PCB Design and Layout Services

Developing a successful PCB solution requires expertise across hardware, software, and firmware to ensure seamless functionality and performance. We specialize in end-to-end custom PCB design, creating tailored solutions for IoT, wearables, industrial automation, medical devices, robotics, and more. Whether you need a high-speed, multi-layer PCB or a compact, power-efficient design, our team ensures your product is engineered for reliability, scalability, and compliance.

What You Get

From initial concept to a fully manufacturable design, our team provides expert schematic capture, strategic component selection, high-speed PCB layout, and thorough design-for-manufacturing (DFM) analysis. We focus on optimizing every aspect of your PCB to ensure maximum performance, reliability, and seamless integration with your product’s overall architecture. By leveraging advanced simulation and validation techniques, we minimize design risks and enhance manufacturability. Our process ensures compliance with industry standards, including IPC, ISO, FCC, CE, and UL, so your product is ready for production and market deployment.

PCB Design Documentation

Comprehensive CAD/CAM files containing PCB schematics, component libraries, and a 3D model of the PCB. These files also include detailed hardware, software, and firmware integration documentation to ensure seamless development.

PCB Manufacturing Documentation

A complete set of CAD/CAM files and production drawings for board fabrication and assembly, fully compliant with IPC standards. This documentation includes product manufacturing guidelines to support efficient and reliable production.

PCB Development Support

End-to-end support covering hardware, software, and firmware integration to develop the right PCB solution for your product. Our expertise ensures optimized performance, seamless connectivity, and manufacturability for IoT, wearables, industrial, medical, sports, and robotics applications.

PCB Development Support

We design printed circuit boards of any complexity

Navigate complex business changes with confidence and ease, backed by a trusted technology partner

I think any start-up that is looking to build their first hardware product and doesn’t have all of the expertise in house, should consider working with Softeq. Because they bring experience from hundreds of projects to help make sure that as a start-up you don’t go through the mistakes that others have already made.

Jared Schrieber President, Revolution Robotics

Case study

Electronic Kit for Revolution Robotics

The client addressed Softeq to develop an electronic kit that would allow users to assemble, program, and control robots via a smartphone.

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Happiest Baby, Inc., employed Softeq to help launch our flagship product SNOO, the world's smartest baby bed. The partnership contributed to SNOO’s successful launch, which has since won several awards, including CES 2017 Best of Baby Tech & Safety and the 2017 BIG Innovation Award.

Mika Saryan Director of Software Development, Happiest Baby

Case study

Mobile App, Web, and Firmware for a Smart Bassinet

The client invented a smart bassinet, which leverages embedded sound sensors to detect crying and automatically calm babies. The smart aspect was driven by a mobile app, a web back end and a piece of firmware. The client was looking for a full-stack development company that could help implement the IoT solution.

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A curved screen wrist-worn smartphone prototype with a touchscreen, sensors, cameras, and gesture recognition. The app feature set includes an audio player, business card exchanger, a heart rate monitor, and emergency functionality.

Case study

Curved Screen Wrist Smartphone

Softeq handled development across several areas — hardware, enclosure, and software. The smartphone prototype required a custom rigid-flex PCB to underlie the curved device design. The prototype hardware needed to support some smart capabilities.

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The client is developing a new radar sensor system for autonomous cars. They turned to Softeq to verify their PCB design. The team conducted a set of simulations to locate problematic board areas and suggest improvements.

Case study

PCB Design Verification for an Automotive Radar Sensor System

The client is working on a radar sensor system for self-driving vehicles that measures the distance to nearby objects like cars, traffic signs, and pedestrians.

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Electronic System Design

System requirements gathering and architecture design, functional system design, process design.

Electronic Circuit Design

System-on-chip (SoC), System-on-module (SoM), and single-board-computer (SBC) development, SoC, SoM, and SBC-based electronics development, FPGA-based electronics, DSP-based electronics.

PCB Design Simulations

Signal integrity analysis (SI), power integrity analysis AC/DC (PI), thermal analysis (PCB), design for manufacturing (DFM), design for assembly (DFA).

FPGA Design

Video format conversion, video interface interconversion, advanced video quality improvement, audio and video processing, DSP coprocessors.

Enclosure Design

Sketching, model detailing, inner structure design, enclosure sample production, mass production support.

Stack-up/Build-up Development

Internal PCB structure composed of dedicated materials.
Transmission Line Configuration

3D structures, conductivity and impedance profile calculation.
Multi-Layer PCB Design

Building high-density 12+ layer circuits featuring multiple conductive signal layers and power planes.
High-Speed PCB Design

Complex high-speed interface development (multi-GHz SerDes lines, LVDS, DDR 2/3/4 memory, USB, PCIe, SATA, etc.)
Radio-Frequency (RF) PCB Design

Device layout with wireless data exchange functionality (Wi-Fi, Bluetooth, GSM, GPS, etc.)

High-Density Interconnect PCBs (HDI)

PCBs that feature finer lines and spaces; required to employ either blind and buried, or uVIA and via-in-pad technologies for fine-pitch ICs (typically BGAs)
Flex and Rigid-Flex PCB Design

Complex PCB structures comprised of flexible sections used as interconnectors for rigid parts.
Design for Manufacturing (DFM)

Achieving optimal PCB layout to eliminate potential manufacturing issues.
Design for Assembly (DFA)

Using proprietary IPC-compliant PCB libraries to avoid tombstoning and other assembly issues.