HBCU CHIPS Network Kickoff February 8, 2024 Department of Commerce Washington, D.C.
Thank you to our Gold and Silver Level Sponsors Gold Level Sponsors:
Silver Level Sponsors:
Welcome to the HBCU CHIPS Network Kickoff
Please note the agenda is subject to change.
Vision and Objectives
Vision Establish a network of HBCUs that possess an interest in establishing and/or growing their research and educational portfolio in semiconductors and semiconductor packaging. Leverage the leading-edge research being conducted at HBCUs while tapping into the vast knowledge base which resides in the HBCU community.
Objectives Shared Facilities Access Shared Best Practices Joint Curriculum Development Joint faculty and engineering exchanges Student Internships Pursuit of funding opportunities afforded by the CHIPS and Science Act
The following pages contain Capacity/Capability Statements, specifically related to microelectronics, from members of the HBCU CHIPS Network and additional HBCUs.
Tennessee State University Research Capacity www.tnstate.edu Tennessee State University is an urban land grant Historically Black College and University in Nashville, TN. With a student enrollment of over 8000, Tennessee State University is the only comprehensive research-intensive R2 Carnegie designated HBCU in the state of Tennessee. As a premier public institution with strong research capacity and capabilities our research mission is aimed at advancing knowledge, innovation, and technology for the betterment of society. Tennessee State University has a diverse range of research capabilities across several STEM disciplines (Engineering, Computer Science, Physics, Biology, Chemistry, Math, Agriculture), with approximately (300) faculty who conduct cutting edge research in their respective fields. Research facilities include over (100) basic science research laboratories and (8) research centers and institutes equipped with state-of-the-art equipment, technologies, and software that include high-performance computing capabilities, advanced imaging technologies, and analytical instrumentation. Tennessee State University’s research capacity is further strengthened by its partnerships with federal agencies, industry partners, and other universities. These collaborations enable TSU to expand its research spectrum and provide opportunities for cross-disciplinary research. Faculty and staff have secured research grants from various sources, that include the National Science Foundation, National Institutes of Health, Department of Energy, Department of Defense, and U.S. Department of Agriculture. Tennessee State University’s research activity and portfolio are reflected in our diverse academic program offerings that include (38) Bachelor Degree Programs, (24) Master’s Degree Programs and (8) Doctoral Programs Engineering and Computer Science Academic Programs Bachelor of Science Graduate Programs - Applied and Industrial Technologies - Computer Science (M.S.) - Architectural Engineering -Data Science (M.S.) - Civil Engineering - Engineering (M.E.) - Computer Science - Comp., Info., and Sys. Eng. (M.S. - Engineering Computational Science (Ph.D.)
Research Centers and Institutes • TSU Interdisciplinary Graduate Engineering Research (T.I.G.E.R) Institute - Mechatronics - Cybersecurity - Nano-materials - Advanced Visualization and Computing
- Bioinformatics •Center of Excellence in Information Systems and Engineering Management •Center of Excellence for Battlefield Sensor Fusion •SMART Center - Tech Innovation - A.I. •Center for Entrepreneurship and Economic Development Total amount of grant awards procured FY 2023
$100,031,083
• • • • • • • • •
Funders & Partnerships National Science Foundation Department of Defense Department of Energy Apple Boeing Google Amazon Lockheed Martin Microsoft
Contact Info Quincy Quick, Ph.D. Associate Vice President Research & Sponsored Programs qquick@tnstate.edu
RESEARCH CAPACITIES
Dr. Lin Li, Dean, College of Engineering lli1@tnstate.edu, 615.963-5401 DEPARTMENT Civil& Architectural Engineering Computer Science Electrical &Computer Engineering Mechanical & Manufacture Engineering
RESEARCH NICHE Bio-inspired Infrastructure, BuildingEnergy, Environmental& Transportation Health/BioInformatics, Cyber-security, Bio-mechatronics, Networking, Human-Robot Interfacing Nano-Sensors, Cyber-security, Cyber-Physical Systems, Embedded Systems, Autonomous Robotics, Control Mobile Robotics,Autonomy, Remote Sensing and Data Fusion, Hurricane Surge Modeling, Mechatronics, Additive Manufacturing
Tiger Institute •Advanced Materials and Manufacturing •Artificial Intelligence • Bioinformatics • Cybersecurity •Machine Learning • Mechatronics •Renewable Energy Systems
The following pages contain information specifically related to microelectronics from members of the HBCU CHIPS Network.
Alabama A&M University
Mission Statement As a center of excellence, the University is dedicated to providing a studentcentered educational environment for the emergence of scholars, scientists, leaders, and critical thinkers who are equipped to excel through their contributions and leadership in a 21st century national and global society.
CONTACT INFORMATION Majed Dweik, PhD VP Research & Economic Development majed.dweik@aamu.edu
Zhigang Xiao, PhD Professor, Electrical Engineering & Computer Science xiang.zhao@aamu.edu
Zhengtao Deng, PhD Dean, College of Engineering, Technology & Physical Sciences zhengtao.deng@aamu.edu
Satilmis Budak, PhD Professor, Electrical Engineering & Computer Science satilmis.budak@aamu.edu
Summary
Areas of Capability
Microelectronics and Nanoscale Materials and Devices with suitable packaging UV and e-beam lithography, wet and dry (plasma) etching, ebeam/thermal deposition, thermal diffusion for doping Plasma-enhanced chemical vapor deposition, atomic layer deposition Electrical characterization of micro- and nano-scale electronic devices Nano-energy harvesting devices fabrication and characterization, solid state batteries. Workforce Development; training students from K-12 through graduate levels
Core Competencies
2500 sq. ft facility a Class-1000 clean room for research and education Many collaborations with National Laboratories, Research Institutions, and Industries MSEE, MSME, and MSCS programs with Accelerated Master Pathways (AMP) MS, and Ph.D. programs in Engineering and Physics Exceptional faculty members with strong backgrounds in semiconductor devices and workforce development
Facilities and Infrastructure
UV and e-beam lithography for patterning. Thin film deposition. E-beam/thermal evaporation. Sputtering. Plasma-enhanced atomic layer deposition. Thermal oxidation and thermal diffusion for doping. SEM imaging, EDS analysis, and E-beam lithography. Thermoelectric characterization systems. Thickness measurement system. I-V Characterization Systems. High Energy Beam Accelerators for forming nanostructures and Rutherford Backscattering System for elemental analysis equipped with the accelerators
Relevant Curriculum/ Courses and Descriptions
VLSI (Microelectronics) and Computer Engineering Concentrations at the Department of Electrical Engineering and Computer Science EE 203: Analog Circuit Design and Analysis I EE 204: Digital Circuit Design and Analysis EE 305: Semiconductor Engineering I EE 320: Computer Architecture EE 333: Analog Circuit Design and Analysis II EE 350 VLSI Design and Test EE 431: Semiconductor Engineering II EE 531: Advanced Semiconductor Engineering EE 330: Microprocessors EE 405L: Simulation Techniques Laboratory EE 470 and EE471: Capstone 1 and 2 Department of Electrical Engineering and Computer Science, College of Engineering, Technology and Physical Sciences Prof. Dr. Zhigang Xiao, Email: zhigang.xiao@aamu.edu Research Area: Microelectronics and Nanoscale Materials and Devices. Research Capability and Skills: Clean room-based fabrication: UV and e-beam lithography, wet and dry (plasma) etching, ebeam/thermal deposition, thermal diffusion for doping. Plasma-enhanced chemical vapor deposition, atomic layer deposition.Electrical characterization of micro- and nano-scale electronic devices.
Faculty Capabilities
Prof. Dr. Satilmis Budak, Email: satilmis.budak@aamu.edu Research Area: Nanoscale Materials and Devices. Research Capability and Skills: Clean room-based fabrication: DC/RF Magnetron Sputtering, Thermoelectric materials and their characterization, high energy ion beam modification and thermal treatment effects on the thin film devices, Rutherford backscattering (RBS). Growth of semiconductor nanowires using Chemical Vapor Deposition (CVD). Fabrication and characterization of solid-state thin film batteries using different anode materials. Magnetic properties of thin film systems. Prof. Dr. Xiang (Susie) Zhao, Director, Laboratory of Advanced Modeling, Simulation and Data Science), Email: xiang.zhao@aamu.edu Research Area: Data Science, AI Models, High Performance Computing Research Capability and Skills: Analysis and simulation of PPA in IC, Optimization of PPA with AI tools
Summary
Faculty Capabilities (Continued)
Prof. Dr. Andrew Scott (EECS Chairman): Email: andrew.scott@aamu.edu Research Area: FPGAs,GPUs, Digital Design and Computer Computation and Architecture, High Performance Computing Research Capability and Skills: Numerical Methods, parallel and distributed application development, Reconfigurable computing utilizing FPGA for High Performance Applications Dr. Sita Kondamadugula (Apple Scholar): Email: sita.kondamadugula@aamu.edu Research Area: VLSI Design and Computer Architecture. “Expanding Curriculum Offerings and Student Opportunities in the VLSI/Microelectronics and Computer Engineering Concentrations of the AAMU BSEE and MSEE Programs”; Zhigang Xiao (PI), Dr. Andrew Scott (Co-PI), Dr. Satilmis Budak (Co-PI), and Dr. Kaveh Heidary (CoPI); TMCF-Apple; $1.25M
Sample of Related Active Projects
“Advanced Plasma Etching System for Research at Nanoscale for Energy Harvesting and Nanoelectronics at Alabama A&M University”; Zhigang Xiao (PI), Dr. Satilmis Budak (Co-PI), Dr. Shujun Yang (Co-PI), and Dr. Qunying Yuan (Co-PI); DoD; $600K “Collaborative Research: HBCU: Natural Bio-organic Resistive Random Access Memory Based Synaptic Devices”; Zhigang Xiao; NSF $100K “Fabrication and Characterization of Rechargeable Multilayer Thin Film Solid State Batteries”; Satilmis Budak; Raytheon $72K “Open-source AIB Characterization”; Xiao and Scott; Carnegie Mellon ICWERX; $50K
CLARK ATLANTA UNIVERSITY
MISSION STATEMENT Building on its social justice history and heritage, Clark Atlanta University is a culturally diverse, research-intensive, liberal arts institution that prepares and transforms the lives of students. CAU is located in the heart of Atlanta which is the epicenter of the Civil Rights Movement and modern center of emerging technologies and innovation. Ignited by its history, CAU is committed to delivering education that is accessible, relevant, and transformative.
CONTACT INFORMATION Frances Williams, PhD VP Research & Sponsored Programs fwilliams@cau.edu
Eric Mintz, PhD Professor, Chemistry emintz@cau.edu
Marshall J. Taggart, Jr. Associate VP Office of Governmental Affairs, Institutional Advancement mtaggart@cau.edu
Summary
Research Interests In Microelectronics
Semiconductor materials, computational sciences of semiconducting and light-emitting materials, emergent interface materials, polymers/ferro-electronics, materials for batteries, characterization of materials for electromagnetic shielding, micro- and nano-scale devices (sensors/NEMS/MEMS), workforce education and training
Research Capacity & Competencies
Synthesis and characterization of semiconductor materials; computational materials science; design, synthesis, and characterization of oxide-based interface materials for the next generation of electronic/magnetoelectronic/optoelectronic devices; fabrication and processing of micro- and nano-devices; artificial intelligence; data science research and education
Facilities and Infrastructure
Mechanical Testing, Rheology Measurement Tools, Surface Analysis, Spectroscopy (Vibrational, UV-Vis, Fluorescence), Thermal Analysis tools, Nuclear Magnetic Resonance Spectrometers, X-Ray diffraction, Chromatography and Mass Spectrometry, X-Ray Photoelectron Spectrometer (XPS) System, Microscopy (Scanning Electron Microscope, Atomic Force Microscope, Transmission Electron Microscope), GPU Cluster for simulations and machine learning
Relevant Curriculum
Existing solid state physics courses; New materials chemistry/physics track at the B.S. and M.S. levels, as of fall 2023.
Key Faculty
Conrad Ingram, PhD Indika Kankanamge, PhD Ishrat Khan, PhD Xinle Li, PhD Eric Mintz, PhD Seyhan Salman, PhD Dinadayalane Tandabany, PhD Xiao-Qian Wang, PhD Talitha Washington, PhD Frances Williams, PhD Michael Williams, PhD
Summary
Current Awards
Past Awards
NSF Partnerships for Research and Education in Materials (PREM) Emergent Interface Materials NSF Partnerships for Research and Education in Chemistry (PREC)-Sustainable Polymers Office of Naval Research HBCU/MI Faculty Start-Up Program in Materials Physics NSF INCLUDES Alliance: National Data Science Alliance (NDSA) NSF Targeted Infusion Project:Implementation of Data Science Courses, Modules, and Capstone Experiences to Enhance Career and Graduate School Readiness NSF REU Site: The Application of Data Science to Chemistry NSF Georgia Alabama Louis Stokes Alliance for Minority Participation
NSF Center of Research Excellence in Science and Technology (CREST Center): Center for Functional Nanoscale Materials Army Center of Excellence in Information Science, a DODSponsored Information Security Research and Education Center (ISREC) NSF RISE: Enhancement of Research and Education Infrastructure-Laboratory for Prototype Devices Based on Functional Materials DoD Acquisition of a High-Performance 400 MHz NMR Spectrometer for Materials/Physical Science Research and Education at Clark Atlanta University NASA Optical Characterization of 2D Materials DoD/Army Integrated Study of Emerging 2D Materials and Interfaces
FLORIDA A&M UNIVERSITY
MOTTO Excellence With Caring CONTACT INFORMATION
Charles Weatherford, PhD VP for Research charles.weatherford@famu.edu
Dr. Suvranu De, Google Endowed Dean of the FAMU-FSU College of Engineering sde@eng.famu.fsu.edu
Summary
Research Interests In Microelectronics
Our interests in Microelectronics and Semiconductors include: Support for collaborative research initiatives in areas such as: chip design and characterization, semiconductor theory and technologies, chip fabrication processes, AI in Semiconductor, Manufacturing & Technologies Analog/RF Computing chips for AI, brain-machine interface, and quantum computing, 3D Heterogenous integration (configurable dielectric with semiconductor), highly integrated RF front end design with wideband operation DC-100GHz, Semiconductor packaging and post-processing, etc. Support for research infrastructure such as postdocs, graduate assistants, equipment, SW licenses, design kits access, and semiconductor packaging & post processing, cleanroom tools, etc. Support for education and training opportunities in semiconductor manufacturing and fabrication facilities for students, faculty and researchers. Support for undergraduate research, senior design, summer research opportunity in chip design and fabrication.
Core Competencies
Semiconductor Theory, Modeling and Simulation Microwave/RF Computing Antenna Design Measurement and Instrumentation IC design and Characterization Power Electronics and Devices Superconducting Materials, Cryogenics Quantum Computing, Science and Engineering AI in Semiconductor Manufacturing & Technologies Diverse Workforce Development
Current Research Efforts
Analog/RF computing ICs RF Front end, Beamforming ICs RF power amplifier (GaN/GaAs) Configurable dielectric from engineered nanoparticle 3D printing for heterogenous integration
Summary
Facilities and Infrastructure
Faculty Research Labs in our 5 COE departments Engineering Research Centers: • Applied Superconductivity Center (ASC)- superconducting materials for magnets, power, and energy • Center for Advanced Power Systems (CAPS)- Power Systems, renewable energy, thermal management and grid-level simulations • High-Performance Materials Institute (HPMI)-H2 fuel tanks, advanced composites and nanomaterials • ** (new) Interdisciplinary Research and Commercialization Building (IRCB)-collaborative space for incubation of new ideas including cleanroom facilities National User Facility: National High-Magnetic Field Laboratory (NHMFL)- Cryogenics, highfield magnets for H2
Capabilities
Key Faculty & Researchers
Design & tape out analog/RF chip using Keysight and Ansys tools Characterize the chips, circuits, and systems using equipment PNA-x four-port network analyzers with time domain options EXG signal generator, MVG 0.6-50GHz Multi-probe radiation measurement systems, and other testing equipment Dr. Bayaner Arigong – RF/Microelectronics, antenna system design Dr. Reginald Perry – VLSI and CMOS-optoelectronics Dr. Simon Foo – Integrated circuit design and characterization Dr. Petru Andrei – Semiconductor modeling and simulation Dr. Jin Moon – Integrated power electronics Dr. Shonda Bernadin - Semiconductor Education and WF development • Collaborative research with faculty and researchers in other departments and Engineering Research Centers (IME, ME, CBE, etc.)
HAMPTON UNIVERSITY
MISSION STATEMENT The mission of Hampton is to promote learning, the building of character, and the holistic preparation of students for positions of global leadership and lives of service. The University is a historically Black, research-focused institution grounded in a commitment to an education for life, innovation, the creation of new knowledge and artistic works, and respect for diverse cultures.
CONTACT INFORMATION Neelam Azad, PhD Vice President for Research neelam.azad@hamptonu.edu
Demetris Geddis, PhD Assistant Dean, Engineering, Architecture & Aviation (SEAA) demetris.geddis@hamptonu.edu
Janett Walters-Williams, PhD Associate Professor, Computer Science janett.williams@hamptonu.edu
Glenda Evans, PhD Chair & Associate Professor, Business Administration Dept. glenda.evans@hamptonu.edu
Mr. Bill Thomas Associate VP for Governmental Relations bill.thomas@hamptonu.edu
Summary
Research Interests In Microelectronics
Photonic integrated circuits, Hybrid organic/inorganic devices, Lab-onChip, AI-assisted microelectronic design and fabrication, detection of cybersecurity breaches occurring on microelectronic devices, and creation of businesses that manufacture microelectronics.
Core Competencies
Hampton’s core competencies stretch from materials synthesis, device & systems development to hardware integrity and STEM education, workforce development, rooted in data-driven methodology and traditional approaches. This places us in a unique strategic position to participate actively at any level of tech development & deployment. Microfabrication Facility - Mask Aligner, Spinners and Hotplates, Scanning Electron Microscope, X-Ray Diffractometer.
Facilities and Infrastructure
Workforce Development Maker Space - 10,000 sq. ft. Entrepreneurship Center located in an Opportunity Zone, Large-scale 3D printer, Small-scale 3D printers, Laser printers and engravers Vacuum former, Large-scale printers. Electrical Engineering - ELN 404 Semiconductor Electronics, ELN 471 Electronics and Photonics Devices, ELN 526 Computer-Aided Design for VLSI
Relevant Curriculum
Computer Engineering - ELN 360 Introduction to Cyber Physical Systems Security, ELN 460 Embedded Systems Security, ELN 462 Quantum Communication Systems Workforce Development and Entrepreneurship - Business Model Canvas, Value Proposition Canvas, Business Essentials Courses, 25 Industry-specific Courses
New Curriculum
Major in Artificial Intelligence and Machine Learning, Minor in Material Science and Engineering, Campus-wide Cybersecurity Awareness
Summary
School Engineering, Architecture, and Aviation - Department of Electrical and Computer Engineering - Dr. Ikemefuna Uba, Chair; Dr. Otsebele Nare, Semiconductor Devices; Dr. Zhao (Joy) Sun, Quantum Computing
Key Faculty
School of Science - Department of Computer Science - Dr. Janett Walters-Williams, AI/ML School of Business - Dr. Glenda M. Evans, Entrepreneurship and Workforce Development
Nanotechnology Training Project Title: “Acquisition of a Mask Aligner with Nanoimprint Capability for Integrated Photonics Research and Nanotechnology Training” Funding Agency: Department of Defense Materials Research Project Title: “Hampton-Brandeis Partnership for Research and Education in Materials” Funding Agency: National Science Foundation
Current Awards
National Center of Academic Excellence in Cyber Defense Education (CAE/CDE) Funding Agency: Department of Homeland Security NASA University Leadership Initiative (ULI)- HU is responsible for designing Machine/ Deep Learning algorithms to be used in the sensors Funding Agency: NASA Virginia Workforce Innovation and Entrepreneurship Center Funding Agency: Department of Education
HOWARD UNIVERSITY
MISSION STATEMENT Howard University is a culturally diverse, comprehensive, research intensive and historically Black private university that provides an educational experience of exceptional quality at the undergraduate, graduate, and professional levels to students of high academic standing and potential, with emphasis on educational opportunities for Black students. Moreover, the University is dedicated to attracting and sustaining a cadre of faculty who are, through their teaching, research and service, committed to the development of distinguished, historically aware, and compassionate graduates and to the discovery of solutions to human problems in the United States and throughout the world. With an abiding interest in both domestic and international affairs, the University is committed to continuing to produce leaders for America and the global community
CONTACT INFORMATION
Bruce Jones, PhD Senior VP for Research bruce.jones@howard.edu
Pamela Clarke Vice President for Research pamela.a.clarke@howard.edu
Summary
Research Interests In Microelectronics
Neuromorphic Processors: Neural Processing Units, Nearmemory Computing, Materials for Memristor integration, and Polymorphic devices. Silicon based Photonic Integrated Circuits: Novel devices for strong light-matter coupling in integrated photonics i.e. topological systems, metaoptics, chemical sensors, and microwave photonics. Optoelectronic System on Chip: Co-design methods for integrating FPGAs, coherent light sources, and functional photonic devices on a single chip. AI for Circuit Design: Computer Assisted Design and optimization of photonic and electronic circuits using Reverse Design Methods and Machine Learning. Quantum Materials Development: Growth and processing of Carbon Nanotubes, Graphene, and Low Dimensional Boron Nitride allotropes. Hardware Device Security: Physically Unclonable Functions, Security Device Authentication Integrated Circuit Intellectual Property Core Protection Hardware Software Codesign Security of Deep Learning Hardware Accelerators (on FFGAs)
Infrastructure & Facilities
GWU Nanoimaging Center – Multiphoton Microscope and Scanning Electron Microscope UMD College Park Cleanroom – Lithography, Etching, and Deposition Howard Nanofabrication Facility - Impedance Analyzer, Probe Station, Waveform Generators, Oscilloscope, Testing Bay for Chip prototyping Howard Nanofabrication Facility - Wafer Cleaving Station Howard Nanofabrication Facility – Workstation Computer for COMSOL Multiphysics Simulations Harvard University Center for Nanoscale Systems - Scan Probe Microscopy: Ultra-high resolution Atomic Force Microscopy (Asylum Cypher AFM), Scanning Optical Near-field Microscopy for visible to mid-IR (NeaSpec NeaScope), and Photo Induced Force Microscopy (custom setup) State of the Art commercial EDA Tools (FFGPAs)
Summary
Infrastructure & Facilities (Continued)
Core Competencies
Xilinx FPGA boards including 7-series Artix, Zynq SoC (zedboard, Zybo-Z7 and Pynq) UltraScale ZCU 104 FPGA Board Workstation computers for machine learning and deep learning Hardware acceleration prototype platform for deep learning Howard University Interdisciplinary Research Building Cleanroom – Opening Fall 2025
Semiconductor Fabrication Process Integration New Materials Metrology and Development Solid State Physics / Quantum Engineering Photonic and Optoelectronic Devices Neuromorphic Computing Multiphysics Simulations Micro-Electro-Mechanical Systems Manufacturing, Testing/Validation and Security of Integrated Circuits Network-on-CHIP (NoC) Design of Digital Systems using commercial Electronic Design Automation (EDA) Field-programmable gate array (FFGPA) tools Security Circuits Prototyping/Evaluation/Application Device Authentication Protocols Cryptographic Secret Key Storage and Generation Hardware Software Codesign Deep Learning Accelerator Security Artificial Intelligence and Machine Learning (AI/ML) Cybersecurity Behavioral Security, Hardware Security and Network Security
JACKSON STATE UNIVERSITY
MOTTO Challenging Minds, Changing lives
CONTACT INFORMATION
Joseph Whittaker, PhD VP for Research & Economic Development joseph.a.whittaker@jsums.edu
Nihar Pradhan, PhD Associate Professor nihar.r.pradhan@jsums.edu
Summary
Research Interests In Microelectronics
Semiconductor Physics, Material Science, Quantum Materials, Solar Cells, Energy storage and Energy generation.
Core Competencies
Materials growth facilities using Chemical growth, Chemical Vapor Transport (CVT) Method, Chemical Vapor Deposition Technique (CVD), Solar Cells Fabrications and Characterization.
Facilities and Infrastructure
Solar Cells Fabrication, Semiconductor Layered Materials Synthesis, Low temperature Cryostat, 2D Materials Stacking station, Optoelectronic Characterization tools. Raman spectroscopy, SEM, TEM Microscopy.
Relevant Curriculum
Research Methods in Physics: This course reinforces concepts learned in advanced science, technology, engineering, and mathematics (STEM) courses helping students to develop critical thinking, writing, research, presentation and analysis skills. The problems presented are analyzed by the class and solutions proposed.
Key Faculty Members
Prof. Nihar Pradhan Prof. Qiln Dai Prof. Shan Yang Dr. Muhammad Islam Prof. Paresh Ray Prof. Tigran Shahbazyan Dr. Yasir Mohammad Prof. Jerzy Leszczynski
Current Awards
NSF: NSF-PREM, NSF EiR, NSF-EPSCoR, NSF-RIA DOE: DOE-EPSCoR (Heterogeneous Integration of 2D-3D Materials for Energy Efficient Electronics)
MOREHOUSE COLLEGE
MISSION STATEMENT The mission of Morehouse College is to develop men with disciplined minds who will lead lives of leadership and service.
CONTACT INFORMATION Triscia Hendrickson, PhD Associate Provost for Research & Student Training triscia.hendrickson@morehouse.edu
Kinnis Gosha, PhD Hortenius I. Chenault Endowed Professor of Computer Science kinnis.gosha@morehouse.edu
Summary Research Interests In Microelectronics
Research Capability
Research Simulation Case Studies for Virtual Clean Room Activity
Virtual Reality/Extended Reality Social Media Data Analytics Cybersecurity Sentiment Analysis Natural Language Processing Text Mining Chatbot Development Embodied Conversational Agents Web Development Database Development and Administration The Center for Broadening Participation in Computing (CBPC) was awarded three subcontracts (below) to train Air Force Cadets and Navy Midshipmen from the Morehouse, Spelman and Clark Atlanta ROTC programs to conduct research in social media data analytics to identify, quantify and classify cyber terrorism in Twitter and Instagram using text and images.
Past/Current Performance
Cyber Spectrum Collaborative Research Environment. Department of Defense. Prime: Georgia Tech Research Institute (FA8650-15-D-1833-FA865019F1682). Morehouse Share: $247,418. Dates: 1.1.20 – 6-30.20. Cyber Spectrum Collaborative Research Environment. Department of Defense. Prime: Georgia Tech Research Institute (FA8651-16-D-0049—FA8651-18-F-1053). Morehouse Share: $437,814. Dates: 10.1818 – 12.15.19. Cyber Spectrum Collaborative Research Environment. US Air Force. Prime: Georgia Tech Research Institute (FA8075-14-D-0018-0026). Morehouse Share: $157,500. Award Period: 10.24.17 – 09.30.18.
Summary
The CBPC was awarded three grants from the National Science Foundation to investigate the use of chatbots and embodied conversational agents in various task domains in which human-agent relationships improve task outcomes.
Past/Current Performance (Continued)
Excellence in Research: Evaluating the Use of Virtual Mentoring for HBCU Undergraduates in Computer Science, NSF, CISE, $1,224,853, 2018 - 2021. Award #1831964. HBCU-DCL EAGER: Preparing Underrepresented Students for the Engineering and Computer Science Professoriate Virtually Using Embodied Conversational Agents. Broadening Participation in Engineering, NSF, $299,932, 2017-2019. HBCU-UP Broadening Participation Research Project: Exploring Computing Careers through a Virtual Career Fair Using Embodied Conversational Agents, NSF, $349,057, 20152018.
MORGAN STATE UNIVERSITY
MISSION STATEMENT Morgan State University serves the community, region, state, nation, and world as an intellectual and creative resource by supporting, empowering and preparing high-quality, diverse graduates to lead the world. The University offers innovative, inclusive, and distinctive educational experiences to a broad cross section of the population in a comprehensive range of disciplines at the baccalaureate, master's, doctoral, and professional degree levels. Through collaborative pursuits, scholarly research, creative endeavors, and dedicated public service, the University gives significant priority to addressing societal problems, particularly those prevalent in urban communities
CONTACT INFORMATION Willie E. May, PhD VP Research & Economic Development willie.may@morgan.edu
Albert Sweets Director, External Research Partnerships albert.sweets@morgan.edu
Michael Spencer, PhD Director, Center for Research and Education in Microelectronics michael.spencer@morgan.edu
Summary
Center for Research & Education in Microelectronics Capability Statement
Affiliated Research Centers & Programs
Facilities and Infrastructure
The Morgan Center for Research and Education in Microelectronics is being formed to address these dual challenges. A state-of-the-art clean room is being designed for construction and new faculty in the field are being recruited. The new clean room will be designed for teaching Silicon technology and feature 3,500- 4,000 sq ft of usable clean space. This facility will allow for a laboratory-based course in Microelectronics as well as support local users and stimulate research. As a result of 1.4-million-dollar program with Apple called the New Silicon Initiative the Dept of Electrical Engineering and the Dept of Computer science have already developed a pathway curriculum for integrated circuit designers. Using computer aided design tools enables Morgan to do research in the design of specialized chips. Our initial research focus on the fabrication side is on wide bandgap and ultra-wide bandgap materials and devices with an emphasis on applications in high power, quantum sensors and biological devices. These applications for advanced materials are given a new life by the hetero-integration approaches that will be employed in the center. Cybersecurity Assurance & Policy Center (CAP) Center for Equitable Artificial Intelligence and Machine Learning Systems (CEAMLS) Center of Excellence for Advanced Electro-Photonics with 2D Materials Morgan Microfabrication Facilities: These microfabrication facilities current and to be acquired will form the tool set for the new class 1000 clean room to be located in the Mitchell Engineering Bld. on Morgan State University campus. The facilities provide scientific instrumentation, laboratory facilities, and expert staff support to enable multidisciplinary research down to the micron length scale. The current plan is that the microfabrication facilities will be comprised of ~4,000 sq ft of contiguous cleanroom space over three times the current space. Advanced characterization capabilities include microscopy, spectroscopy, surface analysis, and optical spectrometry. The new facilities will be supported by a Lab Director and research engineer to be hired under the state supported center.
Summary
Key Faculty
Michael Spencer. PhD Christofer Thomas, PhD Albert Sweets Willie E. May, PhD
Future Research Aspirations
We are trying to recruit new faculty both junior and senior to join the center. Additionally, we are trying to make the program attractive to incoming freshman through summer microelectronics bootcamp programs and through honors fellowship. Second is the facility. Our desire is that the new clean room will serve both for training as well as research. We know how important a basic toolset having nearby is, but we will not try and compete with resources at facilities such as the NIST or U of Maryland cleanrooms. Therefore, we think a nice compromise is tools with 1 micron linewidth capability and a facility at about the class 1000 level. Third research focus. We have a limit amount of resource, and we would like to focus on areas where we can achieve some national prominence. As we indicated earlier on of these areas concerns utilization of wide and ultrawide bandgap materials. A second area is biodevices. Both areas have a natural connection with advanced packaging
NORFOLK STATE UNIVERSITY
MOTTO We see the future in you
CONTACT INFORMATION Patricia Mead, PhD Chair, Department of Engineering pmead@nsu.edu
Michael Keeve, PhD Dean, College of Engineering mokeeve@nsu.edu
Hargsoon Yoon, PhD Professor, Engineering hyoon@nsu.edu
Eric Claville Executive Advisor to the President for Governmental Relations ewclaville@nsu.edu
Aurelia Williams, PhD Sr. Vice Provost for Academic & Faculty Affairs atwilliams@nsu.edu
Summary Research Interests In Microelectronics
We have significant efforts in the development of training materials for targeted audiences, including veterans, undergrad and graduate STEM majors. Our faculty also particiate in research activities related to the advancement of renewable energy technologies, advanced sensing and materials, and
Core Competencies
The Norfolk State cleanroom competencies include advanced research and education expertise, including photolithography, deposition, and wet and dry etch expertise. Education and training programs include microelectronics, materials science, nanophotonics, and quantum science.
Facilities and Infrastructure
Norfolk State University is home to the Micron-NSU Nanofabrication Cleanroom, a 10,000 sp. ft., class 100/1000 cleanroom facility. The facility features four fabrication bays, and an extensive characterization capability.
Relevant Curriculum
Norfolk State currently administers master of science and doctoral programs in materials science, and master of science programs in Electronics Engineering. The university wishes to expand its current degree programs to also include doctoral programs in quantum engineering and computer science. The university also wishes to extend its training capabilities to include chip packaging and life-cycle engineering related infrastructure and courses.
Key Faculty
Patricia Mead, PhD Hargsoon Yoon, PhD Michael Keeve, PhD
Future Research Aspirations
Norfolk State currently administers master of science and doctoral programs in materials science, and master of science programs in Electronics Engineering. The university wishes to expand its current degree programs to also include doctoral programs in quantum engineering and computer science. The university also wishes to extend its training capabilities to include chip packaging and life-cycle engineering related infrastructure and courses.
NORTH CAROLINA A&T STATE UNIVERSITY
MISSION STATEMENT An 1890 land-grant doctoral high research activity university, North Carolina Agricultural and Technical State University prepares students to advance the human condition and facilitate economic growth in North Carolina and beyond by providing a preeminent and diverse educational experience through teaching, research, and scholarly application of knowledge.
CONTACT INFORMATION Eric Muth, PhD Vice Chancellor , Division Research & Economic Development ermuth@ncat.edu
Tim Minor Vice Chancellor of Strategic Partnerships taminor@ncat.edu
Shyam Aravamudhan, PhD Director of JSNN Core Facilities saravamu@ncat.edu
Oliver Thomas Director, External Affairs omthomas@ncat.edu
Summary
Research Interests In Microelectronics
Core Competencies
Facilities and Infrastructure
Future Research Aspirations
New materials, designs, devices, and packaging for energy-efficient, power, and Radio Frequency (RF) electronics, incorporation of Artificial Intelligence (AI) and Machine Learning (ML) into electronics, wearable and flexible electronics, secure, edge and quantum computing and new memory technologies.
Multi-scale modeling, synthesis, and characterization of emerging materials including wide- bandgap (Silicon Carbide, Gallium Nitride), 2D (Boron Nitride, Molybdenum disulfide.), transition metal oxides, oxynitrides, soft, and nanomaterials Design, modeling, and measurement (up to THz) of active, passive, power, RF, and reconfigurable intelligent surfaces for wireless, mobile, and edge (IoT) computing Design, and fabrication of silicon and next-generation flexible sensors, and systems using Micro Electro Mechanical Systems (MEMS), and microfluidics Design and fabrication of alternative digital data storage, namely the DNA-based memory 7000 sq. ft. (Class ISO 5/6) cleanroom with 200 mm compatible tools for micro and nanofabrication, process metrology, failure analysis, and characterization. One of only a few in the nation with integrated biological and semiconductor cleanrooms. Tools for additive manufacturing, bottom-up synthesis, microscopy (optical, probe, electron, and other charged), x-ray analysis, preparative/analytical chemistry, ISO material testing, SynBio, and high-perf computing. For design, modeling, and measurement including an anechoic chamber (for 18GHz to 95GHz and 300MHz to 3GHz), probe stations, network, and spectrum analyzers, to name a few. Envisioned to package conventional and novel power/RF devices using methods ranging from 2D die attach and wire-bond assembly to multiple 2.5D and 3D integration.
Envisioned to both package conventional and novel power/RF devices using methods ranging from 2D die attach and wire-bond assembly to multiple 2.5D and 3D integration. Tools for wafer, chip and board levels, material evaluation and characterization, reliability testing and failure analysis, and package modeling and simulation
PRAIRIE VIEW A&M UNIVERSITY
Motto Excellence Lives Here
CONTACT INFORMATION Magesh Rajan, PhD VP Research & Innovation mtrajan@pvamu.edu
Ramaswamy Krishnamoorthi, PhD Director of Research Services & Center Initiatives rakrishnamoorthi@pvamu.edu
Richard Wilkins, PhD Director, Center for Radiation Engineering and Science for Space Exploration rtwilkins@pvamu.edu
Michael Gibson TAMUS Assistant Vice Chancellor for Government Relations mgibson@tamus.edu
Summary Research Interests In Microelectronics
VLSI Design and Fabrication Hardware Security Radiation Effects on Electronics Quantum and Nanomaterials and Device
Core Competencies
AI, Machine Learning and Big Data Engineering Integrated Circuit Design and Electronic Material and Device Characterization Nano- and quantum materials Sustainability, Energy and Power Engineering
Facilities and Infrastructure
The Center of Excellence in Research and Education for Big Military Data Intelligence (CREDIT Center of Excellence for Cyber Security (SECURE) The Smart MicroGrid Advanced Research and Technology Center (SMART) The Center for Energy and Environmental Sustainability (CEES) The Center of Excellence for Communication Systems Technology Research (CECSTR) Undergraduate: ELEG 3303: Physical Principles of Solid State Devices – semiconductor and device physics. ELEG 4322: Electronic and Photonic Materials and Devices – semiconductor photonics and nanoscience and technology.
Relevant Curriculum/ Courses & Description
Graduate Level: ELEG 6342: VLSI and ULSI Design – design techniques for microelectronics ELEG 6350: Advanced Photonics Materials and Devices – photonic devices for communication, light and photovoltaics. ELEG 6351: Advanced Quantum Devices – advanced MOS and beyond MOS devices. ELEG 6352: Advanced Characterization of Materials and Devices – techniques for material and device characterization
Summary
Key Faculty (not exhaustive)
Dr. Nabila Shamim – Chemical Engineering – nanomaterials characterization Dr. Lin Li – Computer Science – data science and machine learning Dr. Jaejong Park – Mechanical Engineering – advanced manufacturing Dr. Dr. Lai Jiang – Mechanical Engineering – advanced manufacturing Dr. Suxia Cui – Electrical and Computer Engineering – advanced computing Dr. Shuza Binzaid - Electrical and Computer Engineering – integrated circuit design Dr. Annamalai Annamalai - Electrical and Computer Engineering – hardware security Dr. Mohamed Chouikha - Electrical and Computer Engineering – hardware security Dr. Richard Wilkins - Electrical and Computer Engineering – device characterization Dr. Lijun Qian - Electrical and Computer Engineering – artificial intelligence and machine learning
Current Awards (not exhaustive)
Apple New Silicon Initiative semiconductor chip design and manufacturing through classes, Key people: Dr. S Cui and Dr. S. Binzaid, ECE.
Past Awards (not exhaustive)
Center for Radiation Engineering and Science for Space Exploration – radiation effects on electronics and devices for radiation detection. Key person: Dr. R. Wilkins.
TENNESSEE STATE UNIVERSITY
MISSION STATEMENT Tennessee State University, through its legacy as an HBCU and land grant institution, transforms lives, prepares a diverse population of leaders, and contributes to economic and community development by providing affordable and accessible educational programs at various degree levels promoting academic excellence through scholarly inquiry, teaching, research, lifelong learning, and public service.
CONTACT INFORMATION Quincy Quick, PhD Associate Vice President Research and Sponsored Programs Chief Research Officer qquick@tnstate.edu
Richard Mu, PhD Director, TSU-Fisk-Illinois (TSUFI) PREM (Partnership with I-MRSEC at UIUC) Program rmu@tnstate.edu
Lin Li, PhD Interim Dean, College of Engineering lli1@tnstate.edu
Xavier Warren Congressional Partners xwarren@congressionalpartners.com
Summary
Research Interests In Microelectronics
Research Centers & Institutes
Facilities and Infrastructure
Civil & Architectural Engineering Bio-inspired Infrastructure, Building Energy Systems, Environmental Management and Policy, Transportation Planning, Sustainable and Resilient Infrastructure, Micro and Macro Mechanics of Materials, Lattice and Cementitious Structures Computer Science Health/Bio Informatics, Cyber-security, Bio-mechatronics, Networking, HumanComputer Interfacing, Software Systems, Image processing, Natural Language Processing, Adhoc Networks Electrical & Computer Engineering Signal/Image Processing, Nano- Sensors, Cyber-security, Cyber-Physical Systems, Wireless Communication, Embedded Systems, Autonomous Robotics, Intelligent Controls Systems, Power Systems Mechanical & Manufacture Engineering Mobile Robotics, Autonomy, Remote Sensing and Data Fusion, Hurricane Surge Modeling, Mechatronics, Additive Manufacturing, Vibration Control, Multi-Body and Nonlinear Dynamics Applied and Industrial Technology Aviation Management, Unmanned Aerial Vehicles, Mechatronics, industrial robotics
TSU Interdisciplinary Graduate Engineering Research (T.I.G.E.R.) Institute Mechatronics Cybersecurity Nano-materials Advanced Visualization and Computing Bioinformatics Center of Excellence in Information Systems and Engineering Management Center of Excellence for Battlefield Sensor Fusion SMART Center Tech Innovation AI Center for Entrepreneurship and Economic Development
Research facilities include over (100) basic science research laboratories and (8) research centers and institutes equipped with state-of-the-art equipment, technologies, and software that include high-performance computing capabilities, advanced imaging technologies, and analytical instrumentation.
Summary
Research Capabilities & Capacity
Future Research Aspirations
Advanced Materials and Manufacturing, Artificial Intelligence, Bioinformatics, cybersecurity, machine learning, mechatronics, renewable energy systems, Building Information Modeling, 3-D Visualization The TIGER Institute is a graduate-level research facility for the College of Engineering at Tennessee State University. Its goal is to help faculty, staff and students conduct research in areas of national STEM workforce needs as advocated by the National Academy of Engineering. Our current focus resides in the areas of science visualization and computation, cyber-security, smart sensor networking, nano-materials and advanced energy systems. Research Labs We have four main labs that comprise the sum our research. They include The Biomechatronics & Agriculture Robotics, Cyber Security, Material Sciences and, The CAVE. The TIGER Institute is the premier science and engineering research unit at the university, and a major applied research organization that focus on addressing solutions related to national security, business competitiveness, and quality of life To strengthen and build research capacity, capabilities, and workforce development related to CHIPS
TEXAS SOUTHERN UNIVERSITY
MISSION STATEMENT Texas Southern University is a student-centered comprehensive doctoral university committed to ensuring equality, offering innovative programs that are responsive to global challenges, and transforming diverse students into lifelong learners, engaged citizens, and creative leaders.
CONTACT INFORMATION
Michelle Penn-Marshall, PhD VP Research and Innovation michelle.penn-marshall@tsu.edu
Xuemin Chen, PhD xuemin.chen@tsu.edu lli1@tnstate.edu
Daniel Vrinceanu, PhD Professor, Physics daniel.vrinceanu@tsu.edu
Mark Harvey, PhD Associate Professor, mark.harvey@tsu.edu
Summary
Strategic Research & Innovative Priorities
Microelectronics & Packaging High Performing Computing Center Low dimensional nano-materials Cybersecurity Signal Processing/Computer Vision Advanced Manufacturing Workforce Development & Entrepreneurship Computational Modeling of Complex Systems
Core Competencies
Silicon Photomultipliers for detection of light photon-by-photon Quantum wires and molecular transistors Quantum Dots and lowdimensional defects/ Metrology < 10 nm High Performance Computing Scientific Machine Learning Digital twins and simulations for analog semiconductor devices and multimodal microelectronics Optimization: Supply Chain, Chip Architecture, Routing
Key Faculty
Dr. Daniel Vrinceanu (Physics) Dr. Mark Harvey (Physics) Dr. Graham Thomas (Engineering) Dr. Xuemin Chen (Engineering) Dr. Fengxiang Qiao (Engineering) Dr. Aladdin Sleem (Computer Science) Dr. Lila Ghemri (Computer Science) Dr. Xin Wei (Chemistry) Dr. Yunjiao Wang (Mathematics)
Future Research Aspirations
Scientific Machine Learning for nanostructures in relation to memristors and neuromorphic processors
TUSKEGEE UNIVERSITY
MISSION STATEMENT Tuskegee University advances knowledge, leadership and service through teaching, research, and outreach programs. Uniquely positioned as a historically black, private, state-related, landgrant University, Tuskegee faculty, staff and students transfer knowledge and transform our communities, state, nation, and world.
CONTACT INFORMATION S. Keith Hargrove, PhD Provost & Sr. VP for Academic Affairs skhargrove@tuskegee.edu
Summary
Core Competencies
Advanced materials such as nanomaterials, composites and polymers; fracture mechanics Biomedical sciences, cyber-security, AI/ML, and data sciences Agricultural and environmental science, climate science and farm livestock
Key Academic Programs
PhD – Materials Science Engineering BS/MS in Electrical Engineering BS/MS in Mechanical Engineering BS in Data Science
Key Faculty & Core Competencies
Relevant Awards to Support Semiconductors
Dr. L. Jiang, Professor of Electrical Engineering – Fabrication of semiconductors; MEMS Dr. Fan Wu, Professor of Computer Science and Department Head – Cyber-security and Data Science Dr. V. Rangari, Professor, Professor of Materials Science – Materials for semiconductors and packaging; Nanoparticles synthesis, characterization, and processing capabilities
Intel Increasing Diversity in Semiconductor Science and Engineering Higher Education Program Project: Semiconductor Manufacturing Education and Research Experience for Undergraduates - $400k NSF Scholarship for Service (SFS) Program Project: Collaborative Research: Renewal: Strengthening the National Cybersecurity Workforce - $2,568,522.
What’s Next for the Network?
Reconvene the HBCU Chips Network to map out a formalized strategy which could include the following: Explore the establishment of regional/local Centers of Excellence as part of discrete yet connected network (No one Center can do it all). ontinue to engage industry, and government to make meaningful C investments on campus’ in Research and Development (e.g., tools, facilities and characterization equipment etc.) old federal government accountable to ensure equitable H distribution of funding (Can only do this as a collective and unified voice..) Establish Industry Roundtable to keep abreast of current and future needs, while increasing accessibility.