Automotive

Automotive PCB &
Flex Circuit Manufacturing

High-reliability flex, rigid, and interconnect solutions engineered for demanding vehicle environments.

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Advanced automotive electronics and connected vehicle technology
Vehicle ReliabilityElectronics designed for vibration, heat, and long-term field use.
Thermal PerformanceHeat-management solutions for demanding vehicle systems.
Signal IntegrityStable electrical performance for safety-critical electronics.
Quality ManufacturingConsistent fabrication and assembly from prototype to production.

Engineered for the Road Ahead

Automotive PCB and
Interconnect Solutions

Automotive electronics must perform through vibration, heat, electrical interference, and years of continuous field use. That demands rugged construction, stable signals, and carefully managed power and heat.

PICA supports EV battery systems, ADAS modules, infotainment, lighting, and in-cabin monitoring with flex, rigid, rigid-flex, assembly, and custom interconnect expertise.

Applications

High-Reliability Electronics for Automotive Applications

Electric vehicle charging and battery system
Power with confidence

EV Battery Management

Precision boards and flexible interconnects for high-capacity energy storage systems.

Advanced driver assistance system sensors
Safety in every signal

ADAS Modules

High-performance flex and rigid PCBs for radar, lidar, camera, and control modules.

Automotive infotainment display
Responsive by design

Infotainment & Displays

EMI-conscious, signal-stable electronics for touchscreens and integrated vehicle displays.

Automotive adaptive lighting system
Reliable illumination

Lighting Systems

PCB solutions for smart LED modules, adaptive lighting, and dependable power delivery.

In-cabin automotive monitoring technology
Continuous awareness

In-Cabin Monitoring

Durable electronics for fatigue detection, biometrics, and next-generation safety features.

Engineering Support

Have a Design Challenge?

Talk to an Engineer Today.

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Metal core PCB applications in street lighting, automotive lamps, plant grow lights, new energy vehicle electronics, stage lighting, and industrial equipment

What Are Metal Core PCBs Used For? Applications, Benefits, and Industry Examples

As electronic devices become more powerful and compact, managing heat has become one of the most important challenges in product...

Small flex circuit with black EMI shielding

How Flex PCBs Are Shielded for EMI and RFI Protection

Electromagnetic interference (EMI) and radio frequency interference (RFI) can disrupt signal quality, create data errors, and reduce...

Metal Core PCBs (MCPCBs): Thermal Muscle for High-Power Electronics

Modern electronics pack more power into tighter spaces than ever. That heat has to go somewhere.

An infographic illustrating the key manufacturing processes for Printed Circuit Boards (PCBs) and Flexible Printed Circuits (FPCs), including subtractive, semi-additive, and additive techniques. The image highlights the evolution of PCB manufacturing methods to support smaller devices, denser routing, and higher performance, emphasizing the importance of choosing the appropriate fabrication technique to improve impedance control, reduce copper waste, and meet the demands of modern miniaturized electronics.

Guide to PCB & FPC Manufacturing Processes

This blog is an excerpt from the white paper Guide to PCB & FPC Manufacturing Processes: Subtractive, Semi-Additive & Additive...

An infographic illustrating key design considerations for high-voltage printed circuit boards (PCBs), including trace spacing, creepage distance, and material selection, to ensure safety and reliability in high-voltage applications. This image is featured in PICA Manufacturing Solutions' blog post, which provides essential layout and material considerations for designing high-voltage PCBs. The post emphasizes the importance of understanding clearance, creepage, and working voltage to prevent arcing and ensure compliance with safety standards. It also discusses best practices such as widening trace spacing, using slots to improve creepage, selecting materials with high Comparative Tracking Index (CTI), and adding conformal coatings for extra protection. Additionally, the post highlights thermal and mechanical considerations to maintain insulation performance over time.

Designing High Voltage PCBs: Key Layout and Material Considerations

When working with high-voltage circuits, design priorities shift. While many PCBs focus on high-speed signaling, impedance control, or...

Flexible PCB Bend Radius Guidelines

Understanding Copper Limits & Bend Radius in Flex PCBs

Whether you're designing for a high-durability dynamic application or a compact static installation, every detail matters—from copper type and thickness...

The Rise of Ceramic Substrate Printed Circuit Board

Ceramic substrate PCBs (Printed Circuit Boards) represent a significant advancement in circuit board technology, especially when compared to traditional...

The Power of Embedded Passives

At PICA, we pride ourselves on being at the forefront of new technological advancements, including embedded passives. Through this blog...