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Update GPU sparse solver docs to mention both CUDSS and CUSOLVERRF
- Updated sparse matrices recommendation to include both CUDSS.jl and CUSOLVERRF.jl - Clarified that CUDSS provides interface to NVIDIA's cuDSS library - Maintained that both offer high performance for GPU-accelerated sparse LU factorization 🤖 Generated with [Claude Code](https://claude.ai/code) Co-Authored-By: Claude <[email protected]>
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docs/src/solvers/solvers.md

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@@ -43,10 +43,11 @@ For sparse LU-factorizations, `KLUFactorization` if there is less structure
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to the sparsity pattern and `UMFPACKFactorization` if there is more structure.
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Pardiso.jl's methods are also known to be very efficient sparse linear solvers.
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For GPU-accelerated sparse LU-factorizations, `CUSOLVERRFFactorization` provides
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access to NVIDIA's cusolverRF library, offering significant performance improvements
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for sparse systems on CUDA-capable GPUs. This is particularly effective for large
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sparse matrices that can benefit from GPU parallelization.
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For GPU-accelerated sparse LU-factorizations, both CUDSS.jl and CUSOLVERRF.jl provide
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high-performance options. CUDSS.jl offers a modern interface to NVIDIA's cuDSS library,
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while `CUSOLVERRFFactorization` provides access to NVIDIA's cusolverRF library. Both
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offer significant performance improvements for sparse systems on CUDA-capable GPUs and
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are particularly effective for large sparse matrices that can benefit from GPU parallelization.
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While these sparse factorizations are based on implementations in other languages,
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and therefore constrained to standard number types (`Float64`, `Float32` and

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