We design circuits and PCB layouts with manufacturability built in from the first schematic selecting components aligned with availability, cost, and production realities. Every electrical design is reviewed for DFM before prototype, not after.
Schematic design, component selection, power management, and signal integrity aligned with IPC standards and your application requirements.
Single and multi-layer PCB layout with DFM, DFT, and signal integrity constraints from simple single-sided boards to complex HDI designs.
Component selection aligned with manufacturability, cost, availability, and lifecycle with alternate sourcing recommendations built in.
Harness schematic design, connector selection, and routing geometry engineered for assembly feasibility and compliance to IPC/WHMA-A-620.
Our mechanical engineers work alongside electrical and firmware teams from day one, ensuring enclosures, thermal paths, and structural elements are designed for real-world manufacturing and assembly.
Custom plastic and metal enclosure design considering PCB fit, connector placement, IP rating, and manufacturing method (injection moulding, sheet metal, or die cast).
Thermal simulation and design – heatsinks, airflow paths, thermal interface materials, and power dissipation analysis for products operating in demanding environments.
Structural analysis aligned with real-world usage – vibration, shock, and mechanical load considerations for industrial, automotive, and outdoor applications.
Mechanical assembly sequence review ensuring every enclosure can be assembled efficiently and consistently at production volume with minimal rework risk.
Our embedded software team develops firmware and software that is aligned with the hardware design from day one not handed off at the end of the hardware cycle. That alignment is what makes our products work reliably in the field, not just in the lab.
C/C++ firmware development for microcontrollers and processors from bare-metal to RTOS-based implementations, aligned with hardware constraints and power requirements.
BSP development for custom hardware – boot loaders, device drivers, and OS porting for Android, Linux, QNX, and other embedded operating systems.
End-to-end integration of firmware with hardware – peripheral bring-up, driver development, communication protocol implementation, and system-level validation.
Wireless connectivity implementation – Wi-Fi, Bluetooth, BLE, Zigbee, LoRa, and cellular protocols integrated with your hardware platform and cloud backend.Design for test (DFT)
Test engineering starts at design stage not after the board is built. Our test engineers review designs for testability (DFT), develop test strategies, and build custom test fixtures and software so that quality verification is fast, reliable, and scalable from prototype to production.
DFT review at schematic and layout stage ensuring test point placement, ICT access, and boundary scan capability are built in before the first prototype is built.
Custom in-circuit test (ICT) and functional test (FCT) fixture design and build developed in-house for your specific board design and test requirements.
Structured validation plans covering functional, environmental, and compliance testing mapped to your target industry’s standards and certification requirements.
Automated test script development and test framework implementation reducing manual test time, improving repeatability, and enabling data-driven quality decisions.
We design circuits and PCB layouts with manufacturability built in from the first schematic selecting components aligned with availability, cost, and production realities. Every electrical design is reviewed for DFM before prototype, not after.
Schematic design, component selection, power management, and signal integrity aligned with IPC standards and your application requirements.
Single and multi-layer PCB layout with DFM, DFT, and signal integrity constraints from simple single-sided boards to complex HDI designs.
Component selection aligned with manufacturability, cost, availability, and lifecycle with alternate sourcing recommendations built in.
Harness schematic design, connector selection, and routing geometry engineered for assembly feasibility and compliance to IPC/WHMA-A-620.
Our mechanical engineers work alongside electrical and firmware teams from day one, ensuring enclosures, thermal paths, and structural elements are designed for real-world manufacturing and assembly.
Custom plastic and metal enclosure design considering PCB fit, connector placement, IP rating, and manufacturing method (injection moulding, sheet metal, or die cast).
Thermal simulation and design – heatsinks, airflow paths, thermal interface materials, and power dissipation analysis for products operating in demanding environments.
Structural analysis aligned with real-world usage – vibration, shock, and mechanical load considerations for industrial, automotive, and outdoor applications.
Mechanical assembly sequence review ensuring every enclosure can be assembled efficiently and consistently at production volume with minimal rework risk.
Our embedded software team develops firmware and software that is aligned with the hardware design from day one not handed off at the end of the hardware cycle. That alignment is what makes our products work reliably in the field, not just in the lab.
C/C++ firmware development for microcontrollers and processors from bare-metal to RTOS-based implementations, aligned with hardware constraints and power requirements.
BSP development for custom hardware – boot loaders, device drivers, and OS porting for Android, Linux, QNX, and other embedded operating systems.
End-to-end integration of firmware with hardware – peripheral bring-up, driver development, communication protocol implementation, and system-level validation.
Wireless connectivity implementation – Wi-Fi, Bluetooth, BLE, Zigbee, LoRa, and cellular protocols integrated with your hardware platform and cloud backend.Design for test (DFT)
Test engineering starts at design stage not after the board is built. Our test engineers review designs for testability (DFT), develop test strategies, and build custom test fixtures and software so that quality verification is fast, reliable, and scalable from prototype to production.
DFT review at schematic and layout stage ensuring test point placement, ICT access, and boundary scan capability are built in before the first prototype is built.
Custom in-circuit test (ICT) and functional test (FCT) fixture design and build developed in-house for your specific board design and test requirements.
Structured validation plans covering functional, environmental, and compliance testing mapped to your target industry’s standards and certification requirements.
Automated test script development and test framework implementation reducing manual test time, improving repeatability, and enabling data-driven quality decisions.
