Literature DB >> 32355132

Home Surgical Skill Training Resources for Obstetrics and Gynecology Trainees During a Pandemic.

Sarah Hoopes1, Truce Pham, Fiona M Lindo, Danielle D Antosh.   

Abstract

The coronavirus disease 2019 (COVID-19) pandemic has created a unique educational circumstance in which medical students, residents, and fellows find themselves with a gap in their surgical training. We reviewed the literature, and nine categories of resources were identified that may benefit trainees in preventing skill decay: laparoscopic box trainers, virtual reality trainers, homemade simulation models, video games, online surgical simulations, webinars, surgical videos, smartphone applications, and hobbies including mental imagery. We report data regarding effectiveness, limitations, skills incorporated, cost, accessibility, and feasibility. Although the cost and accessibility of these resources vary, they all may be considered in the design of remote surgical training curricula during this unprecedented time of the COVID-19 pandemic.

Entities:  

Mesh:

Year:  2020        PMID: 32355132      PMCID: PMC7219833          DOI: 10.1097/AOG.0000000000003931

Source DB:  PubMed          Journal:  Obstet Gynecol        ISSN: 0029-7844            Impact factor:   7.623


The coronavirus disease 2019 (COVID-19) pandemic has led hospitals worldwide to cancel elective surgical procedures. Residency programs have moved to skeleton call teams, and medical schools have gone virtual. Although these protocols have helped decrease infection exposure, many trainees find themselves at home with an undefined gap in their hands-on training. There are no guidelines for remote surgical training, nor are there many recent reviews pertaining to gynecology simulation. Residents may encounter surgical-skill decay, defined as loss of acquired skills after a period of nonuse, which has been found to increase as the nonpractice interval lengthens.[1,2] In the military, cognitive decay was seen at 6 months and motor decay was seen at 10 months.[2] Fortunately, simulations have been shown to be effective in preventing decay and teaching new technical skills to novice learners who have delayed the initiation of their training.[3-8] Three core skills are vital when designing an effective laparoscopic-skills program: psychomotor skills, visual–spatial skills, and cognitive skills.[2] We believe these same core skills can be applied and generalized to basic surgical training such as knot tying, suturing, and surgical dissection. The purpose of this review is to explore available resources for remote surgical training with attention to the three core skills addressed, cost, and feasibility.

METHODS

Two authors (S.H. and T.P.) independently performed comprehensive searches of the medical literature in PubMed using the same search terms. The results from both searches yielded abstracts and articles that were compiled and reviewed. Keyword search terms included “at-home,” “homemade,” “remote,” “surgical skill training,” “laparoscopic skill training,” “surgical simulation,” and “laparoscopic simulation.” A review of major surgical and gynecology societies' websites was performed to search for applicable simulation models, instructions, modules, and surgical videos. These organizations included the American College of Obstetricians and Gynecologists, the American College of Surgeons, the Fundamentals of Laparoscopic Surgery program, the International Academy of Pelvic Surgery, the AAGL, the International Urogynecological Association, and the American Urogynecologic Society. The Apple Inc. application store was used to search for surgical training applications using the search terms “surgical skills” and “surgical simulation.” Finally, a Google search was conducted to find other web-based surgical simulation sites. Resources were categorized by type of simulation, benefits, limitations, cost, and which of the three core skills were incorporated: psychomotor, cognitive, visual–spatial.

RESULTS AND DISCUSSION

Laparoscopic Box Trainers

Initially designed for hospital simulation centers, laparoscopic skill trainers have been made portable for trainees to practice, master repetition, and develop muscle memory at home. Laparoscopic box trainers and instruments can be purchased from a variety of manufacturers (Table 1). These simulators require the use of both psychomotor and visual–spatial skills essential for successful laparoscopic surgeries. When surveyed, residents felt that box trainers were effective and useful to have at home.[9,10] Furthermore, residents randomized to take-home trainers were more likely to practice their skills and had improved suture-retention scores compared with those randomized to institutional trainers.[11] The main limitation of a purchased box trainer is cost, making these less feasible for individual training during a pandemic, especially because sharing of trainers is limited by stay-at-home orders (Table 1). Homemade trainers can be made out of cardboard, wood, or plastic boxes, with a web camera or tablet, depending on what supplies are accessible[12,13] (Fig. 1). When residents were randomized to a homemade trainer compared with a manufactured trainer, there was no significant difference in time to completion of the practiced Fundamentals of Laparoscopic Surgery tasks.[14] Residents using a home trainer had no difference in surgical skill scores compared with those who completed a course of didactics and supervised laparoscopic skill training.[15] Furthermore, remote video coaching sessions with an expert surgeon have been found to improve laparoscopic skills in residents.[16-18] Using a smartphone or tablet with their homemade trainer allows residents to record their efforts and share them remotely with faculty. To encourage use, programs should include goal setting for each task and a log of training time.[19] Unlike manufactured trainers that include laparoscopic instruments, homemade trainers require programs to purchase instruments online ($70–$170) or borrow them from the hospital and distribute them by mail or during call shifts. These trainers can be used to help residents prepare for their Fundamentals of Laparoscopic Surgery certification to prevent further delay in examination from lack of preparation. Detailed task instructions and required instruments can be found on both the American College of Obstetricians and Gynecologists' Curriculum for Resident Education in Surgical Technique and the Fundamentals of Laparoscopic Surgery website.[20,21]
Table 1.

Summary of Remote Surgical Training Resources

Fig. 1.

Three homemade laparoscopic box trainers. A. Materials: cardboard and tablet; cost: minimal (excluding tablet); time to assemble: not recorded. B. Materials: wood, computer monitor, and bullet camera; cost: $80; time to assemble: not recorded. C. Materials: plastic box, computer monitor, and web camera; cost: $50; time to assemble: 3 hours. A Reprinted from J Surg Educ 2013;70:161–3 with permission from Elsevier. B Reprinted from Int J Environ Res Public Health. 2020;171:323 under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/). C Reprinted from Clin Teach 2011;8:118–21 with permission from John Wiley and Sons.

Hoopes. Remote Surgical Skill Training Resources. Obstet Gynecol 2020.

Summary of Remote Surgical Training Resources

Three homemade laparoscopic box trainers. A. Materials: cardboard and tablet; cost: minimal (excluding tablet); time to assemble: not recorded. B. Materials: wood, computer monitor, and bullet camera; cost: $80; time to assemble: not recorded. C. Materials: plastic box, computer monitor, and web camera; cost: $50; time to assemble: 3 hours. A Reprinted from J Surg Educ 2013;70:161–3 with permission from Elsevier. B Reprinted from Int J Environ Res Public Health. 2020;171:323 under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/). C Reprinted from Clin Teach 2011;8:118–21 with permission from John Wiley and Sons.

Hoopes. Remote Surgical Skill Training Resources. Obstet Gynecol 2020.

Virtual Reality Laparoscopic Trainers

The addition of virtual simulation adds a degree of cognitive skill to the mix of psychomotor and visual–spatial skills used in the generic trainers described above. Students learn from mistakes as they work through different procedures. Virtual reality trainers have been shown to decrease skill-completion time, with better recall of procedural steps compared with watching surgical videos.[22,23] A systematic review of 14 randomized trials found that virtual reality training led to improved peg transfer time and improved performance of minimally invasive surgery in a descriptive analysis.[24] Nonetheless, the review found no difference in time to completion of laparoscopic tasks on virtual reality trainers compared with standard trainers.[24] Some virtual reality trainers lack haptic feedback, a feature that reduces the learning curve and improves realism.[25] To ameliorate this limitation, augmented reality simulators have been developed, incorporating the use of physical objects to provide haptic feedback.[26] There are several manufacturers for these systems, and they range in price from $2,000 to more than $100,000[8] (Table 1). Bulky robotic simulators also exist and cost from $80,000 to more than $137,000, limiting their use in a remote curriculum.[27] Given these findings and the substantial cost difference, the standard box trainer is sufficient to enhance remote surgical training; however, when a virtual reality trainer is available, programs should allow its use because it provides the cognitive and coaching feedback not otherwise included in a box trainer.[28]

Homemade, Low-Cost Simulation Models

Several organizations offer instructions on how to create models for surgical simulation with a comprehensive list of materials, costs, learning objectives, modules, and quizzes (Table 2). In contrast to the specialized materials needed for laparoscopic trainers, these models use common household materials, such as kitchen sponges to simulate tissue dissection, plastic pipes and tights to simulate anterior colporrhaphy, or modeling clay and pantyhose to simulate a vaginal hysterectomy.[29-31] Other examples can be found on PubMed, including a modified beef tongue model for fourth-degree laceration repair.[32] These models allow trainees to improve their psychomotor and visual–spatial skills while also reinforcing knowledge of gynecologic procedures. Most simulation supplies are relatively low-cost ($7–$100 for the model and $10–$40 for surgical tools or an anatomy dissecting kit) and range in difficulty of construction. Not all publications cite validity of their model or an improvement in performance. Some publications show improved trainee confidence and satisfaction after model use,[33-35] whereas others show significant improvement in a surgical skill.[36,37] One limitation is that these models are usually designed for performance in a structured laboratory led by faculty, with supplemental didactic sessions.[38] No studies instructed trainees to perform these models without facilitators. Although remote video coaching is available, more advanced models (such as hysterectomy) require two participants.[31,34] Under stay-at-home orders, trainees may create their own models or share using a cleaning protocol. In summary, individuals can build low-cost surgical models to practice all three core skills at home.
Table 2.

Examples of Published Homemade Surgical Simulation Models, Including Materials, Cost, and Assembly Time

Examples of Published Homemade Surgical Simulation Models, Including Materials, Cost, and Assembly Time

Video Game Training

Video game play has been associated with improved psychomotor skills, eye–hand coordination, reaction time, and spatial visualization.[39,40] Overall, there is mixed evidence supporting a correlation between prior video game play and baseline laparoscopic surgical skills.[41-46] The most widely studied video game platforms are the Nintendo Wii and Xbox (Table 1). Based on a few small studies, some video games were found to improve nondominant-hand performance, intracorporeal knot-tying performance, electrocautery skills, and basic laparoscopic skills.[47-52] Because many residents may already own gaming platforms, game practice would be easily incorporated into a remote curriculum; however, the evidence is too weak to support routine use of these systems.

Online Surgical Simulation Modules

The interactivity, repetition, and feedback gained by trainees using internet-based learning has been associated with improved learning outcomes and might be better suited for Millennial-style learning.[53-55] Online surgical simulations walk users through a procedure, followed by a reading, anatomic review, or quiz. These are similar to virtual reality trainers but without the use of surgical instruments. The Sim Praxis Laparoscopic Hysterectomy Software was found to improve posttraining test scores compared with residents receiving standard training.[56] Incision Academy provides access to surgical videos, step-by-step instructions, three-dimensional anatomy models, and quizzes. Some sites have granted free access during the COVID-19 pandemic. Unfortunately, there is limited evidence to support or refute the use of these resources.

Modules and Webinars

Physicians and trainees worldwide have access to webinars and modules from experts' broadcasts or those published by major scientific societies, covering new surgical advances and current surgical techniques. Many societies offer access to these lectures with membership or for a small fee (Table 1). E-learning tutorials and videos have been found to improve surgical knowledge but are limited owing to inconsistent use of control groups.[57,58] With a wide variety of subjects and flexibility in scheduling, faculty can choose accessible topics best suited for the learner. Modules with self-assessments have been shown to have improved learning outcomes.[59] Online orientation modules to Fundamentals of Laparoscopic Surgery tasks and robotic surgery are available if not already incorporated into the curriculum.[60-62] Webinars can be watched and discussed with groups of trainees and supervisors using video chat. Future studies are needed to determine how e-learning can be used to reinforce technical skills, but, for the time being, it serves as a sufficient substitute to trainee didactics.

Surgical Videos

Surgical videos are commonly used in the demonstration of anatomy and technical skill, but their effectiveness in improving surgical performance is controversial.[63-68] The most popular video search engine for surgical trainees is YouTube, whereas specialists tend to rely on videos from surgical societies.[64,69] Caution should be exhibited when choosing videos, because there is no current peer-review process for publishing medical videos online, with many top-ranked videos showing suboptimal techniques.[70,71] To combat this issue, laparoscopic surgery video educational guidelines were developed, describing how to effectively produce videos.[72] Additionally, trainees should be directed toward society videos, such as the Green Journal's YouTube channel and online gallery, AAGL's SurgeryU, and the International Academy of Pelvic Surgery (Table 1), to ensure quality content with step-by-step instructions and commentary. Many of these libraries have granted free access to trainees during the COVID-19 pandemic.

Smartphone Applications

Several studies have demonstrated that smartphone simulation applications improve surgical skills through teaching cognitive reasoning and technical skills.[73-76] Touch Surgery is a free smartphone application that simulates key steps in surgical procedures such as hysterectomy, episiotomy, and cesarean delivery. Although this application does not provide haptic feedback, it provides immediate instruction after steps are chosen by the user. Similar to online surgical videos, the content produced by the medical applications industry is not regulated by peer review.[77] There are more than 1,000 “surgery” applications available for download, but only 12% are linked to an academic institution or society.[74,78] Although there is little research to support the use of smartphone applications in regular surgical curricula, they are easily accessible for trainees, with the potential to produce future evidence-based applications.

Hobbies and Mental Imagery

Recreational activities involving manual dexterity that may improve fine motor surgical skills, such as musical instrument playing, are mostly anecdotal in their success.[41,79] Mental imagery, a mental-training technique implemented at the University of New Mexico, was postulated to slow surgical-skill decay, improve trainees' performance, and lessen their anxiety when performed before the procedure.[80,81] Interestingly, when comparing physical practice followed by either additional physical practice or mental imagery, mental imagery was as effective as additional physical practice when medical students were learning basic suturing skills.[82] Therefore, when physical practice with surgery is not possible, mental imagery may be a cost-effective technique to aid in skill retention.

CONCLUSIONS

The COVID-19 pandemic has left many surgical students, residents, and fellows with a gap in hands-on surgical training, leaving them prone to surgical-skill decay. Fortunately, there is a diverse array of resources that can be employed to develop remote surgical curricula for the obstetrics and gynecology trainee. Implementation will vary by program, because these resources vary in price and accessibility. However, in combination, they can be used to develop the psychomotor, visual–spatial, and cognitive skills important for surgical performance. As new curricula are developed during this unique time, it is important to share resources to enhance the accessibility of gynecologic surgical simulation. Programs should take advantage of this time to collaborate and further study the effectiveness of these platforms to determine whether these resources should be implemented when trainees return to their programs.
  74 in total

1.  Design, development, and validation of a take-home simulator for fundamental laparoscopic skills: using Nintendo Wii for surgical training.

Authors:  Ravia Bokhari; Jyoti Bollman-McGregor; Kanav Kahoi; Marshall Smith; Ara Feinstein; John Ferrara
Journal:  Am Surg       Date:  2010-06       Impact factor: 0.688

2.  Skill retention following proficiency-based laparoscopic simulator training.

Authors:  Dimitrios Stefanidis; James R Korndorffer; Rafael Sierra; Cheri Touchard; J Bruce Dunne; Daniel J Scott
Journal:  Surgery       Date:  2005-08       Impact factor: 3.982

Review 3.  Prevention of surgical skill decay.

Authors:  Ray S Perez; Anna Skinner; Peter Weyhrauch; James Niehaus; Corinna Lathan; Steven D Schwaitzberg; Caroline G L Cao
Journal:  Mil Med       Date:  2013-10       Impact factor: 1.437

4.  The validity of take-home surgical simulators to enhance resident technical skill proficiency.

Authors:  Joe Uccelli; Kanav Kahol; Aaron Ashby; Marshall Smith; John Ferrara
Journal:  Am J Surg       Date:  2011-03       Impact factor: 2.565

5.  Homemade laparoscopic simulators for surgical trainees.

Authors:  Myo Khine; Edward Leung; Chris Morran; Giri Muthukumarasamy
Journal:  Clin Teach       Date:  2011-06

6.  Hand skill asymmetry in professional musicians.

Authors:  L Jäncke; G Schlaug; H Steinmetz
Journal:  Brain Cogn       Date:  1997-08       Impact factor: 2.310

Review 7.  Virtual reality simulator versus box-trainer to teach minimally invasive procedures: A meta-analysis.

Authors:  Hugo Gonçalo Guedes; Zêmia Maria Câmara Costa Ferreira; Layra Ribeiro de Sousa Leão; Edna Frasson Souza Montero; José Pinhata Otoch; Everson Luiz de Almeida Artifon
Journal:  Int J Surg       Date:  2018-12-06       Impact factor: 6.071

Review 8.  Incorporating simulation into gynecologic surgical training.

Authors:  Kyle Wohlrab; J Eric Jelovsek; Deborah Myers
Journal:  Am J Obstet Gynecol       Date:  2017-05-13       Impact factor: 8.661

9.  LAP-VEGaS Practice Guidelines for Reporting of Educational Videos in Laparoscopic Surgery: A Joint Trainers and Trainees Consensus Statement.

Authors:  Valerio Celentano; Neil Smart; John McGrath; Ronan A Cahill; Antonino Spinelli; Andreas Obermair; Hirotoshi Hasegawa; Pawanindra Lal; Alex M Almoudaris; Charlotte R Hitchins; Gianluca Pellino; Matthew G Browning; Takashi Ishida; Federico Luvisetto; Pinar Cingiloglu; Katherine Gash; Rhiannon Harries; Deena Harji; Francesca Di Candido; Elisa Cassinotti; Frank D McDermott; James E A Berry; Nick J Battersby; Esther Platt; Nicholas J Campain; Barrie D Keeler; Luigi Boni; Sharmila Gupta; John P Griffith; Austin G Acheson; Tom D Cecil; Mark G Coleman
Journal:  Ann Surg       Date:  2018-12       Impact factor: 12.969

10.  The training value of a low-fidelity cervical biopsy workshop.

Authors:  Kristyn M Manley; Claire H Park; Victoria L Medland; Tracy-Louise Appleyard
Journal:  Simul Healthc       Date:  2015-04       Impact factor: 1.929

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  20 in total

Review 1.  A review on the evolution of simulation-based training to help build a safer future.

Authors:  Jared Bienstock; Albert Heuer
Journal:  Medicine (Baltimore)       Date:  2022-06-24       Impact factor: 1.817

2.  Can surgical skills be taught using technological advances online? A comparative study of online and face-to-face surgical skills training.

Authors:  Matyas Fehervari; Bibek Das; Payam Soleimani-Nouri; Manal Ahmad; Michael G Fadel; Mohammed Deputy; Catrin Morgan; Joshua R Burke; John D Mason; David Nott; Duncan Spalding
Journal:  Surg Endosc       Date:  2022-03-07       Impact factor: 3.453

3.  Potential long-term impacts of surgical placement cancellations.

Authors:  Chloe Chia; Qi Zhuang Siah; Michael Stephens
Journal:  Med Educ Online       Date:  2020-12

4.  Addressing the Covid-19 Burden on Medical Education and Training: The Role of Telemedicine and Tele-Education During and Beyond the Pandemic.

Authors:  Divyansh Sharma; Sonu Bhaskar
Journal:  Front Public Health       Date:  2020-11-27

Review 5.  Safe Surgery During the COVID-19 Pandemic.

Authors:  Rishi Singhal; Luke Dickerson; Nasser Sakran; Sjaak Pouwels; Sonja Chiappetta; Sylvia Weiner; Sanjay Purkayastha; Brij Madhok; Kamal Mahawar
Journal:  Curr Obes Rep       Date:  2021-10-28

6.  A Portable Hip Arthroscopy Simulator Demonstrates Good Face and Content Validity with Incomplete Construct Validity.

Authors:  Aoife Feeley; Luke Turley; Eoin Sheehan; Khalid Merghani
Journal:  Arthrosc Sports Med Rehabil       Date:  2021-07-17

7.  Most significant barriers and proposed solutions for medical schools to facilitate simulation-based undergraduate curriculum in OBGYN.

Authors:  Hira Salman
Journal:  Arch Gynecol Obstet       Date:  2021-12       Impact factor: 2.344

8.  Experiences and Perceptions of Ophthalmic Simulation-Based Surgical Education in Sub-Saharan Africa.

Authors:  Roxanne Annoh; Lena Morgon Banks; Stephen Gichuhi; John Buchan; William Makupa; Juliet Otiti; Agrippa Mukome; Simon Arunga; Matthew J Burton; William H Dean
Journal:  J Surg Educ       Date:  2021-05-11       Impact factor: 2.891

9.  Maintaining Effective Senior Resident-Led Intern Education through Virtual Curricular Transition.

Authors:  Katharine E Caldwell; Annie Hess; Paul E Wise; Michael M Awad
Journal:  J Surg Educ       Date:  2021-06-29       Impact factor: 2.891

10.  Unprecedented Training: Experience of Residents During the COVID-19 Pandemic.

Authors:  Nicholas Stark; Tuna Hayirli; Aditi Bhanja; Michaela Kerrissey; James Hardy; Christopher R Peabody
Journal:  Ann Emerg Med       Date:  2022-01-24       Impact factor: 6.762

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