#riscvipcore

The architecture incorporates hardware Root-of-Trust, advanced protection features, and ISO 26262 compliant functional safety up to ASIL-B and ASIL-D. Memory subsystems include tightly integrated storage with ECC reliability, complemented by scalable interrupt control and high-bandwidth AXI/AHB interfaces for efficient SoC integration. Supported by complete IP, subsystem, and development tool ecosystems and validated through production silicon, T2M RISC-V processors provide a robust foundation for next-generation embedded and compute-intensive semiconductor systems.

T2M’s configurable RISC-V CPU IP portfolio offers scalable processing architectures designed for advanced embedded and compute-intensive system-on-chip solutions. Supporting both 32-bit and 64-bit implementations, the portfolio enables designs ranging from ultra-efficient microcontrollers to application-class processors with configurable performance characteristics. Designed for automotive, industrial automation, consumer electronics, and intelligent edge computing, the architecture integrates high-efficiency pipelines, vector and cryptographic extensions, DSP processing, and precision floating-point units.Security and safety are integral to the architecture, featuring hardware Root-of-Trust, advanced system protection, and ISO 26262 compliant functional safety up to ASIL-D. Memory subsystems incorporate tightly coupled storage with ECC reliability, supported by scalable interrupt frameworks and high-performance AXI/AHB interfaces for streamlined SoC integration. Extracted from production silicon and supported by full software and hardware development infrastructure, T2M RISC-V IP cores provide a flexible and dependable platform for semiconductor innovation.

Hardware-level security is implemented through integrated Root-of-Trust and advanced protection mechanisms, alongside ISO 26262 functional safety support up to ASIL-B and ASIL-D. Memory architectures provide tightly coupled storage with ECC-based reliability, supported by scalable interrupt handling and high-speed AXI/AHB system interfaces for seamless integration. With production-proven silicon foundations and complete development ecosystem support, T2M RISC-V cores enable reliable and efficient next-generation semiconductor platforms.

T2M’s silicon-proven RISC-V processing portfolio offers scalable 32-bit and 64-bit CPU IP designed to support a wide range of embedded and high-performance SoC applications. With support for both RV32 and RV64 instruction sets, the architecture enables flexible implementation from ultra-low-power control systems to application-class compute platforms. Designed for automotive, industrial, consumer electronics, and intelligent edge environments, the cores integrate advanced execution pipelines, vector and crypto extensions, DSP acceleration, and configurable floating-point processing for optimized computational efficiency.Comprehensive security is provided through hardware Root-of-Trust, system protection mechanisms, and ISO 26262 compliant functional safety up to ASIL-D. Memory subsystems feature tightly integrated storage with ECC protection and reliability controls, complemented by advanced interrupt management and high-bandwidth AXI/AHB connectivity for streamlined SoC deployment. Built on production-proven silicon and supported by complete IP integration, software tools, and hardware design services, T2M RISC-V solutions provide a robust platform for advanced semiconductor development.

Security is built into the architecture with hardware Root-of-Trust, advanced protection mechanisms, and functional safety support up to ASIL-B and ASIL-D with ISO 26262 compliance. Memory subsystems offer tightly integrated storage with ECC and reliability enhancements, while scalable interrupt handling and high-bandwidth AXI/AHB interfaces enable seamless SoC integration. Extracted from production-proven silicon and supported by complete IP, subsystem, software tools, and hardware design services, T2M RISC-V cores provide a robust and flexible foundation for next-generation embedded and compute-intensive semiconductor platforms.