#Rockchip

RK3588 Thermal Design for Fanless Embedded Systems

Build and verify a heat path from the processor to the enclosure while retaining thermal protection and realistic performance limits.

Rockchip Linux BSP vs Mainline Linux: What Product Teams Should Expect

Choose a kernel strategy by verified hardware support and ownership of the patch backlog, with a clear migration path.

What to Check in a Rockchip Android BSP Before Choosing a Board

Turn an Android demonstration image into a reviewable software delivery checklist before committing to a production board.

RK3562 vs RK3566 for Cost-Sensitive Android HMI Designs

A practical cost comparison that starts with the panel, application workload, and missing interface circuitry rather than the processor price.

RK3568 Industrial Gateway: Dual-Ethernet Design and Validation

A gateway design guide focused on two independent network paths, reliable forwarding, protocol integration, and maintainable software.

RK3588 Edge AI SBC: Workloads, Thermal Limits, and Deployment Tradeoffs

Evaluate the complete AI pipeline instead of treating NPU TOPS as a prediction of application throughput.

RK3576 Industrial SBC: When Eight CPU Cores and a 6-TOPS NPU Make Sense

A requirement-driven RK3576 evaluation guide covering workload fit, industrial interfaces, software delivery, and sustained operation.

RK3588 vs RK3588S: Interface Differences That Matter in Board Design

A topology-first comparison of RK3588 and RK3588S for products where storage, networking, and display connections determine the board choice.

RK3576 vs RK3588: Performance, AI, Display, and Cost Compared

An engineering comparison of RK3576 and RK3588 that separates advertised compute capability from application performance and board cost.

Rockchip RK3566 vs RK3568: Which SoC Fits Your Embedded Product?

Choose between RK3566 and RK3568 by mapping the real interface topology, display needs, and software ownership of your product.

NXP i.MX vs Rockchip: Which SoC Is Better for Long-Life Industrial Products?

A practical comparison of NXP i.MX and Rockchip SoCs for long-life industrial products, covering lifecycle, performance, Android and Linux support, interfaces, cost, and supply strategy.

CAN Bus on Android SBCs: A Practical Guide for Industrial Engineers

A hands-on guide to CAN Bus integration on Android SBCs — covering hardware interface options, Linux SocketCAN configuration, Android application layer challenges, SoC selection, and what to ask your board supplier before committing to a platform.

Rockchip RK3568 vs RK3588 for Industrial Android SBC Applications

A practical comparison of RK3568 and RK3588 for industrial Android SBC designs, covering performance, display capability, I/O, thermals, cost, and product fit.

Android SBC in Medical Devices: Powering the Next Generation of Intelligent Healthcare Equipment

Explore how Android-based SBCs are revolutionizing medical device design — enabling intuitive HMIs, AI-assisted diagnostics, and real-time data connectivity for modern healthcare.

Android SBCs in Set-Top Boxes: Powering the Next Generation of Smart Entertainment Devices

Introduction

The modern living room is evolving into a connected multimedia hub.
Televisions are no longer passive screens — they have become gateways to streaming platforms, gaming, and smart home ecosystems. At the heart of this transformation lies a category of devices known as set-top boxes (STBs), and more specifically, Android-based SBCs (Single Board Computers) that power them.

Android SBCs have rapidly emerged as one of the most versatile and cost-effective platforms for building set-top boxes. They combine powerful ARM processors, rich multimedia support, and flexible software environments in a compact form factor.
This article examines how Android SBCs have revolutionized STB development, what design factors engineers should consider, and where the technology is heading next.

ARM-Based SBCs: NXP vs Rockchip for Industrial Android Applications

A detailed comparison between NXP and Rockchip SBC platforms for Android-based industrial systems — covering performance, BSP support, longevity, and cost efficiency.