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What are common gpu optimisation methods? 


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Common GPU optimization methods include leveraging parallelization opportunities on high-performance modern multiprocessors , executing parallel Particle Swarm Optimization (PSO) procedures on GPUs for large-scale graph drawing , and exploring acceleration potentials of GPU systems for 3D reconstruction tasks, such as using nonlinear conjugate gradient descent and alternating resection-intersection . Additionally, techniques like asynchronous updates of populations are employed for scalability and performance improvement in evolutionary algorithms for distributed systems, utilizing CPUs, GPUs, and hybrid CPU-GPU strategies . These methods showcase the diverse applications of GPU optimization across various computational tasks, ranging from simulations of complex materials to graph drawing and 3D reconstruction, demonstrating the significant performance enhancements achievable through GPU-accelerated computing.

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Common GPU optimization methods for bundle adjustment include Levenberg-Marquardt, nonlinear conjugate gradient descent, and alternating resection-intersection, each tailored to enhance performance and efficiency.
Common GPU optimization methods for Material Point Methods (MPM) include explicit and fully implicit solvers, Moving Least Squares MPM heat solver, and a novel sand constitutive model, achieving over tenfold performance improvement.
GPU-based parallel Particle Swarm Optimization (PSO) methods are common for graph drawing optimization, with CUDA-GPU parallelization and minimizing data transfers being key optimization strategies.
GPU optimization methods in scrolling systems involve rendering a render tree with displayable components on separate layers, processing scroll gestures, and sequentially modifying/rendering components based on scroll behavior for efficient performance.

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