AI Scribe Hardware OEM & ODM

You build the AI software. We build the physical hardware layer.

Workers on the GMIC assembly line building voice-capture hardware

GMIC works with AI scribe and healthcare software companies that need dedicated voice-capture hardware, firmware customization, audio engineering, SDK/API integration, and production support — from prototype to mass production.

Hardware + PCB Firmware Audio & DSP SDK/API Prototype → Production OEM/ODM Manufacturing + QC

15+
Years of manufacturing experience
270+
Hardware programs shipped
50K+
Units per month capacity
US + CN
Anaheim, CA & Shenzhen, China

Turn Your AI Scribe Software Into a Physical Product

Most AI scribe platforms start on hardware that was already in the room — a phone in a coat pocket, a laptop on the desk. That is the right way to validate the product, and it stops being the right way once the software works and the constraint moves to how the audio arrives.

At that point the requests are consistent: a hands-free workflow, a microphone that sits in the same place on every encounter, recording that survives a dead zone, device identity, your brand on the hardware, firmware you control, and a fleet that behaves the same way everywhere.

This page is about how that hardware gets built. If you are still deciding whether you need dedicated AI scribe hardware at all, settle that first — the broader category of medical dictation devices covers the landscape it sits in.

Choose the Right Development Path

Three routes, distinguished by how much of the hardware changes. Most programs are best served by the lightest path that meets the requirement.

Dimension White label OEM / platform customization Full ODM development
Best for Fastest path to market An existing platform that needs deeper changes A fully custom product
Hardware changes Minimal — branding only Moderate — microphone, buttons, LEDs, enclosure Full — new PCB, custom architecture
Firmware changes Cloud endpoint and basic configuration Recording logic, connectivity, OTA Ground-up firmware
Time to pilot Fastest Moderate Longest
Engineering depth Light Medium Deep
Typical next step Evaluate an existing platform Technical review Requirements workshop

Scroll the table horizontally to compare →

White label

An existing GMIC platform, branded as yours and pointed at your cloud endpoint. The hardware is already validated, so the work is configuration and packaging rather than development — usually the fastest route to a pilot.

Evaluate existing hardware

OEM / platform customization

Start from a proven platform and change what the workflow requires — microphone placement, button and LED behavior, connectivity, enclosure, recording logic. The base electronics stay, which keeps validation scope contained.

Discuss customization

Full ODM development

A new product: custom PCB, microphone architecture, mechanical design, and firmware written for your workflow. The right path when the form factor or the audio requirement has no equivalent on the shelf.

Start a requirements review

Customization Capabilities

Depending on the selected platform and project requirements, the following areas are open for customization.

Microphone & audio

Element selection and topology, placement on the form factor, the analog and digital front end, and a DSP chain tuned as one system.

Firmware

Recording logic, button and LED behavior, local storage, upload and retry, BLE and Wi-Fi behavior, OTA updates, power states, and device authentication.

Hardware

PCB and electronics design, connectivity, onboard storage, battery and power architecture, buttons, and status indicators.

Software integration

SDK and API work against your cloud, speech-to-text backend, AI platform, private server, or companion app — whichever the deployment already uses.

Branding

Device logo and marking, enclosure finish, packaging, and the documentation that ships with the unit.

Mechanical

Enclosure and form factor, wearable structure, and the mounting, clip, or lanyard the device is actually carried on.

Design Hardware Around the Real Recording Environment

Audio hardware cannot be specified from a software document alone. Before an architecture can be chosen, the engineering team needs to know who is speaking, how far they are from the device, what the room is made of, what else is making noise, and whether the clinician is moving.

Those five answers decide the element count, the placement, the DSP chain, and often the form factor itself — and a device that measures well on a bench can behave very differently on a moving clinician. The trade-offs are covered in the guide to choosing a microphone for an AI scribe; the tuning work itself is audio and DSP tuning.

Engineer probing an assembled voice-capture board with oscilloscope probes during signal validation
Audio and signal validation during device testing

Firmware That Fits Your AI Scribe Workflow

Firmware is where a hardware program either matches the clinical workflow or fights it — and it is the layer with the least existing code to reuse.

  • Press-to-record or continuous capture
  • Local storage on the device
  • Wi-Fi upload to your endpoint
  • BLE pairing through a companion app
  • Retry logic and offline workflow
  • OTA update paths
  • Battery and power management
  • Device authentication and identity

Depending on the selected platform and project requirements, these behaviors are configured rather than rebuilt. Scope is covered under firmware integration.

Connect Hardware to Your AI Stack

The device is one layer of a system you already own. Everything downstream of the upload stays yours.

GMIC hardware
  1. Doctor / patient

    The encounter, in the room where it actually happens.

  2. GMIC hardware

    Wearable, badge, desktop, or tabletop device carrying your brand.

  3. Audio + DSP

    Front end and processing chain tuned for the target environment.

  4. Firmware

    Recording behavior, storage, authentication, and upload logic.

  5. Recording or stream

    Written locally for later upload, or streamed live.

Transport
Wi-Fi
BLE
USB
Your software
  1. Your SDK / API

    The endpoint the device authenticates to and uploads through.

  2. Your cloud

    Your infrastructure or private server, under your controls.

  3. Your speech-to-text

    Whichever ASR your platform already runs.

  4. Your AI scribe

    Your models, your prompts, your clinical output format.

  5. Your clinical workflow

    Delivered into the record system by your platform.

You do not need to replace your existing AI stack. The goal is to integrate the device into the architecture you already run, which is what AI SDK integration covers.

Offline Recording, Upload, or Real-Time Streaming

Four workable architectures. The right one follows from the network the devices will actually live on.

Local recording + batch upload

Audio is written to the device and uploaded when the clinician returns to coverage. Recording never depends on the network being there during the encounter.

Real-time streaming

Audio moves to your cloud during the encounter, so transcription can begin immediately. Requires stable coverage everywhere the device is used.

Offline-first + delayed sync

The device assumes no network, stores everything, and syncs opportunistically. Storage sizing and retry behavior become firmware requirements.

Hybrid

Stream when coverage allows, fall back to local recording when it does not — the most flexible option, and the most firmware logic to specify.

Existing Platform vs Custom

Start with an existing platform

Samples exist, so the audio can be tested in your rooms rather than after a development cycle. A pilot can run on branded units while the product decision is still open, and the findings carry forward if you later move to a custom build.

See the existing AI voice hardware platforms.

Build a custom platform

Worth it when the requirement genuinely exceeds what is on the shelf — an unusual form factor, a microphone geometry no existing device has, a battery target no existing enclosure can hold, or an integration that has to be in the firmware from the start.

That path runs as AI hardware ODM/OEM.

Wearable AI Scribe Hardware

Wearables fit the cases where the clinician's hands are occupied and the location changes constantly — rounds, home visits, outpatient clinics. Worn on the body, the microphone keeps roughly the same distance from the wearer's mouth on every encounter, which matters more for transcription consistency than raw specification.

The constraints are worth naming early: battery life against a full shift, comfort over hours, microphone position relative to clothing, distance to the second speaker, and contact noise from fabric against the enclosure. Design considerations across form factors are covered under AI wearable devices.

Privacy & Security

Hardware alone does not make an AI scribe system HIPAA compliant

Compliance is a property of the whole system — how audio is stored, transmitted, accessed, retained, and disclosed, and the agreements between the parties handling it. A device can support that architecture; it cannot deliver it on its own.

  • Where audio is stored on the device, and for how long
  • How the device authenticates to your endpoint
  • How data is protected in transit
  • What happens to recordings after a successful upload
  • How a lost or decommissioned device is handled
  • Which party is responsible for each step

These are decisions for your security and legal teams, taken against your own deployment. The HIPAA Security Rule is the public reference for the safeguards involved. It is cited here to support the principle, not as a claim that any device is compliant.

Certification Planning

What a device needs depends on its architecture, its wireless technology, the markets it ships to, and its intended use.

For a connected recording device, the scope typically includes some combination of FCC, CE, RoHS, UKCA, TELEC, and ISED, driven mainly by the radio and the destination market. Planning it early matters, because certification scope influences hardware decisions that are expensive to revisit later.

Intended use is a separate question, and one for your regulatory counsel rather than your hardware partner — whether a product is regulated as a medical device depends on what it claims to do. The FDA guidance on medical device determination is the US starting point. GMIC does not provide FDA clearance or approval.

Test planning, documentation, and lab coordination run under hardware certification support.

Development Process

Eleven stages from first conversation to deployed fleet. Duration depends on the path chosen and the certification scope.

  1. 1

    Requirements

    Workflow, environment, speakers, connectivity, volume.

  2. 2

    Platform selection

    White label, OEM, or full ODM — decided against the requirement.

  3. 3

    Sample evaluation

    Real units tested in your rooms, not in a demo.

  4. 4

    Audio evaluation

    Recordings run through your own transcription pipeline.

  5. 5

    Firmware & API

    Upload, authentication, and endpoints tested against your server.

  6. 6

    Pilot

    A limited fleet with real clinicians and real encounters.

  7. 7

    Engineering validation

    EVT, DVT, and PVT builds against defined exit criteria.

  8. 8

    Certification

    Test planning and lab coordination for the target markets.

  9. 9

    Production

    Tooling, line setup, and first mass-production run.

  10. 10

    QC

    Inspection, functional test, and burn-in on every batch.

  11. 11

    Deployment

    Provisioning, packaging, and shipment to your sites.

Stages seven through nine are described in detail under EVT, DVT, and PVT validation and the wider AI hardware development process.Book a call

Manufacturing & QC

GMIC is the AI hardware division of Gainstrong, a contract manufacturer founded in 2009. Engineering and production are in Shenzhen; the commercial team is in Anaheim, California.

Workers on the GMIC assembly line
Assembly
GMIC SMT production line in operation
SMT Production
Row of automated inspection machines on the GMIC line
AOI Inspection
Operator running an automated optical inspection machine on assembled boards
Signal Testing
Racks of powered assemblies undergoing burn-in aging test
Burn-in Testing
PCB assembly line with operators at workstations
PCB Assembly

Supplier detail, capacity, and quality systems are covered under AI hardware ODM/OEM manufacturing.

What to Send Us

Enough to give you a real answer instead of a generic one. Partial information is fine.

  • Your current AI scribe product and software architecture
  • Target recording workflow and who uses the device
  • Recording environment and number of speakers
  • Microphone position and desired form factor
  • Wearable or stationary
  • Local recording, streaming, or both
  • Connectivity and SDK/API requirements
  • Cloud architecture and security requirements
  • Target geography and certifications needed
  • Pilot quantity and expected production volume
  • Branding requirements and desired timing

Is GMIC the Right Partner?

Worth checking before either side spends time on a call.

Good fit

  • You already have AI scribe or transcription software
  • You need a dedicated hardware layer under it
  • You need firmware or device integration work
  • You are evaluating a pilot or a product rollout
  • You need OEM, ODM, or white-label manufacturing

Less likely fit

  • You want a single recorder for personal use
  • You are looking for transcription software rather than hardware
  • You need a consumer microphone available at retail
  • You do not need hardware development or manufacturing

Frequently Asked Questions

A manufacturer that builds voice-capture hardware for AI scribe software companies — under the customer's brand, and integrated with the customer's platform.

Yes. GMIC provides OEM and ODM services to build dedicated hardware that connects to your existing AI stack through SDK/API integration. Your speech-to-text, models, and clinical output stay where they are.

Yes. Existing GMIC platforms can be branded with a custom logo, packaging, and documentation, with firmware configured for your cloud endpoint.

OEM typically involves customizing an existing hardware platform. ODM involves deeper custom development — a new PCB, a custom microphone architecture, ground-up firmware. GMIC supports both paths.

Yes, depending on the platform and project scope. Firmware can be configured to upload audio or session data to your cloud endpoint through your SDK or API.

Yes. GMIC hardware captures and delivers audio. Your software performs speech recognition, AI processing, and clinical documentation.

Yes. Recording logic, connectivity, upload behavior, buttons, LEDs, OTA updates, power management, and device authentication can be configured based on project requirements.

MOQ depends on the level of customization, the hardware architecture, tooling, and expected volume. GMIC reviews the project before providing a specific estimate.

Timeline depends on customization depth — white label is fastest, full ODM is longest. GMIC provides a project-specific timeline after a requirements review.

Yes. GMIC supports the full path from sample evaluation through pilot, engineering validation (EVT/DVT/PVT), certification planning, and mass production.

Begin

Build the Hardware Layer for Your AI Scribe

Already have an AI scribe, medical transcription, or clinical documentation platform? Send GMIC your workflow, software architecture, hardware requirements, and expected deployment volume. We can evaluate whether an existing hardware platform, OEM customization, or deeper ODM development is the right starting point.

Written by GMIC AI Product Team Technical review: Engineering Lead Last updated