Embedded Systems
Embedded systems combine computing, sensors, and actuators to perform dedicated tasks—often under strict power and timing limits. This tag takes a system view: hardware selection, OS and middleware choices, real-time behavior, and lifecycle maintenance. We cover graphics stacks for HMIs, field-updatable firmware, partitioning safety-critical from non-critical code, and designing for observability and remote diagnostics. Reference checklists help teams converge on reliable, serviceable products. The emphasis is on shipping: architecture patterns that reduce surprises when units leave the lab.
How to Choose an Industrial SBC: A Practical Engineering Checklist
A practical guide to choosing an industrial SBC, covering processor architecture, I/O, power, thermals, storage, operating systems, lifecycle, compliance, and …
RS-232, RS-485, and CAN Bus in Industrial SBCs: What Engineers Should Check
A practical guide to RS-232, RS-485, and CAN bus interfaces in industrial SBCs, covering electrical layers, isolation, termination, Linux support, reliability, …
What Is ARM Architecture? A Practical Guide for Embedded Systems
A practical introduction to ARM architecture, covering RISC design, ARM processor families, 32-bit and 64-bit ARM, SoC integration, embedded Linux, Android …
eMMC vs NVMe for Embedded Systems: Storage Choices for Industrial SBCs
A practical comparison of eMMC and NVMe storage for embedded systems and industrial SBCs, covering boot reliability, write endurance, power loss, speed, …
Linux vs Android for Industrial SBCs: Choosing the Right Operating System
A practical comparison of Linux and Android for industrial SBC projects, covering HMIs, gateways, BSP support, security updates, drivers, app development, and …
Wide Temperature SBC Design Guide: Building Embedded Systems for Harsh Environments
A practical guide to wide temperature SBC design, covering components, thermal testing, storage, power input, enclosure design, condensation, derating, and …
Designing a Custom Industrial Computer Based on the Rockchip RK3588 Platform
Learn how to design a custom industrial computer using the Rockchip RK3588 platform. This guide covers system architecture, AI acceleration, display interfaces, …
Why ARM SoCs Dominate Low-Power Industrial Applications
A detailed look at why ARM-based System-on-Chips (SoCs) have become the leading choice for low-power industrial applications, covering efficiency, flexibility, …
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