Firmware Development Services for Embedded Devices

Expert Embedded Firmware Solutions for Cutting-Edge Products

ByteSnap’s engineers quickly understand your spec for quick turnaround

Expert Embedded Firmware Solutions

At ByteSnap, we work on complex engineering challenges and create innovative hardware and software solutions. We help companies to get the most out of their product design and help you to stand out in the competitive market space.

The Important Role of Precision Firmware Development

In today’s rapidly evolving tech landscape, robust firmware plays a key role in developing reliable electronic products. Poorly designed firmware can:

  • Limit product performance and reflect badly on your brand
  • Compromise resource efficiency giving users a poor experience
  • Create technological bottlenecks, limiting device features
  • Accelerate product obsolescence

Benefits of Professional PCB Design

Expert Microcontroller Optimisation

Smart Design

Cross-Industry Expertise

  • Expert Microcontroller Optimisation: Delivering high-performance solutions from 8-bit PIC to 32-bit ARM Cortex architectures
  • Smart Design: Maximising functionality in low-power and constrained environments
  • Cross-Industry Expertise: Proven track record across automotive, energy, IoT, medical and more technologies

Your partner for Firmware Development

ByteSnap has the technical expertise that sets us apart in the embedded systems landscape. We are recognised partners with NXP, Microchip and other respected industry partners.

Our combined software and hardware engineering team has a proven track record of success across multiple industries. We have a deep understanding of complex embedded systems.

ByteSnap’s comprehensive embedded solution capabilities enable us to handle many different tech challenges. 

  • Low power wireless devices
  • Security card readers
  • Electric vehicle (EV) charging controllers
  • Heating and lighting controllers
  • Remote IoT logging devices
  • Automotive equipment both production and after market
  • Smart energy metering
  • Medical and Laboratory equipment
  • Video equipment including multi camera streaming solutions
bouncepad

“Smart shopping solutions: complex RFID design”

Read how our embedded hardware design & RFID development helped a global company produce a smart device set to revolutionize our shopping habits

How it works:

1: Comprehensive
Consultation

Looking at your needs & goals

2: Strategic
Design

Custom solution for your needs

Precision
Delivery

Efficient & rigorous firmware

1) Comprehensive Consultation:

  • A detailed look at your embedded firmware development needs
  • A clear understanding of your technology goals

2) Strategic Design:

  • Custom firmware solutions tailored to your specific needs
  • Optimisation across microcontrollers

3) Precision Delivery:

  • Efficient, production-ready firmware
  • Rigorous testing and validation
9-Step Embedded System Firmware Development Workflow​​

Why choose ByteSnap?

ByteSnap Design works across many sectors, including: automotive & transportation, renewable energy systems, industrial automation, medical & healthcare technologies, smart home & IoT device solutions, electric vehicle infrastructure, and security & tracking systems. 

This wide range of experience allows us to bring unique understanding to each project and with our in house team we look after all aspects of the design work for you.

From 8 bit microcontrollers to 64 bit multi core application CPUs, our expert team have vast experience working with wireless, low power and resource constrained devices to ensure your product remains competitive and efficient. Our engineers know how to balance performance, efficiency, and functionality.

Our experts are proficient in many programming languages, using what is right for the job. We focus on embedded C and C++ for microcontroller or low-level coding on Linux. Linux scripting languages and higher-level languages on both Linux and Windows such as C#. For mobile development we commonly use Flutter for cross development platforms on IOS and Android.

Ready to Transform Your Product’s Performance?

For over 16 years, companies have trusted ByteSnap to deliver exceptional firmware development for electronic devices. Let’s work together to update your device firmware, and create cutting-edge products.

Embedded Systems Engineer for Firmware Development, Anthony

FAQs - Firmware Development

Firmware development is the process of creating specialised software that controls the hardware in embedded systems. It involves designing, coding, and implementing low-level software that instructs microcontrollers and other electronic devices how to operate.

Firmware development is crucial for embedded systems as it provides the logic for the hardware operation, enables communication between devices, and executes specific tasks. Firmware is the software on the embedded device.

The firmware development process typically includes:

  1. Requirements analysis – look at the needs
  2. Architecture design
  3. Implementation (coding) – writing the code
  4. Unit testing
  5. Integration testing – testing the whole system

Firmware is often written in languages such as C or C++. These languages provide the low-level control needed for effective hardware interaction.

Key skills for firmware development include:

  • Proficiency in programming languages like C/C++
  • Understanding of hardware architecture
  • Debugging and troubleshooting expertise
  • Knowledge of embedded systems and microcontrollers
  • Familiarity with development tools and testing procedures

Firmware and embedded software are often confused, but they are different. Firmware typically refers to low-level, hardware-specific functions essential for basic device operations. Embedded software, on the other hand, offers more complex functionalities and often involves user interactions or sophisticated behaviours normally on an operating system rather than a microcontroller.

Yes, firmware should be updatable if designed correctly. However, updates are typically less frequent than for other types of software and are usually provided by device manufacturers to address bugs, improve security, or add new features.

Common challenges in firmware development include:

  • Hardware limitations (such as memory and processing power)
  • Energy efficiency concerns
  • Ensuring stability and reliability
  • Managing firmware updates, both with how to get data for the updates and the security of these.
  • Addressing security vulnerabilities of the running product.

The duration of firmware development depends on the project complexity, the hardware involved, and the requirements. A simple project can take weeks. Most projects will be months in duration, and complex embedded systems may take over a year. The 80/20 rule comes into play a lot here that 80% of the work is seen as being completed in 20% of the time, in reality although something can demonstrate some core functions making sure that all eventualities and all areas of functionality are implemented, unit and system testing, security, compliance take time.

Firmware developers use various tools, including:

  • Integrated Development Environments (IDEs)
    • Help both when viewing and editing the code.
    • Allow following through of functions and classes through smart or IntelliSense
    • Integrates with the debugger, see below.
  • Hardware simulators and emulators
    • Virtualising hardware onto a PC makes it much quicker to test
    • Cuts down on desk space and hardware to purchase.
  • Debugging tools
    • Can be invaluable to find issues with the code, triggered events or faults allow the user to view the code responsible or step up the stack to see why something was triggered.
  • Version control systems
    • Allowing users to view changes, control releases for testing a customers
    • Allows recreating builds from previous days or releases
    • Can be used to check code from other engineers before it hits the main branch.
  • Testing frameworks
    • Both manual and automated testing allows testing at a system or unit level.
    • Automated testing can be time consuming to produce and care must be taken to ensure that the right tests are done, if not a level of confidence may be unjustified.
    • UI testing frameworks can be used for web testing such as Selenium