Author/Authors :
Daud, Anser Faculty of Medicine - University of Toronto- Toronto - Ontario, Canada , Ahmed, Yousuf Faculty of Medicine - University of Toronto- Toronto - Ontario, Canada , Afenu , Edem Faculty of Medicine - University of Toronto- Toronto - Ontario, Canada , Hussein, Isra M. Faculty of Medicine - University of Toronto- Toronto - Ontario, Canada , Zhang, Peter Chengming Leslie Dan Faculty of Pharmacy - University of Toronto - Toronto - Ontario, Canada , Feasson, Manon Department of Laboratory Medicine and Pathobiology - Faculty of Medicine - University of Toronto - Toronto - Ontario, Canada
Abstract :
As the healthcare system faced an acute shortage of personal protective equipment (PPE) during the
COVID-19 pandemic, the use of 3D printing technologies became an innovative method of increasing production
capacity to meet this acute need. Due to the emergence of a large number of 3D printed face shield designs and
community-led PPE printing initiatives, this case study examines the methods and design best optimized for
community printers who may not have the resources or experience to conduct such a thorough analysis.
Case presentation: We present the optimization of the production of 3D printed face shields by community 3D
printers, as part of an initiative aimed at producing PPE for healthcare workers. The face shield frames were
manufactured using the 3DVerkstan design and were coupled with an acetate sheet to assemble a complete face
shield. Rigorous quality assurance and decontamination protocols ensured community-printed PPE was satisfactory
for healthcare use.
Conclusion: Additive manufacturing is a promising method of producing adequate face shields for frontline health
workers because of its versatility and quick up-start time. The optimization of stacking and sanitization protocols
allowed 3D printing to feasibly supplement formal public health responses in the face of a global pandemic.
Keywords :
Optimization , community-led 3D printing , production , protective face shields , COVID-19