3D-printed suture guide for thoracic and cardiovascular surgery produced during the COVID19 pandemic
View abstract on PubMed
Summary
This summary is machine-generated.Emergency 3D-printing of medical devices offers solutions for shortages. This case study details the creation of a 3D-printed cardiac surgery suture guide during the COVID-19 pandemic, highlighting manufacturing potential within hospitals.
Area Of Science
- Medical Device Manufacturing
- Additive Manufacturing
- Biomedical Engineering
Background
- The COVID-19 pandemic highlighted critical shortages of medical devices.
- On-demand manufacturing within healthcare settings presents a novel solution for crisis management.
- Existing healthcare professionals and additive manufacturing technologies are poised for this shift, pending regulatory updates.
Purpose Of The Study
- To present the design and production of a 3D-printed medical device as a case study.
- To demonstrate the feasibility of in-hospital manufacturing of medical devices during a health crisis.
- To explore the potential of additive manufacturing for addressing medical device supply chain vulnerabilities.
Main Methods
- Design and development of a suture guide for cardiac surgery using additive manufacturing techniques.
- Production of the medical device within a hospital setting.
- Evaluation of the 3D-printing process for medical device creation during the COVID-19 pandemic.
Main Results
- Successful design and production of a functional 3D-printed suture guide for cardiac surgery.
- Demonstration of in-hospital additive manufacturing capabilities for critical medical devices.
- Identification of the need for regulatory adaptations to support widespread adoption of 3D-printed medical devices.
Conclusions
- Emergency 3D-printing of medical devices is a viable strategy for mitigating shortages during pandemics.
- In-hospital manufacturing of devices like the cardiac surgery suture guide showcases the potential of additive technology in healthcare.
- Regulatory frameworks must evolve to facilitate the integration of 3D-printed medical devices into clinical practice.

