Embedded Hardware Design Studio
We engineer electronics that survive contact with the real world — from first schematic to production-ready hardware. 4+ years turning bold ideas into manufacturable products.
E2PI Technologies is an embedded hardware design studio specialising in complete electronics products — taken from first concept to final production. Our work spans schematic design, multilayer PCB layout, embedded systems integration, automotive electronics, IoT devices, and prototype bring-up across commercial and industrial applications.
We design across processor platforms from the ESP32 and STM32 families through to NXP's S32K automotive controllers, TI's Jacinto J7 and AM2x series, and the high-performance i.MX95. High-speed interface work includes DDR memory, eMMC, Ethernet, USB 3.0, and PCIe — demanding careful signal integrity and impedance control across up to ten copper layers.
We deliver across automotive, IoT, power electronics, wireless connectivity, and industrial sectors — every engagement moving from requirements through manufacturing support with a rigorous, EMI/EMC-aware and DFM-oriented approach, so your design is right the first time, not after costly re-spins.
AEC-Q compliant hardware for in-vehicle systems — data recorders, safety modules, and CAN/LIN networked ECUs built to automotive EMC and reliability standards.
Low-power wireless sensor nodes, telemetry units, and cloud-connected gateways for remote monitoring and industrial intelligence.
5G, cellular, Wi-Fi, and high-speed networking platforms with impedance-controlled, signal-integrity-aware multilayer PCB design.
Battery management systems, charging platforms, wireless power, and USB-PD designs engineered for efficiency, thermal performance, and safety.
Ruggedized control hardware and embedded compute platforms built around MCU, MPU, and SoC architectures for demanding environments.
Compact, cost-optimised hardware for smart devices and connected consumer products — from concept through manufacturing-ready design.
Custom carrier board design for System-on-Module (SOM) validation. The board shown is a SMARC-compliant reference implementation — one example within a broader capability to design carrier boards around other SOM standards and pinouts depending on the processor module and product requirements.
Compact, plug-and-play analog driver modules engineered to accelerate prototype validation. The module shown uses an opamp and BJT-based drive stage as a reference — the same design approach extends to other analog drive topologies selected to match project signal, load, and precision requirements.
A family of LED driver modules engineered for plug-and-play validation of LEDs and lamp loads. The drive stage scales to other currents, voltages, and dimming or control protocols depending on the load, and the same platform extends to LCD display driving.
Motor driver modules engineered for fast, dependable validation of motor control circuits during hardware bring-up. The design approach extends across DC, stepper, and BLDC topologies depending on the torque, speed, and control-loop requirements of the target application, with real-load testing built in.
Router and gateway modules engineered for configurable deployment as embedded network gateways. The platform shown is an NXP i.MX processor-based reference implementation — the design approach extends to other embedded processor platforms depending on throughput, connectivity, and cost requirements.
Cellular and positioning modules engineered for IoT connectivity validation, combining GPS positioning with LTE data connectivity on a single compact board. The design shown is built around the Quectel EG800 series — one reference implementation within a broader capability to design around other GNSS and LTE module families based on project band, carrier, and footprint requirements.
Production-ready electronics design from concept schematic through to manufacturable multilayer boards.
MCU, MPU, and SoC platform development across leading silicon, from wireless sensor nodes to cloud-ready gateways.
Signal-integrity-driven routing for demanding interfaces with controlled impedance and stack-up planning.
AEC-Q compliant hardware meeting automotive EMC and reliability standards for in-vehicle systems.
Efficient, thermally sound power hardware engineered for safety and long battery life.
Pre-compliance design, systematic validation, and DFM discipline that carry your product cleanly to volume.
Concept, schematic, PCB, prototyping, and manufacturing readiness — every phase handled in-house, with no vendor handoffs or gaps.
EMI/EMC-aware, DFM-oriented, standards-driven engineering that targets first-pass success over costly re-spins.
Deep experience across ESP32, STM32, NXP, and TI silicon, delivered across automotive, IoT, power, and industrial verticals.
Work directly with the engineer building your hardware, with ongoing support through the full product lifecycle.
From concept to production — available for hardware design engagements, consulting, and full product development partnerships. Tell us what you're building.