System on Chip (SoC)
A System on Chip (SoC) is an integrated circuit that consolidates an entire computer system onto a single chip. Unlike traditional desktop or laptop computers, where components such as the CPU, GPU, memory, storage, and I/O interfaces are separate and upgradeable, an SoC integrates all of these elements directly into silicon.
This integration makes SoCs compact, power-efficient, and highly optimized for their specific use case. However, since the components are fixed in hardware, the device cannot be upgraded in the same way as a conventional computer.
Where Are SoCs Used?
SoCs power a wide range of embedded electronic devices, from simple toys and calculators to advanced industrial robots and automobiles. Historically, SoCs were mostly found in low-power, cost-sensitive devices with limited performance requirements.
Today, advances in CPU, GPU, and memory technologies have transformed SoCs into the backbone of modern electronics. They are now essential in markets such as:
- Mobile Devices and Smartphones – SoCs enable high-performance, energy-efficient smartphones.
- Automotive Electronics – Powering infotainment, ADAS, and autonomous driving systems.
- Consumer Electronics and Entertainment – Smart TVs, gaming consoles, and streaming devices.
- IoT and Embedded Systems – Compact, low-power solutions for smart home devices and industrial sensors.
- Hobbyist Computers – Single-board computers like Raspberry Pi rely on SoC designs for performance and efficiency.
- Laptops and Ultraportables – Modern laptops increasingly adopt SoCs for high integration and low power consumption.
Custom vs Off-the-Shelf SoCs
While off-the-shelf SoCs provide a ready-made solution for many applications, differentiating a product often requires a custom SoC.
Designing a SoC internally from scratch is expensive, time-consuming, and technically demanding. This is why many companies turn to IP-based SoC development, leveraging pre-designed, verified intellectual property (IP) blocks to build a custom SoC. This approach allows companies to:
- Reduce development time – Use ready-made IP cores to accelerate SoC creation.
- Optimize power and performance – Tailor the design to the product’s specific requirements.
- Lower development risk – Avoid the cost and uncertainty of designing new technologies from scratch.
- Achieve product differentiation – Build unique features without a multi-year development cycle.
The Pulse
- Tachyum Unveils 2nm Prodigy with 21x Higher AI Rack Performance than the Nvidia Rubin Ultra
- Innatera signs Joya as ODM customer, bringing neuromorphic edge AI into everyday connected products
- Arm’s DreamBig Acquisition Reignites In-house Chip Prospects
- Blaize Deploys Arteris NoC IP to Power Scalable, Energy-Efficient Edge AI Solutions
- United Micro Technology and Ceva Collaborate for 5G RedCap SoC to Accelerate Connected Vehicle Adoption
- FPGA-Accelerated RISC-V ISA Extensions for Efficient Neural Network Inference on Edge Devices
- CAST Reaches 200 CAN IP Core Customers
- Cadence Welcomes ChipStack
- PQShield and Keysight collaborate to validate robust security of quantum-safe cryptography
- GlobalFoundries Licenses GaN Technology from TSMC to Accelerate U.S.-Manufactured Power Portfolio for Datacenter, Industrial and Automotive Customers
- Quintauris and Nuclei Collaborate to Expand RISC-V Solutions
- Ceva, Inc. Announces Third Quarter 2025 Financial Results
- The Power of Shifting Left: Cadence Accelerating Innovation with Arm
- MultiVic: A Time-Predictable RISC-V Multi-Core Processor Optimized for Neural Network Inference
- TSMC October 2025 Revenue Report