DevBriX
MODULE / WR

Bring your wearable idea to life

From concept to finished prototype. DevBriX owns every stage — hardware design, firmware, BLE connectivity, and industrial design — turning your idea into a complete, working product.

14 DAYS STANDBY
BLE 2.4 GHz
Battery
Sensor
Housing

CAPABILITIES

What we do

01 · Capability

Industrial Design

Starting from anthropometric analysis, 3D surfacing in Rhino and SolidWorks. Housing and CMF optimized for DFM to keep assembly simple.

See the design process
02

PCB Design

Multi-layer PCB built around a power-efficient Cortex-M MCU. Sensors, IMU, PMIC, and radio share one board, with analog and RF domains separated to cut cross-noise.

03

Low Power Firmware

Firmware defaults to deep-sleep, waking only when needed. BLE parameters and sensor duty-cycle are tuned per application, with real current draw measured before every build is signed off.

04

Connectivity and Companion App

BLE pairing and high-speed data sync. Native companion apps for iOS and Android, with OTA firmware updates built in.

05

Charging and Battery Systems

Battery cell chosen to fit the design's exact form factor. Power stage includes protection circuitry and a fuel gauge for accurate capacity readout, supporting both magnetic pogo-pin and wireless charging.

SYSTEM ARCHITECTURE

One board, every domain accounted for

Sensors, IMU, PMIC, and radio share one board, with analog and RF domains separated to cut cross-noise.

How the power budget works
SensorsOptical biosensor
6-axis IMUMotion & fall detection
PMICProtection + fuel gauge
Cortex-M MCUnRF52832deep-sleep < 2 µA
BLE radio2.4 GHz, tuned antenna
BatteryCell matched to form factor
Companion appiOS / Android, OTA

PROCESS

From Idea to Prototype

0101

Brief intake & feasibility review

We analyze the client's constraints: form factor, battery capacity, target cost, and timeline.

0202

Architecture & component selection

Lock down the technical backbone — MCU, sensors, radio, and power stage — while sketching component placement to fit the intended housing form.

0303

Hardware, firmware, and housing in parallel

Hardware lays out the board, firmware writes the drivers, industrial design builds the 3D model — all three tracks run continuously in sync so the housing and board never drift apart.

0404

Integration & testing

Board, battery, and housing come together as one unit for functional testing, real current-draw measurement, and wear testing. Any mismatch is corrected in the 3D files or the board right away.

0505

Prototype handoff

A finished prototype is delivered for hands-on evaluation. For projects heading to production, DevBriX supports DFM optimization and quality oversight on the first production runs.

TECHNICAL DEEP DIVE

Power and Firmware

Wearable battery life isn't about a bigger cell — it's about how intelligently the device wakes up and sends data.

DevBriX firmware defaults to a deep-sleep state. Built on the Nordic nRF52832, the system idles below 2µA, waking only when a sensor flags an event or a BLE transmission window comes due.

Each time it wakes, the device batches sampling, processing, and transmission into one short burst, then returns to sleep. On one wearable project, this approach cut power consumption by roughly 45% — taking a 150mAh cell from a few dozen hours to 14 days on standby.

One short burst, then back to sleep

mAµAWake burstDeep sleep < 2 µAsampleprocesstransmit

Result: ~45% lower consumption · 150 mAh → 14 days standby

< 0µA

Sleep-state current draw

0%

Power consumption reduction

0mAh

Test battery capacity

0 days

Maximum standby time

HOUSING DESIGN

Industrial Design

A wearable's housing isn't just its outer layer — it defines comfort and manufacturability.

0101

Anthropometric research

Analyzing data by wear location — wrist, finger, ear — to reach an optimal fit.

0202

Concept development

Aesthetic direction is sketched alongside the hardware layout, so the exterior never fights the engineering logic underneath.

0303

Detailed design & 3D modeling

Rhino and SolidWorks model every joint, latch, and wall thickness so the product stays watertight and structurally sound.

0404

Prototyping & real-world evaluation

SLA or FDM 3D-printed prototypes are worn and tested directly to fine-tune comfort before committing to tooling.

0505

Material and finish selection

Defining aluminum, titanium, PC, or ABS materials, along with scratch-resistant finishes and color options aligned to brand positioning.

0606

Production handoff

Drawings are optimized for the factory floor, with close oversight of the first production runs to verify color, fit, and mechanical durability.

WHY DEVBRIX

One Team, Start to Finish

One team owns hardware, firmware, connectivity, and housing design — no more piecing together disconnected vendors. Trusted by demanding clients across the US, Canada, Europe, and Australia.

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Specialized engineers

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Projects delivered

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