Project Grant 2340394
- This $464,834 Project Grant awarded by the National Science Foundation (NSF) Division of Materials Research supports joint theoretical research and education to advance the foundations of strongly correlated topological and geometric phases of matter. The key focus is on understanding the physics of systems that exhibit emergent "fracton" excitations - topologically non-trivial excitations with constrained mobility. The research aims to explore how fracton excitations affect observable...
- This federal Project Grant award from the National Science Foundation (NSF) Division of Materials Research (CFDA 47.049 - Mathematical and Physical Sciences) provides $390,000 over three years to support theoretical research on electron transport and energy relaxation in topological and superconducting materials. The key research aims include: Investigating the topological surface and bulk effects in the excitonic insulator phase of Weyl semimetals. Studying nonreciprocal electron transport in...
- This $200,000 National Science Foundation (NSF) award under the Mathematical and Physical Sciences program (CFDA 47.049) supports a collaborative research project led by the University of California, Berkeley to develop and harness quasi-one-dimensional topological materials for novel electronic, optoelectronic, and sensing functionalities. The project aims to overcome current limitations of topological insulators by focusing on quasi-1D materials, which have the potential to enable new...
- This $330,000 federal Project Grant award from the National Science Foundation (CFDA 47.049 - Mathematical and Physical Sciences) supports research and education activities at Yale University aimed at developing a fundamental understanding of quantum phases of matter. The key products and services to be delivered under this 3-year award include: Systematic development of a theory for new types of non-local observables, called "disorder operators", that can probe the fluctuations of...
- This $282,000 Project Grant awarded by the National Science Foundation's Mathematical and Physical Sciences program (CFDA 47.049) supports theoretical research and educational activities to advance the understanding of topological materials. The funding will be used by the University of Illinois to: Develop new mathematical frameworks for describing the connection between symmetry and topology in solid materials, with the goal of discovering new topological materials. Additionally, the project...
- This Project Grant award from the National Science Foundation's Mathematical and Physical Sciences (MPS) Division provides $340,000 to Yale University over 3 years, beginning September 1, 2024. The funding will support theoretical research on electron transport in low-dimensional and mesoscopic topological solids, with a focus on developing new probes of topological superconducting phases, broadening transport theory of 2D superconductors in magnetic fields, and establishing techniques to...
- This $270,457 project grant award from the National Science Foundation's Mathematical and Physical Sciences (CFDA 47.049) program supports theoretical research on topological quantum matter and crystalline symmetry. The project aims to: 1) extend theories of two-dimensional strongly interacting crystalline topological phases, 2) perform numerical calculations to understand the emergence of crystalline symmetry-protected topological invariants and their physical properties, and 3) develop methods...
- This CAREER award from the National Science Foundation's (NSF) Mathematical and Physical Sciences Federal Grant Program (CFDA 47.049) supports computational and theoretical research at New York University (NYU) aimed at efficiently sampling complex energy landscapes to determine the number of possible material configurations and their probabilities. The $280,000 award, with a project period from March 1, 2025 to February 28, 2030, will enable the development of new methods for enumerating...
- This Project Grant from the National Science Foundation Division of Materials Research provides $510,414 to Northwestern University from May 15, 2023 through April 30, 2026. The funding supports research into developing analogs of topologically non-trivial crystals using superconducting hybrid devices, with the goal of studying signatures of non-trivial topology. Specifically, the award will fabricate devices mimicking higher dimensional crystal structures by placing superconductors in contact...
- Federal Project Grant Award Summary Award Details: The National Science Foundation (NSF) awarded a five-year CAREER grant totaling $360,000 to Purdue University, effective August 1, 2026, through July 31, 2031, under the Mathematical and Physical Sciences program (CFDA 47.049). The project, titled "Topological Quantum Devices as a Window into Strongly Correlated Matter," is performed at Purdue's West Lafayette, Indiana campus. Research and Educational Products/Services: This award...
CAREER: GEOMETRY AND TOPOLOGY OF QUANTUM MATERIALS -NONTECHNICAL SUMMARY THIS CAREER AWARD SUPPORTS RESEARCH AND EDUCATION IN THE RAPIDLY EVOLVING FIELD OF QUANTUM MATERIALS. QUANTUM MATERIALS REFER TO THOSE IN WHICH THE COLLECTIVE BEHAVIOR OF ELECTRONS GIVES RISE TO EXTRAORDINARY PROPERTIES WITH POTENTIAL APPLICATIONS IN QUANTUM TECHNOLOGIES FROM SPINTRONICS TO QUANTUM COMPUTING. IN A PARADIGM SHIFTING DISCOVERY, TOPOLOGY, THE FIELD IN MATHEMATICS THAT DESCRIBES PROPERTIES WHICH REMAIN UNCHANGED WHEN OBJECTS ARE DEFORMED, WAS RECOGNIZED TO RESULT IN REMARKABLE MATERIALS SUCH AS THOSE THAT ARE INSULATORS IN THE INTERIOR BUT POSSESS DISSIPATIONLESS ELECTRIC CONDUCTION THROUGH STATES ON THEIR SURFACES AND EDGES THAT ARE REQUIRED TO EXIST BY TOPOLOGY. LESS EXPLORED BUT EQUALLY REMARKABLE IS THE CRUCIAL ROLE THAT TOPOLOGY PLAYS IN DETERMINING WHICH PHASES OF ELECTRONIC MATTER ARE FOUND IN EACH MATERIAL, AND THE POSSIBILITY THEY MIGHT BE LONG SOUGHT-AFTER EXOTIC ELECTRONIC STATES OF MATTER. EXAMPLES ARE SUPERCONDUCTIVITY WHERE ELECTRONS FLOW WITH EXACTLY ZERO RESISTANCE IN THE ENTIRE MATERIAL OR PHASES WHERE ELECTRONS SEEM TO DISSOCIATE INTO SMALLER ENTITIES WITH UNCONVENTIONAL PROPERTIES, CALLED FRACTIONALIZED PHASES. THE PI WILL STUDY HOW TOPOLOGY AND QUANTUM GEOMETRY, THE GEOMETRIC PROPERTIES OF AN ABSTRACT REPRESENTATION OF QUANTUM STATES, CAN INFLUENCE THE NATURE OF ELECTRONS IN MATTER, PARTICULARLY WHEN UNAVOIDABLE IMPERFECTIONS OR ?DIRT? ARE PRESENT IN MATERIALS. CAREFUL CONTROL OF DEFECTS MAY ENABLE PHASES OF ELECTRONIC MATTER WITH DESIRED PROPERTIES TO BE REALIZED. THROUGH THIS RESEARCH, THE PI AIMS TO GAIN INSIGHTS INTO THE STABILITY OF UNIQUE QUANTUM PHENOMENA, AS WELL AS OFFER NEW MATHEMATICAL TOOLS FOR THE CHARACTERIZATION OF TOPOLOGICAL QUANTUM MATERIALS AND FOR THE PREDICTION AND, WORKING WITH EXPERIMENT, THE DISCOVERY OF NEW ONES. IN THIS PROJECT, RESEARCH AND EDUCATION ARE INTEGRATED THROUGH MULTIPLE EFFORTS FOCUSING ON GRADUATE STUDENTS THAT WILL ENHANCE AND DIVERSIFY THEIR TRAINING IN QUANTUM PROPERTIES OF MATTER. THE ACTIVITY WILL INCLUDE A BOOTCAMP COVERING ESSENTIALS OF TOPOLOGICAL MATERIALS AND COMPUTATIONAL TECHNIQUES FOR STUDYING THEIR ELECTRONIC PROPERTIES. THE PI WILL ALSO ORGANIZE A WORKSHOP TO SHOWCASE TALENTED YOUNG RESEARCHERS FROM DIVERSE BACKGROUNDS WORKING ON QUANTUM MATERIALS. TECHNICAL SUMMARY THIS CAREER AWARD SUPPORTS THEORETICAL RESEARCH AND EDUCATION AIMED TO STUDY THE INFLUENCE OF QUANTUM GEOMETRY IN THE COLLECTIVE PROPERTIES OF ELECTRONS IN THE SOLID STATE. THE PI WILL EXPLORE HOW THE MOMENTUM SPACE TEXTURES OF ELECTRON WAVEFUNCTIONS AFFECT ELECTRON BEHAVIOR IN BOTH CLEAN AND DIRTY MATERIALS, INFLUENCING LONG-RANGE COHERENCE, TRANSPORT, AND THE EMERGENCE OF EXOTIC EXCITATIONS. THE PROJECT FOCUSES ON A NEW PERSPECTIVE ON QUANTUM MATERIALS, WITH THE AIM TO UNIFY QUANTUM GEOMETRIC PHENOMENA FROM THE POINT OF VIEW OF THE STRUCTURE OF THE GREEN?S FUNCTION OPERATOR, IN PARTICULAR ITS TOPOLOGICALLY ROBUST ZEROS WHEN PROJECTED TO VARIOUS SPATIAL DEFECTS. THE GOAL OF THIS APPROACH IS TO CONSTRUCT TOOLS THAT CAN BE EFFICIENTLY APPLIED TO IDENTIFY NONTRIVIAL GEOMETRY BOTH IN SYSTEMS WITH AND WITHOUT TRANSLATIONAL SYMMETRY, THEREFORE OPENING THE POSSIBILITY TO 1) CHARACTERIZE THE BEHAVIOR OF DISORDERED TOPOLOGICAL CRYSTALLINE MATTER; 2) OFFER GUIDELINES FOR THE SEARCH OF NEW MATERIALS WITH EXCEPTIONAL PHYSICAL PROPERTIES; 3) IDENTIFY ROBUST PHYSICAL RESPONSES THAT STEM FROM THE NONTRIVIAL GEOMETRY OF THE GROUND STATE. THIS APPROACH IS SET TO CONTRIBUTE SIGNIFICANTLY TO THE BURGEONING FIELD OF TOPOLOGICAL MATTER, WITH APPLICATIONS IN ELECTRONIC STRUCTURE THEORY, CHEMISTRY, AND MATERIALS SCIENCE. THIS ACTIVITY ALSO INCLUDES ESTABLISHING A BOOTCAMP FOR THE COMPUTATION OF MATERIALS TOPOLOGICAL PROPERTIES COVERING THE ESSENTIALS OF BAND THEORY, GROUP THEORY, AND DENSITY FUNCTIONAL THEORY, AND ALLOWING STUDENTS TO GAIN HANDS-ON EXPERIENCE SIMULATING VARIOUS QUANTITIES OF EXPERIMENTAL AND TECHNOLOGICAL RELEVANCE. THE PI ALSO AIMS TO ESTABLISH A NEW YORK CITY BASED WORKSHOP TO SPOTLIGHT EXCELLENT YOUNG RESEARCHERS FROM DIVERSE BACKGROUNDS. 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.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $120.0k | 7/21/25 | ||
| Not listed | $240.0k | 1/8/24 |