Surgical education has changed significantly over time, with new technologies and assessment methods arising through broad training modalities. Specifically, both undergraduate and postgraduate surgical training have experienced shifts from didactic classroom-based teaching alone, to educational programs comprised of lectures, simulation, online conferences, online modules, and other technology-based methods1–4. The integration of these novel training approaches applies not only to technical skills acquisition, but also broadly in a holistic approach to teaching. This approach encompasses the 3 main educational pillars of skills, knowledge, and attitudes, with the hopes of improving transfer of content and skills learned in nontraditional learning environments back into the clinical setting5.
The COVID-19 pandemic has restricted in-person international training opportunities in an unprecedented way in both high and low-middle income countries. As medical training for all levels of learners rapidly shifts to online modalities, one must consider mechanisms for international education programming, through cross-institutional local and international partnerships to offer ongoing surgical curricula in remote or low-resource settings. Virtual learning is already a significant component of medical education in low and middle-income countries (LMICs), with online resources serving as a successful means of improving accessibility for trainees and in supporting teaching faculty6. At present, online learning in LMICs is used in an integrated approach together with in-person training, in addition to online simulation and mentorship components6. Unfortunately, due to the COVID-19 pandemic, the latter is no longer possible, leaving surgical training programs (STP) in LMIC in many ways unsupported. Better utilization of virtual learning, and virtual or simulation-based training tools may allow the global surgical community to continue to work on increasing large-scale surgical capacity, as reflected in the Lancet Commission’s 2030 Global Surgery goals7.
If we are to capitalize on the exponential growth of technological and educational innovations in surgical training for continuing global surgical education, it is critical to establish an understanding of the current status of global STP. This perspectives piece aims to review current training modalities utilized in global surgery and proposes important considerations for how global surgical training needs to be modified and shifted to a virtual setting during the current COVID-19 conditions, where in-person educational opportunities are limited. As a specific case example, we describe the development, implementation, and implications of a virtual learning course offered globally by the University of British Columbia (UBC), focusing on the delivery of safe surgical care during the time of a global pandemic.
Learning strategies in surgery
We conducted a rapid literature review to determine the current status of surgical training modalities utilized specifically in LMICs8. We searched the MEDLINE database using the following key terms representing a variety of training types: didactic, apprenticeship, virtual learning, simulation training and virtual reality (see Appendix A, Supplemental Digital Content 1, https://links.lww.com/IJSGH/A8 for search strategies and flow diagram). The definitions used for the learning strategies are outlined in Table 19–14. For the purposes of this review, the term Virtual Learning Strategy(ies) (VLS) will be used for all platforms that are virtual learning or web-based learning.
Table 1 -
Learning strategies defined.
||The process of learning a craft under the direct supervision of a skilled expert in that field9
||The provision of direct information from the expert to the learner. Can be in-person or virtual10
||The immersion of the learner in a replicated scenario to assess their knowledge, skills, communication and performance11
|Virtual Learning (VLS)
||The process of learning knowledge and/or skills through an online platform. Can be synchronous (virtual simulation with live debriefing, virtual classroom with live discussion) or asynchronous (online course). This includes online course management systems or sites (eg, Canvas, course Wikis, websites, podcasts, social media), and discussion boards (eg, Piazza)12Also referred to as e-learning, web-based learning13
||The learner is placed in an environment created digitally to reproduce a certain situation (ie: a surgical procedure)14
Our search identified 285 unique publications, of which 101 were included in our final analysis1–4,15–110. The majority of articles describe training in high income country (HIC) environments (87%, 88/101), for which the most common settings are North America (United States 45% and Canada 12%) and the United Kingdom (18%). The LMICs represented are West Africa region (2%) and several East African countries (Kenya 2%; Ethiopia 2%; Zambia 2%, and Tanzania 2%). The principal training modality utilized is apprenticeship (46%, 46/101), followed by simulation training (37%, 37/101), and VLS (14%, 14/101). For the 10 papers describing blended learning formats (ie, using more than 1 training method), the predominant learning method was used for descriptive analysis. Figure 1 shows training types by publication setting (LMIC vs. HIC) and Table 2 provides an example of each type of learning in the context of global surgery. Most publications discuss surgical education of trainees (96%, 97/101) while very few (8%, 8/101) discuss fully trained surgical staff (ie, professionals) as the target learners. The continuing professional development programs mentioned in these 8 publications were established primarily through North-South partnerships with surgeons from HIC visiting LMIC institutions for clinical rotations, surgical camps, or other in-person training. While apprenticeship remains an integral component of modern-day surgical training, this review demonstrates that more novel training models, specifically simulation training and VLS, are becoming more common within the global educational environment.
Table 2 -
Descriptive example of each training modality.
||Description of Program/Findings
||Pollock et al101
||The Pan-African Academy of Christian Surgeons (PAACS) was established in 1997 to increase surgical capacity, through developing a formal surgical residency training program in Kenya, Ethiopia, Gabon, and Cameroon. The program is developed using principles of competency based medical education, and is primarily apprenticeship-based. This program has successfully graduated 18 general surgeons and 1 pediatric surgeon
||Liebert et al41
||In this prospective cohort study, surgical clerkship students in Stanford, California, partook in a flipped-classroom learning environment over a 1-year period. Students completed 8 modules online and then practiced skills in simulation sessions. Students reported a positive learning experience with this type of learning
||Dreyer et al79
||A 5-day emergency surgical skills simulation (including crisis resource management and technical skills such as burr holes) developed by COSECSA for surgical trainees in Zambia. Six-month follow-up survey showed a perceived increased comfort in managing surgical emergencies by trainees
||Goldstein et al74
||The School for Surgeons online platform, developed by the College of Surgeons of East, Central, and Southern Africa (COSECSA) in collaboration with the Royal College of Surgeons of Ireland, includes evidence-based reviews, modules with self-assessments, basic surgical skills training and case-based discussions. A user survey indicated positive uptake and experience in using the platform
||Wohaibi et al104
||A virtual reality trainer for laparoscopic cholecystectomy and appendectomy in the United States was shown to improve intraoperative performance in residents who used it for 6 mo
VLS indicates Virtual Learning Strategy(ies).
Effects of COVID-19 on global surgical training
The COVID-19 pandemic has changed the way we provide surgical training, particularly affecting regions of the world where training programs rely heavily on out-of-country specialists. While North American trainees were briefly pulled out of clinical rotations to minimize coronavirus exposure, most programs were able to resume clinical training after the first wave passed111. This was not the case in many LMIC training programs, especially in Africa, where the average number of faculty in medical schools is ~10% that of American medical schools12. As an example, the CapaCare-supported STP in Sierra Leone had to be interrupted in April 2020 because of the impossibility for foreign faculty to travel to Africa112. Importantly, similar scenarios have also affected training programs in rural and remote settings that do not have the luxury of having on-site faculty to provide in-person teaching, reinforcing a growing need for alternative modes of surgical education, both for trainees and for health professional development on a global scale.
In an ideal global instructional model, information transmission and sharing should be bidirectional, as practitioners with different access to resources and exposure to diseases can benefit from the experiences of others. The 2014 Ebola outbreak in West Africa is a perfect example. As sub-Saharan Africa battled the deadly virus, surgeons in Europe and North America were struggling to develop protocols to provide surgical care for infected or potentially infected patients. Guidelines were finally created more than 4 months into the outbreak by a surgeon working in Sierra Leone, and subsequently disseminated through the American College of Surgeons website113.
Bridging the gap in knowledge through virtual learning
Even more so than Ebola, the COVID-19 pandemic has highlighted the fact that there are no physical barriers to disease. All countries have been affected, and all have needed to respond appropriately to preserve delivery of surgical care, no matter what resources they had. As public health measures ramped up, and information started to circulate about the epidemiology and pathophysiology of this new viral disease, there was a clear lack of guidance from international and professional organizations on how to protect surgical staff and maintain surgical services. In this era of enhanced technology, where most of the world has access to an internet connection and a smartphone, information transmission can transcend national borders. In British Columbia, Canada, a rapid and efficient response led by our public health office led to an early control of the viral transmission and avoided the peak seen in other regions. However, many of our colleagues in other countries did not have that luck and were dreading the potential devastating impact of this viral pandemic on their practice. The global surgical community was looking for answers.
At UBC, on April 28, 1-month postdeclaration of the global pandemic, a multidisciplinary team created a virtual course called “Safe Surgical Care: Strategies During Pandemics,” geared toward surgical providers from all disciplines and with the aim to arm them with tools to better respond to the pandemic114. This course was our response to bridge the knowledge gap between affected and unaffected countries, and between well-prepared and less well-prepared surgical systems. Our aim was to share the knowledge acquired from the early experience with COVID-19, especially since the pandemic disproportionally hit the middle-high income countries, such as China, Italy, and the United States, before it spread to the low-income countries.
The course was created by E.J., in collaboration with UBC Continuing Professional Development (UBC CPD) and UBC Extended Learning (UBC ExL) and hosted on the EdX platform. It showcased the work of key players in the pandemic response, including, but not limited to, surgeons from different specialties, anesthesiologists, emergency and operating room nurses and microbiologists. The course offered a blended learning experience. The didactic content was presented in five different modules rolled out over 5 weeks (Table 3). Each module had clear objectives that were delineated at the beginning and at the end of the module, as well as summarized in a recorded lecture. We combed the data from the most recent literature to provide content that was as evidence-based as possible and illustrated it with examples from high- and low-resource settings. We created videos explaining key procedures, such as the donning and doffing process. Podcasts with experts were recorded weekly and transcribed for the learners. The content was made as visual and multimodal as possible, so as to appeal to the audience and be easy to read (Fig. 2). Each module had a discussion board where participants could share their experience and interact asynchronously with the course authors and invited experts. After the 5 weeks of the course were completed, we created an “Ask Me Anything” section, where a dedicated surgeon was chosen to moderate the discussion forum for a 7-day period, which allowed us to prolong our direct interaction with learners. Self-assessment was available through a quiz after each module, providing immediate and direct feedback to learners. For physicians, continuing medical education credits (CME) were offered.
Table 3 -
Module title and launch date.
||What a Surgical Provider Should Know about Pandemics
||Surgical Surge Response for Pandemics
||Protection of Surgical Healthcare Worker
||Defining and Maintaining Essential Services
||Global Impact and Ethical Considerations
As of September 28, 1944 participants had registered for the course. These participants were from 105 countries, from all continents and all regions: there are currently 105 learners from India, 39 from Brazil and 25 from Nigeria (Fig. 3). The demographic characteristics are presented in Figure 4. Most uptake occurred in the first 2 weeks of the course, with the curve flattening over the remaining weeks (Fig. 5). The most engagement with the course was seen on the week of May 3, with over 400 active learners and 54 participating in discussion posts (Fig. 6). The feedback received for the course was overwhelmingly positive, especially on the quality of the content and its interactivity and variety. This course empowered learners, “It has improved staff morale to share what I have learned with the rest of the team […],” increased knowledge “[…] this course has given me new material to incorporate into my practice.” and inspired leadership in surgical care providers: “I will be able to plan the protocol for surgical processes in our institute.” Furthermore, it created a community of learning from diverse settings and created mutual accountability among users: “Invited one of my colleagues to attend this course. So we are both determined to make the necessary changes in our power to help deliver health services in a safer way for both our team and patients.”
Opportunities, challenges, and a vision for the future
Virtual platforms face several challenges. First, they require sufficient internet connectivity and bandwidth to support interactive materials, such as downloads, videos and live streaming115. Unfortunately, this is not the case in most low-income countries: in 2018, only 24% of sub-Saharan Africa was connected116. Today, in Nigeria, 118 million do not have access to the internet117. In addition, virtual platforms are often costly to create, and therefore likely to require a subscription or one-time fee for use. As of August 2020, 15/20 computer-based platforms are freely accessible, but 5 of them—and the ones that are the most relevant and high quality—are not16. The most well-known one, Incision, costs 23.99 euros/month118. Freely accessible platforms are oftentimes of variable quality, are not peer reviewed, and may contain industry bias. More recently, the first of a series of papers addressing the risks and opportunities of a transition to VLS has been published in Rural and Remote Health119. Encompassing medical education at large, these articles will provide a guide to navigating the obstacles brought by this growing technology.
While the benefits and positive outcomes from the inclusion of VLS in surgical training are clear, it is important to consider that most are implemented in conjunction with subsequent practice and skill refinement under close supervision, during clinical rotations and in everyday patient care. Fortunately, there is a growing number of VLS modalities that offer alternatives to this classic form of apprenticeship. In addition to interactive didactic platforms, such as the reverse classroom concept brought by the ATLS hybrid edition, directed feedback can be given virtually and could potentially replace classic apprenticeship in the near future120. Specifically, telementoring and telecoaching may offer largely equivalent benefits of apprenticeship, with in person experiences being used more as a complimentary adjunct. Over the past few years, the surgical educational community has developed an interest in the feasibility and efficacy of telementoring and telecoaching for surgeons with a number of studies exploring this concept in both local and international settings121,122. Telementoring specifically, is defined by a relationship, facilitated by telecommunication technology, in which an expert (mentor) provides guidance to a less experienced learner (mentee) from a remote location and as an educational strategy, provides a unique solution for ongoing advancement of quality surgical care during the COVID-19 pandemic123. Such educational support innovations are perfect at a time of restricted travel and face-to-face clinical mentorship, and should be pursued both now as a workaround, as well as moving forward as a bridge between direct interpersonal training opportunities such as: telementoring through complex cases (both preoperatively and intraoperatively), virtual discussions/MCCs, and technical skills training through video review and/or laparoscopic skills development124. The surgical community has already started in pieces to embrace such strategies. Examples include a training course developed for surgical staff in Brazil with remote mentoring via live video feed using Google Glass, a program for surgeons in Botswana using telesimulation and telementoring for laparoscopic training, and a virtual surgical simulation course for trainees in Zambia55,79,124. Potential issues of this approach, which require attention and careful planning, include potentially increased operative times in cases of directed OR telecoaching as well as challenges with mentor-mentee coordination across time zones122,125.
As another tool in our toolbox, virtual reality may serve as a unique modality to replace apprenticeship while conserving human resources. With its ability to place the learner in an immersive environment, close to that of a real patient interaction, virtual reality training has been shown to correlate to improved performance in the OR environment104. Since the literature on this topic is scarce, more research is needed to determine its place in surgical training globally.
Future development of surgical training programs, especially those where trainees are based in rural or remote regions, should take into careful consideration the utility of the aforementioned strategies of telementoring, telesimulation, virtual simulation, and virtual reality. The integration of these tools within the training curricula should be fluid and complement natural opportunities where face-to-face mentorship would be incorporated; for example, the surgical team participating in a virtual discussion preoperatively124. Conversely, when opportunities for in-person training arise, virtual sessions may be scheduled pre-emptively to allow trainees to build early techniques and then utilize face-to-face training for complex technical skill development.
Vision for the future
We propose a strategic plan to integrate VLS into surgical training globally, in a stepwise manner.
First, we would suggest surgical educators in HICs make the existing VLS globally accessible, capitalizing on the current rapid rate of educational program development. Surgical principles are universal, and therefore educational tools geared toward anatomy, basic surgical techniques, perioperative care etc. can be scaled from high to low resource settings and vice-versa. Virtual platforms such as the School for Surgeon in Africa contain a wide breadth of information and tools that can benefit both trainees and surgeons from all around the globe126.
Second, we recommend that surgical educators across the globe integrate a telementoring component to all VLS platforms. One benefit of virtual platforms is the possibility of longitudinal engagement. Telementoring gives the learner the opportunity to receive direct feedback from experts in the field, allows for a productive and individualized mentor-mentee relationship and has potential for longitudinal follow-up and growth. It gives weight to the relationship and enriches the discussion. In fact, at UBC, a telementoring program between Revelstoke Queen Victoria Hospital and Vancouver General Hospital in trauma training has established a clear timeline of telementored simulations (q4 mo) to allow for both maintenance of competency and maintenance of the relationship127.
Finally, VLS as a priority in establishing surgical capacity should be considered in ongoing national health policy. The second core indicator of the Lancet Commission is the SAO (Surgeon, Anesthesia and Obstetrics) provider density7. Effective and sustainable training programs are a cornerstone of this indicator. We have shown, through our review of the literature, relevant examples from LMICs and the success of the virtual pandemic course, that VLS strengthens surgical education and can also improve retention by offering continuing professional development. Hence, the integration of a strong VLS component in all surgical training programs should be one of the strategic objectives to increase the SAO density. By setting specific, measurable, attainable, relevant and time-bound targets for VLS, and keeping governments accountable for those targets, we are more likely to create effective and sustainable platforms. National governments and their ministries should ensure adequate information technology support and bandwidth, foster partnerships with professional organizations, humanitarian medical organizations and academic institutions and create an accessible virtual learning environment in the multidisciplinary surgical community. A first step was taken by Rwanda in their 2018–2024 National Surgical Obstetrics and Anesthesia Plan (NSOAP): under strategies for skills and knowledge retention, they mention “Societies will advocate for their providers to have access to online free resources to streamline CME efforts”128. HICs should also contribute to meeting these targets by providing infrastructure and creative funding solutions (ie, collaborative grants, revenue-generating online courses benefiting LMICs, etc.). The virtual Graduate program on Global Surgical Care at UBC as already begun this process: this not-for-profit program offers bursaries to applicants from LMICs thanks to cost recovery from tuition fees129.
To be effective, like any other educational program, a VLS needs to have a clear needs assessment to ensure engagement of all stakeholders in surgical care delivery and ensure locally relevant content. Furthermore, virtual learning needs predefined objectives and a method to measure the intervention. Each VLS should be evaluated using a validated framework, to provide opportunity for improvement and, as Cameron stated in his chapter entitled E-learning in Global Surgery, the possibility of “reverse innovation.”12,130
While face-to-face apprenticeship remains a common and integral component of modern-day surgical training, this review demonstrates that more novel training models, specifically simulation training and VLS, are becoming commonplace within the educational environment. Especially in the case of VLS and telementoring, these strategies present the opportunity for building surgical capacity in rural and remote regions. Here, online delivery mitigates costs and resource restrictions associated with significant on-ground program infrastructural establishment and promotes trainee accessibility in an albeit more independent learning format.
The future of global surgical training resides in blended learning with a strong virtual learning component. While we do not have a clear idea of what the post-pandemic world will look like, our hope is that those platforms continue to grow and become integral parts of global surgical education, both for the surgeon-in-training and for the trained surgeon looking for continuing professional development. As we adjust to new ways of surgical education, we call on the global surgical community to capitalize on this opportunity to continue to work to build strong virtual learning platforms that allow us to transcend physical boundaries.
Sources of funding
E.J. and I.Z. conceived the presented idea. I.Z. performed the rapid review and the analysis. E.J., I.Z. and F.S wrote the manuscript with input from all authors.
Conflict of interest disclosure
The authors declare that they have no financial conflict of interest with regard to the content of this report.
Research registration unique identifying number(UIN)
1. Tollefson TT. Editorial: The changing face of adult surgical education
: a positive “disruption” for more than just millennials. Curr Opin Otolaryngol Head Neck Surg 2019;27:227–30.
2. Ford K, Khoo AK, Ng J, et al. Contemporary pediatric surgical training in the UK. J Pediatr Surg 2016;51:221–5.
3. Ajao OG, Alao A. Surgical residency training in developing countries: West African College of Surgeons as a Case Study. J Natl Med Assoc 2016;108:173–9.
4. Butler MW. Developing pediatric surgery in low- and middle-income countries: an evaluation of contemporary education and care delivery models. Semin Pediatr Surg 2016;25:43–50.
5. Harrysson I, Hull L, Sevdalis N, et al. Development of a knowledge, skills, and attitudes framework for training in laparoscopic cholecystectomy. Am J Surg 2014;207:790–6.
6. Frehywot S, Vovides Y, Talib Z, et al. E-learning in medical education in resource constrained low- and middle-income countries. Hum Resour Health 2013;11:1–15.
7. Meara JG, Leather AJM, Hagander L, et al. Global Surgery
2030: evidence and solutions for achieving health, welfare, and economic development. Lancet 2015;386:569–624.
8. Tricco AC, Antony J, Zarin W, et al. A scoping review of rapid review methods. BMC Med 2015;13:1–15.
9. Walter AJ. Surgical education
for the twenty-first century: beyond the apprentice model. Obstet Gynecol Clin North Am 2006;33:233–6.
10. Austin SVolkmar FR. Didactic Approaches. Encyclopedia of Autism Spectrum Disorders. New York, NY: Springer; 2013:1–139.
11. Paige JT, Arora S, Fernandez G, et al. Debriefing 101: training faculty to promote learning in simulation-based training. Am J Surg 2015;209:126–31.
12. Cameron B, Schofield SPark A, Price R. E-learning in global surgery
. Global Surgery
: The Essentials. Cham, Switzerland: Springer International Publishing; 2017:127–44.
13. Yang SJH, Chen IYL, Kinshuk NS, et al. Enhancing the quality of e-Learning in virtual learning
communities by finding quality learning content and trustworthy collaborators. Educational Technology & Society 2007;10:84–95.
14. King D, Tee S, Falconer L, et al. Virtual health education: scaling practice to transform student learning: using virtual reality learning environments in healthcare education to bridge the theory/practice gap and improve patient safety. Nurse Education Today 2018;71:7–9.
15. Ratinam R, Quayle M, Crock J, et al. Challenges in creating dissectible anatomical 3D prints for surgical teaching. J Anat 2019;234:419–37.
16. McKechnie T, Levin M, Zhou K, et al. Virtual surgical training during COVID-19
: operating room simulation platforms accessible from home. Ann Surg 2020;272:e153–4.
17. Pertile D, Gallo G, Barra F, et al. The impact of COVID-19 pandemic
on surgical residency programmes in Italy: a nationwide analysis on behalf of the Italian Polyspecialistic Young Surgeons Society (SPIGC). Updates Surg 2020;72:269–80.
18. Shah JP. The impact of COVID-19
on Head and Neck surgery, education, and training. Head Neck 2020;42:1344–7.
19. Robertson V, Davies R. Provision of simulation-based training (SBT) within UK vascular surgery training programmes. Surgeon 2019;17:321–5.
20. Stucke RS, Sorensen M, Rosser A, et al. The surgical consult entrustable professional activity (EPA): defining competence as a basis for evaluation. Am J Surg 2020;219:253–7.
21. Park C, Grant J, Dumas RP, et al. Does simulation work? Monthly trauma simulation and procedural training are associated with decreased time to intervention. J Trauma Acute Care Surg 2020;88:242–8.
22. Fatehchehr S, Rostaminia G, Gardner MO, et al. Robotic surgery training in gynecologic fellowship programs in the United States. J Soc Laparoendosc Surg 2014;18:1–5.
23. Blackmore C, Puligandla PS, Emil S, et al. A transition to discipline curriculum for pediatric surgery trainees: evaluation of a pediatric surgery boot camp from 2017 to 2018. J Pediatr Surg 2019;54:1024–8.
24. Green JL, Suresh V, Bittar P, et al. The utilization of video technology in surgical education
: a systematic review. J Surg Res 2019;235:171–80.
25. Watters DA, McCaig E, Nagra S, et al. Surgical training programmes in the South pacific, Papua new Guinea and timor leste. Br J Surg 2019;106:e53–61.
26. McDow AD, Salman SO, Abughazaleh KM, et al. Improving surgical outreach in Palestine: assessing goals of local and visiting surgeons. J Surg Res 2019;233:139–43.
27. Ozgediz D. Global experiences in fellowship training: a valuable opportunity to match competencies with contemporary priorities and needs. J Pediatr Surg 2018;53:1254–5.
28. Baird R, Pandya K, Lal DR, et al. Regarding global pediatric surgery training opportunities. J Pediatr Surg 2018;53:1256–8.
29. Awad M, Awad F, Carter F, et al. Consensus views on the optimum training curriculum for advanced minimally invasive surgery: a delphi study. Int J Surg 2018;53:137–42.
30. Rhodes D, Fogg QA, Lazarus MD. Get SET: aligning anatomy demonstrator programmes with Surgical Education
and Training selection criteria. ANZ J Surg 2018;88:E406–E411.
31. Haggerty S, Kishiki T, Ujiki M, et al. Moving skills training closer to application: in-rotation skills curriculum is feasible and effective. Am J Surg 2018;215:272–6.
32. Langridge B, Momin S, Coumbe B, et al. Systematic review of the use of 3-dimensional printing in surgical teaching and assessment. J Surg Educ 2018;75:209–21.
33. Lwin AT, Lwin T, Naing P, et al. Self-directed interactive video-based instruction versus instructor-led teaching for myanmar house surgeons: a randomized, noninferiority trial. J Surg Educ 2018;75:238–46.
34. Wojcik BM, Fong ZV, Patel MS, et al. Structured operative autonomy: an institutional approach to enhancing surgical resident education without impacting patient outcomes. J Am Coll Surg 2017;225:713–24.e2.
35. Schmedding A, Rolle U, Czauderna P. European Pediatric Surgical Training. Eur J Pediatr Surg 2017;27:245–50.
36. Hall ME, Reddy RM. Should every medical student receive exposure to robotic surgery? J Robot Surg 2017;11:375–6.
37. Hoffmann H, Oertli D, Mechera R, et al. Comparison of Canadian and Swiss Surgical Training Curricula: moving on toward competency-based surgical education
. J Surg Educ 2017;74:37–46.
38. Yiasemidou M, Glassman D, Tomlinson J, et al. Perceptions about the present and future of surgical simulation: a National Study of Mixed Qualitative and Quantitative Methodology. J Surg Educ 2017;74:108–16.
39. Harries RL, Williams AP, Ferguson HJM, et al. The future of surgical training in the context of the “Shape of Training” review: consensus recommendations by the Association of Surgeons in Training. Int J Surg 2016;36:S5–9.
40. Thinggaard E, Bjerrum F, Strandbygaard J, et al. Ensuring competency of novice laparoscopic surgeons—exploring standard setting methods and their consequences. J Surg Educ 2016;73:986–91.
41. Liebert CA, Mazer L, Bereknyei Merrell S, et al. Student perceptions of a simulation-based flipped classroom for the surgery clerkship: a mixed-methods study. Surgery (United States) 2016;160:591–8.
42. Gardner AK, DeMoya MA, Tinkoff GH, et al. Using simulation for disaster preparedness. Surgery (United States) 2016;160:565–70.
43. Szasz P, Grantcharov TP, Sweet RM, et al. Simulation-based summative assessments in surgery. Surgery (United States) 2016;160:528–35.
44. Glassman D, Yiasemidou M, Venkateswaran B, et al. A multi-specialty surgical course for residents transitioning from early to intermediate training. Int J Med Educ 2016;7:130–1.
45. Harries RL, Gokani VJ, Smitham P, et al. Less than full-time training in surgery: a cross-sectional study evaluating the accessibility and experiences of flexible training in the surgical trainee workforce. BMJ Open 2016;6:1–7.
46. Louridas M, Szasz P, de Montbrun S, et al. International assessment practices along the continuum of surgical training. Am J Surg 2016;212:354–60.
47. Klingensmith ME, Potts JR, Merrill WH, et al. Surgical training and the early specialization program: analysis of a national program. J Am Coll Surg 2016;222:410–6.
48. Szasz P, Louridas M, De Montbrun S, et al. Consensus-based training and assessment model for general surgery. Br J Surg 2016;103:763–71.
49. Abdelrahman T, Long J, Egan R, et al. Operative experience vs. competence: a curriculum concordance and learning curve analysis. J Surg Educ 2016;73:694–8.
50. Cook MR, Graff-Baker AN, Moren AM, et al. A disease-specific hybrid rotation increases opportunities for deliberate practice. J Surg Educ 2016;73:1–6.
51. Song PH, Ko YH. The surgical skill of a novice trainee manifests in time-consuming exercises of a virtual simulator rather than a quick-finishing counterpart: a concurrent validity study using an urethrovesical anastomosis model. J Surg Educ 2016;73:166–72.
52. Harvey EJ, McAlister VC. Cross-specialty training in the era of competency-based education. Can J Surg 2015;58:364–5.
53. Champion C, Bennett S, Carver D, et al. Providing mentorship support to general surgery residents: A model for structured group facilitation. Can J Surg 2015;58:372–3.
54. Wade TJ, Lorbeer K, Awad MM, et al. Outcomes of a proficiency-based skills curriculum at the beginning of the fourth year for senior medical students entering surgery. Surgery (United States) 2015;158:962–71.
55. Datta N, Macqueen IT, Schroeder AD, et al. Wearable technology for global surgical teleproctoring. J Surg Educ 2015;72:1290–5.
56. Lindeman BM, Sacks BC, Lipsett PA. Graduating Students’ and Surgery Program Directors’ Views of the Association of American Medical Colleges Core Entrustable Professional Activities for Entering Residency: Where are the Gaps? J Surg Educ 2015;72:e184–92.
57. Cook M, Howard BM, Yu A, et al. A consortium approach to surgical education
in a developing country: educational needs assessment. JAMA Surg 2015;150:1074–8.
58. Gardner AK, Scott DJ, Pedowitz RA, et al. Best practices across surgical specialties relating to simulation-based training. Surgery (United States) 2015;158:1395–402.
59. Klingensmith ME, Awad M, Delman KA, et al. Early Results from the Flexibility in Surgical Training Research Consortium: resident and program director attitudes toward flexible rotations in senior residency. J Surg Educ 2015;72:e151–7.
60. Peeraer G, Van Humbeeck B, De Leyn P, et al. The development of an electronic portfolio for postgraduate surgical training in flanders. Acta Chir Belg 2015;115:68–75.
61. Gardner AK, Scott DJ, Hebert JC, et al. Gearing up for milestones in surgery: Will simulation play a role? Surgery (United States) 2015;158:1421–7.
62. Gardner AK, Lachapelle K, Pozner CN, et al. Expanding simulation-based education through institution-wide initiatives: a blueprint for success. Surgery (United States) 2015;158:1403–7.
63. D’Angelo ALD, Law KE, Cohen ER, et al. The use of error analysis to assess resident performance. Surgery (United States) 2015;158:1408–14.
64. Hirschl RB. The making of a surgeon: 10,000 hours? J Pediatr Surg 2015;50:699–706.
65. Blackmore C, Lopushinsky S, Lockyer J, et al. Targeted needs assessment for a transitional “boot camp” curriculum for pediatric surgery residents. J Pediatr Surg 2015;50:819–24.
66. Malik AA, Mahmood A, Farooq A, et al. Use of box simulators for improving intraoperative laparoscopic skills—an essential tool for the surgeon in training. J Coll Physicians Surg Pak 2014;25:172–5.
67. Butler PD, Britt LD, Richard CE, et al. The diverse surgeons’ initiative: longitudinal assessment of a successful national program. J Am Coll Surg 2015;220:362–9.
68. Greene B, Head L, Gawad N, et al. Surgical exploration and discovery program: inaugural involvement of otolaryngology-head and neck surgery. J Otolaryngol Head Neck Surg 2015;44:1–9.
69. Glass NE, Kulaylat AN, Zheng F, et al. A national survey of educational resources utilized by the Resident and Associate Society of the American College of Surgeons membership. Am J Surg 2015;209:59–64.
70. Barsness K. Simulation-based education and performance assessments for pediatric surgeons. Eur J Pediatr Surg 2014;24:303–7.
71. Ponsky TA, Schwachter M, Parry J, et al. Telementoring
: the surgical tool of the future. Eur J Pediatr Surg 2014;24:287–94.
72. Lao WS, Puligandla P, Baird R. A pilot investigation of a pediatric surgery journal club. J Pediatr Surg 2014;49:811–4.
73. Sachdeva AK, Flynn TC, Brigham TP, et al. Interventions to address challenges associated with the transition from residency training to independent surgical practice. Surgery (United States) 2014;155:867–82.
74. Goldstein SD, Papandria D, Linden A, et al. A pilot comparison of standardized online surgical curricula for use in low- and middle-income countries. JAMA Surg 2014;149:341–6.
75. Hochberg MS, Billig J, Berman RS, et al. When surgeons decide to become surgeons: new opportunities for surgical education
. Am J Surg 2014;207:194–200.
76. Henry B, Clark P, Sudan R. Cost and logistics of implementing a tissue-based American College of Surgeons/Association of Program Directors in Surgery surgical skills curriculum for general surgery residents of all clinical years. Am J Surg 2014;207:201–8.
77. Buckley CE, Kavanagh DO, Traynor O, et al. Is the skillset obtained in surgical simulation transferable to the operating theatre? Am J Surg 2014;207:146–57.
78. Melton GB, Burkart NE, Frey NG, et al. Operative report teaching and synoptic operative reports: a national survey of surgical program directors. J Am Coll Surg 2014;218:113–8.
79. Dreyer J, Hannay J, Lane R. Teaching the management of surgical emergencies through a short course to surgical residents in East/Central Africa delivers excellent educational outcomes. World J Surg 2014;38:830–8.
80. Schneider LF, Barr J, Saadeh PB. A nationwide curriculum analysis of integrated plastic surgery training: is training standardized? Plast Reconstr Surg 2013;132:1054–62.
81. Spillane A. Training breast surgeons in Australia and New Zealand. ANZ J Surg 2013;83:597–8.
82. Eardley I, Bussey M, Woodthorpe A, et al. Workplace-based assessment in surgical training: Experiences from the Intercollegiate Surgical Curriculum Programme. ANZ J Surg 2013;83:448–53.
83. Perry RE, Oldfield Z. Acquiring surgical skills: the role of the Royal Australasian College of Surgeons. ANZ J Surg 2013;83:417–21.
84. Williams SA. Flexible surgical training in Australasia. Med J Aust 2013;198:426.
85. Francesca Monn M, Wang MH, Gilson MM, et al. ACGME core competency training, mentorship, and research in surgical subspecialty fellowship programs. J Surg Educ 2013;70:180–8.
86. Acero NM, Motuk G, Luba J, et al. Managing a surgical exsanguination emergency in the operating room through simulation: an interdisciplinary approach. J Surg Educ 2012;69:759–65.
87. Stain SC, Cogbill TH, Ellison EC, et al. Surgical training models: a new vision. Curr Probl Surg 2012;49:565–623.
88. Snyder RA, Tarpley MJ, Tarpley JL, et al. Teaching in the operating room: results of a national survey. J Surg Educ 2012;69:643–9.
89. Gearhart SL, Wang MH, Gilson MM, et al. Teaching and assessing technical proficiency in surgical subspecialty fellowships. J Surg Educ 2012;69:521–8.
90. Milburn JA, Khera G, Hornby ST, et al. Introduction, availability and role of simulation in surgical education
and training: review of current evidence and recommendations from the Association of Surgeons in Training. Int J Surg 2012;10:393–8.
91. Thomas MK, McDonald RJ, Foley EF, et al. Educational value of morbidity and mortality (M&M) conferences: are minor complications important? J Surg Educ 2012;69:326–9.
92. Fitzgerald JE, Giddings CE, Khera G, et al. Improving the future of surgical training and education: consensus recommendations from the Association of Surgeons in Training. Int J Surg 2012;10:389–92.
93. Picarella EA, Simmons JD, Borman KR, et al. “Do one, teach one” the new paradigm in general surgery residency training. J Surg Educ 2011;68:126–9.
94. Patel VM, Warren O, Ahmed K, et al. How can we build mentorship in surgeons of the future? ANZ J Surg 2011;81:418–24.
95. Sachdeva AK, Buyske J, Dunnington GL, et al. A new paradigm for surgical procedural training. Curr Probl Surg 2011;48:854–968.
96. Cristancho SM, Moussa F, Dubrowski A. A framework-based approach to designing simulation-augmented surgical education
and training programs. Am J Surg 2011;202:344–51.
97. Maggiori L, Roupret M, Lefèvre JH. Workload and surgical training of residents in France: results of a national inquiry. J Visc Surg 2011;148:e141–7.
98. Ademuyiwa A, Ameh E, Bode C, et al. Survey of teaching, research and conference experiences of paediatric surgical trainees in Nigeria. African J Paediatr Surg 2011;8:4–7.
99. Holland JP, Waugh L, Horgan A, et al. Cadaveric hands-on training for surgical specialties: is this back to the future for surgical skills development? J Surg Educ 2011;68:110–6.
100. Marriott J, Purdie H, Crossley J, et al. Evaluation of procedure-based assessment for assessing trainees skills in the operating theatre. Br J Surg 2011;98:450–7.
101. Pollock JD, Love TP, Steffes BC, et al. Is it possible to train surgeons for rural Africa? A report of a successful international program. World J Surg 2011;35:493–9.
102. Ekenze SO, Ameh EA. Evaluation of relevance of the components of Pediatric Surgery residency training in West Africa. J Pediatr Surg 2010;45:801–5.
103. Braghetto I. Surgical training in Chile. World J Surg 2010;34:884–6.
104. Wohaibi EM, Bush RW, Earle DB, et al. Surgical resident performance on a virtual reality simulator correlates with operating room performance. J Surg Res 2010;160:67–72.
105. Louridas M, Bonrath EM, Sinclair DA, et al. Randomized clinical trial to evaluate mental practice in enhancing advanced laparoscopic surgical performance. Br J Surg 2015;102:37–44.
106. Kogan M, Klein SE, Hannon CP, et al. Orthopaedic education during the COVID-19 pandemic
. J Am Acad Orthop Surg 2020;28:e456–64.
107. Courteille O, Fahlstedt M, Hedman L, et al. Learning through a virtual patient vs. recorded lecture: a comparison of knowledge retention in a trauma case. Int J Med Educ 2018;9:86–92.
108. Dedeilia A, Sotiropoulos MG, Hanrahan JG, et al. Medical and surgical education
challenges and innovations in the COVID-19
era: a systematic review. In Vivo (Brooklyn) 2020;34:1603–11.
109. Comer BT, Gupta N, Mowry SE, et al. Otolaryngology education in the setting of COVID-19
: current and future implications. Otolaryngol Head Neck Surg (United States) 2020;163:70–74.
110. Seymour-Walsh AE, Bell A, Weber A, et al. Adapting to a new reality: COVID-19
coronavirus and online education in the health profession. Rural Remote Health 2020;20:6000.
111. Hintz GC, Duncan KC, Mackay EM, et al. Surgical training in the midst of a pandemic
: a distributed general surgery residency program’s response to COVID-19
. Can J Surg 2020;63:E346–48.
112. Impact of COVID-19
On CapaCare’s Activities in Sierra Leone. 2020. Available at: CapaCare.org
. Accessed May 25, 2020.
113. Surgical Protocol for Possible or Confirmed Ebola Cases. 2014. Available at: https://www.facs.org/surgeons/ebola/surgical-protocol
. Accessed October 6, 2020.
114. Safe Surgical Care: Strategies During a Pandemic
. 2020. Available at: https://www.edx.org/course/surgical-care-protocols-for-covid-19-patients
. Accessed October 7, 2020.
115. Bove P, Stoianovici D, Micali S, et al. Is telesurgery a new reality? Our experience with laparoscopic and percutaneous procedures. J Endourol 2003;17:137–42.
117. These are the countries where internet access is lowest. 2020. Available at: https://www.weforum.org/agenda/2020/08/internet-users-usage-countries-change-demographics/
. Accessed October 7, 2020.
118. Login to Incision Academy.academy.incision.care. Available at: https://academy.incision.care/account?modal=subscription
. Accessed October 7, 2020.
119. Jayakumar N, Brunckhorst O, Dasgupta P, et al. e-Learning in surgical education
: a systematic review. J Surg Educ 2015;72:1145–57.
120. Trauma Education ATLS 10th Edition Launch.2017. Available at: https://www.facs.org/publications/newsletters/cot-news/summer2017/education
. Accessed October 6, 2020.
121. Erridge S, Yeung DK, Patel H, et al. Telementoring
of surgeons: a systematic review. Surg Innov 2019;26:95–111.
122. Bruns NE, Irtan S, Rothenberg SS, et al. Trans-Atlantic telementoring
with pediatric surgeons: technical considerations and lessons learned. J Laparoendosc Adv Surg Tech 2016;26:75–8.
123. Schlachta CM, Nguyen NT, Ponsky T, et al. Project 6 summit: SAGES telementoring
initiative. Surg Endosc 2016;30:3665–72.
124. Okrainec A, Henao O, Azzie G. Telesimulation: an effective method for teaching the fundamentals of laparoscopic surgery in resource-restricted countries. Surg Endosc 2010;24:417–22.
125. Burgess LP, Syms MJ, Holtel MR, et al. Telemedicine: teleproctored endoscopicsinus surgery. Laryngoscope 2002;112:216–9.
126. School for Surgeons. 2015. Available at: http://www.cosecsa.org/school-surgeons-portal
. Accessed October 7, 2020.
127. Extending Trauma Surgical Capabilities in Rural BC—a pilot project involving Vancouver General Hospital and Queen Victoria Hospital 2020. Available at: https://srpc.ca/resources/Documents/ESSandRCC/2020/Haines%20Dawe%20-%20Revelstoke%20Trauma%20Program.pdf
. Accessed October 7, 2020.
128. National Surgical, Obstetrics, and Anesthesia Plan. 2018. Available at: http://moh.gov.rw/fileadmin/Publications/Strategic_Plan/NSOAP_Rwanda-_Approved1.pdf
. Accessed October 7, 2020.
129. Branch for International Surgical Care: Graduate Programs. Available at: https://internationalsurgery.med.ubc.ca/education/graduate-programs/
. Accessed October 6, 2020.
130. Ruggeri K, Farrington C, Brayne C. A global model for effective use and evaluation of e-learning in health. Telemed J E Health 2013;19:312–21.