Designing your next electronic system forCritical Space HardwareCritical Space Hardware

Develop a robust, custom hardware and control platform from scratch to enable high-precision monitoring in demanding mining environments, requiring seamless integration between physical interfaces and complex communication protocols.

Provide the environmental support required for the expansion and cultivation of Hematopoietic Stem Cells.

Centralize and simplify the management of disparate room systems (lighting, climate, and automated blinds) into a cohesive, high-end automated experience for a premium hospitality environment.

Build a production-ready, low-power IoT platform for rural/ag settings with limited/no cellular coverage—integrating diverse sensors and actuators—and enable bidirectional control for configuration/commands at scale

Develop an autonomous, low-power embedded system capable of continuous, real-time acoustic monitoring and classification of bird species in rugged field environments for scientific research.

Effective pest prevention and monitoring in crops. The project required that the resulting Intellectual Property (IP) for the insect identification algorithm be patentable, necessitating highly specific development constraints.

Build a robust radiation-monitoring device that integrates a Geiger detector with proper signal conditioning, runs local processing, and meets reliability/MAIT requirements for deployment in critical environments

Deliver an ISOBUS-compliant planter control solution—covering module connectivity and real-time seed metering—while integrating electronics, sensors, and operator UI with reliable field performance.

Develop a high-performance, industrial-grade hardware platform capable of accurately digitizing and synthesizing high-speed signals for advanced systems like radar test benches.

Specialized, custom digital logic required within the automotive supply chain.

Specialized, high-reliability data conversion and custom digital logic required within the automotive supply chain.

Optimize multiple live data streams under variable bandwidth, maintain QoS, and expose control/monitoring while sustaining high-throughput, low-latency operation.

Bridge high-speed Ethernet data with diverse embedded subsystems operating on various low-level communication protocols.

Securely and remotely manage the operational status of the primary radar and IFF (Identification Friend or Foe) system.

Update of the STAR TRACKER design, according to new requirements for interfaces, integration, functionality, and dimensions.

Develop a versatile, multi-protocol Remote Terminal Unit (RTU) for the remote monitoring and control of electrical utility variables across diverse communication channels (serial, Ethernet, cellular).

Enhance betting systems through image processing capabilities and to ensure broad platform compatibility by migrating core software.

Develop equipment to measure wall thickness at multiple points around seamless pipes in real time. Build a bridge PCB between the sensor front-end and a suitable processing unit (to be selected), then implement the algorithm in FPGA (SoC PL), hand off through the microcontroller/SoC (PS), and forward to the data processor for analysis and visualization.

Build a benchtop evaluation platform to validate a MIPI C-PHY/D-PHY retimer ASIC at multi-lane, up to 16 Gbps rates—capturing traffic, enabling configuration/diagnostics, and providing remote pattern testing and frame analysis—while meeting tight signal-integrity constraints and accelerating post-silicon bring-up.