August 11, 2025|5:43 PM
Whether it’s IT operations, cloud migration, or AI-driven innovation – let’s explore how we can support your success.
Can your product stack survive a supply shift without a costly redesign — or will integration and safety gaps show up after launch?
We help product teams turn low-level code into reliable, auditable systems, aligning scope, schedules, and budgets so risk is visible from day one. Our approach pairs deep engineering knowledge with product thinking, so architectures are robust, testable, and ready for certification when needed.
We work across ARM Cortex-M/R, x86, FPGA, MIPS and more, using proven RTOS choices like FreeRTOS and Zephyr, toolchains such as GCC and IAR, and debuggers like J-Link to shorten time to market. Our workflow includes NDAs, defined requirements, daily reporting, pre-certification testing, full documentation, and a warranty window to protect your launch.
Poor low-level code shortens product lifecycles and hides costly risks. We translate business goals into measurable engineering work that protects device value, improves performance, and extends field life.
Poorly designed control code can throttle product performance, hurt power efficiency, and force early refresh cycles. We prevent those outcomes by planning memory and timing budgets, choosing the right MCU, and mapping peripherals to real use cases.
Our process moves from discovery and requirements to architecture, implementation, unit and integration testing, and production validation. We focus on determinism, error handling, and resource efficiency so systems run predictably on constrained hardware.
We apply proven firmware development and embedded software practices to ensure operating reliability across devices, reducing service costs and delivery risk.
We pair deterministic scheduling with platform portability to keep products predictable and future-ready.
RTOS choices include FreeRTOS, Zephyr, ThreadX, RTEMS, LiteOS, and NuttX, selected to meet real-time constraints while keeping code modular and maintainable.
Robotics and automation work uses ROS to combine sensor fusion, actuator control, and motion planning so devices operate safely and reliably.
Bare-metal and DSP approaches deliver minimal overhead for timing-critical control, with DSP pipelines on TI C6000/C5000, Microchip dsPIC, and ADI Blackfin/SHARC families.
| Approach | Latency | Typical Platforms | Best for |
|---|---|---|---|
| RTOS | Low, deterministic | Cortex-M, Cortex-R, MIPS | Concurrency, modular features |
| Bare-metal | Minimal overhead | 8/16-bit MCUs, cost-optimized MCUs | Ultra-low BOM, strict timing |
| DSP | Real-time throughput | TI C6000, ADI SHARC, dsPIC | Filters, FFTs, codecs |
A clear silicon strategy keeps project timelines predictable while aligning features with supply constraints.
We work across a broad range of processors to match performance, power, and cost targets. Our engineers have hands-on experience with ARM Cortex‑M families (M0/M0+, M3, M4, M7) and Cortex‑R for safety and control tasks.
For ultra low-power or cost-sensitive nodes we use AVR, PIC, and MSP430 platforms, guiding when to consolidate onto higher-capability chips to simplify long-term support.
We support mixed systems spanning x86/x86‑64, ARM application cores, FPGA/CPLD fabrics, PowerPC, and MIPS, partitioning firmware, drivers, and application layers for clarity and testability.
Connecting processors, radios, and peripherals requires careful interface design to meet bandwidth, latency, and power goals.
We implement physical links across SPI, I2C, UART, CAN, USB, PCI/PCIe, SATA, HDMI, Ethernet, and RS‑232/RS‑485/RS‑422, and add I2S, LCD, and MIPI DSI for audio and displays.
We architect buses and drivers that match signaling, speeds, buffering, and EMI constraints to the target hardware. Clean APIs hide complexity from higher software, easing integration and reducing time for applications to reach users.
We partition real‑time work close to hardware, keeping application logic portable and testable. The result is predictable operating behavior, extensible solutions, and devices that integrate into your product line with confidence.
Quality begins with intent and ends with evidence. We build test plans that map directly to requirements, creating traceable artifacts that support audits and reduce risk, while keeping projects on schedule.
We verify logic, interfaces, and full‑system behavior. Unit tests prove correctness. Integration tests validate buses, drivers, and operating system interactions. System tests simulate real-world loads to measure performance and margins.
Automated harnesses and hardware‑in‑the‑loop run regressions repeatedly to catch timing regressions and edge cases. Structured manual tests cover UX, safety interlocks, and startup sequences, with steps to reproduce and expected outcomes logged for triage.
We align work to applicable standards, compile test matrices, risk analyses, and user manuals, then deliver evidence that eases electronics certification and software audits. Warranty support follows release, closing issues found in the field.
| Test Level | Focus | Tools | Outcome |
|---|---|---|---|
| Unit | Logic correctness | GTest, Unity | Deterministic code |
| Integration | Interfaces, buses | Protocol analyzers, HIL rigs | Stable interfaces |
| System | Operational scenarios | Environmental chambers, load rigs | Field‑ready devices |
We act as a collaborative partner, guiding projects from protected discovery through launch, so customers see risk and progress at every milestone.
We begin under an NDA, gather requirements, and run market and competitor analysis to set clear success metrics.
Findings become a technical specification with budget and deadlines, so scope is measurable and trade-offs are explicit.
We finalize estimates, build a team of engineers with the right seniority mix, and schedule work into sprints tied to deliverables.
During implementation we choose libraries, languages, and tools that match platform and compliance needs while avoiding vendor lock‑in.
We share daily reports, demo builds, and burn‑down charts so you can reprioritize quickly and keep development on track.
We validate against specs and certification targets, create manuals and traceable artifacts, then offer a warranty window to fix defects and protect the user experience.
We work with enterprises and startups nationwide, bringing domain knowledge to projects that span consumer markets and industrial settings.
Our team supports embedded systems in a range of products, from pocketable wearables to grid-scale equipment, with a focus on safety, uptime, and user experience.
| Sector | Typical focus | Key benefit |
|---|---|---|
| Logistics & Transportation | Tracking, telematics, warehouse robotics | Higher utilization, better throughput |
| Agriculture & Science | Autonomous platforms, precision sensing | Rugged, low‑power field operation |
| Entertainment & Media | Video capture, streaming pipelines | Synchronized, high‑quality media delivery |
Across these industries we tailor solutions to meet schedules and audits, so clients in the United States get predictable launches and lasting product experience.
We standardize environments so builds are repeatable, tests are meaningful, and handoffs are predictable.
We standardize on proven IDEs and toolchains—Keil, IAR, Eclipse, Visual GDB, GCC, and CodeComposer—to ensure stable builds and optimal code generation for target silicon.
Debug and programming rely on Segger J‑Link, ST‑Link, and OpenOCD for consistent flash, trace, SWO, and memory inspection that speed root‑cause work.
We support RTOS workloads and low‑level Linux work, partitioning kernel drivers, middleware, and application services so an embedded system stays maintainable and testable.
| Tool | Purpose | Key benefit | Typical use |
|---|---|---|---|
| Keil / IAR | Compiler, IDE | Optimized code generation | MCU builds, safety-focused releases |
| GCC / CodeComposer | Toolchain | Reproducible, open toolchain | Cross‑platform builds |
| J‑Link / ST‑Link | Debug & programming | Trace, breakpoint stability | Hardware debug, boot issues |
| Simulators & CI | Validation & pipeline | Parallel test runs, fast feedback | Early integration, regression gates |
We create reproducible build environments with pinned tool versions and containers, and we surface metrics—test pass rates, code coverage, and timing margins—so stakeholders see progress during system design and integration.
We deliver measurable technical outcomes for products in markets that demand safety, uptime, and low power. Our team has long-running, extensive experience delivering production firmware across automotive, energy, IoT, and medical programs, and we hold recognized partnerships with NXP and Microchip.
We translate domain lessons into repeatable results, reducing launch risk while improving time to market, quality, and performance. Our approach quantifies gains—boot time drops, CPU utilization reductions, lower defect rates—so stakeholders can defend ROI with objective metrics.
We pair hardware choices with code patterns to tune sleep states, clocking, and peripherals for longer battery life without sacrificing responsiveness. This work produces custom firmware and firmware solutions that meet tight energy budgets on 8‑bit through 32‑bit Cortex devices.
We align to your rituals, CI pipelines, and traceability tools so scope, timing, and quality are visible. Our process uses prototypes and hardware-in-the-loop validation to avoid late surprises, then hands over documented artifacts and a post-launch warranty window to protect field products.
Choose a partner that helps move prototypes to certified products with clear schedules, traceable tests, and warranty support.
We unite deep engineering with measurable business outcomes. Our team selects the right RTOS, ROS, bare‑metal, or DSP approach, integrates wireless stacks and cloud protocols, and builds HALs that keep future work simple.
We streamline certification with disciplined test artifacts and full documentation, then support launches with a warranty window to protect field performance.
Partner with us to turn control code into reliable product value—faster time to market, lower risk, and scalable solutions across consumer electronics, industrial automation, and medical devices.
We design for a wide range of devices, from consumer electronics and wearables to industrial controllers, BMS and power electronics, robotics, medical instruments, and transportation systems, tailoring hardware and code to each product’s constraints and goals.
Our engineers work across Cortex-M and Cortex-R families, 8/16‑bit parts like AVR and PIC, as well as x86/x86‑64, FPGA/CPLD, PowerPC, and MIPS platforms, and we have hands‑on experience with ST, NXP, TI, Microchip, Nordic, Renesas, Infineon, Cypress, Silicon Labs, and Espressif silicon.
We develop on FreeRTOS, Zephyr, ThreadX, RTEMS, LiteOS, NuttX and also deliver Linux‑based low‑level solutions, choosing the stack that matches determinism, footprint, and certification needs for your application.
Yes, we create bare‑metal firmware for deterministic timing and minimal overhead when cost and power are critical, implementing efficient HAL abstractions and reusable drivers to speed time to market.
We implement BLE, Wi‑Fi and IoT SDKs such as AWS IoT SDK, nRF Connect, and ESP‑IDF, and we integrate MQTT, HTTP/HTTPS, REST, AMQP, Modbus/TCP, and WebSocket to ensure secure, reliable data flows between devices and cloud services.
We run unit, integration, and system tests with both manual and automated strategies, produce traceable documentation, and provide pre‑certification packages to support audits and regulatory submissions for safety‑critical and commercial products.
We assess existing code and hardware, identify bottlenecks, and develop migration plans that preserve functionality while improving performance, maintainability, and power consumption, using incremental refactoring and benchmarks to validate gains.
Our teams integrate SPI, I2C, UART, CAN, USB, PCI/PCIe, SATA, HDMI and Ethernet, plus field protocols used in industrial environments, ensuring signal integrity, timing, and robust error handling across system boundaries.
Yes, we deliver ROS‑driven control stacks and low‑level motor and sensor drivers, enabling coordinated motion, perception, and real‑time safety functions for automation and robotics platforms.
We use industry toolchains such as Keil, IAR, Eclipse, Visual GDB, GCC, and Code Composer, and we rely on debug and programming tools like J‑Link, ST‑Link, and OpenOCD for efficient bring‑up and fault analysis.
We begin with discovery and specification, provide final estimates and team setup, run iterative implementation with daily reporting, and deliver validation, documentation, and warranty support while integrating with your processes and dashboards.
Absolutely; we apply low‑power techniques, efficient scheduling, and memory optimizations alongside hardware choices to extend battery life and reduce BOM cost without sacrificing performance.
We support consumer electronics, smart home, industrial automation and IIoT, manufacturing, healthcare devices with AI and vision, logistics and transportation systems, agriculture, education, entertainment, and science applications.
We implement TLS/SSL, secure boot, signed updates, hardware root of trust where available, and protocol‑level protections for MQTT, HTTPS, and other stacks, combined with secure OTA and key management strategies to reduce attack surface.
We prepare technical documentation, test evidence, and software artifacts to support certifications such as CE, FCC, medical approvals, and industry standards, and we coordinate with test labs and certification bodies as required.
