3D printing for congenital heart disease: a single site’s initial three-yearexperience
Abstract Background 3D printing is an ideal manufacturing process for creating patient-matched models (anatomical models) for surgical and interventional planning. Cardiac anatomical models have been described in numerous case studies and journal publications. However, few studies attempt to describ...
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doaj-3e9d764c6d0243ccb49969ae62e6f3b52020-11-25T02:27:49ZengBMC3D Printing in Medicine2365-62712018-11-01411910.1186/s41205-018-0033-83D printing for congenital heart disease: a single site’s initial three-yearexperienceJustin Ryan0Jonathan Plasencia1Randy Richardson2Daniel Velez3John J. Nigro4Stephen Pophal5David Frakes6Rady Children’s Hospital–San DiegoPhoenix Children’s HospitalSt. Joseph’s Hospital and Medical CenterPhoenix Children’s HospitalRady Children’s Hospital–San DiegoPhoenix Children’s HospitalArizona State UniversityAbstract Background 3D printing is an ideal manufacturing process for creating patient-matched models (anatomical models) for surgical and interventional planning. Cardiac anatomical models have been described in numerous case studies and journal publications. However, few studies attempt to describe wider impact of the novel planning augmentation tool. The work here presents the evolution of an institution’s first 3 full years of 3D prints following consistent integration of the technology into clinical workflow (2012–2014) - a center which produced 79 models for surgical planning (within that time frame). Patient outcomes and technology acceptance following implementation of 3D printing were reviewed. Methods A retrospective analysis was designed to investigate the anatomical model’s impact on time-based surgical metrics. A contemporaneous cohort of standard-of-care pre-procedural planning (no anatomical models) was identified for comparative analysis. A post-surgery technology acceptance assessment was also employed in a smaller subset to measure perceived efficacy of the anatomical models. The data was examined. Results Within the timeframe of the study, 928 primary-case cardiothoracic surgeries (encompassing both CHD and non-CHD surgeries) took place at the practicing pediatric hospital. One hundred sixty four anatomical models had been generated for various purposes. An inclusion criterion based on lesion type limited those with anatomic models to 33; there were 113 cases matching the same criterion that received no anatomical model. Time-based metrics such as case length-of-time showed a mean reduction in overall time for anatomical models. These reductions were not statistically significant. The technology acceptance survey did demonstrate strong perceived efficacy. Anecdotal vignettes further support the technology acceptance. Discussion & conclusion The anatomical models demonstrate trends for reduced operating room and case length of time when compared with similar surgeries in the same time-period; in turn, these reductions could have significant impact on patient outcomes and operating room economics. While analysis did not yield robust statistical powering, strong Cohen’s d values suggest poor powering may be more related to sample size than non-ideal outcomes. The utility of planning with an anatomical model is further supported by the technology acceptance study which demonstrated that surgeons perceive the anatomical models to be an effective tool in surgical planning for a complex CHD repair. A prospective multi-center trial is currently in progress to further validate or reject these findings.http://link.springer.com/article/10.1186/s41205-018-0033-8Congenital heart disease3D printingRetrospective chart reviewPatient outcomes |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Justin Ryan Jonathan Plasencia Randy Richardson Daniel Velez John J. Nigro Stephen Pophal David Frakes |
spellingShingle |
Justin Ryan Jonathan Plasencia Randy Richardson Daniel Velez John J. Nigro Stephen Pophal David Frakes 3D printing for congenital heart disease: a single site’s initial three-yearexperience 3D Printing in Medicine Congenital heart disease 3D printing Retrospective chart review Patient outcomes |
author_facet |
Justin Ryan Jonathan Plasencia Randy Richardson Daniel Velez John J. Nigro Stephen Pophal David Frakes |
author_sort |
Justin Ryan |
title |
3D printing for congenital heart disease: a single site’s initial three-yearexperience |
title_short |
3D printing for congenital heart disease: a single site’s initial three-yearexperience |
title_full |
3D printing for congenital heart disease: a single site’s initial three-yearexperience |
title_fullStr |
3D printing for congenital heart disease: a single site’s initial three-yearexperience |
title_full_unstemmed |
3D printing for congenital heart disease: a single site’s initial three-yearexperience |
title_sort |
3d printing for congenital heart disease: a single site’s initial three-yearexperience |
publisher |
BMC |
series |
3D Printing in Medicine |
issn |
2365-6271 |
publishDate |
2018-11-01 |
description |
Abstract Background 3D printing is an ideal manufacturing process for creating patient-matched models (anatomical models) for surgical and interventional planning. Cardiac anatomical models have been described in numerous case studies and journal publications. However, few studies attempt to describe wider impact of the novel planning augmentation tool. The work here presents the evolution of an institution’s first 3 full years of 3D prints following consistent integration of the technology into clinical workflow (2012–2014) - a center which produced 79 models for surgical planning (within that time frame). Patient outcomes and technology acceptance following implementation of 3D printing were reviewed. Methods A retrospective analysis was designed to investigate the anatomical model’s impact on time-based surgical metrics. A contemporaneous cohort of standard-of-care pre-procedural planning (no anatomical models) was identified for comparative analysis. A post-surgery technology acceptance assessment was also employed in a smaller subset to measure perceived efficacy of the anatomical models. The data was examined. Results Within the timeframe of the study, 928 primary-case cardiothoracic surgeries (encompassing both CHD and non-CHD surgeries) took place at the practicing pediatric hospital. One hundred sixty four anatomical models had been generated for various purposes. An inclusion criterion based on lesion type limited those with anatomic models to 33; there were 113 cases matching the same criterion that received no anatomical model. Time-based metrics such as case length-of-time showed a mean reduction in overall time for anatomical models. These reductions were not statistically significant. The technology acceptance survey did demonstrate strong perceived efficacy. Anecdotal vignettes further support the technology acceptance. Discussion & conclusion The anatomical models demonstrate trends for reduced operating room and case length of time when compared with similar surgeries in the same time-period; in turn, these reductions could have significant impact on patient outcomes and operating room economics. While analysis did not yield robust statistical powering, strong Cohen’s d values suggest poor powering may be more related to sample size than non-ideal outcomes. The utility of planning with an anatomical model is further supported by the technology acceptance study which demonstrated that surgeons perceive the anatomical models to be an effective tool in surgical planning for a complex CHD repair. A prospective multi-center trial is currently in progress to further validate or reject these findings. |
topic |
Congenital heart disease 3D printing Retrospective chart review Patient outcomes |
url |
http://link.springer.com/article/10.1186/s41205-018-0033-8 |
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