7 repository-uri
Techniques for improving model execution efficiency by optimizing memory bandwidth and throughput on specific hardware.
Distinct from Deep Learning Optimization: Focuses on the physical hardware execution layer rather than computational graph or algorithm refinement
Explore 7 awesome GitHub repositories matching artificial intelligence & ml · Hardware Optimization. Refine with filters or upvote what's useful.
This repository is a deep learning for natural language processing course and curriculum. It provides educational material and guides focused on neural network architectures used for processing natural language, speech signals, and text classification. The content includes instructional tutorials on sequence modeling and neural language modeling, covering the implementation of n-gram and recurrent neural networks. It also provides a framework for studying word embeddings to map linguistic meanings into numerical representations. The curriculum covers a broad range of capabilities, including
Offers technical guidance on maximizing memory bandwidth and throughput for deep learning hardware.
alpaca.cpp is a high-performance local inference engine implemented in C++ for executing instruction-tuned large language models. It serves as a quantized model runtime designed to load and run model tensors on local hardware with minimal dependencies, removing the requirement for a full Python environment. The project focuses on on-device text generation and the deployment of private AI chatbots. It utilizes model weight quantization to reduce memory requirements and increase inference speed on consumer-grade devices. The system covers hardware-optimized model execution through thread-pool
Optimizes memory bandwidth and throughput on local hardware to maximize model execution efficiency.
This project provides educational materials and courseware focused on the theoretical and practical foundations of distributed systems design. It serves as a comprehensive curriculum covering the disciplines of consensus, data consistency, reliability engineering, and scalability. The instructional content focuses on achieving cluster agreement through consensus algorithms and managing system-wide state via coordination frameworks. It includes a dedicated guide to data theory, exploring replication strategies, consistency models, and data convergence. The courseware covers a broad capability
Instructional material on improving performance by aligning memory barriers and pinning processors.
Qiskit is a quantum computing software development kit used for designing, simulating, and executing quantum circuits on physical hardware and simulators. It functions as a quantum algorithm framework, a circuit simulator, and a vendor-agnostic hardware interface for dispatching workloads across diverse providers. The project features a quantum circuit transpiler that optimizes abstract designs to match the specific basis gates and qubit connectivity of target hardware. It employs a pass-based transpilation pipeline and symbolic instruction translation to convert high-level circuits into hard
Reduces gate counts and improves processing speed by applying low-level optimizations tailored for specific hardware backends.
Cirq este un framework Python pentru calcul cuantic utilizat pentru proiectarea, simularea și executarea circuitelor cuantice pe hardware NISQ (Noisy Intermediate-Scale Quantum). Acesta servește drept simulator de circuite cuantice și modelator de zgomot, precum și ca instrument pentru implementarea algoritmilor cuantici. Framework-ul oferă o interfață specializată pentru hardware-ul NISQ, permițând utilizatorilor să mapeze circuitele cuantice logice pe topologii de dispozitive fizice, validând în același timp conectivitatea hardware și constrângerile porților. Se distinge prin modelarea integrată a zgomotului, aplicând canale de depolarizare și amortizare pentru a imita decoerența și erorile găsite în procesoarele cuantice reale. Proiectul acoperă o gamă largă de capabilități, inclusiv proiectarea circuitelor cuantice, integrarea hardware și simularea stărilor. Include instrumente pentru descompunerea porților, maparea topologiei hardware și executarea procedurilor cuantice fundamentale, cum ar fi transformatele Fourier și căutarea de date nestructurate. În plus, oferă utilitare analitice pentru calculul stării fundamentale moleculare și benchmarking-ul fidelității hardware.
Evaluates approximate optimization algorithms through landscape analysis, optimization paths, and precomputed angles.
Acest proiect este o resursă educațională cuprinzătoare și un curriculum axat pe designul și implementarea întregului stack software și hardware de machine learning. Servește ca referință tehnică pentru arhitecturarea sistemelor de machine learning, pornind de la interfețe de programare de nivel scăzut până la infrastructura de deployment la scară largă. Proiectul oferă îndrumări instrucționale pe mai multe domenii specializate, inclusiv dezvoltarea compilatoarelor AI prin reprezentări intermediare și optimizări de grafuri. Acoperă tiparele arhitecturale necesare pentru antrenarea distribuită pe clustere GPU și programarea acceleratoarelor hardware pentru a optimiza sarcinile de lucru pe cipuri specializate. Resursa detaliază, de asemenea, implementarea framework-urilor de servire a modelelor pentru medii de producție și designul pipeline-urilor de reinforcement learning. Domeniul său de aplicare se extinde la componentele de bază ale sistemelor ML, cum ar fi diferențierea automată, abstracțiile de tensori și orchestrarea resurselor GPU.
Optimizes machine learning workload performance by improving memory bandwidth and throughput on specialized hardware.
Llama-swap is a local inference orchestrator and API gateway for large language models. It functions as an OpenAI API proxy that manages the lifecycle of multiple local model servers, automatically starting and stopping them to swap models based on incoming request identifiers. The project distinguishes itself through dynamic model swapping and hardware optimization. It utilizes a specialized matrix-based concurrency control to define which models can run simultaneously and employs cost-based eviction to remove inactive servers from memory based on relative resource costs. The system provide
Maximizes GPU and CPU memory efficiency through automated model eviction and idle timeouts.