Project Grant 2520333
- This Project Grant award from the National Science Foundation's Engineering program (CFDA 47.041) provides $780,000 to the Regents of the University of Michigan to develop a novel 3.5D integrated photonic interconnect solution for next-generation computing systems. The project, titled "ASCENT: OPTICALLY-ACCELERATED HETEROGENEOUS AI COMPUTING CHIPLET (OCTANT)", aims to address the growing computing demands of generative AI by advancing the field of integrated photonics through a...
- The National Science Foundation (NSF) Division of Electrical, Communications and Cyber Systems awarded a $400,000 Project Grant to the Texas A&M Engineering Experiment Station (Tees) under the NSF Engineering program (CFDA 47.041). The goal of the 3-year project is to develop an energy-efficient coherent optical interconnect architecture that can enable dramatic increases in datacenter and high-performance computing bandwidth-density and energy-efficiency. The key technical innovations...
- This $300,000 Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) supports the development of specialized, ultrathin computing systems based on Diffractive Optical Neural Networks (DONNs). The project aims to create a transformative photonic-based computing paradigm that can perform inference tasks at the speed of light while consuming significantly less energy than conventional electronic platforms. The research will advance AI and data-intensive...
- This $960,000 Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) supports Baylor University's development of energy-efficient silicon photonic circuits integrated with electronic application-specific integrated circuits (ASICs). The key products and services to be delivered include: Designing and fabricating a wavelength division multiplexing photonic transceiver consisting of silicon microring modulators, tunable optical filters, and resonant...
- This National Science Foundation (NSF) project grant, awarded under the Engineering (CFDA 47.041) program, supports the development of new optical devices called "intersubband neurons" that could enable ultrafast optical neural networks. The $352,180 award to the University of Texas at Austin, running from October 1, 2023 to March 31, 2026, aims to create these novel photonic devices that can perform computations at the speed of light, potentially outpacing electronic neural...
- The National Science Foundation awarded a $1.2 million project grant to the University of Washington under the Computer and Information Science and Engineering program (CFDA 47.070) to support research titled "FET: MEDIUM: A HYBRID CO-PROCESSING UNIT (HCU) USING PHASE-CHANGE PHOTONICS IN CMOS FOR LARGE-SCALE AND ULTRA-FAST MACHINE LEARNING ACCELERATION" from July 2021 through June 2025. The grant funds research to develop a hybrid co-processing unit using phase-change photonics...
- The National Science Foundation (NSF) awarded a $1,250,000 Cooperative Agreement under the NSF Technology, Innovation, and Partnerships (CFDA 47.084) program to Photonect Interconnect Solutions Inc., a small business in Rochester, New York. The award aims to develop a chip technology for cheaper and easier photonic device manufacturing, with a focus on improving data communications through advanced photonic components. Key objectives include creating a laser control system for optical fiber...
- This $150,000 Project Grant award from the National Science Foundation's (NSF) Computer and Information Science and Engineering (CISE) Federal Grant Program (CFDA 47.070) funds the development of an innovative computational electromagnetics (CEM) framework that leverages physics-informed artificial intelligence (AI) models. The project aims to enhance the analysis and design of on-chip optical interconnects, which are crucial for achieving ultra-high bandwidth and speeds in modern computing...
- This National Science Foundation (NSF) Integrative Activities program project grant award provides $300,000 to the University of Nebraska-Lincoln (UNL) to conduct research on integrated photonic platforms leveraging solution-processed wide-bandgap cesium lead halide perovskites. The 2-year project, starting January 1, 2025, aims to advance the understanding of perovskite crystal growth and patterning synthesis, as well as develop cost-effective integrated photonic devices that can enable...
- This Project Grant award of $447,691 from the National Science Foundation's (NSF) Division of Computing and Communication Foundations (CFDA 47.070 - Computer and Information Science and Engineering) supports research to develop a novel dual-purpose photonic fabric for high-performance, energy-efficient, and scalable heterogeneous chiplet-based architectures. The key objectives of the research are to: (1) enable power-efficient and scalable on-chip communications between cores and accelerators,...
COLLABORATIVE RESEARCH: ASCENT: HETEROGENEOUSLY INTEGRATED ELECTRONIC PHOTONIC AI ACCELERATORS (HIEPAA) -NONTECHNICAL DESCRIPTION THE RAPID ADVANCEMENT OF DEEP NEURAL NETWORKS (DNNS) AND LARGE LANGUAGE MODELS (LLMS) IS TRANSFORMING MANY FACETS OF MODERN SOCIETY. THESE AI MODELS ARE TRAINED AND DEPLOYED IN DATA CENTERS POWERED BY SPECIALIZED HARDWARE SUCH AS GRAPHICS PROCESSING UNITS (GPUS), RESULTING IN SIGNIFICANT ENERGY DEMANDS AND RAISING CRITICAL CONCERNS AROUND SUSTAINABILITY AND ENERGY SECURITY. THIS PROJECT AIMS TO EXPLORE THE USE OF LIGHT FOR PERFORMING NEURAL NETWORK COMPUTATIONS, ENABLING THE DEVELOPMENT OF ENERGY-EFFICIENT AI HARDWARE. SPECIFICALLY, THE PROJECT WILL LEVERAGE THE INTEGRATION OF THIN-FILM LITHIUM NIOBATE (TFLN) ? A HIGH-PERFORMANCE ELECTRO-OPTIC MATERIAL ? WITH SILICON PHOTONIC CHIP PLATFORMS TO FABRICATE ANALOG OPTICAL MODULATORS THAT OFFER SIGNIFICANTLY LOWER LOSS AND HIGHER SPEED COMPARED TO TRADITIONAL SILICON-BASED DEVICES. IN ADDITION, THE PROJECT WILL DESIGN NEW ARCHITECTURES AND CIRCUIT TECHNIQUES TO ACHIEVE HIGH-RESOLUTION AI COMPUTATION USING LOW-PRECISION BUILDING BLOCKS, OPTIMIZING BOTH EFFICIENCY AND ACCURACY. THE EDUCATIONAL COMPONENT OF THIS PROJECT WILL TRAIN STUDENTS IN BOTH PHOTONIC AND ADVANCED ELECTRONIC CHIP DESIGN, EQUIPPING THEM WITH THE SKILLS ESSENTIAL FOR NEXT-GENERATION AI HARDWARE DEVELOPMENT. OUTREACH TO HIGH-SCHOOL STUDENTS USING AI-BASED PROJECTS WILL HELP BUILD A PIPELINE OF STUDENTS TO PURSUE ENGINEERING DEGREES FOCUSING ON SEMICONDUCTORS AND AI. THE INDUSTRY SPONSOR WILL BE ACTIVELY ENGAGED AS A STRATEGIC PARTNER TO HELP TRANSITION THE TECHNOLOGY FROM RESEARCH PROTOTYPES TO REAL-WORLD DEPLOYMENT. TECHNICAL DESCRIPTION THE HETEROGENEOUSLY-INTEGRATED ELECTRONIC-PHOTONIC AI ACCELERATOR (HIEPAA) PROJECT FEATURES CROSS-LAYER INNOVATIONS FROM DEVICE DESIGN TO INTEGRATED CIRCUITS, TO WAFER-SCALE ARCHITECTURE TO ACHIEVE SIGNIFICANT IMPROVEMENTS IN THROUGHPUT AND ENERGY EFFICIENCY OF AI ACCELERATORS. BY COMBINING CO-PACKAGED ELECTRONIC-PHOTONIC ICS (EPICS) WITH BONDED TFLN MODULATORS PROMISING ABOVE 50 GHZ BANDWIDTH AND EXTREMELY LOW LOSS, THIS ARCHITECTURE WILL ENABLE SPACE-TIME MULTIPLEXED COMPUTATIONS, DELIVERING OVER 2 TERA OPERATIONS PER SECOND (TOPS) PER TILE WITH 2 TOPS/W ENERGY-EFFICIENCY AND SCALING TO 1 EXAOPS PERFORMANCE AT THE WAFER SCALE WITH 200 TOPS/W ENERGY-EFFICIENCY. ARCHITECTURAL INNOVATIONS WILL SOLVE THE LONG-STANDING CHALLENGE ASSOCIATED WITH THE PRECISION AND ENERGY CONSUMPTION TRADEOFF OF DATA CONVERTERS AND DEVICES USED IN THE ACCELERATOR TILE BY INVESTIGATING RESIDUE NUMBER SYSTEM (RNS)-BASED PHOTONIC VMM ARCHITECTURE. THE EPIC PHOTONIC CORE WILL SUPPORT COHERENT VECTOR-MATRIX MULTIPLICATION (VMM) AT UP TO 60 GS/S SYMBOL RATES. THE SPACE-TIME MULTIPLEXED ARCHITECTURE WILL ENABLE FLEXIBLE VMM OPERATIONS WITH VECTOR LENGTHS RANGING OVER 1000S TO PERFORM INFERENCE ON TRANSFORMER-BASED LLM MODELS. FABRICATED PICS AND EICS WILL BE INDEPENDENTLY VERIFIED, PACKAGED, AND INTEGRATED INTO A SYSTEM, WITH A PACKAGED PRINTED CIRCUIT BOARD (PCB) PROTOTYPE WITH A FIELD-PROGRAMMABLE GATE ARRAY (FPGA)-BASED DIGITAL BACKEND TO VALIDATE THE HIEPAA TILE'S PERFORMANCE ON THE STATE-OF-THE-ART LLM MODELS, WHICH WILL GUIDE WAFER-SCALE ARCHITECTURAL PERFORMANCE BENCHMARKING. A COMPREHENSIVE EDUCATION AND WORKFORCE DEVELOPMENT PLAN WILL FOCUS ON BUILDING EXPERTISE IN ELECTRO-OPTIC AI ACCELERATOR ARCHITECTURE, PHOTONIC AND ELECTRONIC CHIP DESIGN, AND AI AND MACHINE LEARNING. A KEY EMPHASIS IS TO FAST-TRACK THE TRAINING OF STUDENTS ON NEWER FINFET CMOS NODES THROUGH A COMPLETE REVAMP OF ANALOG IC DESIGN COURSES AND DEVELOPING STRUCTURED TRAINING MATERIAL WITH A FOCUS ON PHOTONICS IC DESIGN. NEW UNDERGRADUATE RESEARCH OPPORTUNITIES WILL BE INTRODUCED TO SUSTAIN THE TRADITION OF INVOLVING UNDERGRADUATES IN THE PIS' LABS THROUGH SUMMER SCHOLAR PROGRAMS AND NSF-SPONSORED REU INITIATIVES. 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 | $50.0k | 8/18/25 |