Production of ERCP training model using a 3D printing technique (with video)

被引:7
|
作者
Kwon, Chang-Il [1 ,2 ]
Shin, Yeonsun [3 ]
Hong, Jaeok [3 ]
Im, Minje [4 ]
Kim, Guk Bae [4 ]
Koh, Dong Hee [2 ,5 ]
Song, Tae Jun [2 ,6 ]
Park, Won Suk [2 ,7 ]
Hyun, Jong Jin [8 ]
Jeong, Seok [2 ,9 ]
机构
[1] CHA Univ, Digest Dis Ctr, CHA Bundang Med Ctr, Sch Med, Seongnam, South Korea
[2] Korean Soc Gastrointestinal Endoscopy, Res Grp Endoscop Instruments & Stents, Seoul, South Korea
[3] Gluck, Seoul, South Korea
[4] Anymedi Inc, Seoul, South Korea
[5] Hallym Univ, Dongtan Sacred Heart Hosp, Dept Internal Med, Div Gastroenterol,Coll Med, Hwaseong, South Korea
[6] Ulsan Univ, Asan Med Ctr, Dept Internal Med, Div Gastroenterol,Coll Med, Seoul, South Korea
[7] Catholic Univ Korea, Daejeon St Marys Hosp, Coll Med, Dept Internal Med,Div Gastroenterol, Daejeon, South Korea
[8] Korea Univ, Div Gastroenterol & Hepatol, Coll Med, Seoul, South Korea
[9] Inha Univ, Inha Univ Hosp, Dept Internal Med, Div Gastroenterol,Sch Med, 27 Inhang Ro, Incheon 22332, South Korea
关键词
Printing; Three-dimensional; Cholangiopancreatography; endoscopic retrograde; Endoscopy; Training model; VIVO; CANNULATION; COMPETENCE; VALIDATION; SIMULATORS; SYSTEM;
D O I
10.1186/s12876-020-01295-y
中图分类号
R57 [消化系及腹部疾病];
学科分类号
摘要
Background ERCP training models are very different in terms of anatomical differences, ethical issues, storage problems, realistic tactile sensation, durability and portability. There is no easy way to select an optimized model for ERCP training. If the ERCP training model could be made as a soft silicone model using 3D printing technique, it would have numerous advantages over the models presented so far. The purpose of this study was to develop an optimized ERCP training model using a 3D printing technique and to try to find ways for implementing various practical techniques. Methods All organ parts of this model were fabricated using silicone molding techniques with 3D printing. Especially, various anatomy of the ampulla of Vater and common bile duct (CBD) were creatively designed for different diagnostic and therapeutic procedures. In order to manufacture each of the designed organ parts with silicone, a negative part had to be newly designed to produce the molder. The negative molders were 3D printed and then injection molding was applied to obtain organ parts in silicone material. The eight different types of ampulla and CBD were repeatedly utilized and replaced to the main system as a module-type. Results ERCP training silicone model using 3D technique was semi-permanently used to repeat various ERCP procedures. All ERCP procedures using this model could be observed by real-time fluoroscopic examination as well as endoscopic examination simultaneously. Using different ampulla and CBD modules, basic biliary cannulation, difficult cannulation, stone extraction, mechanical lithotripsy, metal stent insertion, plastic stent insertion, and balloon dilation were successfully and repeatedly achieved. Endoscopic sphincterotomy was also performed on a specialized ampulla using a Vienna sausage. After repeat procedures and trainings, all parts of organs including the ampulla and CBD modules were not markedly damaged or deformed. Conclusions We made a specialized ERCP training silicon model with 3D printing technique. This model is durable, relatively cheap and easy to make, and thus allows the users to perform various specialized ERCP techniques, which increases its chances of being a good ERCP training model.
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页数:9
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