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A1SI Engineering Services · Hardware

Electronics design, from schematic to certified production hardware.

A1SI picks up hardware programs at any stage and drives them to a production hand-off: block diagram, schematic, PCB layout, prototype bring-up, EMC pre-compliance, and DFM-cleaned files for the contract manufacturer. We work at the bench every day — Altium and LTspice on the desktop, a Saleae and a Tektronix scope at the elbow, a test fixture wired to the panel that's about to enter production. The engineering posture comes from 30+ years of shipping production-floor controllers (Ford FN-145 seat testers, the DVP2 digital multi-printer, the Spartan ActiveRide suspension controller); every board we ship is designed to be testable, repairable, and respinnable in vendor-neutral file formats.

See the toolchain
A1SI engineering workstation — two large displays running PCB layout and signal-integrity software, a mechanical keyboard and mouse on a clean workbench, neutral office lighting; the everyday surface where schematic capture, place-and-route, and bring-up sit side by side.

Capabilities

Six disciplines, one bench.

Every hardware program touches the same six disciplines in some combination. A1SI runs all of them in-house, with the people who own the schematic also running the bring-up and the EMC pre-compliance scan — no hand-offs across walls, no "another team owns that signal."

Analog & mixed-signal design

Op-amp and instrumentation-amplifier stages, precision references, ADC / DAC interfaces, sensor front-ends. Ground-loop discipline, current-return-path planning, anti-aliasing filters specified against the converter datasheet. PSpice and LTspice models on every non-trivial loop before layout.

Digital & high-speed

MCU and SoC integration, FPGA bring-up, DDR3 / DDR4 memory, USB 2.0 / 3.0, Gigabit Ethernet, PCIe Gen 1 / 2, MIPI CSI/DSI. Controlled-impedance stack-ups, length-matched buses, eye-diagram analysis where the margin is real.

PCB layout

2-layer prototypes through 16+ layer controlled-impedance production boards. Mixed analog / RF / digital partitioning, plane-stitching strategy, design-for-manufacture and design-for-test passes, vendor-neutral IPC-2581 / ODB++ / Gerber + IPC-356 netlist hand-off.

EMC / EMI compliance

Pre-compliance scans in the lab and at the chamber, conducted and radiated emissions, ESD / EFT / surge resilience. Design-stage filter and layout choices that get a board through FCC Part 15 (Class B / Class A), CE EN 55032 / EN 55035, and the IEC 61000-4 transient suite — not after-the-fact ferrite-bead remediation.

Signal & power integrity

Stack-up planning, decoupling network design, PDN target-impedance budgets, TDR-validated transmission lines, VNA-measured impedance on the controlled-Z layers. Power rails sequenced and characterized at every load step before firmware bring-up starts.

Thermal management

IR thermography on every bring-up, junction-to-ambient budgets against the BoM's package thermals, heatsink and airflow design where the margin is tight. ANSYS Icepak or Siemens FloEFD conjugate heat-transfer modelling for forced-air and free-convection enclosures.

How we engage

Five steps from concept to production hand-off.

We organize every hardware program around the same five-step flow so you always know where the work is, what the next gate is, and what the deliverable looks like at each stage.

  1. Concept & requirements

    Block diagram, BoM cost target, regulatory scope, environmental envelope, test-plan outline. The artifact: a written requirements doc the schematic will be reviewed against.

  2. Schematic design

    Component selection against second-source and lifecycle constraints, SPICE simulation on the non-trivial loops, design reviews. The artifact: a schematic + BoM that meets every requirement in the doc above.

  3. PCB layout

    Stack-up + impedance budgets, placement + routing, signal- and power-integrity checks, DFM / DFT pass with the chosen CM. The artifact: IPC-2581 / ODB++ / Gerber + drill + IPC-356 netlist, ready for fabrication.

  4. Prototype bring-up

    First-article assembly review, power-up under current limit, rail sequencing, firmware bring-up, EMC pre-compliance scan, thermal IR pass. The artifact: a bring-up report against the test plan, with every checkbox green or with a written disposition.

  5. Production hand-off

    DFM-cleaned files, panelization, ICT / AOI / flying-probe fixture design, supplier qualification, first-production-lot review, ongoing yield support. The artifact: a production package the CM can build to with no engineering-side questions left open.

The bench

Industry-standard tools, vendor-neutral output.

Every project uses the right tool for the job, but the deliverable is always portable: ODB++ / IPC-2581 / Gerber + a written test plan, not a proprietary database the next engineer can't open. If your team prefers KiCad, we ship in KiCad. If your CM expects Altium, we ship in Altium. The output is what's portable; the choice of input tool is what's pragmatic.

  • Altium DesignerPrimary PCB capture and layout environment. Schematic, layout, simulation, ActiveBOM, MCAD interchange.
  • KiCadOpen-source alternative for cost-constrained programs, academic collaborations, and projects where the customer's long-term toolchain choice is unsettled.
  • LTspice · PSpiceAnalog and power-stage simulation on every non-trivial loop. Models from Linear / Analog Devices, TI, Vishay, Wolfspeed for transient and AC sweeps before the schematic goes to layout.
  • Keysight ADS · HFSSRF capture and 3D electromagnetic solver for impedance-controlled lines, RF front-ends, and antenna placement. EM co-simulation against the layout, not against a guess.
  • ANSYS Icepak · FloEFDConjugate heat-transfer simulation for forced-air and free-convection enclosures. Junction-to-ambient budgets validated against the BoM's package thermals before the heatsink BoM is ordered.
  • Saleae · Tektronix · RigolBench instrumentation for bring-up: 16-channel logic analyzer, 4-channel scope with FFT and bus decode, VNA, TDR, spectrum analyzer, EMC pre-compliance receiver, IR thermal camera.

What we deliver

A production-ready package, not a handoff headache.

Every program closes with the same artifact list — files in vendor-neutral formats, a written test plan with results, and a DFM-clean production package the CM can build to without an engineering escalation.

Board complexity
2-layer prototypes → 16-layer controlled-impedance production
Component class
Single-MCU IoT sensors → SoC + DDR4 + FPGA mixed-signal
EMC envelope
FCC Part 15 B / C · CE EN 55032 / 55035 · IEC 61000-4
Standards posture
IPC-2581 / ODB++ hand-off · IPC-A-610 acceptance · IPC-7711/7721 rework

Why A1SI

Built the same way we build the production-floor controllers we ship.

Reliability by design, not by remediation

Every board is engineered against a written test plan before the first prototype is ordered, and every test on that plan is run against the first article. If a test fails, the disposition is written into the report — accept, rework, redesign — and the design loop closes against the disposition. We do not ship designs that fail their own qualification suite.

Production-floor pedigree

A1SI's predecessor companies have been shipping production-floor hardware controllers since 1992 — the Ford FN-145 seat testers, the DVP2 digital multi-printer, the Spartan ActiveRide suspension controller, the GM ATEC EPROM programmer. Lessons from the line — operator-readable diagnostics, savable serial logs, openly-documented interfaces — shape every board we touch.

Open, vendor-neutral hand-off

ODB++ / IPC-2581 / Gerber + IPC-356 netlist + IPC-A-610 acceptance criteria + a written bring-up report. Your CM gets every artifact in a vendor-neutral format; your next engineer gets a design they can open in the toolchain of their choosing. No lock-in to a proprietary file format, no NDA-only IP, no "trust us, it works."

Have a hardware program in motion?

A1SI picks up programs at every stage — concept, schematic, layout, bring-up, EMC pre-compliance, production hand-off, second source, end-of-life redesign. Send the block diagram, the regulatory target, or the bring-up report you're stuck on; we'll come back with what we'd do next and what the engagement would look like.

"Altium" and "Altium Designer" are trademarks of Altium Limited. "KiCad" is a trademark of the KiCad project under the CERN Open Hardware License umbrella. "LTspice" is a trademark associated with Linear Technology Corporation / Analog Devices, Inc. "PSpice" is a trademark of Cadence Design Systems, Inc. "Keysight", "ADS", and "HFSS" are trademarks of Keysight Technologies, Inc. / Ansys, Inc. (HFSS is now an Ansys product). "ANSYS" and "Icepak" are trademarks of Ansys, Inc. "Siemens" and "FloEFD" are trademarks of Siemens AG / Mentor Graphics Corporation. "Tektronix" is a trademark of Tektronix, Inc. "Saleae" is a trademark of Saleae, Inc. "Rigol" is a trademark of Rigol Technologies, Inc. "FCC" refers to the United States Federal Communications Commission. "CE" refers to the European Conformité Européenne marking. "IPC" refers to IPC International, Inc.; standards cited (IPC-2581, IPC-A-610, IPC-7711/7721, IPC-356) are published by IPC International, Inc. "ODB++" is a trademark of Mentor Graphics Corporation / Siemens. "Ford", "Mustang", and "FN-145" are trademarks of Ford Motor Company. "LUCHT" and "DVP2" are trademarks associated with Lucht Engineering Inc. "Spartan Motors" and "SmartRide" are trademarks associated with Spartan Motors Chassis Inc. / The Shyft Group. Descriptive editorial use only; A1SI is not affiliated with or endorsed by any named third party.