Overview
The mid-range Andes Technology N10 processor is ideal for applications ranging from consumer media players and smart glasses all the way to touch panel processing, motor control, and power management. The N10 features a 5-stage pipeline and operates at over 800 MHz clock rate providing plenty of performance for automotive electronics and industrial control. It also comes with I/D cache or local memory options that enable the core to more efficiently perform for networking or communication applications.
In the fast growing IoT market, the highly performance efficient N10 processor can be used as IoT gateway to bridge those ZigBee, Bluetooth or WiFi sensor devices to the internet connectivity. In addition, with the tightly-coupled IEEE-754 compliant NCESFP100 single-precision floating point unit (FPU), the N10 processor can be used in the high precision sensor devices to manipulate the data from ADC which converts physical continuous sensor signals to digital data.
Learn more about CPU IP core
This article shares our experience using Google’s FlatBuffers library as a memory subsystem stress test on the Andes AX46MPV RISC-V core.
By Andes
With the rapid deployment of artificial intelligence (AI), the focus of AI system on chip (SoC) design has been on building smarter, faster and cheaper
I work at a RISC-V IP company, and I genuinely root for Arm — probably more than most people in my position would admit. Not because I’m confused about who competes with whom, but because Arm’s best move for their shareholders is also RISC-V’s biggest tailwind yet.
Security has become a critical requirement across a wide range of applications, including mobile devices, automotive infotainment systems, and embedded platforms such as robotics. These systems must deliver robust security functionality with minimal performance overhead, which in turn requires tight and seamless integration between hardware and software to achieve optimal efficiency.
Unlike fixed-ISA alternatives, RISC-V enables developers to create domain-specific processors for their systems-on-chip (SoCs). Custom instructions can boost throughput, reduce energy consumption, and shrink silicon area, all while preserving software compatibility and ecosystem portability. RISC-V’s open nature also reduces vendor lock-in, enabling faster innovation across automotive, AI, security, and high-performance computing (HPC).