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Gayatri Mehta

Title: Professor

Department: Electrical Engineering

College: College of Engineering

Curriculum Vitae

Curriculum Vitae Link

Education

  • PhD, University of Pittsburgh, 2009
    Major: Electrical Engineering
  • MS, University of Pittsburgh, 2003
    Major: Telecommunications
  • MTech, Panjab University,Chandigarh, India., 2001
    Major: Microelectronics
  • BTech, National Institute of Technology, Jalandhar, India, 1999
    Major: Electronics and Communication Engineering

Current Scheduled Teaching

EENG 5540.001Digital Integrated Circuit DesignFall 2024
EENG 5540.600Digital Integrated Circuit DesignFall 2024
EENG 5890.007Directed StudyFall 2024
EENG 6950.004Doctoral DissertationFall 2024
EENG 4910.001Senior Design IFall 2024 Syllabus
EENG 4710.001VLSI DesignFall 2024 Syllabus
EENG 4920.002Cooperative Education in Electrical EngineeringSummer 10W 2024

Previous Scheduled Teaching

EENG 4920.002Cooperative Education in Electrical EngineeringSummer 10W 2024
EENG 6950.007Doctoral DissertationSpring 2024
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2024 SPOT
EENG 4760.001Reconfigurable ComputingSpring 2024 Syllabus SPOT
EENG 5560.001Reconfigurable ComputingSpring 2024 SPOT
EENG 5560.600Reconfigurable ComputingSpring 2024 SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringFall 2023
EENG 5540.001Digital Integrated Circuit DesignFall 2023 SPOT
EENG 5890.007Directed StudyFall 2023
EENG 5890.021Directed StudyFall 8W2 2023
EENG 4710.001VLSI DesignFall 2023 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer 5W2 2023
EENG 5890.006Directed StudySummer 10W 2023
EENG 4900.001Special Problems in Electrical EngineeringSummer 10W 2023
EENG 4920.001Cooperative Education in Electrical EngineeringSpring 2023
EENG 5890.011Directed StudySpring 2023
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2023 SPOT
EENG 5550.600Hardware Design Methodologies for ASICs and FPGAsSpring 2023 SPOT
EENG 4760.001Reconfigurable ComputingSpring 2023 Syllabus SPOT
EENG 5560.001Reconfigurable ComputingSpring 2023 SPOT
EENG 5560.600Reconfigurable ComputingSpring 2023 SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringFall 2022
EENG 5540.001Digital Integrated Circuit DesignFall 2022 SPOT
EENG 5890.007Directed StudyFall 2022
EENG 4710.001VLSI DesignFall 2022 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer 5W2 2022
EENG 5950.006Master's ThesisSummer 10W 2022
EENG 5890.011Directed StudySpring 2022
EENG 6950.007Doctoral DissertationSpring 2022
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2022 SPOT
EENG 5950.006Master's ThesisSpring 2022
EENG 4760.001Reconfigurable ComputingSpring 2022 Syllabus SPOT
EENG 5560.001Reconfigurable ComputingSpring 2022 SPOT
EENG 5560.600Reconfigurable ComputingSpring 2022 SPOT
EENG 5540.001Digital Integrated Circuit DesignFall 2021 SPOT
EENG 5540.600Digital Integrated Circuit DesignFall 2021 SPOT
EENG 5890.007Directed StudyFall 2021
EENG 6950.004Doctoral DissertationFall 2021
EENG 5950.008Master's ThesisFall 2021
EENG 4710.001VLSI DesignFall 2021 Syllabus SPOT
EENG 5950.006Master's ThesisSummer 10W 2021
EENG 5520.001Design and Testing of Digital SystemsSpring 2021 SPOT
EENG 5520.005Design and Testing of Digital SystemsSpring 2021
EENG 5890.001Directed StudySpring 8W2 2021
EENG 5890.009Directed StudySpring 2021
EENG 6950.007Doctoral DissertationSpring 2021
EENG 5950.006Master's ThesisSpring 2021
EENG 4760.001Reconfigurable ComputingSpring 2021 Syllabus SPOT
EENG 5560.001Reconfigurable ComputingSpring 2021 SPOT
EENG 5560.600Reconfigurable ComputingSpring 2021 SPOT
EENG 5540.001Digital Integrated Circuit DesignFall 2020 SPOT
EENG 5540.002Digital Integrated Circuit DesignFall 2020 SPOT
EENG 5540.600Digital Integrated Circuit DesignFall 2020 SPOT
EENG 5890.011Directed StudyFall 8W2 2020
EENG 5890.011Directed StudyFall 2020
EENG 6950.004Doctoral DissertationFall 2020
EENG 4900.011Special Problems in Electrical EngineeringFall 2020
EENG 4710.001VLSI DesignFall 2020 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer 10W 2020
EENG 6950.004Doctoral DissertationSummer SUM 2020
EENG 4920.002Cooperative Education in Electrical EngineeringSpring 2020
EENG 6950.007Doctoral DissertationSpring 2020
EENG 4760.001Reconfigurable ComputingSpring 2020 Syllabus
EENG 5560.001Reconfigurable ComputingSpring 2020
EENG 5560.600Reconfigurable ComputingSpring 2020
EENG 4910.001Senior Design ISpring 2020 Syllabus
EENG 6900.001Special ProblemsSpring 2020
EENG 4920.001Cooperative Education in Electrical EngineeringFall 2019
EENG 5540.001Digital Integrated Circuit DesignFall 2019 SPOT
EENG 5540.600Digital Integrated Circuit DesignFall 2019 SPOT
EENG 5890.007Directed StudyFall 2019
EENG 6950.004Doctoral DissertationFall 2019
EENG 5950.008Master's ThesisFall 2019
EENG 4710.001VLSI DesignFall 2019 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer 10W 2019
EENG 5890.006Directed StudySummer 10W 2019
EENG 4920.002Cooperative Education in Electrical EngineeringSpring 2019
EENG 6950.007Doctoral DissertationSpring 2019
EENG 5950.006Master's ThesisSpring 2019
EENG 4760.001Reconfigurable ComputingSpring 2019 Syllabus SPOT
EENG 4910.001Senior Design ISpring 2019 Syllabus
EENG 4920.001Cooperative Education in Electrical EngineeringFall 2018
EENG 5540.001Digital Integrated Circuit DesignFall 2018 SPOT
EENG 5890.007Directed StudyFall 2018
EENG 6950.004Doctoral DissertationFall 2018
EENG 4710.001VLSI DesignFall 2018 Syllabus SPOT
EENG 4920.002Cooperative Education in Electrical EngineeringSummer 5W2 2018
EENG 5890.006Directed StudySummer 10W 2018
EENG 4900.007Special Problems in Electrical EngineeringSummer 10W 2018
EENG 4920.002Cooperative Education in Electrical EngineeringSpring 2018
EENG 5890.009Directed StudySpring 2018
EENG 6950.007Doctoral DissertationSpring 2018
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2018 SPOT
EENG 6940.009Individual ResearchSpring 2018
EENG 5950.006Master's ThesisSpring 2018
EENG 4760.001Reconfigurable ComputingSpring 2018 Syllabus SPOT
EENG 4900.007Special Problems in Electrical EngineeringSpring 2018
EENG 5540.001Digital Integrated Circuit DesignFall 2017 SPOT
EENG 6940.007Individual ResearchFall 2017
EENG 5950.008Master's ThesisFall 2017
EENG 4710.001VLSI DesignFall 2017 Syllabus SPOT
EENG 4920.002Cooperative Education in Electrical EngineeringSummer 5W2 2017
EENG 5950.006Master's ThesisSummer 10W 2017
EENG 5890.009Directed StudySpring 2017
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2017 SPOT
EENG 5950.006Master's ThesisSpring 2017
EENG 4760.001Reconfigurable ComputingSpring 2017 Syllabus SPOT
EENG 4900.007Special Problems in Electrical EngineeringSpring 2017
EENG 5540.001Digital Integrated Circuit DesignFall 2016 SPOT
EENG 5890.007Directed StudyFall 2016
EENG 5950.008Master's ThesisFall 2016
EENG 4710.001VLSI DesignFall 2016 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer 5W2 2016
EENG 5890.006Directed StudySummer 10W 2016
EENG 4900.007Special Problems in Electrical EngineeringSummer 10W 2016
EENG 5940.009Advanced Topics in Electrical EngineeringSpring 2016 SPOT
EENG 4920.002Cooperative Education in Electrical EngineeringSpring 2016
EENG 5950.006Master's ThesisSpring 2016
EENG 4910.001Project VII Senior Design ISpring 2016 SPOT
EENG 4990.001Project VIII Senior Design IISpring 2016 SPOT
EENG 5540.001Digital Integrated Circuit DesignFall 2015 SPOT
EENG 5890.002Directed StudyFall 2015
EENG 4910.001Project VII Senior Design IFall 2015 SPOT
EENG 4990.001Project VIII Senior Design IIFall 2015 SPOT
EENG 4710.001VLSI DesignFall 2015 Syllabus SPOT
EENG 4920.001Cooperative Education in Electrical EngineeringSummer SUM 2015
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2015
EENG 4910.001Project VII Senior Design ISpring 2015
EENG 4990.001Project VIII Senior Design IISpring 2015
EENG 5540.001Digital Integrated Circuit DesignFall 2014
EENG 4710.001VLSI DesignFall 2014 Syllabus
EENG 5950.006Master's ThesisSummer 10W 2014
EENG 4900.008Special Problems in Electrical EngineeringSummer SUM 2014
EENG 5890.009Directed StudySpring 2014
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2014
EENG 5950.006Master's ThesisSpring 2014
EENG 4910.001Project VII Senior Design ISpring 2014
EENG 4990.001Project VIII Senior Design IISpring 2014
EENG 5540.001Digital Integrated Circuit DesignFall 2013
EENG 5890.002Directed StudyFall 2013
EENG 5950.009Master's ThesisFall 2013
EENG 4710.001VLSI DesignFall 2013 Syllabus
EENG 5890.001Directed StudySummer 10W 2013
EENG 2710.003Digital Logic DesignSpring 2013 Syllabus
EENG 5950.006Master's ThesisSpring 2013
EENG 5900.002Special ProblemsSpring 2013
EENG 5540.001Digital Integrated Circuit DesignFall 2012
EENG 5890.002Directed StudyFall 2012
EENG 5950.009Master's ThesisFall 2012
EENG 4710.001VLSI DesignFall 2012 Syllabus
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2012
EENG 4910.001Project VII Senior Design ISpring 2012
EENG 5540.001Digital Integrated Circuit DesignFall 2011
EENG 5950.009Master's ThesisFall 2011
EENG 4710.001VLSI DesignFall 2011 Syllabus
EENG 5890.001Directed StudySummer 10W 2011
EENG 2710.001Digital Logic DesignSpring 2011 Syllabus
EENG 5550.001Hardware Design Methodologies for ASICs and FPGAsSpring 2011
EENG 5950.006Master's ThesisSpring 2011
EENG 5540.001Digital Integrated Circuit DesignFall 2010
EENG 5890.002Directed StudyFall 2010
EENG 5950.009Master's ThesisFall 2010
EENG 4900.001Special Problems in Electrical EngineeringFall 2010
EENG 4710.001VLSI DesignFall 2010 Syllabus
EENG 5950.006Master's ThesisSummer 10W 2010
EENG 5950.006Master's ThesisSpring 2010
EENG 5900.006Special ProblemsSpring 2010
EENG 4900.006Special Problems in Electrical EngineeringSpring 2010
EENG 5900.004Special ProblemsFall 2009
EENG 4710.001VLSI DesignFall 2009

Published Intellectual Contributions

    Book Chapter

  • Gayatri Mehta and Alex Jones. (2010). An Energy-Efficient Coarse-Grained Reconfigurable Fabric for Embedded Computing.
  • Conference Proceeding

  • Li, R., Yadav, S., Wu, Q., Kavi, K.M., Mehta, G., Yadwadkar, N.J., John, L.K. Performance implications of Async Memcpy and UVM: A tale of two data transfer modes. Ghent, 2023 IEEE International Symposium on Workload Characterization (IISCW-2023).
  • Vasireddy, P., Kavi, K.M., Weaver, A., Mehta, G. (2023). Streaming Sparse Data on Architectures with Vector Extensions using Near Data Processing. ACM.
  • Li, R.H., Wu, Q., Kavi, K.M., Mehta, G., Yadwadkar, N., John, L. (2023). NextGen-Malloc: Giving Memory Allocator Its Own Room in the House. 6. New York, ACM 19th Workshop on Hot Topics in Operating Systems.
  • Mosquera, F., Kavi, K.M., Mehta, G., John, L. (2023). Creating False Cache Hits and Misses To Mitigate Side-Channel Attacks. IEEE Proceesings of the Silicon Valley Cybsersecurity Conference (SVCC 2023).
  • Omary, D., Dawn, M., Quonoey, B., Choi, W., Mehta, G. (2022). Data acquisition and Online Pressure Map Generation for a Defect-engineered MoS2-based Piezoelectric Sensor Array. IEEE Dallas Circuits and Systems Conference.
  • Omary, D., Mehta, G. (2022). Mixed Reality Tailored to the Visually-Impaired. IEEE Dallas Circuits and Systems Conference.
  • Chakraborty, A., Varanasi, M.R., Garcia, O.N., Mehta, G. (2022). Area and Power Analysis of a Scalable Primitive Polynomial Computation Circuit over the Field GF(2). IEEE Dallas Circuits and Systems Conference.
  • Simpson, Z., Chakraborty, Varanasi, M.R., Mehta, G., Garcia, O.N. (2022). Power, Performance, and Area Analysis of Hardware Design Techniques for GF(2^k) Greatest Common Divisor Computation. IEEE Dallas Circuits and Systems Conference.
  • Weaver, A., Kavi, K.M., Vasireddy, P., Mehta, G. (2022). Memory-side acceleration and sparse compression for quantized packed convolutions. IEEE 34th International Symposium on Computer Architecture and High Performance Computing (SBAC-2022).
  • Vasireddy, P., Kavi, K.M., Mehta, G. (2022). Sparse-T: Hardware accelerator thread for unstructured sparse data processing. San Diego, IEEE/ACM International Conference on Computer Aided Design (ICCAD-2022).
  • Adavally, S., Kavi, K., Mehta, G. (2021). Subpage Migration in Heterogeneous Memory Systems. Proceedings of the 2nd Workshop on Heterogeneous Memory Systems (HMEM-2021), Colocated with ICS 2021.
  • Tasneem, N., Kota, D., Mahbub, I., Mehta, G., Namuduri, K., Ceders, A. (2020). A Dry Electrode-Based ECG Sensor with Motion Artifacts Cancellation and Signal Analysis for Heart Irregularity Detection. 2020 IEEE Sensors Conference.
  • Cheng, X., Zhao, H., Kandemir, M., Jiang, B., Mehta, G. (2020). AMOEBA: a coarse-grained reconfigurable architecture for dynamic GPU scaling. The 34th ACM International Conference on Supercomputing. https://dl.acm.org/doi/abs/10.1145/3392717.3392738
  • Mosquera, F., Gulur, N., Kavi, K.M., Mehta, G., Sun, H. (2020). CHASM: Security Evaluation of Cache Mapping Schemes. International Conference on Embedded Computer Systems: Architectures, Modeling and Simulation.
  • Cheng, X., Zhao, H., Kandemir, M., Jiang, B., Mehta, G. (2020). AMOEBA: A Coarse Grained Reconfigurable Architecture for Dynamic GPU Scaling. Proceedings of the 34th ACM International Conference on Supercomputing.
  • Namuduri, K., Mehta, G. (2015). " Characherizing Rate Distortion Region for Video Coding from First Principles" CISS Johns Hopkins University.
  • A. Sistla, N. Parde, K. Patel, G. Mehta. (2013). Cross-architectural study of custom reconfigurable devices using crowdsourcing.
  • G. Mehta, X. Luo, N. Parde, K. Patel, B. Rodgers, A. Sistla. (2013). UNTANGLED - An Interactive Mapping Game for Engineering Education.
  • T. Hatch, B. Copley, J. Garcia, H. Zhang, G. Mehta, S. Boetcher. (2011). Small-scale power generation and storage using piezoelectric films.
  • G. Mehta and A. K. Jones. (2010). An Architectural Space Exploration for Domain Specific Reconfigurable Computing.
  • M. Gomathisankaran, G. Mehta, and K. Namuduri. (2010). Power, Performance and Security Optimized Hardware Design for H.264.
  • G.Mehta,C.J.Ihrig,and A.K.Jones. (2008). Reducing Energy by Exploring Heterogeneity in a Coarse-grain Fabric.
  • G.Mehta, J.Stander, M.Baz, B.Hunsaker and A.K.Jones. (2007). Interconnect Customization for a Coarse-grained Reconfigurable Fabric.
  • G.Mehta, R.Hoare,J.Stander,and A.K.Jones. (2006). A Low-Energy Reconfigurable Fabric for the SuperCISC Architecture.
  • G.Mehta,R.Hoare,J.Stander,and A.K.Jones. (2006). Design Space Exploration for Low-Power Reconfigurable Fabrics.
  • R.Hoare,A.K.Jones,D.Kusic,J.Fazekas,G.Mehta and J.Foster. (2005). A VLIW Processor with Hardware Functions: Increasing Performance While Reducing Power.
  • Journal Article

  • Mosquera, F., Kavi, K.M., Ekanayake, A., Mehta, G., John, L. SecurityCloak: Protection against cache timing and speculative memory attacks. Journal of Systems Architecture. Elsevier.
  • Mosquera, F., Kavi, K.M., Mehta, G., John, L.K. Guard Cache: Creating Noisy Side-Channels. IEEE Computer Architecture Letters. 4 pages. Piscataway, New Jersey,
  • Chakraborty, A., Simpson, Z., Balavendran Joseph, R., Mehta, G. (2021). A Comparative Study of Gameplay of Different Sets of Players in an Engineering Mapping Game. International Journal of Computer and Information Technology. 10 (4)
  • Simpson, Z., Nguyen, L., Drewfs, N., Mehta, G. (2021). An Interactive Design Framework to Explore Fault-Tolerant and Low-Energy Reconfigurable Architectures. European Journal of Applied Sciences. 9 (3)
  • Balavendran Joseph, R., Tunks, J., Mehta, G. (2021). Convergent and Divergent Thinking Skills in Electrical Engineering Gaming Framework. European Journal of Applied Sciences. 9 (2)
  • Chakraborty, A., Ojo, E., Quonoey, B., Mehta, G. (2021). Improving Learning Experience of People with Cognitive Disabilities using Serious Games: A Review. European Scientific Journal. 17 (35)
  • Kota, D., Tasneem, N., Kakaraparty, K., Mahbub, I., Mehta, G., Namuduri, K. (2021). A Low-power Dry Electrode-based ECG Signal Acquisition with De-noising and Feature Extraction. Journal of Signal Processing Systems, Springer.
  • Choi, W., Prasad, V., Mehta, G., kim, j., lee, e. (2021). Asymmetric 2D MoS2 for Scalable and High-Performance Piezoelectric Sensors. ACS Applied Materials & Interfaces. ACS Publications.
  • Choi, W., Mehta, G., Kim, J. (2020). Stable and high-performance piezoelectric sensor via CVD grown WS2. Nanotechnology. 31 445203. https://iopscience.iop.org/article/10.1088/1361-6528/aba659
  • Balavendran Joseph, R., Pal, A., Tunks, J.L., Mehta, G. (2019). Intrinsic vs Extrinsic Motivation in an Interactive Electrical Engineering Game. Journal of Advances in Computer Engineering and Technology. 5 (1)
  • Balavendran Joseph, R., Mehta, G. (2019). Contextual game based framework to solve mapping challenges in Electrical Engineering. Computer Game Development and Education : An International Journal(CGDEIJ). 1 (1)
  • Balavendran Joseph, R., Mehta, G. (2018). How does knowledge evolve using adaptive heuristics learning in an engineering game?. Advances in Social Sciences Research Journal. 5 (10)
  • Chakraborty, A., Simpson, Z.P., Tunks, J.L., Mehta, G. (2018). Solving Electrical Engineering Puzzles Using Spatial Reasoning. Journal of Education and Cultural Studies. Scholink.
  • Balavendran Joseph, R., Malla, T., Miles, T., Tunks, J., Mehta, G. (2017). Spatial Intelligence as Related to Success on Regular and Constrained Electronic Puzzle Formats. Global Journal of Computer Science and Technology: A Hardware & Computation. 17 (1) Global Journals Inc. (USA).
  • Mehta, G., Tunks, J.L., Sanagapaty, K., Pal, A., Balavendran Joseph, R. (2017). Constructing Knowledge in an Interactive Game-like Design Environment for STEM Education. International Journal of Information and Education Technology.
  • Mehta, G., Kellerstedt, B.G., Tunks, J.L., Sanagapaty, K., Pal, A., Joseph, R. (2017). A Study of Self-regulated Learning in an Online Gaming Environment for Engineering Education..
  • A. Sistla, K. Patel, and G. Mehta. (2015). Crowdsourcing for Mapping in Design Space Exploration of Custom Reconfigurable Architecture Designs. Human Computation Journal. 2 (1)
  • G. Mehta, K. Patel, and N. S. Pollard. (2015). On Fast Iterative Mapping Algorithms for Stripe-based Reconfigurable Architectures. International Journal of Electronics.
  • G. Mehta, X. Luo, A. Sistla, A. Marin, M. Malladi, K. Patel, and B. Rodgers. (2014). On Multiplayer Techniques for Crowdsourcing Mapping onto Custom Domain-Specific Architectures.
  • H. S. Kim, V. Varanasi, G. Mehta, H. Zhang, T. Choi, K. Namuduri, J. Vingren, N. D'Souza, and R. Kowal. (2013).
  • Kim, H.S., Varanasi, V., Mehta, G., Zhang, H., Choi, T., Namuduri, K., Vingren, J.L., D’Souza, N.A., Kowal, R. (2013). Circuits, Systems, and Technologies for Detecting the Onset of Sudden Cardiac Death Through EKG Analysis. IEEE Circuits and Systems Magazine. 13 (4) 10–25. IEEE.
  • G. Mehta, K. Patel, N. Parde, and N. S. Pollard. (2013). Data-driven mapping using local patterns.
  • G. Mehta and A. K. Jones. (2013). Implementation and Validation of Architectural Space Exploration Techniques for Domain-Specific Reconfigurable Computing.
  • G. Mehta, C. Crawford, X. Luo, N. Parde, K. Patel, B. Rodgers, A. Sistla, A. Yadav, M. Reisner. (2013). UNTANGLED - A game environment for discovery of creative mapping strategies.
  • G. Mehta, J. Stander, M. Baz, B. Hunsaker, and A. K. Jones. (2009). Interconnect Customization for a Hardware Fabric.
  • G.Mehta, R.R. Hoare,J.Stander,J.Lucas, B.Hunsaker and A.K.Jones. (2006). A Low-Energy Reconfigurable Fabric for the SuperCISC Architecture.
  • A.K.Jones,R.Hoare, D.Kusic,J.Fazekas, G.Mehta,and J.Foster. (2006). A VLIW Processor with Hardware Functions:Increasing Performance While Reducing Power.
  • A.K.Jones, R.Hoare, D.Kusic, G.Mehta, J.Fazekas,and J.Foster. (2006). Reducing Power while Increasing Performance with SuperCISC.
  • Poster

  • Chivukula, S., Koppikar, S., Patel, K., Pal, A., Sattiraju, K., Mehta, G. (2017). "An Interactive Framework to Explore Design Space Using Human Computation and Automated Algorithms". Other.
  • G. Mehta, S. Cook, C. Crawford, A. Odunsi, K. Patel, B. Rogers, and A. Yadav. (2012). Game-driven discovery of new mapping strategies for custom domain-specific architectures.

Contracts, Grants and Sponsored Research

    Contract

  • Pottathuparambil, R.J. (Co-Principal), Gafford, L.C. (Principal), Ludi, S.A. (Co-Principal), Mehta, G. (Co-Principal), D'Souza, N.A. (Co-Principal), "Explore STEM! Summer program," sponsored by Texas Workforce Commission (TWC), State, $130203 Funded. (2020 - 2021).
  • Grant - Research

  • Kavi, K.M. (Principal), Mehta, G. (Co-Principal), Gulur, N. (Co-Principal), "EMPOWER: High-Performance, Low-Power and Fully Programmable Neural Network Architecture," sponsored by Semiconductor Research Corporation, National, $240000 Funded. (2020 - 2022).
  • Choi, W. (Principal), Mehta, G. (Co-Principal), "REU supplement - Flexible wireless joint sensing system for knee arthroplasty," sponsored by NSF, Federal, $10000 Funded. (2021 - 2022).
  • Choi, W. (Principal), Mehta, G. (Co-Principal), "Eager: Flexible wireless joint sensing system for knee arthroplasty," sponsored by NSF, Federal, $150000 Funded. (2019 - 2021).
  • Mehta, G. (Principal), "Visual Architectures: Engaging Crowds in Design and Discovery for Custom Reconfigurable Devices," sponsored by National Science Foundation, Federal, $290000 Funded. (2016 - 2021).
  • Mehta, G. (Principal), "Harnessing human intelligence for mapping on custom reconfigurable architectures," sponsored by National Science Foundation, Federal, $515896 Funded. (2012 - 2017).
  • Mehta, G. (Principal), "Discovering new mapping strategies and architectures for coarse-grained reconfigurable devices through crowdsourcing and data-driven techniques," sponsored by National Science Foundation, Federal, $194996 Funded. (2011 - 2013).
  • Mehta, G. (Co-Principal), Kavi, K.M. (Principal), Gulur, N.D. (Other), "EMPOWER: High-Performance, Low-Power and Fully Programmable Neural Network Architecture," sponsored by Semiconductor Research Corporation, NFP, Funded. (2020 - 2022).
  • Zhu, D. (Co-Principal), Mehta, G. (Co-Principal), Choi, W. (Principal), "EAGER: Flexible wireless joint sensing system for knee arthroplasty," sponsored by National Science Foundation, FED, Funded. (2019 - 2022).
  • Mehta, G. (Co-Principal), Zhang, H. (Co-Principal), Namuduri, K. (Co-Principal), D'Souza, N.A. (Principal), "SAW and self sensing UAS structural health monitoring," sponsored by ResilienX, IND, Funded. (2020 - 2021).
  • Mehta, G. (Principal), "SHF: Small: Visual Architectures: Engaging Crowds in Design and Discovery for Custom Reconfigurable Devices," sponsored by National Science Foundation, FED, Funded. (2016 - 2021).
  • Mehta, G. (Principal), "Harnessing human intelligence for mapping on custom reconfigurable architectures," sponsored by National Science Foundation, Federal, Funded. (2012 - 2017).
  • Mehta, G. (Principal), "SHF: Small: Harnessing Human Intelligence for Mapping on Custom Reconfigurable Architectures," sponsored by National Science Foundation, FED, Funded. (2012 - 2017).
  • Mehta, G. (Principal), "SHF: Small: Harnessing Human Intelligence for Mapping on Custom Reconfigurable Architectures "REU-Supplement"," sponsored by National Science Foundation, FED, Funded. (2012 - 2017).
  • Mehta, G. (Principal), "Discovering new mapping strategies and architectures for coarse-grained reconfigurable devices through crowdsourcing and data-driven techniques," sponsored by National Science Foundation, Federal, Funded. (2011 - 2013).
  • Grant - Service

  • Mehta, G. (Co-Principal), Gafford, L.V. (Principal), D'Souza, N.A. (Principal), Pottathuparambil, R.J. (Co-Principal), Ludi, S.A. (Co-Principal), "Explore STEM! Summer program," sponsored by Texas Workforce Commission, ST, Funded. (2021 - 2022).
,
Overall
Summative Rating
Challenge and
Engagement Index
Response Rate

out of 5

out of 7
%
of
students responded
  • Overall Summative Rating (median):
    This rating represents the combined responses of students to the four global summative items and is presented to provide an overall index of the class’s quality. Overall summative statements include the following (response options include a Likert scale ranging from 5 = Excellent, 3 = Good, and 1= Very poor):
    • The course as a whole was
    • The course content was
    • The instructor’s contribution to the course was
    • The instructor’s effectiveness in teaching the subject matter was
  • Challenge and Engagement Index:
    This rating combines student responses to several SPOT items relating to how academically challenging students found the course to be and how engaged they were. Challenge and Engagement Index items include the following (response options include a Likert scale ranging from 7 = Much higher, 4 = Average, and 1 = Much lower):
    • Do you expect your grade in this course to be
    • The intellectual challenge presented was
    • The amount of effort you put into this course was
    • The amount of effort to succeed in this course was
    • Your involvement in course (doing assignments, attending classes, etc.) was
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