PCB Design & Layout
Boards engineered for signal integrity, manufacturability, and the smallest footprint your product can carry.
What is PCB design and layout?
PCB design and layout is the engineering of a printed circuit board — schematic capture, component placement, copper routing, stack-up, and generation of the fabrication files. We design multilayer, high-speed, and HDI boards with signal-integrity and design-for-manufacturing discipline, and release a complete file set a fabricator and assembler can build without a single follow-up question.
A design service, not a board broker
Search for "PCB design" and most results are fabrication houses that treat layout as a free add-on to win the board order. That is not what we do. We are electronics engineers who design boards — and we are paid for the engineering, with no incentive to steer you toward a particular fab.
That independence matters. We design to your fabricator's real capabilities, hand you native CAD files you own, and make placement and routing decisions based on how the circuit needs to behave — not on what is easiest to quote.
Where HDI earns its keep
When a product has to shrink — or a fine-pitch BGA simply leaves no room for ordinary vias — high-density interconnect design is what makes the board possible. Microvias, via-in-pad, and stacked vias let us escape dense packages, shorten high-speed nets, and pack more function into less area, often reducing both board size and layer count.
HDI is not the right answer for every board, and we will tell you when it is not. But when your product needs it, designing HDI well is the difference between a board that fits and one that does not.
PCB design vs PCB layout: what is the difference?
The two terms are often used interchangeably, but they describe different scopes. PCB design is the whole engineering effort — schematic, component selection, and electrical intent. PCB layout is the physical step within it: placing parts, routing copper, and generating the manufacturing files.
| PCB design | PCB layout | |
|---|---|---|
| Scope | The complete board-engineering effort | The physical-implementation step within design |
| Main activities | Schematic capture, component selection, electrical decisions | Placement, routing, copper pours, stack-up |
| Starts from | Requirements and circuit intent | A finished schematic and netlist |
| Produces | A verified circuit and the intent behind it | Gerber/ODB++, drill, BOM, and assembly files |
| Key question | Will this circuit do the job? | Will this physical board perform and build correctly? |
Layout disciplines on every board
From schematic to fabrication release
- 01
Schematic Review
We start from your schematic — or capture one — and confirm netlist, footprints, and the electrical intent before any placement.
- 02
Stack-up & Rules
We define the layer stack-up, impedance targets, and design rules to match both the circuit and your chosen fabricator.
- 03
Placement
Components are placed for signal integrity, thermal performance, test access, and assembly — the decisions that make or break a layout.
- 04
Route & Verify
Controlled-impedance and length-matched routing, copper pours, then full DRC/ERC verification against the rule set.
- 05
Release
We generate and sanity-check the complete fabrication and assembly package, ready to build.
The release package
Board technology we work in
How much does PCB design cost?
PCB design cost follows complexity — layer count, component density, and signal-integrity requirements drive most of it. The ranges below are typical for a layout iteration and exclude board fabrication and assembly.
| Board complexity | Typical design cost | What drives it |
|---|---|---|
| Simple 2-layer, low part count | $500 – $2,000 | Few components, no high-speed nets |
| Multilayer (4–8 layers) | $2,000 – $8,000 | More routing, power planes, moderate density |
| High-speed / controlled impedance | $5,000 – $15,000 | Length matching, differential pairs, SI analysis |
| HDI / dense fine-pitch BGA | $10,000 – $30,000+ | Microvias, via-in-pad, tight escape routing |
Directional ranges per design iteration. We give a firm quote once we have reviewed the schematic and board requirements.
PCB Design & Layout FAQs
PCB design is the broader effort — it includes the schematic, component selection, and the electrical intent of the circuit. PCB layout is the step that turns that schematic into a physical board: placement, routing, copper pours, stack-up, and the Gerber and drill files. Every layout is part of a design, but design also covers the decisions made before any trace is drawn.
HDI (high-density interconnect) PCB design uses microvias, finer traces, and stacked or buried vias to pack more connections into less space. You need it when a board has to shrink, when fine-pitch BGAs leave no room for standard vias, or when high-speed signals demand shorter, cleaner routing. Applied well, HDI can cut board area substantially and reduce layer count.
A complete release package: Gerber or ODB++ fabrication files, NC drill files, a bill of materials (BOM), centroid/pick-and-place files, assembly drawings, the schematic, a design-rule-check (DRC) report, and a fabrication drawing with stack-up and impedance notes. It is everything a fabricator and assembler need — no missing pieces to chase.
We work in the industry-standard professional toolchains — including Cadence OrCAD & Allegro (primary), Siemens Xpedition, Altium Designer, and KiCAD — and match the tool to the project and to your existing design database when you have one. That means we can pick up an in-progress design or hand you native files you can maintain yourself.
PCB design is usually quoted by complexity — layer count, component count, density, and signal-integrity requirements — rather than a flat fee. A straightforward two- to four-layer board is a modest engineering cost; a dense, high-speed HDI board with controlled impedance is considerably more. We give a firm quote once we understand the schematic and board requirements.
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