley RS, Ben-Ezra JM, Massey D, Cousar J. The virtual blood film. Clin Lab Med. 2002;22(1):317-345. doi:10.1016/s0272-2712(03)00077-5
48. Garcia CA, Hanna M, Contis LC, Pantanowitz L, Hyman R. Sharing Cellavision blood smear images with clinicians via the electronic medical record. Blood. 2017;130(suppl 1):5586. doi:10.1182/blood.V130.Suppl_1.5586.5586
49. Goswami R, Pi D, Pal J, Cheng K, Hudoba De Badyn M. Performance evaluation of a dynamic telepathology system (Panoptiq) in the morphologic assessment of peripheral blood film abnormalities. Int J Lab Hematol. 2015;37(3):365-371. doi:10.1111/ijlh.12294
50. Rhoads DD, Mathison BA, Bishop HS, da Silva AJ, Pantanowitz L. Review of telemicrobiology. Arch Pathol Lab Med. 2016;140(4):362-370. doi:10.5858/arpa.2015-0116-RA51. Nam S, Chong Y, Jung CK, et al. Introduction to digital pathology and computer-aided pathology. J Pathol Transl Med. 2020;54(2):125-134. doi:10.4132/jptm.2019.12.31
52. Houser D, Shadhin G, Anstotz R, et al. The Temple University Hospital Digital Pathology Corpus. IEEE Signal Process Med Biol Symp. 2018:1-7. doi:10.1109/SPMB.2018.8615619
53. Petersen J, Dalal S, Jhala D. Criticality of in-house preparation of viral transport medium in times of shortage during COVID-19 pandemic. Lab Med. 2021;52(2):e39-e45. doi:10.1093/labmed/lmaa099
54. Ranney ML, Griffeth V, Jha AK. Critical supply shortages—the need for ventilators and personal protective equipment during the Covid-19 pandemic. N Engl J Med. 2020;382(18):e41. doi:10.1056/NEJMp2006141
55. Ksinan Jiskrova G. Impact of COVID-19 pandemic on the workforce: from psychological distress to the Great Resignation. J Epidemiol Community Health. 2022;76(6):525-526. doi:10.1136/jech-2022-218826
56. Henriksen J, Kolognizak T, Houghton T, et al. Rapid validation of telepathology by an academic neuropathology practice during the COVID-19 pandemic. Arch Pathol Lab Med. 2020;144(11):1311-1320. doi:10.5858/arpa.2020-0372-SA
57. Ardon O, Reuter VE, Hameed M, et al. Digital pathology operations at an NYC tertiary cancer center during the first 4 months of COVID-19 pandemic response. Acad Pathol. 2021;8:23742895211010276. Published 2021 Apr 28. doi:10.1177/23742895211010276
58. Jajosky RP, Jajosky AN, Kleven DT, Singh G. Fewer seniors from United States allopathic medical schools are filling pathology residency positions in the Main Residency Match, 2008-2017. Hum Pathol. 2018;73:26-32. doi:10.1016/j.humpath.2017.11.014
59. Metter DM, Colgan TJ, Leung ST, Timmons CF, Park JY. Trends in the US and Canadian pathologist workforces from 2007 to 2017. JAMA Netw Open. 2019;2(5):e194337. Published 2019 May 3. doi:10.1001/jamanetworkopen.2019.4337
60. Murray CJL. COVID-19 will continue but the end of the pandemic is near. Lancet. 2022;399(10323):417-419. doi:10.1016/S0140-6736(22)00100-3
61. Ghosh A, Brown GT, Fontelo P. Telepathology at the Armed Forces Institute of Pathology: a retrospective review of consultations from 1996 to 1997. Arch Pathol Lab Med. 2018;142(2):248-252. doi:10.5858/arpa.2017-0055-OA
62. Dunn BE, Choi H, Almagro UA, Recla DL, Davis CW. Telepathology networking in VISN-12 of the Veterans Health Administration. Telemed J E Health. 2000;6(3):349-354. doi:10.1089/153056200750040200
63. Dunn BE, Almagro UA, Choi H, et al. Dynamic-robotic telepathology: Department of Veterans Affairs feasibility study. Hum Pathol. 1997;28(1):8-12. doi:10.1016/s0046-8177(97)90271-9
64. Agha Z, Lofgren RP, VanRuiswyk JV, Layde PM. Are patients at Veterans Affairs medical centers sicker? A comparative analysis of health status and medical resource use. Arch Intern Med. 2000;160(21):3252-3257. doi:10.1001/archinte.160.21.3252
65. Eibner C, Krull H, Brown KM, et al. Current and projected characteristics and unique health care needs of the patient population served by the Department of Veterans Affairs. Rand Health Q. 2016;5(4):13. Published 2016 May 9.
66. Morgan RO, Teal CR, Reddy SG, Ford ME, Ashton CM. Measurement in Veterans Affairs Health Services Research: veterans as a special population. Health Serv Res. 2005;40(5, pt 2):1573-1583. doi:10.1111/j.1475-6773.2005.00448
Burnout threatens primary care workforce and doctors’ mental health
CHARLESTON, S.C. – Melanie Gray Miller, a 30-year-old physician, wiped away tears as she described the isolation she felt after losing a beloved patient.
“It was at the end of a night shift, when it seems like bad things always happen,” said Dr. Miller, who is training to become a pediatrician.
The infant had been sick for months in the Medical University of South Carolina’s pediatric intensive care unit and the possibility that he might not improve was obvious, Dr. Miller recalled during an April meeting with physicians and hospital administrators. But the suddenness of his death still caught her off guard.
“I have family and friends that I talk to about things,” she said. “But no one truly understands.”
Doctors don’t typically take time to grieve at work. But during that recent meeting, Dr. Miller and her colleagues opened up about the insomnia, emotional exhaustion, trauma, and burnout they experienced from their time in the pediatric ICU.
“This is not a normal place,” Grant Goodrich, the hospital system’s director of ethics, said to the group, acknowledging an occupational hazard the industry often downplays. “Most people don’t see kids die.”
The recurring conversation, scheduled for early-career doctors coming off month-long pediatric ICU rotations, is one way the hospital helps staffers cope with stress, according to Alyssa Rheingold, a licensed clinical psychologist who leads its resiliency program.
“Often the focus is to teach somebody how to do yoga and take a bath,” she said. “That’s not at all what well-being is about.”
Dr. Miller says working in the hospital’s pediatric intensive care unit can be tough. “In medicine, we’re just expected to be resilient 24/7,” she says. The trauma and stress from patients dying can be particularly hard to process.
Burnout in the health care industry is a widespread problem that long predates the COVID-19 pandemic, though the chaos introduced by the coronavirus’s spread made things worse, physicians and psychologists said. Health systems across the country are trying to boost morale and keep clinicians from quitting or retiring early, but the stakes are higher than workforce shortages.
Rates of physician suicide, partly fueled by burnout, have been a concern for decades.
“Why go into primary care when you can make twice the money doing something with half the stress?” said Daniel Crummett, a retired primary care doctor who lives in North Carolina. “I don’t know why anyone would go into primary care.”
Doctors say they are fed up with demands imposed by hospital administrators and health insurance companies, and they’re concerned about the notoriously grueling shifts assigned to medical residents during the early years of their careers. A long-standing stigma keeps physicians from prioritizing their own mental health, while their jobs require them to routinely grapple with death, grief, and trauma. The culture of medicine encourages them to simply bear it.
“Resiliency is a cringe word for me,” Dr. Miller said. “In medicine, we’re just expected to be resilient 24/7. I don’t love that culture.”
And though the pipeline of physicians entering the profession is strong, the ranks of doctors in the United States aren’t growing fast enough to meet future demand, according to the American Medical Association. That’s why burnout exacerbates workforce shortages and, if it continues, may limit the ability of some patients to access even basic care. A 2021 report published by the Association of American Medical Colleges projects the United States will be short as many as 48,000 primary care physicians by 2034, a higher number than any other single medical specialty.
A survey published last year by The Physicians Foundation, a nonprofit focused on improving health care, found more than half of the 1,501 responding doctors didn›t have positive feelings about the current or future state of the medical profession. More than 20% said they wanted to retire within a year.
Similarly, in a 2022 AMA survey of 11,000 doctors and other medical professionals, more than half reported feeling burned out and indicated they were experiencing a great deal of stress.
Those numbers appear to be even higher in primary care. Even before the pandemic, 70% of primary care providers and 89% of primary care residents reported feelings of burnout.
“Everyone in health care feels overworked,” said Gregg Coodley, a primary care physician in Portland, Ore., and author of the book “Patients in Peril: The Demise of Primary Care in America”
“I’m not saying there aren’t issues for other specialists, too, but in primary care, it’s the worst problem,” he said.
The high level of student debt most medical school graduates carry, combined with salaries more than four times as high as the average, deter many physicians from quitting medicine midcareer. Even primary care doctors, whose salaries are among the lowest of all medical specialties, are paid significantly more than the average American worker. That's why, instead of leaving the profession in their 30s or 40s, doctors often stay in their jobs but retire early.
“We go into medicine to help people, to take care of people, to do good in the world,” said Dr. Crummett, who retired from the Duke University hospital system in 2020 when he turned 65.
Dr. Crummett said he would have enjoyed working until he was 70, if not for the bureaucratic burdens of practicing medicine, including needing to get prior authorization from insurance companies before providing care, navigating cumbersome electronic health record platforms, and logging hours of administrative work outside the exam room.
“I enjoyed seeing patients. I really enjoyed my coworkers,” he said. “The administration was certainly a major factor in burnout.”
Jean Antonucci, a primary care doctor in rural Maine who retired from full-time work at 66, said she, too, would have kept working if not for the hassle of dealing with hospital administrators and insurance companies.
Once, Dr. Antonucci said, she had to call an insurance company – by landline and cellphone simultaneously, with one phone on each ear – to get prior authorization to conduct a CT scan, while her patient in need of an appendectomy waited in pain. The hospital wouldn’t conduct the scan without insurance approval.
“It was just infuriating,” said Dr. Antonucci, who now practices medicine only 1 day a week. “I could have kept working. I just got tired.”
Providers’ collective exhaustion is a crisis kept hidden by design, said Whitney Marvin, a pediatrician who works in the pediatric ICU at the Medical University of South Carolina. She said hospital culture implicitly teaches doctors to tamp down their emotions and to “keep moving.”
“I’m not supposed to be weak, and I’m not supposed to cry, and I’m not supposed to have all these emotions, because then maybe I’m not good enough at my job,” said Dr. Marvin, describing the way doctors have historically thought about their mental health.
This mentality prevents many doctors from seeking the help they need, which can lead to burnout – and much worse. An estimated 300 physicians die by suicide every year, according to the American Foundation for Suicide Prevention. The problem is particularly pronounced among female physicians, who die by suicide at a significantly higher rate than women in other professions.
A March report from this news organization found, of more than 9,000 doctors surveyed, 9% of male physicians and 11% of female physicians said they have had suicidal thoughts. But the problem isn’t new, the report noted. Elevated rates of suicide among physicians have been documented for 150 years.
“Ironically, it’s happening to a group of people who should have the easiest access to mental health care,” said Gary Price, a Connecticut surgeon and president of The Physicians Foundation.
But the reluctance to seek help isn’t unfounded, said Corey Feist, president of the Dr. Lorna Breen Heroes’ Foundation .
“There’s something known in residency as the ‘silent curriculum,’ ” Mr. Feist said in describing an often-unspoken understanding among doctors that seeking mental health treatment could jeopardize their livelihood.
Mr. Feist’s sister-in-law, emergency room physician Lorna Breen, died by suicide during the early months of the pandemic. Dr. Breen sought inpatient treatment for mental health once, Mr. Feist said, but feared that her medical license could be revoked for doing so.
The foundation works to change laws across the country to prohibit medical boards and hospitals from asking doctors invasive mental health questions on employment or license applications.
“These people need to be taken care of by us, because really, no one’s looking out for them,” Mr. Feist said.
In Charleston, psychologists are made available to physicians during group meetings like the one Dr. Miller attended, as part of the resiliency program.
But fixing the burnout problem also requires a cultural change, especially among older physicians.
“They had it worse and we know that. But it’s still not good,” Dr. Miller said. “Until that changes, we’re just going to continue burning out physicians within the first 3 years of their career.”
KFF Health News is a national newsroom that produces in-depth journalism about health issues and is one of the core operating programs at KFF — the independent source for health policy research, polling, and journalism.
CHARLESTON, S.C. – Melanie Gray Miller, a 30-year-old physician, wiped away tears as she described the isolation she felt after losing a beloved patient.
“It was at the end of a night shift, when it seems like bad things always happen,” said Dr. Miller, who is training to become a pediatrician.
The infant had been sick for months in the Medical University of South Carolina’s pediatric intensive care unit and the possibility that he might not improve was obvious, Dr. Miller recalled during an April meeting with physicians and hospital administrators. But the suddenness of his death still caught her off guard.
“I have family and friends that I talk to about things,” she said. “But no one truly understands.”
Doctors don’t typically take time to grieve at work. But during that recent meeting, Dr. Miller and her colleagues opened up about the insomnia, emotional exhaustion, trauma, and burnout they experienced from their time in the pediatric ICU.
“This is not a normal place,” Grant Goodrich, the hospital system’s director of ethics, said to the group, acknowledging an occupational hazard the industry often downplays. “Most people don’t see kids die.”
The recurring conversation, scheduled for early-career doctors coming off month-long pediatric ICU rotations, is one way the hospital helps staffers cope with stress, according to Alyssa Rheingold, a licensed clinical psychologist who leads its resiliency program.
“Often the focus is to teach somebody how to do yoga and take a bath,” she said. “That’s not at all what well-being is about.”
Dr. Miller says working in the hospital’s pediatric intensive care unit can be tough. “In medicine, we’re just expected to be resilient 24/7,” she says. The trauma and stress from patients dying can be particularly hard to process.
Burnout in the health care industry is a widespread problem that long predates the COVID-19 pandemic, though the chaos introduced by the coronavirus’s spread made things worse, physicians and psychologists said. Health systems across the country are trying to boost morale and keep clinicians from quitting or retiring early, but the stakes are higher than workforce shortages.
Rates of physician suicide, partly fueled by burnout, have been a concern for decades.
“Why go into primary care when you can make twice the money doing something with half the stress?” said Daniel Crummett, a retired primary care doctor who lives in North Carolina. “I don’t know why anyone would go into primary care.”
Doctors say they are fed up with demands imposed by hospital administrators and health insurance companies, and they’re concerned about the notoriously grueling shifts assigned to medical residents during the early years of their careers. A long-standing stigma keeps physicians from prioritizing their own mental health, while their jobs require them to routinely grapple with death, grief, and trauma. The culture of medicine encourages them to simply bear it.
“Resiliency is a cringe word for me,” Dr. Miller said. “In medicine, we’re just expected to be resilient 24/7. I don’t love that culture.”
And though the pipeline of physicians entering the profession is strong, the ranks of doctors in the United States aren’t growing fast enough to meet future demand, according to the American Medical Association. That’s why burnout exacerbates workforce shortages and, if it continues, may limit the ability of some patients to access even basic care. A 2021 report published by the Association of American Medical Colleges projects the United States will be short as many as 48,000 primary care physicians by 2034, a higher number than any other single medical specialty.
A survey published last year by The Physicians Foundation, a nonprofit focused on improving health care, found more than half of the 1,501 responding doctors didn›t have positive feelings about the current or future state of the medical profession. More than 20% said they wanted to retire within a year.
Similarly, in a 2022 AMA survey of 11,000 doctors and other medical professionals, more than half reported feeling burned out and indicated they were experiencing a great deal of stress.
Those numbers appear to be even higher in primary care. Even before the pandemic, 70% of primary care providers and 89% of primary care residents reported feelings of burnout.
“Everyone in health care feels overworked,” said Gregg Coodley, a primary care physician in Portland, Ore., and author of the book “Patients in Peril: The Demise of Primary Care in America”
“I’m not saying there aren’t issues for other specialists, too, but in primary care, it’s the worst problem,” he said.
The high level of student debt most medical school graduates carry, combined with salaries more than four times as high as the average, deter many physicians from quitting medicine midcareer. Even primary care doctors, whose salaries are among the lowest of all medical specialties, are paid significantly more than the average American worker. That's why, instead of leaving the profession in their 30s or 40s, doctors often stay in their jobs but retire early.
“We go into medicine to help people, to take care of people, to do good in the world,” said Dr. Crummett, who retired from the Duke University hospital system in 2020 when he turned 65.
Dr. Crummett said he would have enjoyed working until he was 70, if not for the bureaucratic burdens of practicing medicine, including needing to get prior authorization from insurance companies before providing care, navigating cumbersome electronic health record platforms, and logging hours of administrative work outside the exam room.
“I enjoyed seeing patients. I really enjoyed my coworkers,” he said. “The administration was certainly a major factor in burnout.”
Jean Antonucci, a primary care doctor in rural Maine who retired from full-time work at 66, said she, too, would have kept working if not for the hassle of dealing with hospital administrators and insurance companies.
Once, Dr. Antonucci said, she had to call an insurance company – by landline and cellphone simultaneously, with one phone on each ear – to get prior authorization to conduct a CT scan, while her patient in need of an appendectomy waited in pain. The hospital wouldn’t conduct the scan without insurance approval.
“It was just infuriating,” said Dr. Antonucci, who now practices medicine only 1 day a week. “I could have kept working. I just got tired.”
Providers’ collective exhaustion is a crisis kept hidden by design, said Whitney Marvin, a pediatrician who works in the pediatric ICU at the Medical University of South Carolina. She said hospital culture implicitly teaches doctors to tamp down their emotions and to “keep moving.”
“I’m not supposed to be weak, and I’m not supposed to cry, and I’m not supposed to have all these emotions, because then maybe I’m not good enough at my job,” said Dr. Marvin, describing the way doctors have historically thought about their mental health.
This mentality prevents many doctors from seeking the help they need, which can lead to burnout – and much worse. An estimated 300 physicians die by suicide every year, according to the American Foundation for Suicide Prevention. The problem is particularly pronounced among female physicians, who die by suicide at a significantly higher rate than women in other professions.
A March report from this news organization found, of more than 9,000 doctors surveyed, 9% of male physicians and 11% of female physicians said they have had suicidal thoughts. But the problem isn’t new, the report noted. Elevated rates of suicide among physicians have been documented for 150 years.
“Ironically, it’s happening to a group of people who should have the easiest access to mental health care,” said Gary Price, a Connecticut surgeon and president of The Physicians Foundation.
But the reluctance to seek help isn’t unfounded, said Corey Feist, president of the Dr. Lorna Breen Heroes’ Foundation .
“There’s something known in residency as the ‘silent curriculum,’ ” Mr. Feist said in describing an often-unspoken understanding among doctors that seeking mental health treatment could jeopardize their livelihood.
Mr. Feist’s sister-in-law, emergency room physician Lorna Breen, died by suicide during the early months of the pandemic. Dr. Breen sought inpatient treatment for mental health once, Mr. Feist said, but feared that her medical license could be revoked for doing so.
The foundation works to change laws across the country to prohibit medical boards and hospitals from asking doctors invasive mental health questions on employment or license applications.
“These people need to be taken care of by us, because really, no one’s looking out for them,” Mr. Feist said.
In Charleston, psychologists are made available to physicians during group meetings like the one Dr. Miller attended, as part of the resiliency program.
But fixing the burnout problem also requires a cultural change, especially among older physicians.
“They had it worse and we know that. But it’s still not good,” Dr. Miller said. “Until that changes, we’re just going to continue burning out physicians within the first 3 years of their career.”
KFF Health News is a national newsroom that produces in-depth journalism about health issues and is one of the core operating programs at KFF — the independent source for health policy research, polling, and journalism.
CHARLESTON, S.C. – Melanie Gray Miller, a 30-year-old physician, wiped away tears as she described the isolation she felt after losing a beloved patient.
“It was at the end of a night shift, when it seems like bad things always happen,” said Dr. Miller, who is training to become a pediatrician.
The infant had been sick for months in the Medical University of South Carolina’s pediatric intensive care unit and the possibility that he might not improve was obvious, Dr. Miller recalled during an April meeting with physicians and hospital administrators. But the suddenness of his death still caught her off guard.
“I have family and friends that I talk to about things,” she said. “But no one truly understands.”
Doctors don’t typically take time to grieve at work. But during that recent meeting, Dr. Miller and her colleagues opened up about the insomnia, emotional exhaustion, trauma, and burnout they experienced from their time in the pediatric ICU.
“This is not a normal place,” Grant Goodrich, the hospital system’s director of ethics, said to the group, acknowledging an occupational hazard the industry often downplays. “Most people don’t see kids die.”
The recurring conversation, scheduled for early-career doctors coming off month-long pediatric ICU rotations, is one way the hospital helps staffers cope with stress, according to Alyssa Rheingold, a licensed clinical psychologist who leads its resiliency program.
“Often the focus is to teach somebody how to do yoga and take a bath,” she said. “That’s not at all what well-being is about.”
Dr. Miller says working in the hospital’s pediatric intensive care unit can be tough. “In medicine, we’re just expected to be resilient 24/7,” she says. The trauma and stress from patients dying can be particularly hard to process.
Burnout in the health care industry is a widespread problem that long predates the COVID-19 pandemic, though the chaos introduced by the coronavirus’s spread made things worse, physicians and psychologists said. Health systems across the country are trying to boost morale and keep clinicians from quitting or retiring early, but the stakes are higher than workforce shortages.
Rates of physician suicide, partly fueled by burnout, have been a concern for decades.
“Why go into primary care when you can make twice the money doing something with half the stress?” said Daniel Crummett, a retired primary care doctor who lives in North Carolina. “I don’t know why anyone would go into primary care.”
Doctors say they are fed up with demands imposed by hospital administrators and health insurance companies, and they’re concerned about the notoriously grueling shifts assigned to medical residents during the early years of their careers. A long-standing stigma keeps physicians from prioritizing their own mental health, while their jobs require them to routinely grapple with death, grief, and trauma. The culture of medicine encourages them to simply bear it.
“Resiliency is a cringe word for me,” Dr. Miller said. “In medicine, we’re just expected to be resilient 24/7. I don’t love that culture.”
And though the pipeline of physicians entering the profession is strong, the ranks of doctors in the United States aren’t growing fast enough to meet future demand, according to the American Medical Association. That’s why burnout exacerbates workforce shortages and, if it continues, may limit the ability of some patients to access even basic care. A 2021 report published by the Association of American Medical Colleges projects the United States will be short as many as 48,000 primary care physicians by 2034, a higher number than any other single medical specialty.
A survey published last year by The Physicians Foundation, a nonprofit focused on improving health care, found more than half of the 1,501 responding doctors didn›t have positive feelings about the current or future state of the medical profession. More than 20% said they wanted to retire within a year.
Similarly, in a 2022 AMA survey of 11,000 doctors and other medical professionals, more than half reported feeling burned out and indicated they were experiencing a great deal of stress.
Those numbers appear to be even higher in primary care. Even before the pandemic, 70% of primary care providers and 89% of primary care residents reported feelings of burnout.
“Everyone in health care feels overworked,” said Gregg Coodley, a primary care physician in Portland, Ore., and author of the book “Patients in Peril: The Demise of Primary Care in America”
“I’m not saying there aren’t issues for other specialists, too, but in primary care, it’s the worst problem,” he said.
The high level of student debt most medical school graduates carry, combined with salaries more than four times as high as the average, deter many physicians from quitting medicine midcareer. Even primary care doctors, whose salaries are among the lowest of all medical specialties, are paid significantly more than the average American worker. That's why, instead of leaving the profession in their 30s or 40s, doctors often stay in their jobs but retire early.
“We go into medicine to help people, to take care of people, to do good in the world,” said Dr. Crummett, who retired from the Duke University hospital system in 2020 when he turned 65.
Dr. Crummett said he would have enjoyed working until he was 70, if not for the bureaucratic burdens of practicing medicine, including needing to get prior authorization from insurance companies before providing care, navigating cumbersome electronic health record platforms, and logging hours of administrative work outside the exam room.
“I enjoyed seeing patients. I really enjoyed my coworkers,” he said. “The administration was certainly a major factor in burnout.”
Jean Antonucci, a primary care doctor in rural Maine who retired from full-time work at 66, said she, too, would have kept working if not for the hassle of dealing with hospital administrators and insurance companies.
Once, Dr. Antonucci said, she had to call an insurance company – by landline and cellphone simultaneously, with one phone on each ear – to get prior authorization to conduct a CT scan, while her patient in need of an appendectomy waited in pain. The hospital wouldn’t conduct the scan without insurance approval.
“It was just infuriating,” said Dr. Antonucci, who now practices medicine only 1 day a week. “I could have kept working. I just got tired.”
Providers’ collective exhaustion is a crisis kept hidden by design, said Whitney Marvin, a pediatrician who works in the pediatric ICU at the Medical University of South Carolina. She said hospital culture implicitly teaches doctors to tamp down their emotions and to “keep moving.”
“I’m not supposed to be weak, and I’m not supposed to cry, and I’m not supposed to have all these emotions, because then maybe I’m not good enough at my job,” said Dr. Marvin, describing the way doctors have historically thought about their mental health.
This mentality prevents many doctors from seeking the help they need, which can lead to burnout – and much worse. An estimated 300 physicians die by suicide every year, according to the American Foundation for Suicide Prevention. The problem is particularly pronounced among female physicians, who die by suicide at a significantly higher rate than women in other professions.
A March report from this news organization found, of more than 9,000 doctors surveyed, 9% of male physicians and 11% of female physicians said they have had suicidal thoughts. But the problem isn’t new, the report noted. Elevated rates of suicide among physicians have been documented for 150 years.
“Ironically, it’s happening to a group of people who should have the easiest access to mental health care,” said Gary Price, a Connecticut surgeon and president of The Physicians Foundation.
But the reluctance to seek help isn’t unfounded, said Corey Feist, president of the Dr. Lorna Breen Heroes’ Foundation .
“There’s something known in residency as the ‘silent curriculum,’ ” Mr. Feist said in describing an often-unspoken understanding among doctors that seeking mental health treatment could jeopardize their livelihood.
Mr. Feist’s sister-in-law, emergency room physician Lorna Breen, died by suicide during the early months of the pandemic. Dr. Breen sought inpatient treatment for mental health once, Mr. Feist said, but feared that her medical license could be revoked for doing so.
The foundation works to change laws across the country to prohibit medical boards and hospitals from asking doctors invasive mental health questions on employment or license applications.
“These people need to be taken care of by us, because really, no one’s looking out for them,” Mr. Feist said.
In Charleston, psychologists are made available to physicians during group meetings like the one Dr. Miller attended, as part of the resiliency program.
But fixing the burnout problem also requires a cultural change, especially among older physicians.
“They had it worse and we know that. But it’s still not good,” Dr. Miller said. “Until that changes, we’re just going to continue burning out physicians within the first 3 years of their career.”
KFF Health News is a national newsroom that produces in-depth journalism about health issues and is one of the core operating programs at KFF — the independent source for health policy research, polling, and journalism.
Widespread carboplatin, cisplatin shortages: NCCN survey
The survey, which included responses from 27 NCCN member institutions, revealed that 93% are experiencing a shortage of carboplatin and that 70% have reported a shortage of cisplatin.
“This is an unacceptable situation,” Robert W. Carlson, MD, NCCN’s chief executive offer, said in the statement released by the network.
“We are hearing from oncologists and pharmacists across the country who have to scramble to find appropriate alternatives for treating their patients with cancer right now,” Dr. Carlson said. And while the survey results show patients are still able to get lifesaving care, “it comes at a burden to our overtaxed medical facilities.”
The NCCN called on the federal government, the pharmaceutical industry, providers, and payers to take steps to “help mitigate any impacts” from this cancer drug shortage.
“We need to work together to improve the current situation and prevent it from happening again in the future,” Dr. Carlson stressed.
Carboplatin and cisplatin, which are frequently used together for systemic treatment, are highly effective therapies prescribed to treat many cancer types, including lung, breast, and prostate cancers, as well as leukemias and lymphomas. An estimated 500,000 new patients with cancer receive these agents each year.
The current survey, conducted over the last week of May, found that 100% of responding centers are able to continue to treat patients who need cisplatin without delays.
The same cannot be said for carboplatin: only 64% of centers said they are still able to continue treating all current patients receiving the platinum-based therapy. Among 19 responding centers, 20% reported that they were continuing carboplatin regimens for some but not all patients. And 16% reported treatment delays from having to obtain prior authorization for modified treatment plans, though none reported denials.
“Carboplatin has been in short supply for months but in the last 4 weeks has reached a critical stage,” according to one survey comment. “Without additional inventory many of our sites will be out of drug by early next week.”
In response to the survey question, “Is your center experiencing a shortage of carboplatin,” others made similar comments:
- “Current shipments from established manufacturers have been paused.”
- “The supply of carboplatin available is not meeting our demands.”
- “Without additional supply in early June, we will have to implement several shortage mitigation strategies.”
Survey respondents also addressed whether manufacturers or suppliers have provided any indication of when these drugs will become readily available again. For both drugs, about 60% of respondents said no. And for those who do receive updates, many noted that the “information is tentative and variable.”
Respondents indicated that other cancer agents, including methotrexate (67%) and 5FU (26%), are also in short supply at their centers.
The shortage and the uncertainty as to when it will end are forcing some centers to develop conservation and mitigation strategies.
The NCCN has broadly outlined how the federal government, the pharmaceutical industry, providers, and payers can help with prevention and mitigation. The NCCN has called on the federal government and the pharmaceutical industry to work to secure a steady supply of core anticancer drugs and has asked payers to “put patients first and provide flexible and efficient systems of providing coverage for alternative therapies replacing anti-cancer drugs that are unavailable or in shortage.”
Overall, the survey results “demonstrate the widespread impact of the chemotherapy shortage,” said Alyssa Schatz, MSW, senior director of policy and advocacy for NCCN. “We hope that by sharing this survey and calling for united action across the oncology community, we can come together to prevent future drug shortages and ensure quality, effective, equitable, and accessible cancer care for all.”
A version of this article first appeared on Medscape.com.
The survey, which included responses from 27 NCCN member institutions, revealed that 93% are experiencing a shortage of carboplatin and that 70% have reported a shortage of cisplatin.
“This is an unacceptable situation,” Robert W. Carlson, MD, NCCN’s chief executive offer, said in the statement released by the network.
“We are hearing from oncologists and pharmacists across the country who have to scramble to find appropriate alternatives for treating their patients with cancer right now,” Dr. Carlson said. And while the survey results show patients are still able to get lifesaving care, “it comes at a burden to our overtaxed medical facilities.”
The NCCN called on the federal government, the pharmaceutical industry, providers, and payers to take steps to “help mitigate any impacts” from this cancer drug shortage.
“We need to work together to improve the current situation and prevent it from happening again in the future,” Dr. Carlson stressed.
Carboplatin and cisplatin, which are frequently used together for systemic treatment, are highly effective therapies prescribed to treat many cancer types, including lung, breast, and prostate cancers, as well as leukemias and lymphomas. An estimated 500,000 new patients with cancer receive these agents each year.
The current survey, conducted over the last week of May, found that 100% of responding centers are able to continue to treat patients who need cisplatin without delays.
The same cannot be said for carboplatin: only 64% of centers said they are still able to continue treating all current patients receiving the platinum-based therapy. Among 19 responding centers, 20% reported that they were continuing carboplatin regimens for some but not all patients. And 16% reported treatment delays from having to obtain prior authorization for modified treatment plans, though none reported denials.
“Carboplatin has been in short supply for months but in the last 4 weeks has reached a critical stage,” according to one survey comment. “Without additional inventory many of our sites will be out of drug by early next week.”
In response to the survey question, “Is your center experiencing a shortage of carboplatin,” others made similar comments:
- “Current shipments from established manufacturers have been paused.”
- “The supply of carboplatin available is not meeting our demands.”
- “Without additional supply in early June, we will have to implement several shortage mitigation strategies.”
Survey respondents also addressed whether manufacturers or suppliers have provided any indication of when these drugs will become readily available again. For both drugs, about 60% of respondents said no. And for those who do receive updates, many noted that the “information is tentative and variable.”
Respondents indicated that other cancer agents, including methotrexate (67%) and 5FU (26%), are also in short supply at their centers.
The shortage and the uncertainty as to when it will end are forcing some centers to develop conservation and mitigation strategies.
The NCCN has broadly outlined how the federal government, the pharmaceutical industry, providers, and payers can help with prevention and mitigation. The NCCN has called on the federal government and the pharmaceutical industry to work to secure a steady supply of core anticancer drugs and has asked payers to “put patients first and provide flexible and efficient systems of providing coverage for alternative therapies replacing anti-cancer drugs that are unavailable or in shortage.”
Overall, the survey results “demonstrate the widespread impact of the chemotherapy shortage,” said Alyssa Schatz, MSW, senior director of policy and advocacy for NCCN. “We hope that by sharing this survey and calling for united action across the oncology community, we can come together to prevent future drug shortages and ensure quality, effective, equitable, and accessible cancer care for all.”
A version of this article first appeared on Medscape.com.
The survey, which included responses from 27 NCCN member institutions, revealed that 93% are experiencing a shortage of carboplatin and that 70% have reported a shortage of cisplatin.
“This is an unacceptable situation,” Robert W. Carlson, MD, NCCN’s chief executive offer, said in the statement released by the network.
“We are hearing from oncologists and pharmacists across the country who have to scramble to find appropriate alternatives for treating their patients with cancer right now,” Dr. Carlson said. And while the survey results show patients are still able to get lifesaving care, “it comes at a burden to our overtaxed medical facilities.”
The NCCN called on the federal government, the pharmaceutical industry, providers, and payers to take steps to “help mitigate any impacts” from this cancer drug shortage.
“We need to work together to improve the current situation and prevent it from happening again in the future,” Dr. Carlson stressed.
Carboplatin and cisplatin, which are frequently used together for systemic treatment, are highly effective therapies prescribed to treat many cancer types, including lung, breast, and prostate cancers, as well as leukemias and lymphomas. An estimated 500,000 new patients with cancer receive these agents each year.
The current survey, conducted over the last week of May, found that 100% of responding centers are able to continue to treat patients who need cisplatin without delays.
The same cannot be said for carboplatin: only 64% of centers said they are still able to continue treating all current patients receiving the platinum-based therapy. Among 19 responding centers, 20% reported that they were continuing carboplatin regimens for some but not all patients. And 16% reported treatment delays from having to obtain prior authorization for modified treatment plans, though none reported denials.
“Carboplatin has been in short supply for months but in the last 4 weeks has reached a critical stage,” according to one survey comment. “Without additional inventory many of our sites will be out of drug by early next week.”
In response to the survey question, “Is your center experiencing a shortage of carboplatin,” others made similar comments:
- “Current shipments from established manufacturers have been paused.”
- “The supply of carboplatin available is not meeting our demands.”
- “Without additional supply in early June, we will have to implement several shortage mitigation strategies.”
Survey respondents also addressed whether manufacturers or suppliers have provided any indication of when these drugs will become readily available again. For both drugs, about 60% of respondents said no. And for those who do receive updates, many noted that the “information is tentative and variable.”
Respondents indicated that other cancer agents, including methotrexate (67%) and 5FU (26%), are also in short supply at their centers.
The shortage and the uncertainty as to when it will end are forcing some centers to develop conservation and mitigation strategies.
The NCCN has broadly outlined how the federal government, the pharmaceutical industry, providers, and payers can help with prevention and mitigation. The NCCN has called on the federal government and the pharmaceutical industry to work to secure a steady supply of core anticancer drugs and has asked payers to “put patients first and provide flexible and efficient systems of providing coverage for alternative therapies replacing anti-cancer drugs that are unavailable or in shortage.”
Overall, the survey results “demonstrate the widespread impact of the chemotherapy shortage,” said Alyssa Schatz, MSW, senior director of policy and advocacy for NCCN. “We hope that by sharing this survey and calling for united action across the oncology community, we can come together to prevent future drug shortages and ensure quality, effective, equitable, and accessible cancer care for all.”
A version of this article first appeared on Medscape.com.
Is ChatGPT a friend or foe of medical publishing?
. These tools should not be listed as authors, and researchers must denote how AI-assisted technologies were used, the committee said.
These new guidelines are the latest effort for medical journals to define policies for using these large-scale language models (LLMs) in scientific publication. While these AI-assisted tools can help with tasks such as writing, analyzing data, catching mistakes, and much more, they are also prone to errors, noted Casey Greene, PhD, a professor of biomedical informatics at the University of Colorado at Denver, Aurora. It is also not totally clear how information is stored and processed in these kinds of tools, and who has access to that information, he noted.
At the same time, experts argue that these AI tools could have a positive impact on the field by limiting some of the linguistic disparities in scientific publishing as well as alleviating the burden of some monotonous or mechanical tasks that come along with manuscript writing.
What experts can agree on, though, is that the use of AI tools is here to stay. “This is going to become a common tool,” Dr. Greene said. “I don’t think there’s a way out of that at this point.”
A change in medical publishing
OpenAI released ChatGPT in November 2022. In its own words, ChatGPT is “a deep learning model that has been trained on a massive amount of text data to understand and generate humanlike text.” Enter a question or a prompt, and it will respond. For example, when asked how the AI tool can be used in scientific publishing, ChatGPT responded:
“ChatGPT can aid scientific publishing by generating ideas, clarifying concepts, conducting preliminary literature reviews, providing proofreading and editing suggestions, and assisting with outlining and organizing scientific papers. However, it should be used as a supportive tool alongside domain expertise and validation from trusted scientific sources.”
Just a few months after ChatGPT became available, researchers began using this tool in their own work. One individual, Som Biswas, MD, a radiologist at the University of Tennessee Health Science Center in Memphis, reportedly used ChatGPT to author 16 scientific articles in just 4 months, according to the Daily Beast. Five of these articles have been published in four different journals. Dr. Biswas declined to be interviewed for this article.
There were also reports of papers with ChatGPT as one of the listed authors, which sparked backlash. In response, JAMA, Nature, and Science all published editorials in January outlining their policies for using ChatGPT and other large language models in the scientific authoring process. Editors from the journals of the American College of Cardiology and the American College of Rheumatology also updated their policies to reflect the influence of AI authoring tools.
The consensus is that AI has no place on the author byline.
“We think that’s not appropriate, because coauthorship means that you are taking responsibility for the analysis and the generation of data that are included in a manuscript. A machine that is dictated by AI can’t take responsibility,” said Daniel Solomon, MD, MPH, a rheumatologist at Brigham and Women’s Hospital, Boston, and the editor in chief of the ACR journal Arthritis & Rheumatology.
Issues with AI
One of the big concerns around using AI in writing is that it can generate text that seems plausible but is untrue or not supported by data. For example, Dr. Greene and colleague Milton Pividori, PhD, also of the University of Colorado, were writing a journal article about new software they developed that uses a large language model to revise scientific manuscripts.
“We used the same software to revise that article and at one point, it added a line that noted that the large language model had been fine-tuned on a data set of manuscripts from within the same field. This makes a lot of sense, and is absolutely something you could do, but was not something that we did,” Dr. Greene said. “Without a really careful review of the content, it becomes possible to invent things that were not actually done.”
In another case, ChatGPT falsely stated that a prominent law professor had been accused of sexual assault, citing a Washington Post article that did not exist.
“We live in a society where we are extremely concerned about fake news,” Dr. Pividori added, “and [these kinds of errors] could certainly exacerbate that in the scientific community, which is very concerning because science informs public policy.”
Another issue is the lack of transparency around how large language models like ChatGPT process and store data used to make queries.
“We have no idea how they are recording all the prompts and things that we input into ChatGPT and their systems,” Dr. Pividori said.
OpenAI recently addressed some privacy concerns by allowing users to turn off their chat history with the AI chatbot, so conversations cannot be used to train or improve the company’s models. But Dr. Greene noted that the terms of service “still remain pretty nebulous.”
Dr. Solomon is also concerned with researchers using these AI tools in authoring without knowing how they work. “The thing we are really concerned about is that fact that [LLMs] are a bit of a black box – people don’t really understand the methodologies,” he said.
A positive tool?
But despite these concerns, many think that these types of AI-assisted tools could have a positive impact on medical publishing, particularly for researchers for whom English is not their first language, noted Catherine Gao, MD, a pulmonary and critical care instructor at Northwestern University, Chicago. She recently led research comparing scientific abstracts written by ChatGPT and real abstracts and discovered that reviewers found it “surprisingly difficult” to differentiate the two.
“The majority of research is published in English,” she said in an email. “Responsible use of LLMs can potentially reduce the burden of writing for busy scientists and improve equity for those who are not native English speakers.”
Dr. Pividori agreed, adding that as a non-native English speaker, he spends much more time working on the structure and grammar of sentences when authoring a manuscript, compared with people who speak English as a first language. He noted that these tools can also be used to automate some of the more monotonous tasks that come along with writing manuscripts and allow researchers to focus on the more creative aspects.
In the future, “I want to focus more on the things that only a human can do and let these tools do all the rest of it,” he said.
New rules
But despite how individual researchers feel about LLMs, they agree that these AI tools are here to stay.
“I think that we should anticipate that they will become part of the medical research establishment over time, when we figure out how to use them appropriately,” Dr. Solomon said.
While the debate of how to best use AI in medical publications will continue, journal editors agree that all authors of a manuscript are solely responsible for content in articles that used AI-assisted technology.
“Authors should carefully review and edit the result because AI can generate authoritative-sounding output that can be incorrect, incomplete, or biased,” the ICMJE guidelines state. “Authors should be able to assert that there is no plagiarism in their paper, including in text and images produced by the AI.” This includes appropriate attribution of all cited materials.
The committee also recommends that authors write in both the cover letter and submitted work how AI was used in the manuscript writing process. Recently updated guidelines from the World Association of Medical Editors recommend that all prompts used to generate new text or analytical work should be provided in submitted work. Dr. Greene also noted that if authors used an AI tool to revise their work, they can include a version of the manuscript untouched by LLMs.
It is similar to a preprint, he said, but rather than publishing a version of a paper prior to peer review, someone is showing a version of a manuscript before it was reviewed and revised by AI. “This type of practice could be a path that lets us benefit from these models,” he said, “without having the drawbacks that many are concerned about.”
Dr. Solomon has financial relationships with AbbVie, Amgen, Janssen, CorEvitas, and Moderna. Both Dr. Greene and Dr. Pividori are inventors in the U.S. Provisional Patent Application No. 63/486,706 that the University of Colorado has filed for the “Publishing Infrastructure For AI-Assisted Academic Authoring” invention with the U.S. Patent and Trademark Office. Dr. Greene and Dr. Pividori also received a grant from the Alfred P. Sloan Foundation to improve their AI-based manuscript revision tool. Dr. Gao reported no relevant financial relationships.
A version of this article originally appeared on Medscape.com.
. These tools should not be listed as authors, and researchers must denote how AI-assisted technologies were used, the committee said.
These new guidelines are the latest effort for medical journals to define policies for using these large-scale language models (LLMs) in scientific publication. While these AI-assisted tools can help with tasks such as writing, analyzing data, catching mistakes, and much more, they are also prone to errors, noted Casey Greene, PhD, a professor of biomedical informatics at the University of Colorado at Denver, Aurora. It is also not totally clear how information is stored and processed in these kinds of tools, and who has access to that information, he noted.
At the same time, experts argue that these AI tools could have a positive impact on the field by limiting some of the linguistic disparities in scientific publishing as well as alleviating the burden of some monotonous or mechanical tasks that come along with manuscript writing.
What experts can agree on, though, is that the use of AI tools is here to stay. “This is going to become a common tool,” Dr. Greene said. “I don’t think there’s a way out of that at this point.”
A change in medical publishing
OpenAI released ChatGPT in November 2022. In its own words, ChatGPT is “a deep learning model that has been trained on a massive amount of text data to understand and generate humanlike text.” Enter a question or a prompt, and it will respond. For example, when asked how the AI tool can be used in scientific publishing, ChatGPT responded:
“ChatGPT can aid scientific publishing by generating ideas, clarifying concepts, conducting preliminary literature reviews, providing proofreading and editing suggestions, and assisting with outlining and organizing scientific papers. However, it should be used as a supportive tool alongside domain expertise and validation from trusted scientific sources.”
Just a few months after ChatGPT became available, researchers began using this tool in their own work. One individual, Som Biswas, MD, a radiologist at the University of Tennessee Health Science Center in Memphis, reportedly used ChatGPT to author 16 scientific articles in just 4 months, according to the Daily Beast. Five of these articles have been published in four different journals. Dr. Biswas declined to be interviewed for this article.
There were also reports of papers with ChatGPT as one of the listed authors, which sparked backlash. In response, JAMA, Nature, and Science all published editorials in January outlining their policies for using ChatGPT and other large language models in the scientific authoring process. Editors from the journals of the American College of Cardiology and the American College of Rheumatology also updated their policies to reflect the influence of AI authoring tools.
The consensus is that AI has no place on the author byline.
“We think that’s not appropriate, because coauthorship means that you are taking responsibility for the analysis and the generation of data that are included in a manuscript. A machine that is dictated by AI can’t take responsibility,” said Daniel Solomon, MD, MPH, a rheumatologist at Brigham and Women’s Hospital, Boston, and the editor in chief of the ACR journal Arthritis & Rheumatology.
Issues with AI
One of the big concerns around using AI in writing is that it can generate text that seems plausible but is untrue or not supported by data. For example, Dr. Greene and colleague Milton Pividori, PhD, also of the University of Colorado, were writing a journal article about new software they developed that uses a large language model to revise scientific manuscripts.
“We used the same software to revise that article and at one point, it added a line that noted that the large language model had been fine-tuned on a data set of manuscripts from within the same field. This makes a lot of sense, and is absolutely something you could do, but was not something that we did,” Dr. Greene said. “Without a really careful review of the content, it becomes possible to invent things that were not actually done.”
In another case, ChatGPT falsely stated that a prominent law professor had been accused of sexual assault, citing a Washington Post article that did not exist.
“We live in a society where we are extremely concerned about fake news,” Dr. Pividori added, “and [these kinds of errors] could certainly exacerbate that in the scientific community, which is very concerning because science informs public policy.”
Another issue is the lack of transparency around how large language models like ChatGPT process and store data used to make queries.
“We have no idea how they are recording all the prompts and things that we input into ChatGPT and their systems,” Dr. Pividori said.
OpenAI recently addressed some privacy concerns by allowing users to turn off their chat history with the AI chatbot, so conversations cannot be used to train or improve the company’s models. But Dr. Greene noted that the terms of service “still remain pretty nebulous.”
Dr. Solomon is also concerned with researchers using these AI tools in authoring without knowing how they work. “The thing we are really concerned about is that fact that [LLMs] are a bit of a black box – people don’t really understand the methodologies,” he said.
A positive tool?
But despite these concerns, many think that these types of AI-assisted tools could have a positive impact on medical publishing, particularly for researchers for whom English is not their first language, noted Catherine Gao, MD, a pulmonary and critical care instructor at Northwestern University, Chicago. She recently led research comparing scientific abstracts written by ChatGPT and real abstracts and discovered that reviewers found it “surprisingly difficult” to differentiate the two.
“The majority of research is published in English,” she said in an email. “Responsible use of LLMs can potentially reduce the burden of writing for busy scientists and improve equity for those who are not native English speakers.”
Dr. Pividori agreed, adding that as a non-native English speaker, he spends much more time working on the structure and grammar of sentences when authoring a manuscript, compared with people who speak English as a first language. He noted that these tools can also be used to automate some of the more monotonous tasks that come along with writing manuscripts and allow researchers to focus on the more creative aspects.
In the future, “I want to focus more on the things that only a human can do and let these tools do all the rest of it,” he said.
New rules
But despite how individual researchers feel about LLMs, they agree that these AI tools are here to stay.
“I think that we should anticipate that they will become part of the medical research establishment over time, when we figure out how to use them appropriately,” Dr. Solomon said.
While the debate of how to best use AI in medical publications will continue, journal editors agree that all authors of a manuscript are solely responsible for content in articles that used AI-assisted technology.
“Authors should carefully review and edit the result because AI can generate authoritative-sounding output that can be incorrect, incomplete, or biased,” the ICMJE guidelines state. “Authors should be able to assert that there is no plagiarism in their paper, including in text and images produced by the AI.” This includes appropriate attribution of all cited materials.
The committee also recommends that authors write in both the cover letter and submitted work how AI was used in the manuscript writing process. Recently updated guidelines from the World Association of Medical Editors recommend that all prompts used to generate new text or analytical work should be provided in submitted work. Dr. Greene also noted that if authors used an AI tool to revise their work, they can include a version of the manuscript untouched by LLMs.
It is similar to a preprint, he said, but rather than publishing a version of a paper prior to peer review, someone is showing a version of a manuscript before it was reviewed and revised by AI. “This type of practice could be a path that lets us benefit from these models,” he said, “without having the drawbacks that many are concerned about.”
Dr. Solomon has financial relationships with AbbVie, Amgen, Janssen, CorEvitas, and Moderna. Both Dr. Greene and Dr. Pividori are inventors in the U.S. Provisional Patent Application No. 63/486,706 that the University of Colorado has filed for the “Publishing Infrastructure For AI-Assisted Academic Authoring” invention with the U.S. Patent and Trademark Office. Dr. Greene and Dr. Pividori also received a grant from the Alfred P. Sloan Foundation to improve their AI-based manuscript revision tool. Dr. Gao reported no relevant financial relationships.
A version of this article originally appeared on Medscape.com.
. These tools should not be listed as authors, and researchers must denote how AI-assisted technologies were used, the committee said.
These new guidelines are the latest effort for medical journals to define policies for using these large-scale language models (LLMs) in scientific publication. While these AI-assisted tools can help with tasks such as writing, analyzing data, catching mistakes, and much more, they are also prone to errors, noted Casey Greene, PhD, a professor of biomedical informatics at the University of Colorado at Denver, Aurora. It is also not totally clear how information is stored and processed in these kinds of tools, and who has access to that information, he noted.
At the same time, experts argue that these AI tools could have a positive impact on the field by limiting some of the linguistic disparities in scientific publishing as well as alleviating the burden of some monotonous or mechanical tasks that come along with manuscript writing.
What experts can agree on, though, is that the use of AI tools is here to stay. “This is going to become a common tool,” Dr. Greene said. “I don’t think there’s a way out of that at this point.”
A change in medical publishing
OpenAI released ChatGPT in November 2022. In its own words, ChatGPT is “a deep learning model that has been trained on a massive amount of text data to understand and generate humanlike text.” Enter a question or a prompt, and it will respond. For example, when asked how the AI tool can be used in scientific publishing, ChatGPT responded:
“ChatGPT can aid scientific publishing by generating ideas, clarifying concepts, conducting preliminary literature reviews, providing proofreading and editing suggestions, and assisting with outlining and organizing scientific papers. However, it should be used as a supportive tool alongside domain expertise and validation from trusted scientific sources.”
Just a few months after ChatGPT became available, researchers began using this tool in their own work. One individual, Som Biswas, MD, a radiologist at the University of Tennessee Health Science Center in Memphis, reportedly used ChatGPT to author 16 scientific articles in just 4 months, according to the Daily Beast. Five of these articles have been published in four different journals. Dr. Biswas declined to be interviewed for this article.
There were also reports of papers with ChatGPT as one of the listed authors, which sparked backlash. In response, JAMA, Nature, and Science all published editorials in January outlining their policies for using ChatGPT and other large language models in the scientific authoring process. Editors from the journals of the American College of Cardiology and the American College of Rheumatology also updated their policies to reflect the influence of AI authoring tools.
The consensus is that AI has no place on the author byline.
“We think that’s not appropriate, because coauthorship means that you are taking responsibility for the analysis and the generation of data that are included in a manuscript. A machine that is dictated by AI can’t take responsibility,” said Daniel Solomon, MD, MPH, a rheumatologist at Brigham and Women’s Hospital, Boston, and the editor in chief of the ACR journal Arthritis & Rheumatology.
Issues with AI
One of the big concerns around using AI in writing is that it can generate text that seems plausible but is untrue or not supported by data. For example, Dr. Greene and colleague Milton Pividori, PhD, also of the University of Colorado, were writing a journal article about new software they developed that uses a large language model to revise scientific manuscripts.
“We used the same software to revise that article and at one point, it added a line that noted that the large language model had been fine-tuned on a data set of manuscripts from within the same field. This makes a lot of sense, and is absolutely something you could do, but was not something that we did,” Dr. Greene said. “Without a really careful review of the content, it becomes possible to invent things that were not actually done.”
In another case, ChatGPT falsely stated that a prominent law professor had been accused of sexual assault, citing a Washington Post article that did not exist.
“We live in a society where we are extremely concerned about fake news,” Dr. Pividori added, “and [these kinds of errors] could certainly exacerbate that in the scientific community, which is very concerning because science informs public policy.”
Another issue is the lack of transparency around how large language models like ChatGPT process and store data used to make queries.
“We have no idea how they are recording all the prompts and things that we input into ChatGPT and their systems,” Dr. Pividori said.
OpenAI recently addressed some privacy concerns by allowing users to turn off their chat history with the AI chatbot, so conversations cannot be used to train or improve the company’s models. But Dr. Greene noted that the terms of service “still remain pretty nebulous.”
Dr. Solomon is also concerned with researchers using these AI tools in authoring without knowing how they work. “The thing we are really concerned about is that fact that [LLMs] are a bit of a black box – people don’t really understand the methodologies,” he said.
A positive tool?
But despite these concerns, many think that these types of AI-assisted tools could have a positive impact on medical publishing, particularly for researchers for whom English is not their first language, noted Catherine Gao, MD, a pulmonary and critical care instructor at Northwestern University, Chicago. She recently led research comparing scientific abstracts written by ChatGPT and real abstracts and discovered that reviewers found it “surprisingly difficult” to differentiate the two.
“The majority of research is published in English,” she said in an email. “Responsible use of LLMs can potentially reduce the burden of writing for busy scientists and improve equity for those who are not native English speakers.”
Dr. Pividori agreed, adding that as a non-native English speaker, he spends much more time working on the structure and grammar of sentences when authoring a manuscript, compared with people who speak English as a first language. He noted that these tools can also be used to automate some of the more monotonous tasks that come along with writing manuscripts and allow researchers to focus on the more creative aspects.
In the future, “I want to focus more on the things that only a human can do and let these tools do all the rest of it,” he said.
New rules
But despite how individual researchers feel about LLMs, they agree that these AI tools are here to stay.
“I think that we should anticipate that they will become part of the medical research establishment over time, when we figure out how to use them appropriately,” Dr. Solomon said.
While the debate of how to best use AI in medical publications will continue, journal editors agree that all authors of a manuscript are solely responsible for content in articles that used AI-assisted technology.
“Authors should carefully review and edit the result because AI can generate authoritative-sounding output that can be incorrect, incomplete, or biased,” the ICMJE guidelines state. “Authors should be able to assert that there is no plagiarism in their paper, including in text and images produced by the AI.” This includes appropriate attribution of all cited materials.
The committee also recommends that authors write in both the cover letter and submitted work how AI was used in the manuscript writing process. Recently updated guidelines from the World Association of Medical Editors recommend that all prompts used to generate new text or analytical work should be provided in submitted work. Dr. Greene also noted that if authors used an AI tool to revise their work, they can include a version of the manuscript untouched by LLMs.
It is similar to a preprint, he said, but rather than publishing a version of a paper prior to peer review, someone is showing a version of a manuscript before it was reviewed and revised by AI. “This type of practice could be a path that lets us benefit from these models,” he said, “without having the drawbacks that many are concerned about.”
Dr. Solomon has financial relationships with AbbVie, Amgen, Janssen, CorEvitas, and Moderna. Both Dr. Greene and Dr. Pividori are inventors in the U.S. Provisional Patent Application No. 63/486,706 that the University of Colorado has filed for the “Publishing Infrastructure For AI-Assisted Academic Authoring” invention with the U.S. Patent and Trademark Office. Dr. Greene and Dr. Pividori also received a grant from the Alfred P. Sloan Foundation to improve their AI-based manuscript revision tool. Dr. Gao reported no relevant financial relationships.
A version of this article originally appeared on Medscape.com.