Clinical Additive Manufacturing Program (CAMP) Technical Director

University of Washington•Seattle, WA

About The Position

UW’s Clinical Additive Manufacturing Program (CAMP) has an exciting opportunity for a Technology Project Manager, which is part of UW School of Medicine’s Department of Surgery. POSITION PURPOSE The CAMP Technology Project Manager leads a team of engineers and technicians, develops protocols for the production of medical models and devices, and collaborates with healthcare professionals to integrate 3D printing into clinical and academic environments. As an integral member of the team, the CAMP Technical Director collaborates with all members of the CAMP team. Their major responsibilities are: Operational management (30%), Technical oversight (20%), Quality assurance and regulatory compliance (20%), Leadership and strategy development (10%), Training, education and outreach (10%), Research and development (10%). The successful candidate will be skilled at in leading technical teams, managing complex projects, and fostering interdisciplinary collaboration. They will possess deep technical expertise in 3D printing technologies, strong project management skills, and the ability to communicate effectively with technical and non-technical stakeholders. Our Mission and How This Position Contributes to the Department of Surgery and the University: Clinical Additive Manufacturing Program (CAMP) implements centralized 3D printing technologies for clinical applications, enabling high-quality, personalized solutions for patient care. CAMP is a program with the Division of Healthcare Simulation Science (HCSS) in the Department of Surgery. The Technical Director significantly contributes to the university's mission by advancing research, enhancing education, improving patient care, fostering interdisciplinary collaboration, engaging with the community, securing funding, and boosting the university's reputation. The Department of Surgery is among the largest clinical departments within the School of Medicine, and its strategic and financial impact on UW Medicine are disproportionately greater than the size of the department. The department has grown substantially over the last 3-4 years, by about 25% -- and we continue to appropriately, but rapidly, add faculty, programs, and staff. As of January 2025, the Department composition is 151 paid professorial track academic faculty located at all the UW clinical sites; 161 clinical faculty located throughout the community and WWAMI region; Four (4) ACGME residency programs (General Surgery, Plastic Surgery, Cardiothoracic Surgery and Vascular Surgery) with 107 residents in these four programs. 20 ACGME and research fellowships; 150 administrative and research staff. More information about the Department of Surgery can be found at https://uwsurgery.org/ . Our Commitment to Equity, Diversity, and Inclusion (EDI): The Department of Surgery strives to dismantle systemic racism, eliminate healthcare disparities, and promote health equity in our work. Racism and intolerance have no place in our community. We celebrate our multitude of intersecting identities and commit to the ongoing effort of creating an inclusive and supportive workplace climate. All staff in the Department of Surgery are asked to demonstrate and develop the following core competencies: Quality Focus: strives to deliver the best possible service and results, and continuously seeks opportunities for improvement. Key attributes: accuracy, customer service, continuous improvement, problem solving, and self-development Planning & Organization: completes work in a timely, efficient, and resourceful manner Key attributes: priority setting, efficiency, resourcefulness, adaptability and flexibility, organizational awareness, and initiative Teamwork & Relationship Building: builds and fosters positive working relationships with others to achieve shared objectives. Key attributes: collaboration, communication, emotional intelligence, recognition, and accountability, and integrity Equity, Diversity, and Inclusion: values and honors diverse experiences and perspectives, strives to create welcoming and respectful work environments including dismantling structures of oppression, promotes and contributes to a culture of access, opportunity, and justice. Key attributes: respect, cultural humility, inclusiveness, advocacy, and commitment

Requirements

Education: Bachelor's degree in Biomedical Engineering, Mechanical Engineering, or a related field. A Master's degree or Ph.D. is preferred.
Experience: 5 years of experience in 3D printing technology, with a focus on medical or clinical applications. Equivalent education/experience can substitute for all minimum qualifications except when there are legal requirements, such as a license/certification/registration. Candidates of non-traditional educational or experiential backgrounds are invited to apply. Please address applicability of education and experience in your application.
Proficiency in 3D printing technologies, materials, and software (e.g., CAD, slicing software).
Strong understanding of FDA regulations and compliance requirements related to medical devices.
Hands-on experience with the design, prototyping, and production of medical models and devices.
Effective communication and training skills; must have the ability to teach technical information to non-technical stakeholders.
Strong analytical skills as demonstrated by the ability to evaluate and improve 3D printing processes and outcomes.
Creative problem-solving abilities to address technical challenges and innovate in the field of medical 3D printing.
Demonstrated commitment to staying current with advancements in 3D printing technology and applying new knowledge to enhance clinical applications.
Passion for fostering a culture of innovation, creativity, and continuous improvement.

Nice To Haves

Proficiency in a diverse array of 3D printing technologies including Fused Deposition Modeling (FDM), Stereolithography (SLA), Digital Light Processing (DLP), Selective Laser Sintering (SLS), and Material Jetting (MJ).
Strong understanding of materials and post-processing techniques used in additive manufacturing
Exposure to medical segmentation software, DICOM imaging, parametric modeling, mesh-based modeling, 3D printing slicing software
Hands-on experience with the design, prototyping, and production of complex mechanical assemblies, ideally for use in a clinical setting.