Emrah Celik

Emrah Celik is an Associate Professor in the Department of Mechanical & Aerospace Engineering at the College of Engineering, University of Miami. His research focuses on advanced manufacturing techniques, particularly in the area of additive manufacturing of composite materials and their multifunctional properties.

Dr. Celik's research interests span multiple cutting-edge areas of materials science and engineering:

• Additive manufacturing of polymer and fiber-reinforced composites
• Electrical and mechanical properties of 3D printed composites
• Carbon fiber reinforced polymer (CFRP) composites
• Thermoelectric materials and energy harvesting
• Multi-functional composite structures
• Advanced characterization techniques for composite materials

Analysis of Dr. Celik's recent publications reveals a strong focus on pushing the boundaries of additive manufacturing for composite materials. His work demonstrates significant advancements in controlling fiber alignment in 3D printed thermoset composites, developing novel methodologies for electrical network activation, and enhancing mechanical performance through innovative printing techniques. A notable trend is his exploration of in-situ activation of electrical properties in printed composites, which opens new possibilities for structural health monitoring and self-sensing capabilities. His research also extends to thermoelectric materials, where he has achieved record-breaking performance metrics for 3D printed copper sulfide materials. Dr. Celik's work bridges fundamental materials science with practical aerospace applications where lightweight, high-performance materials are critical.

Dr. Celik has established himself as a leading researcher in advanced composite manufacturing with numerous publications in high-impact venues. His innovations include the development of nozzle oscillation infill patterns that improve electrical conductivity by 27% while enhancing dimensional accuracy, and bi-modal fiber alignment approaches that increase mechanical performance by 16% with improved fracture resistance. His laboratory at the University of Miami focuses on Direct Ink Writing processes for thermoset composites, investigating how process parameters affect microstructure formation and resulting material properties. Current research explores new frontiers in multifunctional composite systems with integrated sensing capabilities and spatially controlled electrical properties.