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PCB DESIGN SERVICES · CONCEPT TO PRODUCTION

From schematic to a
board that ships.

AID-IOT designs production-ready printed circuit boards — schematic capture, multi-layer and high-speed layout, RF, power and signal integrity — handed off fabrication-ready with complete, build-it-once documentation.

2–16+

Layer designs

DDR · RF · power

High-speed & mixed-signal

IPC-class

Designed to standard

Fab-ready

Complete handoff package

6-layer controlled-impedance PCB
◉ 6-layer · controlled impedance
◉ SI / PI verified
◉ DFM reviewed

WHAT WE DESIGN

A full PCB design practice, not a single skill.

The same team that builds AID-IOT's own edge devices designs boards for yours — across digital, RF, power and mixed-signal domains, from a two-layer sensor node to a dense multi-layer gateway.

Schematic design & capture

Hierarchical schematics, considered part selection and simulation of critical nets — reviewed before a single track is routed.

Multi-layer PCB layout

From 2 to 16+ layers with disciplined stack-ups, controlled impedance and dense BGA fan-out for compact, reliable boards.

High-speed digital

DDR3/4, USB, Ethernet and MIPI routed with length-matching, reference-plane control and tight impedance budgets.

RF & antenna

2.4 GHz, sub-GHz and NavIC / GNSS front-ends with matching networks, ground stitching and disciplined keep-outs.

Power & mixed-signal

DC-DC conversion, high-current planes and thermal relief laid out for low noise and EMC compliance from the start.

Signal & power integrity

SI/PI analysis, decoupling strategy and clean return paths so the board behaves the way the schematic promised.

DFM · DFA · DFT

Manufacturability, assembly and test designed in against your fab and line — fewer spins, higher yield.

Flex & rigid-flex

Bend-aware stack-ups and dynamic-flex routing for wearables, rugged enclosures and tight mechanical envelopes.

Fab & assembly handoff

Gerber / ODB++, BOM, pick-and-place, drill and fab notes — a complete, unambiguous package ready to build.

HOW WE WORK

A disciplined path from idea to a board that ships.

Six stages, one accountable team. Every gate has a review, so problems are caught on screen — not on the bench after a costly spin.

01

Requirements & architecture

We capture the electrical, mechanical and compliance constraints, lock the block diagram and agree a component strategy before any design starts.

02

Schematic capture

Hierarchical schematic, part selection with sourcing in mind, simulation of critical nets and a full design review against the requirements.

03

Layout & routing

Stack-up definition, component placement, controlled-impedance routing, length matching and copper pours — built for both signal and manufacturability.

04

SI/PI & DFM review

Signal- and power-integrity checks, design-rule verification and a manufacturability review against your fabricator and assembly line’s real capabilities.

05

Fabrication & assembly

We release fab-ready data, manage fabrication and assembly with trusted partners, and run first-article inspection on the returned boards.

06

Bring-up & validation

Power-up, functional bring-up, debugging and design iteration through to a signed-off, production-ready revision.

TECHNOLOGY

Stack-ups and tolerances built for real fabrication.

We design to the capabilities of proven fabricators — so the data we release builds first time, at the yield and cost you planned for.

6-LAYER CONTROLLED-IMPEDANCE STACK-UPSoldermaskL1 · SignalPrepregL2 · GroundCoreL3 · SignalPrepregL4 · PowerPrepregL5 · GroundPrepregL6 · SignalSoldermask1.60 mm ±10%50Ω single90Ω differentialSIG / GND / SIG / PWR / GND / SIG · FR-4 · ENIG

Layer count

2 – 16+ layers

Min track / space

3 / 3 mil (0.075 mm)

Min mechanical via

0.15 mm finished

Impedance control

±10%, single & differential

Base materials

FR-4, high-Tg, Rogers, flex

Surface finish

ENIG · HASL · OSP

Board types

Rigid · flex · rigid-flex

Smallest package

0201 passives · 0.4 mm BGA

STANDARDS & TOOLING

Designed to standard. Documented for the line.

Every board is designed and verified to recognised IPC standards and handed off with documentation a fabricator and assembler can build from without a single clarifying email.

IPC-2221

Generic PCB design

IPC-2152

Current-carrying capacity

IPC-6012

Rigid board qualification

IPC-A-610

Assembly acceptability

IPC-7351

Land-pattern standards

RoHS / REACH

Material compliance

HANDOFF PACKAGE

Gerber X2 / ODB++Drill & fab notesBill of materialsPick-and-placeAssembly drawingsImpedance report3D STEP model

SELECTED WORK

Boards we've taken from schematic to silicon.

A cross-section of recent designs across IoT, RF, power and wearable form factors.

6-layer cellular + mesh gatewayIOT GATEWAY

6-layer cellular + mesh gateway

DDR3 · sub-GHz RF · PMIC

Sub-GHz battery sensorRF SENSOR NODE

Sub-GHz battery sensor

2-layer · integrated antenna

Motor-control & power boardPOWER & CONTROL

Motor-control & power board

4-layer · high-current planes

Rigid-flex wearable stackWEARABLE

Rigid-flex wearable stack

Rigid-flex · 0.4 mm BGA

PART OF A WHOLE SYSTEM

PCB design that already knows the rest of your product.

We don't design boards in isolation. AID-IOT builds complete IoT systems — so your PCB arrives aligned with firmware, enclosure and the realities of production.

Firmware-aware layout

The team writing the firmware sits beside the one routing the board — pin-maps and bring-up are settled together, not over a fence.

Enclosure & mechanical fit

Boards designed to the 3D model from day one: connector placement, mounting, height and thermal all reconciled before fabrication.

Production & supply aware

Component choices weighed for availability, lifecycle and cost, so the design that passes review is the design you can actually build at volume.

Have a problem?

We design, deploy, and scale the solution.

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