High-Density Interconnect PCB Design: Miniaturize Without Compromise.

Pack more functionality into less space. Our HDI expertise delivers reliable, high-performance boards for your most advanced electronics.

HDI PCB Design

Why Choose HDI PCB Design?

HDI design is the key to unlocking next-generation product innovation. It allows you to overcome the physical limits of traditional PCBs, enabling smaller form factors, superior electrical performance, and enhanced reliability—all critical for staying ahead in competitive markets.

Extreme Miniaturization

Integrate more components in a smaller area, enabling sleek, portable, and lightweight product designs.

Enhanced Signal Performance

Enhanced Signal Performance

Shorter pathways and advanced via structures reduce signal loss and crossing delays, crucial for high-speed applications.

Improved Reliability

Improved Reliability

Dense interconnections and robust microvia structures increase board durability and longevity under stress.

Our HDI PCB Design Capabilities

We navigate the complexities of HDI to translate your ambitious concepts into manufacturable reality. Our capabilities are tailored to meet the stringent demands of high-density layouts, ensuring both performance and yield.

HDI PCB Stackup
  • 1+N+1 to 4+N+4 Stack-ups

  • Microvias (Blind, Buried, Stacked)

  • Fine Line Tracing (down to 2/2 mil)

  • High-Pin-Count BGA Escape Routing

  • Sequential Lamination Planning

  • Rigid-Flex HDI Integration

Supporting Subheading

The HDI Design & Engineering Workflow

HDI success requires a meticulous, phase-gated approach. Our workflow is built to manage complexity proactively, ensuring every design decision supports manufacturability and performance from the start.

Density Analysis & Strategy

We assess component placement and netlist complexity to define the optimal HDI stack-up and technology path (e.g., laser vs. mechanical drilling), establishing a feasible foundation.

Critical Net Planning & Constraint Setting

High-speed and critical signals are planned upfront, setting rules for impedance, length matching, and via usage to prevent signal integrity issues in the dense layout.

Layer-by-Layer Routing & Via Optimization

We execute routing with a focus on via-in-pad and microvia utilization, minimizing layer count and maximizing space efficiency while adhering to fabrication capabilities.

DFM/DFA Review with Fabrication Partner

The layout undergoes a joint review with our manufacturing team, aligning design choices with process capabilities to eliminate yield risks early.

Prototype Data Package & Panelization

We prepare a complete data set including Gerber files, drill charts, and a panel drawing optimized for HDI processes like laser drilling and sequential lamination.

Production Ramp-Up Support

We monitor the first production run, providing engineering support to ensure a smooth transition from prototype to volume manufacturing.

HDI PCB Design Services

Why Partner with Us for HDI Design?

HDI design decisions directly determine your product’s manufacturability, cost, and timeline. A layout that looks perfect in CAD can still lead to low yields and delayed launches if not aligned with fabrication reality. We ensure your design is not only dense and high-performing, but also optimized for reliable, scalable production—turning advanced layouts into deliverable products.

Our HDI PCB Manufacturing Capabilities

Our advanced manufacturing facility is equipped with the specialized technology required for true HDI production, ensuring your complex design is executed with precision.

Capability Item Our Specifications
HDI Build-ups 1+N+1 to 4+N+4
Minimum Laser Drill 0.075mm (3 mil)
Minimum Trace/Space 2/2 mil
Microvia Types Blind, Buried, Stacked
Material Options FR-4, Mid/Low Loss, Halogen-Free
Surface Finish ENIG, ENEPIG, Immersion Silver, OSP
Copper Weight 0.5 oz - 2 oz

HDI PCB Application Industries

HDI technology is the critical enabler for products where space is at a premium and performance cannot be compromised. It solves core design challenges across a diverse range of industries by allowing more functionality in less area while improving signal integrity and reliability.

  • Advanced Driver Assistance (ADAS): Lidar Sensor Modules, Multi-Camera System Processors, Radar PCBs.

  • Vehicle Computing: Domain Control Units (DCUs), Telematics Control Units (TCUs).

  • In-Cabin Systems: Digital Instrument Clusters, Head-Up Display (HUD) Controllers.

  • Avionics: Flight Control Computers, Satellite Communication Payloads, Cockpit Display Controllers.

  • Portable Military Systems: Man-Portable Communication Devices, Ruggedized Tablet Computers, Guidance System Electronics.

  • High-Performance Computing: Server CPU/GPU Interposers, AI Accelerator Cards, Switch Fabric Boards.

  • Data Storage: Enterprise SSD Controllers, M.2 and U.2 Interface Boards.

  • Networking Hardware: Optical Transceiver Boards (QSFP-DD, OSFP), Network Switch Line Cards.

  • Handheld Devices: Smartphone Motherboards, Compact Tablet Core Boards, Gaming Handhelds.

  • Wearables: Smartwatch & Fitness Tracker Main Boards, True Wireless Stereo (TWS) Earbud PCBs.

  • Immersive Tech: AR/VR Headset Display Drivers, VR Motion Controller PCBs.

  • Industrial Sensors: Machine Vision Camera Modules, High-Accuracy Pressure/Flow Sensors, Condition Monitoring Nodes.

  • Control Systems: Compact Programmable Logic Controllers (PLCs), Robotic Arm Joint Controllers.

  • Drones & UAVs: Flight Control Boards, Gimbal Stabilization Controllers.

    • Implantable & Wearable MedTech: Pacemakers, Continuous Glucose Monitors (CGMs), Neuromodulation Devices.

    • Diagnostic Equipment: Handheld Ultrasound Probes, DNA Sequencer Cartridges, Blood Analyzer Sensor Boards.

    • Surgical & Therapeutic Tools: Robotic Surgery Instrument Arms, Laser Dentistry Handpieces.

Ready to Pack More Performance into Your Product?

HDI typically carries a higher initial cost per board due to advanced processes like laser drilling and sequential lamination. However, it often reduces the total system cost by enabling a smaller size (saving on enclosure, shipping), fewer layers than a conventional dense layout, and higher assembly yields due to better design for manufacturing.

The key risks are microvia reliability (cracking), laminate registration errors, and plating voids in high-aspect-ratio holes. We control these through strict process parameters, controlled impedance models, and by designing within proven capability limits. Every batch undergoes cross-sectioning and microvia reliability testing.

We can often perform a successful HDI redesign from an existing schematic and layout. The process involves analyzing the current layout, proposing a new HDI stack-up, and re-routing with microvias. Starting from a known-good design can significantly reduce engineering time and risk.

To provide a meaningful proposal, we need:

  1. Your schematic,
  2. Critical component datasheets (especially BGAs),
  3. Board outline and mechanical constraints,
  4. Key performance requirements (speed, impedance, thermal).

    With this, we can assess complexity and provide accurate scope.

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