Deepa Varma

TOPLINE:

Testosterone replacement therapy in middle-aged and older men with hypogonadism does not increase the risk for high-grade or any prostate cancer, new data confirmed.

METHODOLOGY:

• The relationship between testosterone replacement therapy and prostate cancer risk remains unclear.
• Epidemiologic studies have shown inconsistent findings, and clinical trials have not examined prostate safety. As a result, guidelines generally advise against testosterone replacement therapy in men with a history of or increased risk for prostate cancer.
• The current placebo-controlled, double-blind, parallel-group randomized study included 5204 men, ages 45-80, who had two fasting testosterone concentrations < 300 ng/dL, one or more hypogonadal symptoms, and a history of cardiovascular disease or increased . Patients were randomly assigned 1:1 to receive either testosterone replacement therapy or placebo.
• The primary prostate safety endpoint was incident high-grade prostate cancer (Gleason score 4 + 3 or higher).
• Secondary endpoints included incidence of any prostate cancer, acute urinary retention, invasive procedure for , , and new pharmacologic treatment for lower urinary tract symptoms.

TAKEAWAY:

• The incidence of high-grade prostate cancer did not differ significantly between groups. Over a mean follow-up of 33 months, only 0.19% (5 of 2596 participants) in the testosterone replacement therapy group and 0.12% (3 of 2602) in the placebo group were diagnosed with high-grade disease (hazard ratio [HR], 1.62; P = .51).
• The rate of any prostate cancer also did not differ significantly between the testosterone vs placebo groups (0.46% vs 0.42%; HR, 1.07; P = .87).
• The rates of acute urinary retention (0.77% vs 0.61%; HR, 1.25; P = .50), invasive procedures for benign prostatic hyperplasia (0.89% vs 0.46%; HR, 1.91; P = .07), prostate biopsy (0.62% vs 0.54%; HR, 1.13; P = .74), or new treatment for lower urinary tract symptoms (3.89% vs 3.34%; HR, 1.16; P = .32) did not differ significantly between the testosterone vs placebo groups.
• Compared with placebo, testosterone therapy did increase prostate-specific antigen (PSA) levels, but the differences were small and did not increase after 12 months.

IN PRACTICE:

In a population of middle-aged and older men with hypogonadism, “the incidences of high-grade or any prostate cancer and other prostate events were low and did not differ significantly between testosterone- and placebo-treated men,” the authors concluded. “The study’s findings will facilitate a more informed appraisal of the potential prostate risks of testosterone replacement therapy.”

SOURCE:

This study, led by Shalender Bhasin, MB, BS, Brigham and Women’s Hospital, Harvard Medical School, Boston, Massachusetts, was published online in JAMA Network Open.

LIMITATIONS:

These study findings do not apply to men with known prostate cancer, higher PSA values, or those without confirmed hypogonadism. The study design did not include prostate imaging or other biomarker tests after PSA testing, which may have affected the decision to perform a biopsy. Also, the rates of treatment discontinuation and loss to follow-up were high.

DISCLOSURES:

This study was funded by a consortium of testosterone manufacturers led by AbbVie Inc., with additional financial support from Endo Pharmaceuticals, Acerus Pharmaceuticals Corporation, and Upsher-Smith Laboratories. Bhasin, Lincoff, and Khera reported receiving grants and consulting and personal fees from various sources. The remaining authors disclosed no conflicts of interest.

A version of this article appeared on Medscape.com.

TOPLINE:

Testosterone replacement therapy in middle-aged and older men with hypogonadism does not increase the risk for high-grade or any prostate cancer, new data confirmed.

METHODOLOGY:

• The relationship between testosterone replacement therapy and prostate cancer risk remains unclear.
• Epidemiologic studies have shown inconsistent findings, and clinical trials have not examined prostate safety. As a result, guidelines generally advise against testosterone replacement therapy in men with a history of or increased risk for prostate cancer.
• The current placebo-controlled, double-blind, parallel-group randomized study included 5204 men, ages 45-80, who had two fasting testosterone concentrations < 300 ng/dL, one or more hypogonadal symptoms, and a history of cardiovascular disease or increased . Patients were randomly assigned 1:1 to receive either testosterone replacement therapy or placebo.
• The primary prostate safety endpoint was incident high-grade prostate cancer (Gleason score 4 + 3 or higher).
• Secondary endpoints included incidence of any prostate cancer, acute urinary retention, invasive procedure for , , and new pharmacologic treatment for lower urinary tract symptoms.

TAKEAWAY:

• The incidence of high-grade prostate cancer did not differ significantly between groups. Over a mean follow-up of 33 months, only 0.19% (5 of 2596 participants) in the testosterone replacement therapy group and 0.12% (3 of 2602) in the placebo group were diagnosed with high-grade disease (hazard ratio [HR], 1.62; P = .51).
• The rate of any prostate cancer also did not differ significantly between the testosterone vs placebo groups (0.46% vs 0.42%; HR, 1.07; P = .87).
• The rates of acute urinary retention (0.77% vs 0.61%; HR, 1.25; P = .50), invasive procedures for benign prostatic hyperplasia (0.89% vs 0.46%; HR, 1.91; P = .07), prostate biopsy (0.62% vs 0.54%; HR, 1.13; P = .74), or new treatment for lower urinary tract symptoms (3.89% vs 3.34%; HR, 1.16; P = .32) did not differ significantly between the testosterone vs placebo groups.
• Compared with placebo, testosterone therapy did increase prostate-specific antigen (PSA) levels, but the differences were small and did not increase after 12 months.

IN PRACTICE:

In a population of middle-aged and older men with hypogonadism, “the incidences of high-grade or any prostate cancer and other prostate events were low and did not differ significantly between testosterone- and placebo-treated men,” the authors concluded. “The study’s findings will facilitate a more informed appraisal of the potential prostate risks of testosterone replacement therapy.”

SOURCE:

This study, led by Shalender Bhasin, MB, BS, Brigham and Women’s Hospital, Harvard Medical School, Boston, Massachusetts, was published online in JAMA Network Open.

LIMITATIONS:

These study findings do not apply to men with known prostate cancer, higher PSA values, or those without confirmed hypogonadism. The study design did not include prostate imaging or other biomarker tests after PSA testing, which may have affected the decision to perform a biopsy. Also, the rates of treatment discontinuation and loss to follow-up were high.

DISCLOSURES:

This study was funded by a consortium of testosterone manufacturers led by AbbVie Inc., with additional financial support from Endo Pharmaceuticals, Acerus Pharmaceuticals Corporation, and Upsher-Smith Laboratories. Bhasin, Lincoff, and Khera reported receiving grants and consulting and personal fees from various sources. The remaining authors disclosed no conflicts of interest.

A version of this article appeared on Medscape.com.

TOPLINE:

Testosterone replacement therapy in middle-aged and older men with hypogonadism does not increase the risk for high-grade or any prostate cancer, new data confirmed.

METHODOLOGY:

• The relationship between testosterone replacement therapy and prostate cancer risk remains unclear.
• Epidemiologic studies have shown inconsistent findings, and clinical trials have not examined prostate safety. As a result, guidelines generally advise against testosterone replacement therapy in men with a history of or increased risk for prostate cancer.
• The current placebo-controlled, double-blind, parallel-group randomized study included 5204 men, ages 45-80, who had two fasting testosterone concentrations < 300 ng/dL, one or more hypogonadal symptoms, and a history of cardiovascular disease or increased . Patients were randomly assigned 1:1 to receive either testosterone replacement therapy or placebo.
• The primary prostate safety endpoint was incident high-grade prostate cancer (Gleason score 4 + 3 or higher).
• Secondary endpoints included incidence of any prostate cancer, acute urinary retention, invasive procedure for , , and new pharmacologic treatment for lower urinary tract symptoms.

TAKEAWAY:

• The incidence of high-grade prostate cancer did not differ significantly between groups. Over a mean follow-up of 33 months, only 0.19% (5 of 2596 participants) in the testosterone replacement therapy group and 0.12% (3 of 2602) in the placebo group were diagnosed with high-grade disease (hazard ratio [HR], 1.62; P = .51).
• The rate of any prostate cancer also did not differ significantly between the testosterone vs placebo groups (0.46% vs 0.42%; HR, 1.07; P = .87).
• The rates of acute urinary retention (0.77% vs 0.61%; HR, 1.25; P = .50), invasive procedures for benign prostatic hyperplasia (0.89% vs 0.46%; HR, 1.91; P = .07), prostate biopsy (0.62% vs 0.54%; HR, 1.13; P = .74), or new treatment for lower urinary tract symptoms (3.89% vs 3.34%; HR, 1.16; P = .32) did not differ significantly between the testosterone vs placebo groups.
• Compared with placebo, testosterone therapy did increase prostate-specific antigen (PSA) levels, but the differences were small and did not increase after 12 months.

IN PRACTICE:

In a population of middle-aged and older men with hypogonadism, “the incidences of high-grade or any prostate cancer and other prostate events were low and did not differ significantly between testosterone- and placebo-treated men,” the authors concluded. “The study’s findings will facilitate a more informed appraisal of the potential prostate risks of testosterone replacement therapy.”

SOURCE:

This study, led by Shalender Bhasin, MB, BS, Brigham and Women’s Hospital, Harvard Medical School, Boston, Massachusetts, was published online in JAMA Network Open.

LIMITATIONS:

These study findings do not apply to men with known prostate cancer, higher PSA values, or those without confirmed hypogonadism. The study design did not include prostate imaging or other biomarker tests after PSA testing, which may have affected the decision to perform a biopsy. Also, the rates of treatment discontinuation and loss to follow-up were high.

DISCLOSURES:

This study was funded by a consortium of testosterone manufacturers led by AbbVie Inc., with additional financial support from Endo Pharmaceuticals, Acerus Pharmaceuticals Corporation, and Upsher-Smith Laboratories. Bhasin, Lincoff, and Khera reported receiving grants and consulting and personal fees from various sources. The remaining authors disclosed no conflicts of interest.

A version of this article appeared on Medscape.com.

A 49-year-old woman, previously recuperating from COVID-19, was found unconscious at her workplace, setting off a chain of events that would ultimately lead to an unexpected diagnosis.

This case report was published in the New England Journal of Medicine.

Noting the patient’s confusion and aphasia, emergency medical services were alerted, and she was taken to the emergency department of Massachusetts General Hospital. Initial examination revealed aphasia and coordination difficulties. However, imaging studies, including CT angiography, showed no signs of stroke or other neurological abnormalities.

The patient’s coworkers had observed that she appeared “unwell.” Her medical history included hypertension, which was managed with amlodipine, and there was no known family history of neurologic disorders.

During the examination, her vital signs were within normal ranges.

The patient’s potassium level of 2.5 mmol/L was noteworthy, indicating hypokalemia. Additionally, the patient presented with anemia and thrombocytopenia. Additional laboratory results unveiled thrombotic thrombocytopenic purpura (TTP), a rare blood disorder characterized by microangiopathic hemolytic anemia. The microscopic examination of a peripheral blood smear confirmed the extent of thrombocytopenia and was particularly notable for the increased number of schistocytes. The patient’s peripheral blood smear revealed five or six schistocytes per high-power field, constituting approximately 5% of the red cells. This significant number of schistocytes aligned with the severity of anemia and thrombocytopenia, confirming the diagnosis of microangiopathic hemolytic anemia.

Acquired TTP is an autoimmune condition driven by antibody-mediated clearance of the plasma enzyme ADAMTS13 (a disintegrin and metalloproteinase with thrombospondin motif 13). Confirmatory laboratory testing for ADAMTS13 takes 1-3 days; therefore, therapeutic plasma exchange with glucocorticoid therapy and rituximab was initiated, which promptly improved her condition.

In this patient, the ADAMTS13 activity level was severely reduced (< 5%; reference value > 67%), and the inhibitor was present (1.4 inhibitor units; reference value ≤ 0.4).

Rectal cancer was diagnosed in this patient 2 months after the diagnosis of acquired TTP.

After undergoing four weekly infusions of rituximab and a 2-month tapering course of glucocorticoids, the patient experienced a relapse, approximately 6 months following the acquired TTP diagnosis. In response, therapeutic plasma exchange and glucocorticoid therapy were administered. There is a possibility that the underlying cancer played a role in the relapse. To minimize the risk for recurrence, the patient also received a second round of rituximab.

While establishing a clear cause is difficult, acquired TTP often appears to arise in connection with either an immune trigger, such as a viral infection, or immune dysregulation associated with another autoimmune disease or ongoing cancer. In this case, 4 weeks before the acquired TTP diagnosis, the patient had experienced COVID-19, which was likely to be the most probable trigger. However, rectal cancer was also identified in the patient, and whether these conditions are directly linked remains unclear.

A version of this article first appeared on Medscape.com.

A 49-year-old woman, previously recuperating from COVID-19, was found unconscious at her workplace, setting off a chain of events that would ultimately lead to an unexpected diagnosis.

This case report was published in the New England Journal of Medicine.

Noting the patient’s confusion and aphasia, emergency medical services were alerted, and she was taken to the emergency department of Massachusetts General Hospital. Initial examination revealed aphasia and coordination difficulties. However, imaging studies, including CT angiography, showed no signs of stroke or other neurological abnormalities.

The patient’s coworkers had observed that she appeared “unwell.” Her medical history included hypertension, which was managed with amlodipine, and there was no known family history of neurologic disorders.

During the examination, her vital signs were within normal ranges.

The patient’s potassium level of 2.5 mmol/L was noteworthy, indicating hypokalemia. Additionally, the patient presented with anemia and thrombocytopenia. Additional laboratory results unveiled thrombotic thrombocytopenic purpura (TTP), a rare blood disorder characterized by microangiopathic hemolytic anemia. The microscopic examination of a peripheral blood smear confirmed the extent of thrombocytopenia and was particularly notable for the increased number of schistocytes. The patient’s peripheral blood smear revealed five or six schistocytes per high-power field, constituting approximately 5% of the red cells. This significant number of schistocytes aligned with the severity of anemia and thrombocytopenia, confirming the diagnosis of microangiopathic hemolytic anemia.

Acquired TTP is an autoimmune condition driven by antibody-mediated clearance of the plasma enzyme ADAMTS13 (a disintegrin and metalloproteinase with thrombospondin motif 13). Confirmatory laboratory testing for ADAMTS13 takes 1-3 days; therefore, therapeutic plasma exchange with glucocorticoid therapy and rituximab was initiated, which promptly improved her condition.

In this patient, the ADAMTS13 activity level was severely reduced (< 5%; reference value > 67%), and the inhibitor was present (1.4 inhibitor units; reference value ≤ 0.4).

Rectal cancer was diagnosed in this patient 2 months after the diagnosis of acquired TTP.

After undergoing four weekly infusions of rituximab and a 2-month tapering course of glucocorticoids, the patient experienced a relapse, approximately 6 months following the acquired TTP diagnosis. In response, therapeutic plasma exchange and glucocorticoid therapy were administered. There is a possibility that the underlying cancer played a role in the relapse. To minimize the risk for recurrence, the patient also received a second round of rituximab.

While establishing a clear cause is difficult, acquired TTP often appears to arise in connection with either an immune trigger, such as a viral infection, or immune dysregulation associated with another autoimmune disease or ongoing cancer. In this case, 4 weeks before the acquired TTP diagnosis, the patient had experienced COVID-19, which was likely to be the most probable trigger. However, rectal cancer was also identified in the patient, and whether these conditions are directly linked remains unclear.

A version of this article first appeared on Medscape.com.

A 49-year-old woman, previously recuperating from COVID-19, was found unconscious at her workplace, setting off a chain of events that would ultimately lead to an unexpected diagnosis.

This case report was published in the New England Journal of Medicine.

Noting the patient’s confusion and aphasia, emergency medical services were alerted, and she was taken to the emergency department of Massachusetts General Hospital. Initial examination revealed aphasia and coordination difficulties. However, imaging studies, including CT angiography, showed no signs of stroke or other neurological abnormalities.

The patient’s coworkers had observed that she appeared “unwell.” Her medical history included hypertension, which was managed with amlodipine, and there was no known family history of neurologic disorders.

During the examination, her vital signs were within normal ranges.

The patient’s potassium level of 2.5 mmol/L was noteworthy, indicating hypokalemia. Additionally, the patient presented with anemia and thrombocytopenia. Additional laboratory results unveiled thrombotic thrombocytopenic purpura (TTP), a rare blood disorder characterized by microangiopathic hemolytic anemia. The microscopic examination of a peripheral blood smear confirmed the extent of thrombocytopenia and was particularly notable for the increased number of schistocytes. The patient’s peripheral blood smear revealed five or six schistocytes per high-power field, constituting approximately 5% of the red cells. This significant number of schistocytes aligned with the severity of anemia and thrombocytopenia, confirming the diagnosis of microangiopathic hemolytic anemia.

Acquired TTP is an autoimmune condition driven by antibody-mediated clearance of the plasma enzyme ADAMTS13 (a disintegrin and metalloproteinase with thrombospondin motif 13). Confirmatory laboratory testing for ADAMTS13 takes 1-3 days; therefore, therapeutic plasma exchange with glucocorticoid therapy and rituximab was initiated, which promptly improved her condition.

In this patient, the ADAMTS13 activity level was severely reduced (< 5%; reference value > 67%), and the inhibitor was present (1.4 inhibitor units; reference value ≤ 0.4).

Rectal cancer was diagnosed in this patient 2 months after the diagnosis of acquired TTP.

After undergoing four weekly infusions of rituximab and a 2-month tapering course of glucocorticoids, the patient experienced a relapse, approximately 6 months following the acquired TTP diagnosis. In response, therapeutic plasma exchange and glucocorticoid therapy were administered. There is a possibility that the underlying cancer played a role in the relapse. To minimize the risk for recurrence, the patient also received a second round of rituximab.

While establishing a clear cause is difficult, acquired TTP often appears to arise in connection with either an immune trigger, such as a viral infection, or immune dysregulation associated with another autoimmune disease or ongoing cancer. In this case, 4 weeks before the acquired TTP diagnosis, the patient had experienced COVID-19, which was likely to be the most probable trigger. However, rectal cancer was also identified in the patient, and whether these conditions are directly linked remains unclear.

A version of this article first appeared on Medscape.com.

TOPLINE:

The addition of early and empirical high-dose cryoprecipitate to usual care does not improve clinical outcomes in patients with trauma and bleeding who required activation of a major hemorrhage protocol (MHP).

METHODOLOGY:

• CRYOSTAT-2 was an interventional, randomized, open-label, parallel-group controlled, international, multicenter study.
• A total of 1,604 patients were enrolled from 25 major trauma centers in the United Kingdom (n = 1,555) and 1 in the United States (n = 49) between August 2017 and November 2021.
• A total of 805 patients were randomly assigned to receive the standard MHP (standard care), and 799 were randomly assigned to receive an additional three pools of cryoprecipitate.
• The primary outcome was all-cause mortality at 28 days.

TAKEAWAY:

• Addition of early cryoprecipitate versus standard care did not improve all-cause 28-day mortality in the intent-to-treat population (25.3% vs. 26.1%; P = .74).
• In patient subgroup with penetrating trauma, 28-day mortality was significantly higher in the cryoprecipitate group than in the standard care group (16.2% vs. 10.0%; odds ratio, 1.74; P = .006).
• Massive transfusion (RBC ≥ 10 U) was similar between the cryoprecipitate and standard care groups.

IN PRACTICE:

According to the authors, it is possible that certain patients may have benefited from cryoprecipitate, but they did not receive it promptly or in adequate doses to restore functional fibrinogen levels. Despite the study’s goal of early cryoprecipitate administration, the median time to the first transfusion exceeded 1 hour after the patient’s arrival, which highlights the logistical challenges of preparing and delivering a frozen blood component from a distant blood laboratory to the patient.

SOURCE:

The study, with first author Ross Davenport, PhD, of Queen Mary University of London and colleagues, was published in JAMA).

LIMITATIONS:

There was variability of timing of cryoprecipitate administration and an overlap with patients in the standard care group receiving the intervention as part of their usual MHP treatment.

DISCLOSURES:

The study was funded by the U.K. National Institute for Health and Care Research: Health Technology Assessment and Barts Charity, U.K.

A version of this article first appeared on Medscape.com.

TOPLINE:

The addition of early and empirical high-dose cryoprecipitate to usual care does not improve clinical outcomes in patients with trauma and bleeding who required activation of a major hemorrhage protocol (MHP).

METHODOLOGY:

• CRYOSTAT-2 was an interventional, randomized, open-label, parallel-group controlled, international, multicenter study.
• A total of 1,604 patients were enrolled from 25 major trauma centers in the United Kingdom (n = 1,555) and 1 in the United States (n = 49) between August 2017 and November 2021.
• A total of 805 patients were randomly assigned to receive the standard MHP (standard care), and 799 were randomly assigned to receive an additional three pools of cryoprecipitate.
• The primary outcome was all-cause mortality at 28 days.

TAKEAWAY:

• Addition of early cryoprecipitate versus standard care did not improve all-cause 28-day mortality in the intent-to-treat population (25.3% vs. 26.1%; P = .74).
• In patient subgroup with penetrating trauma, 28-day mortality was significantly higher in the cryoprecipitate group than in the standard care group (16.2% vs. 10.0%; odds ratio, 1.74; P = .006).
• Massive transfusion (RBC ≥ 10 U) was similar between the cryoprecipitate and standard care groups.

IN PRACTICE:

According to the authors, it is possible that certain patients may have benefited from cryoprecipitate, but they did not receive it promptly or in adequate doses to restore functional fibrinogen levels. Despite the study’s goal of early cryoprecipitate administration, the median time to the first transfusion exceeded 1 hour after the patient’s arrival, which highlights the logistical challenges of preparing and delivering a frozen blood component from a distant blood laboratory to the patient.

SOURCE:

The study, with first author Ross Davenport, PhD, of Queen Mary University of London and colleagues, was published in JAMA).

LIMITATIONS:

There was variability of timing of cryoprecipitate administration and an overlap with patients in the standard care group receiving the intervention as part of their usual MHP treatment.

DISCLOSURES:

The study was funded by the U.K. National Institute for Health and Care Research: Health Technology Assessment and Barts Charity, U.K.

A version of this article first appeared on Medscape.com.

TOPLINE:

The addition of early and empirical high-dose cryoprecipitate to usual care does not improve clinical outcomes in patients with trauma and bleeding who required activation of a major hemorrhage protocol (MHP).

METHODOLOGY:

• CRYOSTAT-2 was an interventional, randomized, open-label, parallel-group controlled, international, multicenter study.
• A total of 1,604 patients were enrolled from 25 major trauma centers in the United Kingdom (n = 1,555) and 1 in the United States (n = 49) between August 2017 and November 2021.
• A total of 805 patients were randomly assigned to receive the standard MHP (standard care), and 799 were randomly assigned to receive an additional three pools of cryoprecipitate.
• The primary outcome was all-cause mortality at 28 days.

TAKEAWAY:

• Addition of early cryoprecipitate versus standard care did not improve all-cause 28-day mortality in the intent-to-treat population (25.3% vs. 26.1%; P = .74).
• In patient subgroup with penetrating trauma, 28-day mortality was significantly higher in the cryoprecipitate group than in the standard care group (16.2% vs. 10.0%; odds ratio, 1.74; P = .006).
• Massive transfusion (RBC ≥ 10 U) was similar between the cryoprecipitate and standard care groups.

IN PRACTICE:

According to the authors, it is possible that certain patients may have benefited from cryoprecipitate, but they did not receive it promptly or in adequate doses to restore functional fibrinogen levels. Despite the study’s goal of early cryoprecipitate administration, the median time to the first transfusion exceeded 1 hour after the patient’s arrival, which highlights the logistical challenges of preparing and delivering a frozen blood component from a distant blood laboratory to the patient.

SOURCE:

The study, with first author Ross Davenport, PhD, of Queen Mary University of London and colleagues, was published in JAMA).

LIMITATIONS:

There was variability of timing of cryoprecipitate administration and an overlap with patients in the standard care group receiving the intervention as part of their usual MHP treatment.

DISCLOSURES:

The study was funded by the U.K. National Institute for Health and Care Research: Health Technology Assessment and Barts Charity, U.K.

A version of this article first appeared on Medscape.com.