Surgical Simulation in Orthopedic Surgery Residency

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Surgical Simulation in Orthopedic Surgery Residency

The training model for orthopedic resident education has been transformed. Surgeon factors, patient expectations, financial and legal concerns, associated costs, and work hour restrictions have put pressure on resident autonomy in the operating room.1,2 At the end of resident training, the expectation is that board-eligible surgeons will have the surgical skills necessary to perform a wide range of surgical procedures.3,4 Helping residents become proficient for independent practice requires a multidisciplinary approach.5 This approach, regardless of its details, requires investment in time, resources, expertise, and funding.

Many residency programs are trying to bridge the gap between observation and autonomy with surgical simulation. According to one study, 76% of residency programs have a surgical skills laboratory, and 46% have a structured surgical skills curriculum.6Surgical skills preparation is available in different modalities. Synthetic bones, virtual reality, and arthroscopic simulators represent potential opportunities for practice. Through these modalities, residents become more comfortable with the tools used in orthopedic procedures. Cadaveric dissection allows them to practice surgical approaches in the setting of real anatomy.1 Independent dissection helps them appreciate the planes, layers, and proximity of crucial body structures and understand important surgical anatomy.4Surgical simulation can be expensive, and funding comes in many forms. Cadaver laboratories require investment in specimens, facilities, and time away from clinical obligations.4 Cadaver availability varies with regional resources, and the cost of a cadaver ranges from $1000 to $2000.7,8 Arthroscopic simulators and virtual reality programs are expensive as well. These modalities range from a less expensive video box (with standard arthroscopic equipment) to a virtual reality haptic simulation costing a residency program as much as $80,000.9 Synthetic bone simulations are less expensive but require investment in faculty time and outside implants and instrumentation.10 The cost of simulation raises the question of funding sources.

Funding surgical simulation is a challenge. In a national survey of program directors, conducted by Karam and colleagues,6 87.3% of residencies cited lack of funding as the most significant barrier to a formal surgical skills program. Simulation can be residency-sponsored, industry-sponsored, or specialty-sponsored. Karam and colleagues6 found that department, hospital, and industry funding were the 3 main sponsors of surgical simulation. Each funding mechanism brings its own set of challenges and opportunities. Industry-sponsored simulation provides a cost-effective outlet for residency programs. However, this type of funding is under scrutiny, as industry funding for education becomes more transparent. In addition, industry funding typically limits the technology that can be used during the simulation to the sponsor’s technology. Courses offered by the American Academy of Orthopaedic Surgeons (AAOS) and a number of subspecialty societies provide less conflicted simulation at reasonable cost.

If residents, residency programs, hospitals, industry, subspecialty societies, and the AAOS are going to invest in resident education through simulation, then the effect of simulation on resident education must be understood. Intuitively, simulation as a modality for improving resident skills makes sense. For residency programs to invest in simulation and surgical skills, different modalities must be objectively evaluated and their utility validated. If simulation is to become valuable, first it must be done correctly.

Kneebone11 proposed a framework for evaluating simulation. In this framework, simulation should allow for sustained, deliberate practice in a safe environment. It should provide access to expert tutors when appropriate. It should map onto real-life clinical experience. Last, it should provide a supportive, motivational, learner-centered milieu. Residents and program directors should consider this framework when deciding which simulation exercises to engage in and which resources to supply for exercises. Having supportive supervision during simulation can lead to a positive outcome. Likewise, learning incorrect techniques or bad habits or having inexperienced teachers can have the opposite effect.

Several authors have reviewed the evidence and found simulation to be an important part of orthopedic resident education.1,2,4,9,12,13 They have evaluated cadaveric simulation, synthetic bone simulation, arthroscopic simulation, and virtual reality simulation. Their studies demonstrated that simulation is an effective tool and provided objective criteria for evaluating residents on a larger scale. In a blinded, randomized study by Howells and colleagues,14 junior residents were either trained on a knee simulator or received no training before evaluation. Those who received the training scored significantly better than their peers on validated assessment measures.

The literature on different modalities shows simulation is an effective teaching tool for general orthopedic surgical skills5; knee, shoulder, and ankle arthroscopy14-21; spine surgery22; and orthopedic trauma surgery.23-26 Investigators in several other surgical specialties have studied the utility of simulation, and many are incorporating simulation into their resident curricula.

More effective simulation seems correlated with a yearlong structured curriculum rather than with intermittent, isolated experiences.3 Dunn and colleagues27 evaluated arthroscopic shoulder simulation 1 year after a training exercise. The group that received formal training did better than the control group on an initial arthroscopic surgery skill evaluation tool. At 1 year, however, the gains made through training were lost.

Simulation is a new paradigm for resident education. It offers multiple opportunities and challenges for residents, residency programs, industry partners, specialty and subspecialty societies, and medical examiners. The Accreditation Council for Graduate Medical Education’s ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery requires of residency programs a didactic curriculum dedicated to basic motor skills in addition to a dedicated space for facilitating basic surgical skills training.28 Residency programs must demonstrate to ACGME their commitment to surgical skills training and simulation. Implementation of simulation for resident education has many variables, including funding, type of simulation, demonstrated efficacy, provision of supervision, resident time, and establishment of a formal curriculum. Residents and residency programs should embrace this changing paradigm to bridge the gap between observation and autonomy in orthopedic surgical and arthroscopic technique.

Am J Orthop. 2016;45(7):E426-E428. Copyright Frontline Medical Communications Inc. 2016. All rights reserved.

References

1. Atesok K, Mabrey JD, Jazrawi LM, Egol KA. Surgical simulation in orthopaedic skills training. J Am Acad Orthop Surg. 2012;20(7):410-422.

2. Thomas GW, Johns BD, Marsh JL, Anderson DD. A review of the role of simulation in developing and assessing orthopaedic surgical skills. Iowa Orthop J. 2014;34:181-189.

3. Reznick RK, MacRae H. Teaching surgical skills—changes in the wind. N Engl J Med. 2006;355(25):2664-2669.

4. Holland JP, Waugh L, Horgan A, Paleri V, Deehan DJ. Cadaveric hands-on training for surgical specialties: is this back to the future for surgical skills development? J Surg Educ. 2011;68(2):110-116.

5. Sonnadara RR, Van Vliet A, Safir O, et al. Orthopedic boot camp: examining the effectiveness of an intensive surgical skills course. Surgery. 2011;149(6):745-749.

6. Karam MD, Pedowitz RA, Natividad H, Murray J, Marsh JL. Current and future use of surgical skills training laboratories in orthopaedic resident education: a national survey. J Bone Joint Surg Am. 2013;95(1):e4.

7. Bushey C. Cadaver supply: the last industry to face big changes. Crain’s Chicago Business. February 23, 2013.

8. Human K. Cadaver shortage hits medical schools. Denver Post. April 29, 2008.

9. Michelson JD. Simulation in orthopaedic education: an overview of theory and practice. J Bone Joint Surg Am. 2006;88(6):1405-1411.

10. Elfar J, Menorca RM, Reed JD, Stanbury S. Composite bone models in orthopaedic surgery research and education. J Am Acad Orthop Surg. 2014;22(2):111-120.

11. Kneebone R. Evaluating clinical simulations for learning procedural skills: a theory-based approach. Acad Med. 2005;80(6):549-553.

12. Stirling ER, Lewis TL, Ferran NA. Surgical skills simulation in trauma and orthopaedic training. J Orthop Surg Res. 2014;9:126.

13. Mabrey JD, Reinig KD, Cannon WD. Virtual reality in orthopaedics: is it a reality? Clin Orthop Relat Res. 2010;468(10):2586-2591.

14. Howells NR, Gill HS, Carr AJ, Price AJ, Rees JL. Transferring simulated arthroscopic skills to the operating theatre: a randomised blinded study. J Bone Joint Surg Br. 2008;90(4):494-499.

15. Gomoll AH, O’Toole RV, Czarnecki J, Warner JJ. Surgical experience correlates with performance on a virtual reality simulator for shoulder arthroscopy. Am J Sports Med. 2007;35(6):883-888.

16. Gomoll AH, Pappas G, Forsythe B, Warner JJ. Individual skill progression on a virtual reality simulator for shoulder arthroscopy: a 3-year follow-up study. Am J Sports Med. 2008;36(6):1139-1142.

17. Pedowitz RA, Esch J, Snyder S. Evaluation of a virtual reality simulator for arthroscopy skills development. Arthroscopy. 2002;18(6):E29.

18. Martin KD, Belmont PJ, Schoenfeld AJ, Todd M, Cameron KL, Owens BD. Arthroscopic basic task performance in shoulder simulator model correlates with similar task performance in cadavers. J Bone Joint Surg Am. 2011;93(21):e1271-e1275.

19. Martin KD, Cameron K, Belmont PJ, Schoenfeld A, Owens BD. Shoulder arthroscopy simulator performance correlates with resident and shoulder arthroscopy experience. J Bone Joint Surg Am. 2012;94(21):e160.

20. Martin KD, Patterson D, Phisitkul P, Cameron KL, Femino J, Amendola A. Ankle arthroscopy simulation improves basic skills, anatomic recognition, and proficiency during diagnostic examination of residents in training. Foot Ankle Int. 2015;36(7):827-835.

21. Frank RM, Erickson B, Frank JM, et al. Utility of modern arthroscopic simulator training models. Arthroscopy. 2014;30(1):121-133.

22. Rambani R, Ward J, Viant W. Desktop-based computer-assisted orthopedic training system for spinal surgery. J Surg Educ. 2014;71(6):805-809.

23. Leong JJ, Leff DR, Das A, et al. Validation of orthopaedic bench models for trauma surgery. J Bone Joint Surg Br. 2008;90(7):958-965.

24. Rambani R, Viant W, Ward J, Mohsen A. Computer-assisted orthopedic training system for fracture fixation. J Surg Educ. 2013;70(3):304-308.

25. Blyth P, Stott NS, Anderson IA. A simulation-based training system for hip fracture fixation for use within the hospital environment. Injury. 2007;38(10):1197-1203.

26. Egol KA, Phillips D, Vongbandith T, Szyld D, Strauss EJ. Do orthopaedic fracture skills courses improve resident performance? Injury. 2015;46(4):547-551.

27. Dunn JC, Belmont PJ, Lanzi J, et al. Arthroscopic shoulder surgical simulation training curriculum: transfer reliability and maintenance of skill over time. J Surg Educ. 2015;72(6):1118-1123.

28. Accreditation Council for Graduate Medical Education. ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/260_orthopaedic_surgery_2016.pdf. Published July 1, 2012. Accessed September 30, 2016.

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The training model for orthopedic resident education has been transformed. Surgeon factors, patient expectations, financial and legal concerns, associated costs, and work hour restrictions have put pressure on resident autonomy in the operating room.1,2 At the end of resident training, the expectation is that board-eligible surgeons will have the surgical skills necessary to perform a wide range of surgical procedures.3,4 Helping residents become proficient for independent practice requires a multidisciplinary approach.5 This approach, regardless of its details, requires investment in time, resources, expertise, and funding.

Many residency programs are trying to bridge the gap between observation and autonomy with surgical simulation. According to one study, 76% of residency programs have a surgical skills laboratory, and 46% have a structured surgical skills curriculum.6Surgical skills preparation is available in different modalities. Synthetic bones, virtual reality, and arthroscopic simulators represent potential opportunities for practice. Through these modalities, residents become more comfortable with the tools used in orthopedic procedures. Cadaveric dissection allows them to practice surgical approaches in the setting of real anatomy.1 Independent dissection helps them appreciate the planes, layers, and proximity of crucial body structures and understand important surgical anatomy.4Surgical simulation can be expensive, and funding comes in many forms. Cadaver laboratories require investment in specimens, facilities, and time away from clinical obligations.4 Cadaver availability varies with regional resources, and the cost of a cadaver ranges from $1000 to $2000.7,8 Arthroscopic simulators and virtual reality programs are expensive as well. These modalities range from a less expensive video box (with standard arthroscopic equipment) to a virtual reality haptic simulation costing a residency program as much as $80,000.9 Synthetic bone simulations are less expensive but require investment in faculty time and outside implants and instrumentation.10 The cost of simulation raises the question of funding sources.

Funding surgical simulation is a challenge. In a national survey of program directors, conducted by Karam and colleagues,6 87.3% of residencies cited lack of funding as the most significant barrier to a formal surgical skills program. Simulation can be residency-sponsored, industry-sponsored, or specialty-sponsored. Karam and colleagues6 found that department, hospital, and industry funding were the 3 main sponsors of surgical simulation. Each funding mechanism brings its own set of challenges and opportunities. Industry-sponsored simulation provides a cost-effective outlet for residency programs. However, this type of funding is under scrutiny, as industry funding for education becomes more transparent. In addition, industry funding typically limits the technology that can be used during the simulation to the sponsor’s technology. Courses offered by the American Academy of Orthopaedic Surgeons (AAOS) and a number of subspecialty societies provide less conflicted simulation at reasonable cost.

If residents, residency programs, hospitals, industry, subspecialty societies, and the AAOS are going to invest in resident education through simulation, then the effect of simulation on resident education must be understood. Intuitively, simulation as a modality for improving resident skills makes sense. For residency programs to invest in simulation and surgical skills, different modalities must be objectively evaluated and their utility validated. If simulation is to become valuable, first it must be done correctly.

Kneebone11 proposed a framework for evaluating simulation. In this framework, simulation should allow for sustained, deliberate practice in a safe environment. It should provide access to expert tutors when appropriate. It should map onto real-life clinical experience. Last, it should provide a supportive, motivational, learner-centered milieu. Residents and program directors should consider this framework when deciding which simulation exercises to engage in and which resources to supply for exercises. Having supportive supervision during simulation can lead to a positive outcome. Likewise, learning incorrect techniques or bad habits or having inexperienced teachers can have the opposite effect.

Several authors have reviewed the evidence and found simulation to be an important part of orthopedic resident education.1,2,4,9,12,13 They have evaluated cadaveric simulation, synthetic bone simulation, arthroscopic simulation, and virtual reality simulation. Their studies demonstrated that simulation is an effective tool and provided objective criteria for evaluating residents on a larger scale. In a blinded, randomized study by Howells and colleagues,14 junior residents were either trained on a knee simulator or received no training before evaluation. Those who received the training scored significantly better than their peers on validated assessment measures.

The literature on different modalities shows simulation is an effective teaching tool for general orthopedic surgical skills5; knee, shoulder, and ankle arthroscopy14-21; spine surgery22; and orthopedic trauma surgery.23-26 Investigators in several other surgical specialties have studied the utility of simulation, and many are incorporating simulation into their resident curricula.

More effective simulation seems correlated with a yearlong structured curriculum rather than with intermittent, isolated experiences.3 Dunn and colleagues27 evaluated arthroscopic shoulder simulation 1 year after a training exercise. The group that received formal training did better than the control group on an initial arthroscopic surgery skill evaluation tool. At 1 year, however, the gains made through training were lost.

Simulation is a new paradigm for resident education. It offers multiple opportunities and challenges for residents, residency programs, industry partners, specialty and subspecialty societies, and medical examiners. The Accreditation Council for Graduate Medical Education’s ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery requires of residency programs a didactic curriculum dedicated to basic motor skills in addition to a dedicated space for facilitating basic surgical skills training.28 Residency programs must demonstrate to ACGME their commitment to surgical skills training and simulation. Implementation of simulation for resident education has many variables, including funding, type of simulation, demonstrated efficacy, provision of supervision, resident time, and establishment of a formal curriculum. Residents and residency programs should embrace this changing paradigm to bridge the gap between observation and autonomy in orthopedic surgical and arthroscopic technique.

Am J Orthop. 2016;45(7):E426-E428. Copyright Frontline Medical Communications Inc. 2016. All rights reserved.

The training model for orthopedic resident education has been transformed. Surgeon factors, patient expectations, financial and legal concerns, associated costs, and work hour restrictions have put pressure on resident autonomy in the operating room.1,2 At the end of resident training, the expectation is that board-eligible surgeons will have the surgical skills necessary to perform a wide range of surgical procedures.3,4 Helping residents become proficient for independent practice requires a multidisciplinary approach.5 This approach, regardless of its details, requires investment in time, resources, expertise, and funding.

Many residency programs are trying to bridge the gap between observation and autonomy with surgical simulation. According to one study, 76% of residency programs have a surgical skills laboratory, and 46% have a structured surgical skills curriculum.6Surgical skills preparation is available in different modalities. Synthetic bones, virtual reality, and arthroscopic simulators represent potential opportunities for practice. Through these modalities, residents become more comfortable with the tools used in orthopedic procedures. Cadaveric dissection allows them to practice surgical approaches in the setting of real anatomy.1 Independent dissection helps them appreciate the planes, layers, and proximity of crucial body structures and understand important surgical anatomy.4Surgical simulation can be expensive, and funding comes in many forms. Cadaver laboratories require investment in specimens, facilities, and time away from clinical obligations.4 Cadaver availability varies with regional resources, and the cost of a cadaver ranges from $1000 to $2000.7,8 Arthroscopic simulators and virtual reality programs are expensive as well. These modalities range from a less expensive video box (with standard arthroscopic equipment) to a virtual reality haptic simulation costing a residency program as much as $80,000.9 Synthetic bone simulations are less expensive but require investment in faculty time and outside implants and instrumentation.10 The cost of simulation raises the question of funding sources.

Funding surgical simulation is a challenge. In a national survey of program directors, conducted by Karam and colleagues,6 87.3% of residencies cited lack of funding as the most significant barrier to a formal surgical skills program. Simulation can be residency-sponsored, industry-sponsored, or specialty-sponsored. Karam and colleagues6 found that department, hospital, and industry funding were the 3 main sponsors of surgical simulation. Each funding mechanism brings its own set of challenges and opportunities. Industry-sponsored simulation provides a cost-effective outlet for residency programs. However, this type of funding is under scrutiny, as industry funding for education becomes more transparent. In addition, industry funding typically limits the technology that can be used during the simulation to the sponsor’s technology. Courses offered by the American Academy of Orthopaedic Surgeons (AAOS) and a number of subspecialty societies provide less conflicted simulation at reasonable cost.

If residents, residency programs, hospitals, industry, subspecialty societies, and the AAOS are going to invest in resident education through simulation, then the effect of simulation on resident education must be understood. Intuitively, simulation as a modality for improving resident skills makes sense. For residency programs to invest in simulation and surgical skills, different modalities must be objectively evaluated and their utility validated. If simulation is to become valuable, first it must be done correctly.

Kneebone11 proposed a framework for evaluating simulation. In this framework, simulation should allow for sustained, deliberate practice in a safe environment. It should provide access to expert tutors when appropriate. It should map onto real-life clinical experience. Last, it should provide a supportive, motivational, learner-centered milieu. Residents and program directors should consider this framework when deciding which simulation exercises to engage in and which resources to supply for exercises. Having supportive supervision during simulation can lead to a positive outcome. Likewise, learning incorrect techniques or bad habits or having inexperienced teachers can have the opposite effect.

Several authors have reviewed the evidence and found simulation to be an important part of orthopedic resident education.1,2,4,9,12,13 They have evaluated cadaveric simulation, synthetic bone simulation, arthroscopic simulation, and virtual reality simulation. Their studies demonstrated that simulation is an effective tool and provided objective criteria for evaluating residents on a larger scale. In a blinded, randomized study by Howells and colleagues,14 junior residents were either trained on a knee simulator or received no training before evaluation. Those who received the training scored significantly better than their peers on validated assessment measures.

The literature on different modalities shows simulation is an effective teaching tool for general orthopedic surgical skills5; knee, shoulder, and ankle arthroscopy14-21; spine surgery22; and orthopedic trauma surgery.23-26 Investigators in several other surgical specialties have studied the utility of simulation, and many are incorporating simulation into their resident curricula.

More effective simulation seems correlated with a yearlong structured curriculum rather than with intermittent, isolated experiences.3 Dunn and colleagues27 evaluated arthroscopic shoulder simulation 1 year after a training exercise. The group that received formal training did better than the control group on an initial arthroscopic surgery skill evaluation tool. At 1 year, however, the gains made through training were lost.

Simulation is a new paradigm for resident education. It offers multiple opportunities and challenges for residents, residency programs, industry partners, specialty and subspecialty societies, and medical examiners. The Accreditation Council for Graduate Medical Education’s ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery requires of residency programs a didactic curriculum dedicated to basic motor skills in addition to a dedicated space for facilitating basic surgical skills training.28 Residency programs must demonstrate to ACGME their commitment to surgical skills training and simulation. Implementation of simulation for resident education has many variables, including funding, type of simulation, demonstrated efficacy, provision of supervision, resident time, and establishment of a formal curriculum. Residents and residency programs should embrace this changing paradigm to bridge the gap between observation and autonomy in orthopedic surgical and arthroscopic technique.

Am J Orthop. 2016;45(7):E426-E428. Copyright Frontline Medical Communications Inc. 2016. All rights reserved.

References

1. Atesok K, Mabrey JD, Jazrawi LM, Egol KA. Surgical simulation in orthopaedic skills training. J Am Acad Orthop Surg. 2012;20(7):410-422.

2. Thomas GW, Johns BD, Marsh JL, Anderson DD. A review of the role of simulation in developing and assessing orthopaedic surgical skills. Iowa Orthop J. 2014;34:181-189.

3. Reznick RK, MacRae H. Teaching surgical skills—changes in the wind. N Engl J Med. 2006;355(25):2664-2669.

4. Holland JP, Waugh L, Horgan A, Paleri V, Deehan DJ. Cadaveric hands-on training for surgical specialties: is this back to the future for surgical skills development? J Surg Educ. 2011;68(2):110-116.

5. Sonnadara RR, Van Vliet A, Safir O, et al. Orthopedic boot camp: examining the effectiveness of an intensive surgical skills course. Surgery. 2011;149(6):745-749.

6. Karam MD, Pedowitz RA, Natividad H, Murray J, Marsh JL. Current and future use of surgical skills training laboratories in orthopaedic resident education: a national survey. J Bone Joint Surg Am. 2013;95(1):e4.

7. Bushey C. Cadaver supply: the last industry to face big changes. Crain’s Chicago Business. February 23, 2013.

8. Human K. Cadaver shortage hits medical schools. Denver Post. April 29, 2008.

9. Michelson JD. Simulation in orthopaedic education: an overview of theory and practice. J Bone Joint Surg Am. 2006;88(6):1405-1411.

10. Elfar J, Menorca RM, Reed JD, Stanbury S. Composite bone models in orthopaedic surgery research and education. J Am Acad Orthop Surg. 2014;22(2):111-120.

11. Kneebone R. Evaluating clinical simulations for learning procedural skills: a theory-based approach. Acad Med. 2005;80(6):549-553.

12. Stirling ER, Lewis TL, Ferran NA. Surgical skills simulation in trauma and orthopaedic training. J Orthop Surg Res. 2014;9:126.

13. Mabrey JD, Reinig KD, Cannon WD. Virtual reality in orthopaedics: is it a reality? Clin Orthop Relat Res. 2010;468(10):2586-2591.

14. Howells NR, Gill HS, Carr AJ, Price AJ, Rees JL. Transferring simulated arthroscopic skills to the operating theatre: a randomised blinded study. J Bone Joint Surg Br. 2008;90(4):494-499.

15. Gomoll AH, O’Toole RV, Czarnecki J, Warner JJ. Surgical experience correlates with performance on a virtual reality simulator for shoulder arthroscopy. Am J Sports Med. 2007;35(6):883-888.

16. Gomoll AH, Pappas G, Forsythe B, Warner JJ. Individual skill progression on a virtual reality simulator for shoulder arthroscopy: a 3-year follow-up study. Am J Sports Med. 2008;36(6):1139-1142.

17. Pedowitz RA, Esch J, Snyder S. Evaluation of a virtual reality simulator for arthroscopy skills development. Arthroscopy. 2002;18(6):E29.

18. Martin KD, Belmont PJ, Schoenfeld AJ, Todd M, Cameron KL, Owens BD. Arthroscopic basic task performance in shoulder simulator model correlates with similar task performance in cadavers. J Bone Joint Surg Am. 2011;93(21):e1271-e1275.

19. Martin KD, Cameron K, Belmont PJ, Schoenfeld A, Owens BD. Shoulder arthroscopy simulator performance correlates with resident and shoulder arthroscopy experience. J Bone Joint Surg Am. 2012;94(21):e160.

20. Martin KD, Patterson D, Phisitkul P, Cameron KL, Femino J, Amendola A. Ankle arthroscopy simulation improves basic skills, anatomic recognition, and proficiency during diagnostic examination of residents in training. Foot Ankle Int. 2015;36(7):827-835.

21. Frank RM, Erickson B, Frank JM, et al. Utility of modern arthroscopic simulator training models. Arthroscopy. 2014;30(1):121-133.

22. Rambani R, Ward J, Viant W. Desktop-based computer-assisted orthopedic training system for spinal surgery. J Surg Educ. 2014;71(6):805-809.

23. Leong JJ, Leff DR, Das A, et al. Validation of orthopaedic bench models for trauma surgery. J Bone Joint Surg Br. 2008;90(7):958-965.

24. Rambani R, Viant W, Ward J, Mohsen A. Computer-assisted orthopedic training system for fracture fixation. J Surg Educ. 2013;70(3):304-308.

25. Blyth P, Stott NS, Anderson IA. A simulation-based training system for hip fracture fixation for use within the hospital environment. Injury. 2007;38(10):1197-1203.

26. Egol KA, Phillips D, Vongbandith T, Szyld D, Strauss EJ. Do orthopaedic fracture skills courses improve resident performance? Injury. 2015;46(4):547-551.

27. Dunn JC, Belmont PJ, Lanzi J, et al. Arthroscopic shoulder surgical simulation training curriculum: transfer reliability and maintenance of skill over time. J Surg Educ. 2015;72(6):1118-1123.

28. Accreditation Council for Graduate Medical Education. ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/260_orthopaedic_surgery_2016.pdf. Published July 1, 2012. Accessed September 30, 2016.

References

1. Atesok K, Mabrey JD, Jazrawi LM, Egol KA. Surgical simulation in orthopaedic skills training. J Am Acad Orthop Surg. 2012;20(7):410-422.

2. Thomas GW, Johns BD, Marsh JL, Anderson DD. A review of the role of simulation in developing and assessing orthopaedic surgical skills. Iowa Orthop J. 2014;34:181-189.

3. Reznick RK, MacRae H. Teaching surgical skills—changes in the wind. N Engl J Med. 2006;355(25):2664-2669.

4. Holland JP, Waugh L, Horgan A, Paleri V, Deehan DJ. Cadaveric hands-on training for surgical specialties: is this back to the future for surgical skills development? J Surg Educ. 2011;68(2):110-116.

5. Sonnadara RR, Van Vliet A, Safir O, et al. Orthopedic boot camp: examining the effectiveness of an intensive surgical skills course. Surgery. 2011;149(6):745-749.

6. Karam MD, Pedowitz RA, Natividad H, Murray J, Marsh JL. Current and future use of surgical skills training laboratories in orthopaedic resident education: a national survey. J Bone Joint Surg Am. 2013;95(1):e4.

7. Bushey C. Cadaver supply: the last industry to face big changes. Crain’s Chicago Business. February 23, 2013.

8. Human K. Cadaver shortage hits medical schools. Denver Post. April 29, 2008.

9. Michelson JD. Simulation in orthopaedic education: an overview of theory and practice. J Bone Joint Surg Am. 2006;88(6):1405-1411.

10. Elfar J, Menorca RM, Reed JD, Stanbury S. Composite bone models in orthopaedic surgery research and education. J Am Acad Orthop Surg. 2014;22(2):111-120.

11. Kneebone R. Evaluating clinical simulations for learning procedural skills: a theory-based approach. Acad Med. 2005;80(6):549-553.

12. Stirling ER, Lewis TL, Ferran NA. Surgical skills simulation in trauma and orthopaedic training. J Orthop Surg Res. 2014;9:126.

13. Mabrey JD, Reinig KD, Cannon WD. Virtual reality in orthopaedics: is it a reality? Clin Orthop Relat Res. 2010;468(10):2586-2591.

14. Howells NR, Gill HS, Carr AJ, Price AJ, Rees JL. Transferring simulated arthroscopic skills to the operating theatre: a randomised blinded study. J Bone Joint Surg Br. 2008;90(4):494-499.

15. Gomoll AH, O’Toole RV, Czarnecki J, Warner JJ. Surgical experience correlates with performance on a virtual reality simulator for shoulder arthroscopy. Am J Sports Med. 2007;35(6):883-888.

16. Gomoll AH, Pappas G, Forsythe B, Warner JJ. Individual skill progression on a virtual reality simulator for shoulder arthroscopy: a 3-year follow-up study. Am J Sports Med. 2008;36(6):1139-1142.

17. Pedowitz RA, Esch J, Snyder S. Evaluation of a virtual reality simulator for arthroscopy skills development. Arthroscopy. 2002;18(6):E29.

18. Martin KD, Belmont PJ, Schoenfeld AJ, Todd M, Cameron KL, Owens BD. Arthroscopic basic task performance in shoulder simulator model correlates with similar task performance in cadavers. J Bone Joint Surg Am. 2011;93(21):e1271-e1275.

19. Martin KD, Cameron K, Belmont PJ, Schoenfeld A, Owens BD. Shoulder arthroscopy simulator performance correlates with resident and shoulder arthroscopy experience. J Bone Joint Surg Am. 2012;94(21):e160.

20. Martin KD, Patterson D, Phisitkul P, Cameron KL, Femino J, Amendola A. Ankle arthroscopy simulation improves basic skills, anatomic recognition, and proficiency during diagnostic examination of residents in training. Foot Ankle Int. 2015;36(7):827-835.

21. Frank RM, Erickson B, Frank JM, et al. Utility of modern arthroscopic simulator training models. Arthroscopy. 2014;30(1):121-133.

22. Rambani R, Ward J, Viant W. Desktop-based computer-assisted orthopedic training system for spinal surgery. J Surg Educ. 2014;71(6):805-809.

23. Leong JJ, Leff DR, Das A, et al. Validation of orthopaedic bench models for trauma surgery. J Bone Joint Surg Br. 2008;90(7):958-965.

24. Rambani R, Viant W, Ward J, Mohsen A. Computer-assisted orthopedic training system for fracture fixation. J Surg Educ. 2013;70(3):304-308.

25. Blyth P, Stott NS, Anderson IA. A simulation-based training system for hip fracture fixation for use within the hospital environment. Injury. 2007;38(10):1197-1203.

26. Egol KA, Phillips D, Vongbandith T, Szyld D, Strauss EJ. Do orthopaedic fracture skills courses improve resident performance? Injury. 2015;46(4):547-551.

27. Dunn JC, Belmont PJ, Lanzi J, et al. Arthroscopic shoulder surgical simulation training curriculum: transfer reliability and maintenance of skill over time. J Surg Educ. 2015;72(6):1118-1123.

28. Accreditation Council for Graduate Medical Education. ACGME Program Requirements for Graduate Medical Education in Orthopaedic Surgery. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/260_orthopaedic_surgery_2016.pdf. Published July 1, 2012. Accessed September 30, 2016.

Issue
The American Journal of Orthopedics - 45(7)
Issue
The American Journal of Orthopedics - 45(7)
Page Number
E426-E428
Page Number
E426-E428
Publications
Publications
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Surgical Simulation in Orthopedic Surgery Residency
Display Headline
Surgical Simulation in Orthopedic Surgery Residency
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