Project Grant 2227399
- This $100,000 two-year Project Grant from the National Science Foundation's Office of Emerging Frontiers and Multidisciplinary Activities, under the Engineering (47.041) program, will support research at Boise State University to develop a co-design model integrating DNA nanotechnology and two-dimensional materials for advanced semiconductor manufacturing and workforce development. Specifically, the University will design DNA nanostructure templates for atomic precision patterning and doping...
- This $375,000 project grant from the National Science Foundation's Biological Sciences program (CFDA 47.074) supports the development of redox-based bioelectronics through the Semisynbio-III award to the University of Maryland, College Park. The three-year project will advance four technological areas to create communicating microbial cells and decision-making cells that can be instructed by electric inputs to perform logic operations by writing to genomes or adjusting consortium populations....
- This Project Grant award from the National Science Foundation (CFDA 47.041 - Engineering) totaling $1,400,000 aims to advance the manufacturing of ultra-high-density, DNA-enabled nanoelectronics systems. The key goals are to: Develop scalable methods for obtaining high-purity carbon nanotubes, self-aligned single-molecule junctions, and hybrid DNA nanostructures. Establish reliable processes for integrating bottom-up and top-down architectures using field-driven directed assembly and...
- This Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) will support the development of a novel method for modifying cellular signaling pathways using implanted electronic devices. The $10,000.00 award to the Regents of the University of California, San Francisco (UCSF) aims to create a new tool for studying complex cellular behaviors by interfacing electronic circuits with molecular networks within cells. The 2-year project, running from March...
- This National Science Foundation (NSF) Computer and Information Science and Engineering (CISE) Federal Grant Program (CFDA 47.070) award of $1,200,000 provides funding to the University of California, Berkeley from October 1, 2024 to September 30, 2028 to develop innovative sensing technologies that integrate DNA nanotechnology and CMOS electronics for next-generation diagnostics. The key objectives of this project grant are to: (1) develop molecular engineering techniques using DNA origami...
- This Project Grant award of $250,000 from the National Science Foundation's Biological Sciences (CFDA 47.074) program supports research at the Massachusetts Institute of Technology (MIT) to develop a novel, sustainable manufacturing framework using DNA for fabricating quantum devices. The key products of this 2-year project (5/1/2025 - 4/30/2027) are the establishment of a DNA-based, energy-efficient manufacturing approach to precisely position quantum materials on silicon chips. This innovative...
- This three-year, $930,252 Project Grant from the National Science Foundation's Division of Computing and Communication Foundations, under the Computer and Information Science and Engineering program, will support research exploring applications of digital microfluidic technology for DNA storage, computation, and synthetic biology. A team from the University of Minnesota will leverage an electronic platform developed by industrial partner Seagate to manipulate droplets and assemble DNA at...
- This Project Grant award of $300,000 from the National Science Foundation (NSF) Integrative Activities program (CFDA 47.083) supports the development and experimental validation of computational tools for simulation-guided design of DNA nanostructures and molecular systems. The project aims to integrate high-level and low-level computational models to enable more powerful and user-friendly multiscale modeling frameworks for DNA nanotechnology. Key objectives include parameterizing coarse-grained...
- This $1,000,000 Project Grant award from the National Science Foundation's Biological Sciences (CFDA 47.074) program supports research by the University of California, San Francisco (UCSF) to design, build, and test synthetic signaling systems built from computationally-designed de novo protein components. The goal is to develop stable, tunable, and modular signaling systems capable of precisely controlling biological processes, with applications in biotechnology such as engineered cells for...
- This National Science Foundation project grant of $849,992 supports research at Yale University from January 2023 to December 2025 under the Biological Sciences program (CFDA 47.074). The grant aims to further understanding of microbial biofilms' remarkable ability to conduct electrons over long distances via secretion and assembly of cytochrome nanowires. Specifically, the grant will characterize the secretion machinery and role of novel bipartite pili in Geobacter sulfurreducens. Researchers...
SEMISYNBIO-III: PRECISION ASSEMBLY AND ELECTRONIC PROPERTIES OF PROTEIN NANOWIRE CIRCUITS USING DNA ORIGAMI -MICROELECTRONICS FABRICATION CRITICALLY RELIES ON USING SILICON SUBSTRATES AND NUMEROUS MASKING/LAYERING STEPS THAT BRING SERIOUS DRAWBACKS SUCH AS EXTREME ENTRY COSTS, HIGH ENERGY CONSUMPTION, AND FINITE LIMITS ON SCALABILITY AND DEVICE GEOMETRIES THAT HAVE NEARLY BEEN REACHED, CREATING A GAP IN TECHNOLOGIES ABLE TO EFFECTIVELY ADDRESS THESE ISSUES. NEW MATERIALS, SUSTAINABLE FABRICATION PROCESSES, AND NOVEL CIRCUIT TOPOLOGIES ARE NECESSARY TO DEVELOP NEXT-GENERATION ELECTRONIC DEVICES. THIS RESEARCH WILL DEVELOP ENGINEERED PROTEIN NANOWIRES USING BACTERIAL PILI THAT CONDUCT ELECTRICITY BY PRECISELY DESIGNING AND ASSEMBLING STRUCTURAL SCAFFOLDS MADE OF DNA, KNOWN AS DNA ORIGAMI. THE INTERACTIONS OF THE NANOWIRES WITH EACH OTHER AND THEIR ENVIRONMENTS CAN BE READ OUT USING SINGLE MOLECULE TECHNIQUES AND ELECTRONIC METHODS DEVELOPED FOR THIN LAYER ASSEMBLED STRUCTURES TO CHARACTERIZE CONDUCTIVITIES AT THE MOLECULAR SCALE. THE COMBINATION OF THESE INTERDISCIPLINARY ADVANCES WILL ULTIMATELY ENABLE THE DEVELOPMENT OF MODULAR BIOELECTRONIC DEVICES FOR NEXT-GENERATION COMPUTING APPLICATIONS. THIS RESEARCH WILL PROVIDE INTERDISCIPLINARY COLLABORATIVE INTERACTIONS AND UNIQUE OPPORTUNITIES FOR CROSS-TRAINING STUDENTS PARTICIPATING IN THIS PROJECT AND WILL FURTHER EXTEND THE REACH BY TRAINING UNDERGRADUATES FROM EACH INSTITUTION INVOLVED IN THE RESEARCH TO SERVE AS ?AMBASSADORS? FOR OUTREACH EFFORTS. THE INTEGRATED GRADUATE AND UNDERGRADUATE INTERACTIONS WILL PROVIDE OPPORTUNITIES TO HOST K-12 PARTICIPATION PROGRAMS, INCLUDING TRAINING FOR SECONDARY SCHOOL TEACHERS. BY WORKING ACROSS SCHOOLS AND REGIONS TO SHARE STUDENTS, IDEAS, AND BEST PRACTICES, THIS RESEARCH PROGRAM WILL GENERATE ONGOING STUDENT AND PUBLIC EXCITEMENT AROUND NEW DISCOVERIES IN BIONANOELECTRONICS. IN NATURE, LONG-RANGE (>10 NM) ELECTRON TRANSPORT IS OFTEN ACHIEVED IN ASSEMBLED PROTEINS RICH IN AROMATIC RESIDUES OR REDOX-ACTIVE GROUPS. FROM THIS VIEW, CONDUCTIVE BIOLOGICAL NANOWIRES HOLD STRONG PROMISE FOR A VARIETY OF TECHNOLOGICAL APPLICATIONS IN NEXT-GENERATION ELECTRONIC DEVICES. THE BACTERIUM GEOBACTER SULFERREDUCENS SURVIVES LARGELY THROUGH THE REDUCTION OF INORGANIC METAL-OXIDES IN ITS ENVIRONMENT AND EFFICIENTLY TRANSPORTS ELECTRONS EXTRACELLULARLY VIA ITS TYPE IV PILI. PILI CONDUCTIVITY HAS, IN TURN, BEEN LINKED TO A DENSELY PACKED CORE OF AROMATIC AMINO ACIDS THAT EFFECTIVELY ALLOWS ELECTRON HOPPING BETWEEN RESIDUES. THIS RESEARCH WILL ENGINEER THE CONDUCTIVE PILI OF GEOBACTER USING PROTEIN ENGINEERING AND SYNTHETIC BIOLOGY METHODS TO CREATE PROTEIN NANOWIRES WHOSE CONDUCTIVITY CAN BE MODULATED THROUGH INTERACTIONS WITH LIGANDS AND SELF-ASSEMBLY. THE PROTEIN NANOWIRES WILL, IN TURN, BE ASSEMBLED ONTO DNA ORIGAMI AT A NANOSCALE RESOLUTION TO CREATE PRECISELY STRUCTURED CIRCUITS WITH DEFINED ELECTROCHEMICAL JUNCTIONS. SINGLE-MOLECULE ELECTROCHEMICAL CHARACTERIZATION WILL ALLOW FOR A DETAILED UNDERSTANDING OF THE UNDERLYING CIRCUITRY, WHICH WILL, IN TURN, LEAD TO THE DEVELOPMENT OF BASIC DESIGN RULES FOR BIONANOELECTRONIC ASSEMBLIES. OVERALL, THIS RESEARCH WILL PROVIDE AN IMPROVED UNDERSTANDING OF STRUCTURAL DESIGN, ASSEMBLY, AND ELECTRON TRANSPORT MECHANISMS IN BIOLOGICAL NANOWIRES, INCLUDING DEVELOPING FUNDAMENTAL ELECTRONIC PARTS, SUCH AS TRANSISTORS, AND BUILDING THESE ELEMENTS INTO USEFUL DEVICES SUCH AS MEMORY. THE PROJECT WAS JOINTLY FUNDED BY THE DIVISION OF MOLECULAR AND CELLULAR BIOSCIENCES (MCB) IN THE DIRECTORATE FOR BIOLOGICAL SCIENCES (BIO); DIVISION OF COMPUTING AND COMMUNICATION FOUNDATIONS (CCF) IN THE DIRECTORATE FOR COMPUTER AND INFORMATION SCIENCE AND ENGINEERING (CISE); DIVISION OF ELECTRICAL, COMMUNICATIONS AND CYBER SYSTEMS (ECCS) IN THE DIRECTORATE FOR ENGINEERING (ENG) AND THE DIVISION OF MATERIALS RESEARCH (DMR) IN THE DIRECTORATE FOR MATHEMATICAL AND PHYSICAL SCIENCES (MPS). 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.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $0 | 7/24/25 | ||
| Not listed | $374.6k | 9/6/22 |
GrantNumber | Description | Subgrantee | Prime Award | Dollars Obligated | Updated At |
|---|---|---|---|---|---|
UTAUSSUB00000714S | Emory University | Project Grant 2227399 | $1.0m | 12/18/24 | |
UTAUSSUB00000713S | University Of Illinois | Project Grant 2227399 | $500.0k | 12/2/22 |