Top 50 Ai Accelerator Chip

Axelera AI develops and sells high-performance, energy-efficient AI inference hardware for edge devices. Their Metis AI Platform integrates a specialized in-memory computing architecture with a comprehensive software stack, enabling efficient deployment of deep learning models for computer vision and natural language processing applications.

The startup develops a neuromorphic chip that mimics human brain information-processing mechanisms to enhance artificial intelligence hardware. This technology addresses computing bottlenecks by enabling more efficient training of neural networks for AI applications.

The startup manufactures a chip that utilizes Compute Express Link technology to enable data center operators to efficiently pool and manage artificial intelligence accelerators, processors, and memory. This approach enhances system performance by providing adequate memory resources for diverse device integration, addressing the challenges of scalability and resource allocation in large-scale computing environments.

RaiderChip designs semiconductor hardware accelerators that enhance AI performance by addressing memory bandwidth limitations. Their solutions enable efficient AI inference for both edge and cloud applications, allowing users to run complex large language models locally with full privacy and without ongoing subscriptions.

Axelera AI manufactures AI acceleration hardware, specifically the Metis AI Processing Unit (AIPU), designed for efficient edge computing with up to 214 TOPS performance and 15 TOPS per watt. The technology addresses the need for cost-effective and energy-efficient solutions in generative AI and computer vision applications across various industries, including retail and security.

Exa Laboratories manufactures reconfigurable chips for AI that achieve up to 27.6 times the efficiency of traditional GPUs by dynamically adapting to various AI models through software configuration. This technology addresses the limitations of classical computing architectures, enhancing speed and energy efficiency for applications ranging from data centers to edge devices.

Luminous Computing develops photonics chips designed to provide the necessary compute, memory, and bandwidth for advanced artificial intelligence applications. This technology addresses the limitations of current hardware, enabling instant processing of complex queries and facilitating the development of next-generation AI solutions.

Salience Labs is developing a hybrid photonic-electronic chip designed to enhance the processing speed and energy efficiency of artificial intelligence applications. This technology addresses the limitations of traditional electronic chips by enabling faster data transfer and lower power consumption, crucial for scaling AI systems.

NEUCHIPS develops AI ASIC solutions, including the Evo Gen 5 PCIe Card and Gen AI N3000 Accelerator, specifically designed for deep learning inference in data centers. Their technology addresses the need for energy-efficient hardware that minimizes total cost of ownership (TCO) while enhancing performance for machine learning applications.

The startup develops a deep-tech semiconductor chipset that enhances data movement by bringing data processing closer to computation. This technology improves the execution speed of large language models while increasing data privacy and energy efficiency.

Kalray offers high-performance processing acceleration solutions powered by its MPPA® architecture. These solutions efficiently handle data-intensive workloads in AI, automotive, and telecommunications, delivering superior performance and energy efficiency for demanding applications.

Enflame develops cloud-based deep learning chips specifically designed for AI training platforms, enhancing computational efficiency and speed. This technology addresses the high resource demands of AI model training, enabling faster iterations and reduced operational costs for businesses.

MemryX is developing an Edge AI Accelerator that employs specialized AI chip architecture to improve processing efficiency for edge devices. This technology enables real-time data analysis and decision-making in environments with limited computational resources.

Untether AI develops high-density AI accelerators that utilize at-memory computing to enhance the speed and energy efficiency of AI inference tasks. Their technology enables real-world applications, such as autonomous vehicles and smart cities, to operate more effectively and affordably.

MatX manufactures specialized hardware designed for training and inference of large AI models, delivering up to 10× more computing power for workloads with over 7 billion parameters. This enables researchers and startups to efficiently train advanced models, significantly reducing the time and cost associated with developing state-of-the-art AI systems.

Provides scalable neural processor unit (NPU) semiconductor IP with a packet-based architecture that enables parallel execution of AI workloads, achieving up to 90% processor utilization. This approach reduces memory overhead, power consumption, and latency while supporting complex AI models across edge devices in industries like mobile, automotive, and industrial automation.

Ambient Scientific develops the GPX10, an ultra-low power AI microprocessor designed for on-device applications, enabling years of operation on a single coin cell battery. This technology addresses the limitations of cloud dependency by providing efficient, always-on AI capabilities for battery-powered edge devices, enhancing data privacy and reducing operational costs.

The startup provides CPU cores designed for managing circuits and complex data center processors, focusing on flexibility and performance. Their technology enhances AI integration, enabling clients to efficiently deploy processors across diverse computing systems.

Kneron develops application-specific integrated circuits (ASICs) and software that provide artificial intelligence tools for edge computing. Their technology enhances processing efficiency and reduces latency for AI applications in resource-constrained environments.

Develops on-device AI semiconductor solutions, including custom NPUs, SoC ASICs, and specialized modules, optimized for low power consumption and high performance in applications like video analytics, security, and robotics. By enabling real-time AI processing with support for multiple models on a single chip, DEEPX addresses the challenges of latency, privacy, and network costs associated with cloud-based systems. Its scalable architecture and 259 patents ensure cost-competitive, silicon-proven products for global markets.

SpiNNcloud Systems develops specialized hardware that replicates brain-like parallel processing to enhance real-time computing for complex simulations and data analysis. This technology overcomes the limitations of traditional computing architectures, significantly improving efficiency in handling large-scale data tasks.

SEMRON develops a 3D-scalable AI inference chip using its proprietary CapRAM™ technology, which integrates compute-in-memory architecture to enhance energy efficiency and parameter density for AI applications. This technology addresses the high costs and power consumption of traditional AI chips, enabling efficient deployment of generative AI models directly on edge devices like smartphones and wearables.

Taalas provides a platform that transforms any AI model into custom silicon, creating Hardcore Models that are hardwired for optimal performance. This approach significantly enhances computational efficiency, achieving up to 1000 times the performance of traditional software implementations.

EnCharge AI develops a scalable analog in-memory computing platform that enhances AI performance by achieving 20 times higher efficiency and 10 times lower total cost of ownership compared to traditional GPU solutions. This technology enables on-device processing, significantly reducing CO2 emissions and ensuring data privacy while making advanced AI accessible beyond cloud infrastructure.

Uses artificial intelligence to automate the design of microchips, streamlining the complex and time-consuming process of circuit layout and optimization. This technology reduces development time and costs, enabling faster innovation in semiconductor design for various applications.

Etched.ai develops Sohu, the world's first ASIC specifically designed for transformer models, enabling AI computations to be executed at least ten times faster and more cost-effectively than traditional GPUs. This technology allows for real-time processing of large-scale AI models, enhancing applications such as voice agents and content generation.

Lemurian Labs develops programmable hardware accelerators designed for edge AI and robotics, enabling efficient training and deployment of large-scale AI models. The company addresses the high costs and accessibility issues associated with current hardware solutions, providing an architecture-agnostic platform that enhances portability and reduces vendor lock-in.

Sapeon Korea develops a commercial AI processor designed specifically for data centers, enabling efficient large-scale computations required for AI services. This technology addresses the demand for high-performance processing power in AI applications, enhancing operational efficiency and reducing latency.

Habana Labs develops Intel® Gaudi® AI accelerators designed for high-performance deep learning training and inference, providing enterprises and cloud providers with efficient compute solutions. Their technology delivers up to 40% better price/performance on cloud instances, addressing the need for cost-effective and scalable AI infrastructure.

FuriosaAI develops the RNGD data center accelerator, utilizing a Tensor Contraction Processor architecture to enhance the efficiency of AI inference with a power profile of just 150W. This technology enables enterprises to deploy large language models and multimodal applications with low latency and high throughput, significantly reducing energy consumption and operational costs in data centers.

Azimuth AI develops application-specific integrated circuits (ASICs) tailored for edge computing applications, enhancing processing efficiency and reducing latency in data handling. The company's technology addresses the need for more sustainable and efficient computing solutions in resource-constrained environments.

This company provides on-demand GPU cloud infrastructure optimized for AI and machine learning workloads. Their platform offers scalable GPU clusters, high-speed storage, and secure networking, enabling teams to accelerate model training and deployment.

Chipletti designs and manufactures advanced node chiplet modules specifically for AI compute applications. Their technology enables high-performance, scalable solutions for demanding AI workloads.

The startup develops an AI-based NeuroMosAIc Processor (NMP) that integrates a RISC-V architecture for high-performance computing in semiconductor applications. Its technology enables clients to efficiently evaluate neural network performance metrics such as accuracy, memory bandwidth, and run-time using SDK solutions compatible with TensorFlow, Caffe, PyTorch, and ONNX frameworks.

Eridu AI develops semiconductor technology to enhance the performance of large AI models by addressing infrastructure bottlenecks that limit GPU utilization, leading to inefficiencies in training cycles and inference speed. Their solutions aim to significantly reduce costs and power consumption associated with AI model deployment.

The startup develops autonomous RTL agents for chip design, achieving superior performance on NVIDIA's VerilogEval benchmark. These agents automate the design process, reducing time and costs associated with traditional chip development.

Mimiry provides European data center GPUs specifically designed for artificial intelligence and machine learning applications, enabling high-performance computing for companies and research institutes. This offering addresses the need for scalable and efficient processing power in AI and ML projects, facilitating faster model training and data analysis.

Axera develops high-performance AI System-on-Chips (SoCs) that utilize hybrid precision processing and pixel-level AI imaging technology to enhance edge computing applications in smart IoT, autonomous driving, and robotics. Their solutions address the need for efficient, high-quality data processing and imaging in complex environments, enabling advanced functionalities in various edge devices.

The startup develops chip technology that integrates big data analytics and heterogeneous computing to enhance the functionality of the Internet of Things. This technology enables industries, such as automotive and healthcare, to incorporate artificial intelligence into their products and services, improving operational efficiency and decision-making capabilities.

This startup provides AI cloud computing services that accelerate artificial intelligence workloads in data centers and high-performance computing (HPC) environments. Their system leverages computing express link (CXL) technology to enable disaggregation and composability, offering power-efficient, scalable, and cost-effective interconnect solutions for enterprises.

Quadric has developed the Chimera GPNPU, a licensable processor architecture that integrates on-device machine learning inference with the ability to run complex C++ code without requiring code partitioning across multiple processor types. This technology scales from 1 to 864 TOPs and supports all machine learning models, including classical networks and large language models, streamlining SoC design and accelerating model porting.

Mentium develops co-processors that utilize hybrid in-memory and digital computation to deliver cloud-quality AI inference at ultra-low power for mission-critical applications on the ground and in space. Their technology addresses the need for reliable and efficient AI processing in environments where performance and power consumption are critical, achieving 100 times the speed and 50 times the efficiency of current solutions without requiring external memory.

The startup develops an optoelectronic processor that utilizes light for high-speed artificial intelligence computations, designed to fit into standard PCIe slots in server racks. This technology enhances performance for machine learning applications while significantly lowering the cost per compute compared to traditional electronic processors.

The startup develops quantum computing technology that integrates memory and processing components to enhance computational efficiency. Its proprietary self-organizing logic gates reduce the processing time for complex optimization problems from hours to minutes, enabling researchers to tackle significant computational challenges more effectively.

The startup offers an AI-enabled platform that optimizes semiconductor design and manufacturing processes through advanced data analytics and machine learning algorithms. This technology reduces production costs and time-to-market for hardware companies facing increasing complexity and demand in the semiconductor industry.

HyperCIM offers dedicated hardware accelerators, Load Processing Units (LPUs), to offload data preprocessing and protocol handling from CPUs and GPUs. These LPUs enable ultra-low latency processing of high-frequency data streams and financial messaging, accelerating AI inference and real-time decision-making.

Moffett AI designs AI chips that accelerate processing in both terminal and cloud environments, enhancing computational efficiency for AI applications. Their technology addresses the demand for faster and more efficient AI processing capabilities in various industries.