See how KDNuggets achieved 500x speedup using CuPy and NVIDIA CUDA on 3D arrays.
]]>AI and its newest subdomain generative AI are dramatically accelerating the pace of change in scientific computing research. From pharmaceuticals and materials science to astronomy, this game-changing technology is opening up new possibilities and driving progress at an unprecedented rate. In this post, we explore some new and exciting applications of generative AI in science��
]]>The CUDA Fortran compiler from PGI now supports programming Tensor Cores with NVIDIA��s Volta V100 and Turing GPUs. This enables scientific programmers using Fortran to take advantage of FP16 matrix operations accelerated by Tensor Cores. Let��s take a look at how Fortran supports Tensor Cores. Tensor Cores offer substantial performance gains over typical CUDA GPU core programming on Tesla V100��
]]>Double-precision floating point (FP64) has been the de facto standard for doing scientific simulation for several decades. Most numerical methods used in engineering and scientific applications require the extra precision to compute correct answers or even reach an answer. However, FP64 also requires more computing resources and runtime to deliver the increased precision levels.
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