Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation

3D printing technology is able to produce personalized artificial substitutes for patients with damaged menisci. However, there is a lack of thorough understanding of 3D printing-enabled (3DP-enabled) meniscus transplantation and its long-term advantages over traditional transplantation. To help hea...

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Main Authors: Zimeng Zhang, Qian Wu, Li Zeng, Shiren Wang
Format: Article
Language:English
Published: MDPI AG 2019-05-01
Series:Healthcare
Subjects:
Online Access:https://www.mdpi.com/2227-9032/7/2/69
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spelling doaj-07569fce15ee4e8fb8af7b824f36acc12020-11-24T21:32:32ZengMDPI AGHealthcare2227-90322019-05-01726910.3390/healthcare7020069healthcare7020069Modeling-Based Assessment of 3D Printing-Enabled Meniscus TransplantationZimeng Zhang0Qian Wu1Li Zeng2Shiren Wang3Department of Industrial and Systems Engineering, Texas A&M University, College Station, TX 77843, USADepartment of Industrial and Systems Engineering, Texas A&M University, College Station, TX 77843, USADepartment of Industrial and Systems Engineering, Texas A&M University, College Station, TX 77843, USADepartment of Industrial and Systems Engineering, Texas A&M University, College Station, TX 77843, USA3D printing technology is able to produce personalized artificial substitutes for patients with damaged menisci. However, there is a lack of thorough understanding of 3D printing-enabled (3DP-enabled) meniscus transplantation and its long-term advantages over traditional transplantation. To help health care stakeholders and patients assess the value of 3DP-enabled meniscus transplantation, this study compares the long-term cost and risk of this new paradigm with traditional transplantation by simulation. Pathway models are developed to simulate patients’ treatment process during a 20-year period, and a Markov process is used to model the state transitions of patients after transplantation. A sensitivity analysis is also conducted to show the effect of quality of 3D-printed meniscus on model outputs. The simulation results suggest that the performance of 3DP-enabled meniscus transplantation depends on quality of 3D-printed meniscus. The conclusion of this study is that 3DP-enabled meniscus transplantation has many advantages over traditional meniscus transplantation, including a minimal waiting time, perfect size and shape match, and potentially lower cost and risk in the long term.https://www.mdpi.com/2227-9032/7/2/693D printingMarkov modelmeniscus transplantationpathway model
collection DOAJ
language English
format Article
sources DOAJ
author Zimeng Zhang
Qian Wu
Li Zeng
Shiren Wang
spellingShingle Zimeng Zhang
Qian Wu
Li Zeng
Shiren Wang
Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
Healthcare
3D printing
Markov model
meniscus transplantation
pathway model
author_facet Zimeng Zhang
Qian Wu
Li Zeng
Shiren Wang
author_sort Zimeng Zhang
title Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
title_short Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
title_full Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
title_fullStr Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
title_full_unstemmed Modeling-Based Assessment of 3D Printing-Enabled Meniscus Transplantation
title_sort modeling-based assessment of 3d printing-enabled meniscus transplantation
publisher MDPI AG
series Healthcare
issn 2227-9032
publishDate 2019-05-01
description 3D printing technology is able to produce personalized artificial substitutes for patients with damaged menisci. However, there is a lack of thorough understanding of 3D printing-enabled (3DP-enabled) meniscus transplantation and its long-term advantages over traditional transplantation. To help health care stakeholders and patients assess the value of 3DP-enabled meniscus transplantation, this study compares the long-term cost and risk of this new paradigm with traditional transplantation by simulation. Pathway models are developed to simulate patients’ treatment process during a 20-year period, and a Markov process is used to model the state transitions of patients after transplantation. A sensitivity analysis is also conducted to show the effect of quality of 3D-printed meniscus on model outputs. The simulation results suggest that the performance of 3DP-enabled meniscus transplantation depends on quality of 3D-printed meniscus. The conclusion of this study is that 3DP-enabled meniscus transplantation has many advantages over traditional meniscus transplantation, including a minimal waiting time, perfect size and shape match, and potentially lower cost and risk in the long term.
topic 3D printing
Markov model
meniscus transplantation
pathway model
url https://www.mdpi.com/2227-9032/7/2/69
work_keys_str_mv AT zimengzhang modelingbasedassessmentof3dprintingenabledmeniscustransplantation
AT qianwu modelingbasedassessmentof3dprintingenabledmeniscustransplantation
AT lizeng modelingbasedassessmentof3dprintingenabledmeniscustransplantation
AT shirenwang modelingbasedassessmentof3dprintingenabledmeniscustransplantation
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