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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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A Communication- and Memory-Aware Model for Load Balancing Tasks
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MEMORY-CONSTRAINED LOAD BALANCING INFORMED BY NEURAL NETWORKS FOR GEMMA
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Accelerating an Electromagnetic Simulation via Memory-Constrained Task-Based Load Balancing
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Parallel Load Balancing Strategies for Mesh-Independent Spray Vaporization and Collision Models.
Abstract not provided.
Balanced-Load Real-Time Multiprocessor System
Modularity and parallelism provide tolerance to faults and high throughput capacity. System, called MAX, is network of interconnected computers. MAX cluster consists of group of modules - each semiautonomous computer. Modules connected to each other and to other clusters by global bus and circuit-switched communication mesh.
Balancing Loads Among Robotic-Manipulator Arms
Paper presents rigorous mathematical approach to control of multiple robot arms simultaneously grasping one object. Mathematical development focuses on relationship between ability to control degrees of freedom of configuration and ability to control forces within grasped object and robot arms. Understanding of relationship leads to practical control schemes distributing load more equitably among all arms while grasping object with proper nondamaging forces.
Dynamic Load Balancing for Adaptive Unstructured Grids
Dynamic mesh adaptation on unstructured grids is a powerful tool for computing unsteady three-dimensional problems that require grid modifications to efficiently resolve solution features. By locally refining and coarsening the mesh to capture phenomena of interest, such procedures make standard computational methods more cost effective. Highly refined meshes are required to accurately capture shock waves, contact discontinuities, vortices, and shear layers in fluid flow problems. Adaptive meshes have also proved to be useful in several other areas of computational science and engineering like computer vision and graphics, semiconductor device modeling, and structural mechanics. Local mesh adaptation provides the opportunity to obtain solutions that are comparable to those obtained on globally-refined grids but at a much lower cost. Additional information is contained in the original extended abstract.
Scalable Load Balancing for Massively Parallel Distributed Monte Carlo Particle Transport
Abstract not provided
Interaction-Based Load Balancing in N-body Simulations
Abstract not provided
Bro-Intelligent Load Balancer Towards Terabit-Scale Cyber-Security
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