Project Grant 2343539

Award Date 3/1/24
Completion Date 2/28/27
Dollars Obligated $400K
Funding Federal Agency
National Science Foundation
Federal Grant Program
47.041
Assistance Type
Project Grant
Place of Performance
Princeton, NJ 08544, USA
Similar Awards
This Project Grant award from the National Science Foundation (NSF) Integrative Activities program (CFDA 47.083) aims to develop 2D auxetic lattice actuators that transfer functional shape memory deformations from shape memory alloy (SMA) backbones to surrounding elastomers. The $222,890 project, awarded to the University of Southern Maine, will leverage laser micromachining to create innovative SMA geometries that enable 2D actuation for soft robotics applications. The effort will utilize...
This three-year, $1,031,012 National Science Foundation project grant supports research at the University of Chicago to develop active adaptive materials inspired by cell mechanics. The goal is to elucidate design principles for soft biomolecular materials whose actuation and shape are reprogrammable, similar to how actin cytoskeleton networks control cell shape and locomotion. Researchers will reconstitute cytoskeleton-like composite networks in vitro and optimize molecular engineering...
This Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) provides $618,369 to North Carolina State University (NC State) to conduct research on transforming piezoelectric metamaterials into functional soft robots. The research aims to embody physical intelligence in active mechanical metamaterials to create a new class of intelligent, maneuverable soft robots with reduced control requirements. Key focus areas include studying deformation wave...
This National Science Foundation (NSF) Early-Concept Grants for Exploratory Research (EAGER) project under CFDA 47.041 Engineering aims to advance the field of magnetic soft robotics by demonstrating a proof-of-concept mechanism for independently actuating multiple small-scale soft robots using a single external magnetic field. The $171,015 award to Texas Tech University System, awarded on June 15, 2025, will fund the design, fabrication, and evaluation of a novel modular magnetic actuation...
This Project Grant award from the National Science Foundation's Mathematical and Physical Sciences program (CFDA 47.049) totaling $630,000 aims to develop "synthetic life-like materials and machines" using light-responsive active fluids. The project at Brandeis University will pursue two complementary research aims: Embedding a rigid inclusion in a photo-responsive active nematic liquid crystal to implement hybrid theory-experiment feedback and control the targeted dynamics of the...
This Project Grant awarded by the National Science Foundation's (NSF) Engineering program (CFDA 47.041) supports research to advance fundamental knowledge and enable transformative technological solutions inspired by the dynamic functions of irregular structural patterns found in nature. The $668,788 award, effective June 15, 2025 through May 31, 2030, aims to develop engineering models and applications that can replicate the distinctive dynamics of irregular patterns observed in biological...
This Project Grant award, totaling $662,253.00, was provided by the National Science Foundation (NSF) under the Engineering program (CFDA 47.041) to the University of Florida. The award will fund research to enable the development of soft-bodied unmanned underwater vehicles that can leverage their soft bodies for control, maneuverability, and efficient deep-water operation. The project aims to establish a fundamental framework for controlling these undulatory soft robotic swimmers using the...
This three-year, $398,903 National Science Foundation project grant will fund research at the University of California San Diego to develop new microactuation materials through understanding the influence of shear-dependent viscosities on acoustic field-driven assembly of particles in polymer composites. The goal is to enable the precise spatial patterning of nanoparticles within stimuli-responsive polymer matrices using surface acoustic waves, allowing programmable shape reconfiguration and...
This National Science Foundation (NSF) Mathematical and Physical Sciences (CFDA 47.049) project grant to the Georgia Tech Research Corporation (Georgia Tech) in the amount of $330,000 will support 5 years of theoretical and computational research, as well as educational and outreach activities, focused on the geometric and topological mechanics of flexible structures. The research will explore the design and characterization of flexible mechanical metamaterials, which are systems composed of...
This five-year, $454,772 project grant from the National Science Foundation's Division of Chemical, Bioengineering, Environmental, and Transport Systems will fund foundational research at The University of Akron to develop a new class of biomimetic microrobots for applications in targeted therapeutics, environmental remediation, and microscale cargo delivery. Inspired by collective animal behaviors like schooling fish and flocking birds, the microrobots will utilize off-center repulsive...

MECHANICS OF ELASTOACTIVE STRUCTURES -THIS AWARD SUPPORTS A RESEARCH PROJECT THAT INVESTIGATES THE DYNAMICS AND CONTROL OF ACTIVE ELASTIC SYSTEMS. IN NATURE, FISH, BIRDS, AND OTHER ENTITIES CAPABLE OF MOVEMENT DISPLAY COMPLEX CHOREOGRAPHIES WHEN INTERACTING IN DENSE GROUPS, EVEN WITHOUT A CENTRALIZED CONDUCTOR TO GUIDE THEM. THESE COMPLEX BEHAVIORS HOLD GREAT PROMISES IN ENGINEERING, WHERE CROWDS OF MICRO-ROBOTS COULD COORDINATE THEIR ACTIONS TO COMPLETE A GLOBAL TASK. THIS PROJECT HYPOTHESIZES THAT LINKING ?MINDLESS? ACTIVE UNITS TO SPRING-LIKE STRUCTURES IS A PATHWAY FOR ACHIEVING SUCH A VISION. THE RESEARCH ACTIVITIES WILL SHOW HOW TO PROGRAM ASSEMBLIES OF ELASTICALLY COUPLED ACTIVE UNITS THAT PERFORM COMPLEX TASKS, E.G., ?SOLVING A MAZE?, ALTHOUGH THEY HAVE NO TRADITIONAL SENSING OR INFORMATION-PROCESSING CAPABILITIES. THIS WORK WILL ADVANCE OUR FUNDAMENTAL UNDERSTANDING OF THE ?MECHANICAL INTELLIGENCE? ACHIEVABLE BY ACTIVE ELASTIC SYSTEMS AND COULD TRANSLATE INTO NEW CAPABILITIES IN THE FIELD OF SOFT ROBOTICS. CONCURRENTLY, THE PROJECT PROVIDES A SIMPLE, MODULAR, AND INEXPENSIVE EXPERIMENTAL PLATFORM TO ILLUSTRATE ABSTRACT CONCEPTS DURING TEACHING AND OUTREACH EFFORTS AND DELIVERS AN INTERDISCIPLINARY LEARNING EXPERIENCE FOR GRADUATE AND UNDERGRADUATE STUDENTS. THIS PROJECT AIMS TO DEMONSTRATE THAT WE CAN LEVERAGE FLEXURAL STRUCTURES TO COORDINATE AND PROGRAM STOCHASTICALLY MOVING SMALL-SCALE COMPONENTS. TO THIS END, THE RESEARCHERS WILL DEVISE A SYSTEM WHERE ACTIVITY MEETS NONLINEAR ELASTIC DEFORMATIONS. THEY WILL EXPERIMENT WITH ELASTO-ACTIVE STRUCTURES COMPRISING LONG AND THIN ELASTIC BEAMS CONNECTED TO ACTIVE AGENTS AND DEVELOP THEORETICAL MODELS AND NUMERICAL SIMULATIONS TO RATIONALIZE THEIR MECHANICS. THOSE AGENTS ARE CENTIMETRIC RIGID-BODIED MICRO-ROBOTS THAT USE VIBRATION TO WALK ACROSS A FLAT SURFACE. THE PROJECT FIRST FOCUSES ON THE SPONTANEOUS SELF-OSCILLATIONS OBSERVED WHEN A BEAM IS CLAMPED ON ONE END AND LOADED BY A MICRO-ROBOT ON THE OTHER END. THIS SYSTEM WILL BE USED TO ESTABLISH A MINIMAL MODEL THAT COUPLES LANGEVIN DYNAMICS AND THE KIRCHHOFF EQUATIONS FOR ELASTIC RODS. THE PROJECT WILL NEXT STUDY THE RUNNERS THAT FORM WHEN A BEAM IS LOADED BY A MICRO-ROBOT AT EACH END, RESULTING IN THE BEAM BUCKLING AND MOVING ACROSS THE PLANE. THE INTERACTION OF THESE RUNNERS WITH BOUNDARIES, E.G., PLANAR REFLECTION, INTERACTION WITH OBSTACLES, AND PASSAGE THROUGH A SLIT, WILL BE EXAMINED TO ELUCIDATE THE CONTRIBUTING FACTORS TO THE RUNNERS? ABILITY TO SOLVE COMPLEX MAZES. FINALLY, THE PROJECT WILL EXPLORE SYSTEMS WITH THREE OR MORE MICRO-BOTS INVOLVED, ENABLING RUN-AND-TUMBLE MOTIONS AND WAVE PROPAGATION, THEREBY EXPANDING THE OPERATING MODES OF THESE ELASTICALLY COUPLED ACTIVE AGENTS. THIS AWARD REFLECTS NSF'S STATUTORY MISSION AND HAS BEEN DEEMED WORTHY OF SUPPORT THROUGH EVALUATION USING THE FOUNDATION'S INTELLECTUAL MERIT AND BROADER IMPACTS REVIEW CRITERIA.- SUBAWARDS ARE NOT PLANNED FOR THIS AWARD.

Posted 2/20/24