Embedded Systems
& Firmware Engineering

Engineered for high-availability, low-power microcontrollers and edge compute platforms. Safe, fast, and optimized firmware written in C/C++ and Rust.

Atlassian
AWS
Cloudera
Eventbrite
Formpipe
IBM
Informatia
Leapwork
LinkedIn
Microsoft
Odoo
Salesforce
SAP
Sprinklr
Temenos
Upwork
Zoom
Atlassian
AWS
Cloudera
Eventbrite
Formpipe
IBM
Informatia
Leapwork
LinkedIn
Microsoft
Odoo
Salesforce
SAP
Sprinklr
Temenos
Upwork
Zoom

Low-level firmware control, optimized for reliability

We write compiler-checked, highly-optimized firmware that interacts directly with custom circuit boards. By choosing lightweight schedulers like FreeRTOS and optimizing interrupt triggers, we ensure system operations respond in microseconds with minimal power consumption.

Our testing processes utilize hardware-in-the-loop (HIL) simulators and logic analyzers to trace clock edges, confirm memory allocation limits, and verify packet formatting.

Under 5uADeep-Sleep Draw
RTOS KernelZephyr & FreeRTOS
C/C++ & RustSafe Coding Standards
100% CustomBoard HAL Initialized

Our Service Specializations

Full-cycle engineering expertise to deliver robust, high-performance technology systems that solve complex enterprise challenges.

IoT Firmware Development

Write highly optimized firmware in C, C++, and Rust for microcontrollers, handling sensor capture and wireless communication protocols.

Real-Time Operating Systems (RTOS)

Implement multi-threaded tasks, mutexes, and low-latency queues using FreeRTOS or Zephyr to process real-time data.

Edge AI & Machine Learning

Deploy quantized neural network models directly to microcontrollers using TensorFlow Lite Micro for edge classification.

Wireless Protocol Integration

Configure low-power communication networks using BLE, Wi-Fi, Zigbee, LoRaWAN, or cellular MQTT channels.

Battery & Low-Power Optimization

Program deep-sleep modes, configure hardware interrupts, and optimize duty cycles to extend battery life to years.

Industrial Modbus & CAN bus

Integrate hardware systems with PLC industrial networks and automotive CAN systems, reading low-level telemetry.

Modern Tech Stack

We select languages, protocols, and cloud environments optimized for fast iterations, tight security architectures, and long-term stability.

We write strict, compiler-checked code designed to run continuously in restricted memory regions.

C / C++ (Embedded)Industry Standard
Rust (Embedded)Memory Safe
PlatformIO / KeilIDE & Debuggers
GCC Compiler ToolchainsBuild System
Python (Testing)Test Automation

Our Delivery Process

A structured, highly transparent design and build lifecycle ensuring you see operational progress in real time.

01
PHASE 01

Hardware Analysis & Blueprinting

We audit your electrical schematics, choose the microcontrollers, map GPIO pin configurations, and outline memory constraints.

02
PHASE 02

Board Support Package Setup

We configure the system clock configurations, initialize flash memory interfaces, write low-level hardware abstraction layers (HAL).

03
PHASE 03

Firmware Core Development

We write the RTOS task schedules, thread states, sensor drivers (I2C, SPI), and local database storage protocols.

04
PHASE 04

Networking & Protocol Testing

We implement encryption (TLS), write packet parsing scripts, and validate connection routes under bad signal noise.

05
PHASE 05

Hardware-in-the-Loop Validation

Using digital logic analyzers and oscilloscopes, we measure clock speeds, inspect power draws, and issue final binary files.

Our Solutions in action

EcoSense: Battery-Powered Agricultural Soil Telemetry IoT Network
EcoSense
EcoSense Case Study

EcoSense: Battery-Powered Agricultural Soil Telemetry IoT Network

We engineered the low-power firmware for a soil sensor probe network utilizing ESP32 microcontrollers, broadcasting via LoRaWAN.

3-Year LifeOn Single AA Battery
Under 10msSensor Read Execution
Read Full Case Study

Service FAQs

Clear, direct answers regarding collaboration, pricing models, timelines, and post-launch maintenance.

Rust provides compile-time guarantees against common memory issues like null-pointer dereferences, data races in multi-threaded code, and buffer overflows. This removes class of bugs before the binary is ever flashed onto the hardware, reducing testing times.

Building a Smart Device?
Let's Design the Firmware

Talk to our firmware engineers to review your circuit configurations, discuss your wireless range requirements, and draft a firmware structure plan.