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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Analysis of PTL routes for LSI of superconducting logic circuits.
Abstract not provided.
Investigation of Total Ionizing Dose on Domain-wall Magnetic Tunnel Junction Logic Devices (Presentation).
Abstract not provided.
Logical Foundations for Protecting Materials and Facilities from those with Malicious Intent?Proposed 1st Principles for Security Systems.
Abstract not provided.
Novel Methods for International Safeguard Sensing: Nonlinear Chemical Waves and In Situ Logic-Tree Analysis.
Abstract not provided.
AlGaN High Electron Mobility Transistor for Power Switches and High Temperature Logic.
Abstract not provided.
AlGaN Transistors for Digital Logic Applications in High-Temperature Environments.
Abstract not provided.
Self-correcting Flip-flops for Triple Modular Redundant Logic in a 12-nm Technology.
Abstract not provided.
Two-qubit Quantum Logic Gates for Neutral Atoms Based on the Spin-Flip Blockade.
Abstract not provided.
AlGaN High Electron Mobility Transistor for High Temperature Logic.
Abstract not provided.
The Asynchronous Ballistic Approach to Reversible Superconducting Logic.
Abstract not provided.
Logical Majorana Fermions for Fault-Tolerant Quantum Simulation.
Abstract not provided.
Software and Firmware-logic Design for the PIP-II Machine Protection System Mode and Configuration Control at Fermilab
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BUILD: Binary Understanding and Integration Logic for Dependencies (Final Report)
Increasingly diverse mission needs, the emergence of AI and cloud, and increasing hardware diversity are driving HPC software to be more complex. Modern codes are built from hundreds of small, complex components, and much of the software development process involves integrating these components rather than developing new components from scratch. The goal of the BUILD project was to ease the task of software integration for developers across LLNL’s programs. The project focused on (1) modeling software compatibility, (2) modeling ABI compatibility with binary analysis, (3) developing solver techniques to reason about compatibility, and (4) developing AI/ML models to fill gaps in our understanding of software compatibility. The project has developed several key technologies that help developers—by accelerating development workflows, removing the need for rebuilds, and enabling faster, automatic, and less error-prone code sharing. These technologies are used in LLNL codes and will be ready for the new El Capitan Exascale system in Livermore Computing. Many of these technologies have been hardened and integrated with LLNL’s Spack package manager, and they are already in use by production code teams. Results of BUILD have laid the groundwork for future advances in software integration—the ML and binary modification techniques developed in this project still need to be operationalized but have great potential to further speed up software integration.
Exploration of a novel entangling quantum logic gate in the presence of noise and laboratory constraints
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