PCB Layout Design Process from Schematic to Manufacturing
PCB layout design is the process of transforming an electrical schematic into a complete, manufacturable printed circuit board (PCB). A well-designed PCB layout must do more than simply connect compon...
High-Speed ADC PCB Layout Guide: EPAD, PDS, and Grounding Best Practices
High-speed analog-to-digital converter (ADC) PCB layout involves multiple design parameters, and their importance varies depending on the application. For high-speed ADC systems, the focus should not ...
How to Properly Handle Unused IC Pins in Schematic Design
When working on schematic design, engineers often encounter situations like this: to meet the core functional requirements, a 100-pin MCU is selected, but only 60 pins are actually used. Or a 4-channe...
USB Type-C Design and CC Pin Configuration: A Practical Hardware Design Guide
One of the most common pitfalls in Hardware Design for Type-C interfaces is confusing the legacy protocols used by USB-A ports with the native USB Type-C protocol. Some designers mistakenly treat D+ /...
Remote-Sense Guidelines in Power Supply Design for DC-DC Converters
Many DC-DC power chips provide a Remote-Sense function. However, many designers mistake it for an optional secondary connection and wire it directly near the power module's local output. This setup ef...
HDI PCB Layout Guide for High Speed Optical Module PCB Design
An optical module PCB is a typical high-frequency, high-density HDI PCB precision board. Its material selection is closely related to transmission rate, link length, loss budget, and device platforms....
PCB Impedance Control Guide: How to Fix Impedance Discontinuities in PCB Layout
In modern pcb design, maintaining signal integrity relies on a stable transmission path. Proper impedance control prevents signal reflection and ensures stable performance across your board. This arti...
LDO Output Capacitor Selection: Why Bigger Isn't Always Better in Power Supply Design
In power supply design, there is a common engineering misconception regarding the selection of the LDO output capacitor: when faced with issues like high output ripple or poor load transient response,...
PCB Routing Layer Selection for High-Speed Signals: Microstrip vs. Stripline
In the hardware layout for high-speed interfaces such as PCIe, DDR5, USB 3.0, and SerDes, selecting the trace layer—specifically choosing between surface microstrip and inner stripline—is a core decis...
Copper Keep-out Guidelines for PCB Layout and Component Layout
In modern pcb layout, solid copper pouring is widely used as an optimization technique. However, it is not universally applicable to all components. For devices whose magnetic fields easily couple wit...
Power Supply Capacitor Layout: Placement Rules for Bulk and Small Capacitors
Engineers often encounter hard-to-spot issues when debugging switch-mode power supplies, DC-DC converters, and LDO circuits. These issues typically stem from placing electrolytic or tantalum bulk capa...
Ground Stitching Vias in High-Speed PCB Differential Via Design
In high speed PCB debugging, engineers frequently encounter high-speed link communications failure, severe eye diagram jitter, TDR impedance anomalies near via regions, and EMI radiation exceeding lim...
High Speed PCB Design Guidelines for Impedance and SI
High-performance board layout is not merely about transmitting signals faster—it is about ensuring they remain stable, continuous, and predictable throughout the entire channel. As edge rates push int...
9 Essential PCB Copper Pour Techniques: A Complete Guide for PCB Layout Design
Copper pouring is a critical technique in PCB layout design that directly impacts signal integrity, thermal management, and manufacturing reliability. Whether you’re working on a high-speed digital bo...
Industrial-Grade RS-485 Communication Interface Design and PCB Layout
1. Introduction: An Irreplaceable Foundation of Industrial Bus CommunicationIn industrial automation, medical equipment, and smart grid applications, the stability of communication interfaces directly...
Switching Power Supply PCB Layout Guide: AC-DC, DC-DC & Digital Power Design Best Practices
Power supply PCB layout is one of the most critical aspects of switching converter design. A poorly executed PCB layout can turn a theoretically perfect power stage into an EMI nightmare, a thermal fa...
How to Design an H-Bridge Motor Driver: Circuit & PCB Layout Guide
1. Overview of H-Bridge Drive CircuitsAn H-bridge drive circuit is one of the most widely used basic topologies in DC motor drive systems. Its core structure consists of four independently controlled ...
The Complete Guide to Mixed-Signal PCB Layout Design
1.IntroductionSound mixed signal pcb design requires a fundamental understanding of both analog and digital circuits to minimize, if not fully prevent, signal interference. Modern electronic systems i...
Guide to Selecting and Placing RF Components in RF PCB Layout
In RF PCB design, selecting and placing the right RF components is critical to signal integrity, impedance matching, and electromagnetic isolation. Because RF signals are highly sensitive to trace len...
Bypass vs Decoupling Capacitors: How to Choose and Place Capacitors on a PCB
Bypass and decoupling capacitors are fundamental components in PCB power integrity design, yet they remain one of the most misunderstood topics in hardware engineering. Many engineers rely on empirica...
| Ranking | Name | Answers |
|---|---|---|
| 1 | PCBWay Team | 14 |
| 2 | MicroTS Networks | 1 |
| 3 | SAAD ZAFAR | 1 |
| 4 | LouD _ | 1 |