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METACORETECS THE TEMPLE OF HIGH-PERFORMANCE CORE ARCHITECTURES

METACORETECS
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Pushing the Boundary Beyond More-than-Moore.

Reconfigurable Architectures that Reshape the Silicon Landscape.

METACORETECS pioneers truly dynamic, hardware-level reconfiguration: not just tuning parameters, but transforming a core’s architecture on demand so the same silicon can act as entirely different processors.

The result: one core that executes multiple classes of workloads (signal processing, ML inference, control tasks, etc.), replacing the need for large heterogeneous MPSoCs. This lowers silicon complexity and cost while increasing capabilities — more features, better performance-per-watt, and faster time-to-market for SoCs, ASIPs, and chipsets.

Seamless runtime reconfiguration lets product teams optimize for area, power, and latency per use case without redesigning hardware.

Reconfigurable Silicon Architecture

Harnessing the Power of Open Architecture

From low-power IoT modules to high-performance Data Centers, and from Edge to Cloud AI, our RISC-V architectures scale with your ambition.

We provide the processing foundation for every layer of the modern tech stack. Your innovation, powered by our cores.

RISC-V Open Architecture
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Pioneering Next-Generation IC Architectures with Confidence

Architecture & Specifications

We collaborate closely with clients to identify and refine system requirements, establish clear performance and reliability goals, and develop architectural frameworks tailored to their specific application.

System Requirements Performance Goals Framework Design

RTL Design & Integration

Our team designs reliable, synthesizable RTL implementations and applies verification methodologies to validate functionality, correctness, and resilience. We perform comprehensive verification to ensure design integrity, reduce risk, and accelerate time-to-silicon.

RTL Design Verification Design Integrity

FPGA Prototyping

We specialize in FPGA prototyping to implement and run any digital IC design, enabling functional system-level validation, interface/protocol checks, and software/firmware bring-up readiness. This also includes architecture exploration and performance exploration and provides early debug.

System Validation Protocol Checks Firmware Bring-up

Analog & Mixed-Signal Design

We possess expertise in designing analog blocks, data converters, and integrated mixed-signal interfaces for complex SoCs — helping ensure accurate signal integrity, low noise, and efficient performance as needed.

Analog Blocks Data Converters Mixed-Signal
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Innovating Architectures for the Computing Cores of the Future

IoT & Embedded Control Systems

IoT & Embedded Control Systems

Designed for ultimate flexibility, this architecture is our entry-level core scaling from extreme efficiency to high-performance control. It offers very low complexity, slashing surface area, power consumption, and costs to the absolute minimum. It is the smallest processor capable of running a program for sensors monitoring of IoT applications and embedded control systems.

For more demanding applications, this core may be improved to boost performances by resolving data and control hazards with advanced bypasses and predictors. More enhanced versions may include an integrated interrupt controller for further sophisticated event handling and a dedicated debug interface for rapid software testing. It also may be upgraded with support for compressed instructions, to shrink program memory footprint.

Profile Ultra-Low Power
Footprint Minimal
Extensions Custom ISA
Edge AI, ASIPs & Accelerators

Edge AI, ASIPs, Accelerators, MPSoCs & GPUs

Designed to experience a state-of-the-art architecture and engineered to deliver massive computing power at an extremely competitive cost, this versatile core, endowed with lightweight multitasking threads, is perfectly suited for hardware accelerators and ASIPs. To ensure that data keeps pace with the logic, the integrated two-level cache controller enables significantly faster memory access, making this the ideal engine for any high-performance project.

This core may be improved by implementing a full integer unit for multiplication and division. More enhanced versions may include a dedicated Floating Point Unit (FPU) to handle complex math with ease. To push its throughput further, it may be upgraded with SIMD computing capabilities, or even with fully custom instructions.

Cache 2-Level
Compute SIMD + FPU
Threading Multi-Thread
Real-Time Embedded Systems

Real-Time Embedded Systems & SoCs

Engineered to power the next generation of SoCs and embedded systems, this architecture provides a robust foundation for everything, from advanced control logic to full real-time operating systems. This core includes an atomic instructions extension that guarantees exclusive safe access to peripheral registers.

It may be improved by bringing security and reliability at the forefront, with a Memory Protection Unit (MPU) to prevent task interference while accessing memory and to maximize efficiency in complex environments. More enhanced versions may utilize a Memory Management Unit (MMU) to handle full multitasking processes. It also may be upgraded by incorporating specialized hardware techniques to accelerate context switching. By supporting the latest embedded techniques, this core ensures high-end applications run with exceptional stability and speed.

Security MPU / MMU
Access Atomic Ops
RTOS Full Support
Datacenters & High-Performance Computing

Datacenters, Desktops, Laptops & Mini-Computers

This state-of-the-art architecture represents the pinnacle of computing power, specifically engineered for high-performance hardware accelerators and ASIPs. The design features widening caches interfaces to read multiple instructions and handle I/O data in parallel.

The core may be improved by leveraging a VLIW architecture with a dedicated compiler allowing it to intelligently detect, extract and exploit instruction-level parallelism for maximum efficiency. More enhanced versions may include superscalar pipeline allowing execution of multiple instructions in order. It also may be upgraded for application by a superscalar pipeline allowing execution of out-of-order processing. This core is built to execute multiple instructions simultaneously, ensuring that most data-intensive tasks are handled with ease. In addition, it may be developed to execute fully custom instructions.

Pipeline Superscalar
Execution Out-of-Order
Architecture VLIW
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Engineering Confidence Across High-Performance IC Architectures

About Us

METACORETECS is revolutionizing IC architecture design with cutting-edge RISC-V solutions. We develop reconfigurable, scalable, high-performance, and energy-efficient architectures tailored for AI, IoT, automotive applications and consumer electronics.

By leveraging open-source and open-standard innovation, we empower businesses to create adaptable and cost-effective computing solutions for the future of intelligent and connected systems.

Our Mission

To empower innovation in the design and development of smarter RISC-V-based architectures that enable reconfigurable, flexible, high-performance, and more adaptable solutions for AI, IoT, and beyond.

We aim to drive technological advancement and market growth through building strategic partnerships, performing cutting-edge research, and being committed to collaborative ecosystems.

Our Vision

To be a global leader in open-standard RISC-V technology, driving innovation in AI, IoT, automotive applications and consumer electronics by delivering reconfigurable, adaptive, high-efficiency RISC-V-based solutions that power intelligent, connected, and scalable technologies across industries, while fostering sustainability and community collaboration in the semiconductor industry.

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Let's Build the Future Together

Whether you're looking for a custom silicon solution or want to explore a partnership — we'd love to hear from you.