All Capabilities
S-03
Capability 03 / 04
Electronics
Hardware punishes optimism. A bug you can hotfix in software becomes a recall in silicon, so we design for test, for failure, and for the version you will have to ship two years from now.
// 01
What You Can Deploy
Engagements, not brochures.
03 OFFERS
P-01
Prototype to Proof
Working prototype
Design-for-test
Risk found early
Take a concept to working prototype — schematic, board bring-up, and firmware — with the goal of learning what is hard before the design is committed to tooling.
P-02
Embedded Firmware
Secure OTA from day one
Power profiled
Recoverable
Production firmware with a real-time core, power discipline, and a secure over-the-air update path built in from the first commit rather than bolted on before launch.
P-03
Connected Device Platform
Fleet provisioning
Telemetry + diagnostics
Staged rollout
The layer that makes a fleet manageable — provisioning, telemetry, remote diagnostics, and rollout control, so support can answer questions without shipping an engineer.
// 02
Inside the Discipline
What we actually do here.
01
Embedded Firmware
Bare-metal and RTOS firmware written for constrained hardware, with power budgets and failure states treated as first-class requirements. Bootloaders, over-the-air update paths, and watchdog behaviour are designed in from the start rather than retrofitted after the first field failure.
02
PCB & Hardware Design
Schematic capture, layout, and bring-up — signal integrity, thermals, and design-for-test considered before the first board is fabricated.
03
3D Printing & Prototype Parts
Enclosures, brackets, jigs, and fixtures printed in FDM and resin, so mechanical fit is proven against a real board before tooling is committed.
04
IoT & Connectivity
BLE, Wi-Fi, LoRa, and cellular links built with the reconnection and buffering logic that patchy field conditions demand rather than assume.
05
Device-to-Cloud
Secure provisioning, telemetry ingestion, and the application layer that turns device data into something a person can act on. Per-device identity, certificates, and key rotation are settled at enrolment, so a fleet stays governable as it grows.
// 03
Case Studies
Hardware problems, worked through.
03 STUDIES
// 04
Where It Applies
Applications in the field.
The same discipline, pointed at different problems. These are the shapes this work most often takes.
01
Industrial IoT
Machine monitoring, predictive maintenance, and plant telemetry across existing equipment.
02
Consumer Devices
Connected products where the companion app and the update path matter as much as the hardware.
03
Energy & Metering
Smart meters, remote sensing, and long-life low-power nodes in the field.
04
Automotive & Mobility
Telematics, diagnostics, and fleet connectivity for vehicles in daily service.
05
Healthcare Devices
Instrumentation and monitoring where accuracy and traceability are non-negotiable.
06
Agritech
Ruggedised sensing across land with intermittent connectivity and unforgiving power budgets.
// 05
How It Runs
Four phases, in order.
01
Define
Nail the operating envelope first — power, environment, range, and cost per unit, because those constrain everything that follows.
02
Prototype
Build the smallest thing that proves the risky part, whether that is the radio link, the sensor, or the power budget.
03
Productionise
Harden the firmware, finalise the board layout, and prove the design repeats reliably beyond the first prototype.
04
Field & Update
Ship with telemetry and a safe update path, then use what the fleet reports to drive the next revision.
// 06 Toolkit
What we build with
C / C++
Rust
Zephyr RTOS
FreeRTOS
ESP32
STM32
KiCad
Altium
MQTT
AWS IoT
// 07
Deployed
Electronics in the field.
All Missions
