Our Services

Our hardware design service covers the complete electrical design process. We begin with system architecture, defining power budgets, signal chains, communication interfaces, and protection strategies before a single schematic symbol is placed. Component selection is deliberate and supply chain aware. We cross reference lead times, identify second source alternatives, and flag obsolescence risks at the design stage rather than at the factory. Our PCB layouts address controlled impedance, EMC containment, thermal management, and DFM requirements simultaneously, reducing the gap between design intent and manufactured reality. We design across a wide range of hardware categories including medical grade analogue front ends, high voltage power stages, RF safe boards for MRI adjacent environments, neural interface electronics, flex and rigid flex assemblies for wearable and implantable devices, and industrial embedded platforms. Every design is reviewed against IPC-2221 Class 3 standards and exits our process with complete documentation including schematic, layout, BOM, fabrication notes, and assembly drawings.

Our end to end development service takes your product from a concept brief or reference design all the way to a validated, production ready hardware and firmware package. We start with block diagram architecture and requirements analysis, then move through schematic design, PCB layout, firmware development, hardware bring up, functional testing, and validation. Our firmware team works in C and C++ on bare metal and RTOS environments across STM32, ESP32, Nordic nRF, and Raspberry Pi CM platforms, integrating peripherals, communication stacks, bootloaders, and OTA update mechanisms as required. Clients who engage us for end to end development receive a complete technical package at project close: validated hardware, reviewed firmware, test procedures, calibration routines, compliance pre assessment, and manufacturing ready documentation. For startups raising investment, that package is a technical proof point. For established companies, it is a manufacturing handover that actually works.

Our prototyping work is simulation led. Before we order a single board, we validate critical circuits in SPICE, model thermal performance, and run electromagnetic field analysis on layouts that demand it. Catching a power rail stability issue in simulation costs an afternoon. Catching it after assembly costs a respin and four weeks. When prototypes are built, they are built to a specification designed to surface real failure modes, not just demonstrate basic function. We prototype for learning, and we document what we learn so the path to production is short. Scalability engineering covers Design for Manufacture, Design for Testability, BOM rationalisation, component consolidation, vendor qualification, test fixture specification, and compliance documentation preparation for CE, FCC, RoHS, EMC, and EMI shielding requirements. We work with your contract manufacturer or introduce you to trusted partners in our network. The goal at every stage is a product that leaves our process ready to build in volume, pass certification, and reach the market on schedule.

We perform detailed Design for Manufacture and Design for Testability analysis on every product we take to production. That means reviewing pad geometry, soldermask clearances, component orientation, panel break out strategy, and assembly sequence for compatibility with real factory equipment and processes. We audit Bills of Materials for obsolete components, long lead items, and single source risks, then resolve each finding before it becomes a line stoppage. Test coverage is mapped to every critical function, and test fixtures are designed to allow fast, repeatable in circuit and functional verification on the production line. Compliance documentation is prepared in parallel with the production engineering work, not as an afterthought. We produce CE technical construction files, FCC pre compliance test plans, RoHS material declarations, and EMC/EMI shielding strategies appropriate to the product category. For medical device clients, we align documentation with ISO 13485 quality system requirements and IEC 60601 safety standards from the start of the project, so regulatory submissions are not a surprise at the end.

Our control systems service covers the design and implementation of closed loop controllers for embedded hardware platforms. We work with PID architectures, model predictive control, state machine based supervisory logic, and custom filter designs implemented in firmware on resource constrained microcontrollers. Applications include motor drive controllers for BLDC and stepper systems, battery management and cell balancing algorithms, power converter regulation loops, sensor fusion pipelines for IMU and GPS platforms, and automation control logic for industrial equipment. Every control design we deliver is characterised for stability margins, step response, and disturbance rejection before it leaves our hands. For systems where failure is not acceptable, we include fault detection and safe state logic that protects hardware and users under abnormal operating conditions. Control systems are delivered as documented firmware modules with tuning parameters, test procedures, and integration notes.

Our software development service covers the companion applications and system software that electronic devices need to be useful. This includes desktop and mobile configuration tools for embedded devices, real time data visualisation dashboards for sensor platforms, cloud connected telemetry backends for IoT deployments, REST and MQTT APIs that bridge device firmware to web services, and custom device drivers for Linux and Windows hosts. We also develop the PC side tools used in production testing, calibration, and field firmware update processes. For clients building products that require regulatory approval, we apply software development practices aligned with IEC 62304 for medical device software and relevant cybersecurity standards for connected products. Software deliverables include source code, build documentation, test protocols, and user guides written for the intended audience rather than for the engineering team.