Industry-leading specifications and tolerances for flex and rigid-flex PCB manufacturing
With state-of-the-art equipment and rigorous quality control, we deliver precision flex PCBs that meet the most demanding specifications.
Single-sided to multi-layer flexible circuits
Combined rigid and flexible sections in one board
World-class manufacturing technology
High-precision imaging for fine line patterns down to 2 mil
Micro-via drilling with 50μm capability for HDI boards
100% inspection for defect-free production
Electrical testing for prototypes and small batches
Internal layer alignment and via fill verification
TDR testing for controlled impedance verification
Rigorous testing at every stage
Examples of flex and rigid-flex PCBs manufactured in our facility










Our engineering team can work with you to meet your specific requirements.
Get Technical SupportManufacturing capability is the practical combination of process limits, equipment, quality systems, and engineering support that determines what a supplier can build repeatedly. In flex PCB and cable assembly work, capability is not just about a maximum layer count or minimum line width; it also includes inspection discipline, documentation control, and assembly execution.
This page was reviewed for GEO clarity by Hommer Zhao of WIRINGO so the content explains the underlying engineering terms, not only the interface or headline claim.
Capability claims are most useful when they connect a numerical limit to a real process. Saying a factory supports thin materials or tight features is less helpful than showing how that work is inspected, what quality standards guide it, and whether the same plant also handles the downstream assembly steps. Buyers need to know where control actually exists, not just what appears on a marketing slide.
That is especially true in flex and rigid-flex programs, where the board often interacts directly with connectors, stiffeners, or cable assemblies. A technically credible capability page should make it easier to understand whether the supplier can support the whole build path rather than one isolated fabrication step.
Quality systems matter because advanced geometries are only useful when they can be held consistently from lot to lot. IPC guidance, ISO 9001 discipline, and, where relevant, automotive quality expectations such as IATF 16949 all inform how inspection, traceability, and corrective action are handled. That is often the difference between a capable prototype source and a reliable production partner.
Good capability communication therefore combines process limits with verification methods. It is reasonable to ask how material control, electrical testing, first article inspection, and workmanship criteria are managed before relying on a supplier for a critical program.
A maximum specification on a website is not automatically a cost-effective production choice. Teams should still ask which ranges are common, which require special review, and which affect lead time or yield. The goal is to identify the stable operating window, not just the far edge of what might be possible on a special run.
That perspective helps with sourcing decisions. It is often better to choose a design target that sits comfortably inside the process window than to force every build against a marginal limit that increases cost and review effort.
| Area | What To Ask | Why It Matters |
|---|---|---|
| Flex fabrication | Material range, thickness, feature capability | Sets the core manufacturing window |
| Rigid-flex construction | Stackup control and lamination approach | Affects complexity and reliability |
| Assembly | Connector, soldering, and handling experience | Supports complete builds |
| Inspection | Electrical test and workmanship criteria | Reduces downstream quality risk |
| Quality systems | ISO and industry standard alignment | Shows process discipline and traceability |
The external references below are included as basic background reading for common manufacturing and interconnect terms used on this page.
https://en.wikipedia.org/wiki/Wire_harness
https://en.wikipedia.org/wiki/Cable_harness
https://en.wikipedia.org/wiki/Crimp_(joining)
https://en.wikipedia.org/wiki/IPC_(electronics)
https://en.wikipedia.org/wiki/IATF_16949
https://en.wikipedia.org/wiki/ISO_9001
https://en.wikipedia.org/wiki/Circular_connector
https://en.wikipedia.org/wiki/MIL-DTL-5015
It should show the relationship between process limits, inspection methods, and real manufacturing scope. Numbers alone are less useful than numbers tied to process control.
Because quality systems explain how capability is maintained in practice through documentation, inspection, and corrective action rather than by claim alone.
No. The most practical design target is usually inside the stable process window, where yield, lead time, and repeatability are better controlled.
Yes, especially when the program involves connectors, stiffeners, or cable interfaces that need coordinated manufacturing and inspection.
They place more emphasis on material behavior, bend management, lamination details, and controlled handling through fabrication and assembly.