
Julianna Abel
Benjamin Mayhugh Assistant Professor, Mechanical EngineeringContact
Mechanical Engineering Room L102 111 Church Street SEMinneapolis, MN 55455
Affiliations
Ph.D. 2014, Mechanical Engineering, University of Michigan
M.S. 2008, Mechanical Engineering, University of Michigan
B.S. 2005, Mechanical Engineering, University of Cincinnati
Benjamin Mayhugh Assistant Professor, Mechanical Engineering, University of Minnesota, 2014-present
Julianna Abel is interested in the model-based design of smart materials and structures with an emphasis on geometric and textile-based architectures for the creation of novel actuators, sensors, and energy harvesters. Her research establishes frameworks to design and synthesize smart material technologies to enable new aerospace structures, medical devices, and consumer products.
Lab
Design of Active Materials and Structures Lab (DAMSL) — ME 355
ME Research Areas
Materials & Mechanics
Sensing & Controls
ME Impact Areas
Human Health
Next-Gen Manufacturing
Robotics & Mobility
- Smart materials and structures
- Novel actuators
- Aerospace structures
- Medical devices
- Consumer products
Visit Julianna Abel's Experts@Minnesota profile page.
- C. Weinberg, S. Cai, J. Shaffer, J. Abel, “Multifunctional Spun Yarns and Textiles from Nickel-Titanium Microfilaments,” Advanced Materials Technologies, 2020, 5, 1901146, DOI
- K. Eschen, J. Garcia-Barriocanal, and J. Abel, "In-Situ Strain- and Temperature-Control Micro-Diffraction Analysis of Nickel-Titanium Knitted Actuators," Materialia, 11, June 2020, 100684, DOI
- R. Granberry, K. Eschen, A. Ross, J. Abel, Holschuh, B., “Dynamic Countermeasure Fabrics for Post-Spaceflight Orthostatic Intolerance,” Aerospace Medicine and Human Performance, 2020, 91(6), pp. 525-531, DOI
- K. Eschen, R. Granberry, and J. Abel, "Guidelines on the design, characterization, and operation of shape memory alloy knitted actuators," Smart Materials and Structures, 2020, 29, 035036, DOI
- R. Granberry*, K. Eschen*, B. Holschuh, and J. Abel, "Functionally Graded Knitted Actuators with NiTi-based Shape Memory Alloys for Topographically Self-Fitting Wearables," Advanced Materials Technologies, 2019, 4(11), 1900548, DOI (*authors contributed equally to this work)
- NSF CAREER Award (2020-2025)
- Toyota Programmable Structures Award (2019-2020)
- NASA Glenn Faculty Fellow (2016)
- ASME Adaptive Structures and Material Systems Best Paper Award in Structural Dynamics and Control (2013)