Ottman A. Tertuliano

Ottman A. Tertuliano serves as Assistant Professor in the Department of Mechanical Engineering and Applied Mechanics at the University of Pennsylvania's School of Engineering and Applied Science. His research establishes fundamental connections between tissue mechanics and microstructure to accelerate clinical therapies and develop advanced engineered materials systems.

His work centers on how physiological loads impact tissue resilience, utilizing nano- and microscale experimental mechanics to study tissue responses. Key research thrusts include fracture mechanics of biological and synthetic structures (demonstrated in bone and 3D graphene studies) and metal additive manufacturing innovation for biocompatible applications. The lab integrates experimental mechanics with nanoscale manufacturing to create materials that guide cellular behavior for regenerative healthcare solutions.

Recent publications reveal a strong focus on enhancing metal additive manufacturing through nanotextured powders, with applications spanning biomedical implants to resilient engineering systems. The work demonstrates significant progress in optimizing laser powder bed fusion processes for clinical and industrial implementation.

Scientific Awards:

• No awards documented in provided materials

Dr. Tertuliano actively advises Master's student Quan Vo and research team members Elaine, Luc, and Olivia Schuler. His Magneto lab operates a custom-built metal laser powder bed fusion (LPBF) system, recently achieving successful 3D printing of stainless steel structures after initial copper experiments. Research is supported by grants enabling investigation of tissue-material interactions and advanced manufacturing development.

The Magneto research group maintains an active experimental program in metal additive manufacturing and tissue mechanics, with current projects focused on developing biocompatible materials for regenerative medicine applications and exploring fracture behavior in graphene-based structures. The lab's custom LPBF system represents a core capability for advancing both biomedical and engineering material solutions.