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Highly Parallel, Fast Memory, Peripheral Access for RISC-V Many-Core Processors
Completed
TRL 5 (started at 3, targeting 5)
Description
LeWiz research from NASA Phase 1 I-Corps program showed verystrong interest in LeWiz solutions from NASA telescope team, DoD lab and commercial storage customers with potential for immediate revenue. Previously, LeWiz developed fault-tolerant (FT) 1) high performance network-on-chip bus (NOC) for multi-channel access supporting High Bandwidth Memory controller and/or high speed peripherals, and 2) 64-bit, 6-stage RISC-V CPU core with NOC interface capable up to 500K cores in a system. This Phase 2 proposed to further develop the Phase 1solutions to meet the immediate customer requirements and productize the solutions for infusion intoNASA and commercial customer products. 2 subsystems would be developed i) spectrometer memory/peripheral subsystem with highly parallelized access channels supportingDDR4 memory, 100Gbps Ethernet, multiple digital-to-analog converters, ii) RISC-V processor with enhanced NOC router integrated to the highly parallel NOC/HBM controller. The solution would also meet NASA SBIR Z2.02 Topic requirements for A fault-tolerant RISC-V processor IP core ...that is augmented to provide data parallelism, which is needed to accelerate image processing and science data processing. andenablingfuture development of accelerators and co-processors for many-core high-performance processingarchitecture advancing state of the art FT processors for space flights and autonomous applications. No other known solution is as advanced as the proposed for space applications. The project will be carried outover 2 years in the US. I-Corps research showed very strong interest in LeWiz solutions - NASA telescope team, DoD lab and storage customers - potential for immediate revenue. LeWiz developed fault-tolerant (FT) 1) high performance network-on-chip bus (NOC) for multi-channel access HBM and/or high speed peripherals, and 2) 64-bit, 6-stage RISC-V CPU core with NOC capable >500K cores. Phase 2 develops solutions to meet the immediate customer requirements and productize the solutions for infusion into NASA and commercial. 2 subsystems i) spectrometer memory/peripheral subsystem with highly parallelized access for DDR4, 100Gbps Ethernet, DACs, ii) RISC-V CPU + enhanced NOC router integrated to NOC/HBM controller. The solution would also meet NASA SBIR Z2.02 Topic for "A fault-tolerant RISC-V ... core ... that is augmented to provide data parallelism, ... needed to accelerate image ... and science data processing." and enabling accelerators for many-core systems, advancing state of the art FT processors for space flights and autonomous applications. No other known solution is as advanced for space applications. 1.1 Develop spec of the spectrometer memory/peripheral subsystem (SMPS) and the integrated FT RISC-V + NOC/HBM controller (R5FT-Mem Subsystem). 1.2 Develop SMPS design. Modify the NOC/HBM controller to support NASA spectrometer DSP applications with integrated 100Gbps Ethernet, DACs and DDR4. 1.3 Provide support to MKID Team for RFSoC FPGA integration, development and testing. 1.4 Integrate the NOC/HBM controller with the FT RISC-V CPU core to formR5FT-Mem Subsystem 2.1 Implement fault tolerant support in the SMPS and R5FT-Mem subsystems 2.2 Thorough verification of the designs. Develop verification plan for each design, create test benches, test vectors and verify the designs. 2.5 Develop plan for Phase 3 Deliverables: reports, specs, test plans, code, test benches, test cases, test results
Benefits
NASA applications include flight control, landing control, instrumentations, payloads, sensors, navigation systems, networking, scientific processing, image processing, communication sub-systems for satellites, space stations, vehicles, space habitats. Very strong interest from NASA Microwave Kinetic Inductance Detector Team for space telescope applications in spectrometer (Origin Space Telescope) and RF-submillimeter (SELFI) programs Non-NASA applications include flight/landing control, instrumentations, payloads, sensors, navigation, networking, image processing, communication subsystems for satellites, space stations, air/space/ground/sea vehicles, weapon systems. Strong interest from Tier-1 network storage vendor. Contract negotiation in progress for custom development Strong interest from DoD research lab for space systems
Details
| Technology area | Flight Computing and Avionics |
| Program | Small Business Innovation Research/Small Business Tech Transfer (SBIR/STTR) |
| Lead organization | Goddard Space Flight Center, Greenbelt, MD |
| Start date | 2022-04-26 |
| End date | 2025-10-25 |
Project contacts
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This is early/mid-stage (TRL 5) — the most realistic path in is NASA SBIR/STTR, which funds small businesses and research institutions to develop technology aligned with NASA's needs (equity-free, phased funding). Check whether a current SBIR/STTR solicitation topic overlaps with this project's technology area, or contact the project directly (above) to ask.
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