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74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology

ABSTRACT IMPACT: We plan to measure the impact of integrating 3D printed models in the planning process of endovascular procedures with the goal of making a case for using this resource more often. OBJECTIVES/GOALS: To measure the impact of using 3D printed models of patient specific anatomy for pre...

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Autores principales: Richards, Lucas, Dalla, Shiv, Walter, Carissa, Rohr, Aaron
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Cambridge University Press 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8827878/
http://dx.doi.org/10.1017/cts.2021.564
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author Richards, Lucas
Dalla, Shiv
Walter, Carissa
Rohr, Aaron
author_facet Richards, Lucas
Dalla, Shiv
Walter, Carissa
Rohr, Aaron
author_sort Richards, Lucas
collection PubMed
description ABSTRACT IMPACT: We plan to measure the impact of integrating 3D printed models in the planning process of endovascular procedures with the goal of making a case for using this resource more often. OBJECTIVES/GOALS: To measure the impact of using 3D printed models of patient specific anatomy for pre-procedure planning and as an intra-procedure reference. Impact will be measured by: a. Radiation exposure ; b. Contrast dosage; c. Fluoroscopy time; d. Time to procedural completion; e. ‘Attempts at access,’ when applicable to the procedure METHODS/STUDY POPULATION: Retrospective data will be collected on every patient that received one of prostate artery embolism, transjugular intrahepatic portosystemic shunt placement, or endovascular stent repair in the 3 years prior to the first prospective case. An attempt will be made to create a procedure planning model for every patient that receives one of the three procedures of interest in the 5 months following the first prospective case and those that have a model included in their procedure planning process will be included as part of the experimental group. We anticipate this to not include every patient as there will need to be adequate time between the scheduling of the procedure and the procedure start time to be able to create a 3D model. This will make it impossible to include every patient. Our first prospective case was 11/12/20. RESULTS/ANTICIPATED RESULTS: At the time of submission we have very limited data and cannot confidently make a statement regarding results. We anticipate to measure a reduced time to procedural completion, and as a result, decreased radiation exposure, decreased contrast dosage, and decreased fluoroscopy time in the cases that included a 3D printed model in the planning of the procedures when compared to the procedures that did not include a model. DISCUSSION/SIGNIFICANCE OF FINDINGS: Few hospitals are using 3D printing as a regular tool that physicians can access as a part of their procedure preparation. If we are able to measure a significant impact on the efficiency and safety of procedures in interventional radiology, a much more robust argument can be made for including this technique in procedure planning with regularity.
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spelling pubmed-88278782022-03-04 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology Richards, Lucas Dalla, Shiv Walter, Carissa Rohr, Aaron J Clin Transl Sci Education/Mentoring/Professional and Career Development ABSTRACT IMPACT: We plan to measure the impact of integrating 3D printed models in the planning process of endovascular procedures with the goal of making a case for using this resource more often. OBJECTIVES/GOALS: To measure the impact of using 3D printed models of patient specific anatomy for pre-procedure planning and as an intra-procedure reference. Impact will be measured by: a. Radiation exposure ; b. Contrast dosage; c. Fluoroscopy time; d. Time to procedural completion; e. ‘Attempts at access,’ when applicable to the procedure METHODS/STUDY POPULATION: Retrospective data will be collected on every patient that received one of prostate artery embolism, transjugular intrahepatic portosystemic shunt placement, or endovascular stent repair in the 3 years prior to the first prospective case. An attempt will be made to create a procedure planning model for every patient that receives one of the three procedures of interest in the 5 months following the first prospective case and those that have a model included in their procedure planning process will be included as part of the experimental group. We anticipate this to not include every patient as there will need to be adequate time between the scheduling of the procedure and the procedure start time to be able to create a 3D model. This will make it impossible to include every patient. Our first prospective case was 11/12/20. RESULTS/ANTICIPATED RESULTS: At the time of submission we have very limited data and cannot confidently make a statement regarding results. We anticipate to measure a reduced time to procedural completion, and as a result, decreased radiation exposure, decreased contrast dosage, and decreased fluoroscopy time in the cases that included a 3D printed model in the planning of the procedures when compared to the procedures that did not include a model. DISCUSSION/SIGNIFICANCE OF FINDINGS: Few hospitals are using 3D printing as a regular tool that physicians can access as a part of their procedure preparation. If we are able to measure a significant impact on the efficiency and safety of procedures in interventional radiology, a much more robust argument can be made for including this technique in procedure planning with regularity. Cambridge University Press 2021-03-30 /pmc/articles/PMC8827878/ http://dx.doi.org/10.1017/cts.2021.564 Text en © The Association for Clinical and Translational Science 2021 https://creativecommons.org/licenses/by/4.0/This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution, and reproduction in any medium, provided the original work is properly cited.
spellingShingle Education/Mentoring/Professional and Career Development
Richards, Lucas
Dalla, Shiv
Walter, Carissa
Rohr, Aaron
74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title_full 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title_fullStr 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title_full_unstemmed 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title_short 74957 Utilizing 3D Printing to Assist Planning of Percutaneous/Endovascular Procedures in Interventional Radiology
title_sort 74957 utilizing 3d printing to assist planning of percutaneous/endovascular procedures in interventional radiology
topic Education/Mentoring/Professional and Career Development
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8827878/
http://dx.doi.org/10.1017/cts.2021.564
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