As part of our embedded solutions development services, we craft media players, media processing and streaming tools, software for content compression and protection, and media storage solutions. We help industrial companies automate manufacturing workflows, enhance work safety, optimize asset tracking, and control power efficiency. We collect and process your embedded systems project requirements undertaking comprehensive research and analysis at the early stages to mitigate project risks.
Before you commit you'll know all the facts through estimation and planning. We help you choose an operating system, third-party libraries and frameworks, and determine and partition hardware and software components.
You'll get to review the final blueprint before it's passed on to our embedded development team. We bring all the embedded system components together, testing entire embedded systems to ensure they work as a whole and comply with all your project specifications.
Through product and system testing, comprehensive QA and debugging procedures - we make sure the code is clean, readable and well-commented. If any bugs arise we can fix them immediately and add any new functionality upon request. We are a team of seasoned professionals with more than 20 years of hands-on experience in hardware, firmware and embedded application development, as well as profound practical knowledge of a wide range of industries.
Softeq provides full-cycle development — from initial analysis, requirements management, hardware and PCB design, enclosure design, and rapid prototyping, to implementation, ongoing support, and continuous improvements.
We guarantee total transparency into the process and progress of your project. Our QA department participates in the development process from the earliest stages to ensure comprehensive testing coverage and accurate quality assessment. Quality Assurance of embedded systems is also available as a separate service for our clients. We provide testing and debugging for a range of embedded solutions. Embedded Systems Development Softeq engineers complex embedded systems that combine hardware and user interfaces with powerful software, connectivity and proximity technologies.
Get a Quote. Learn More Get a Quote. Tie together the parts of your IoT system, and make them work as one. Bridge the legacy component gap. We know how to make network services, hardware components, and user apps work together by bringing in: Device drivers SDKs AI-based middleware. Code optimization services 3d party solution porting Project rescue services. Manage connected devices and IoT systems, process the collected sensor data, and obtain actionable insights.
When talking about software development, this process can not be done with the quality assurance of the product. A debugger is a testing tool that finds and deletes bugs and errors inside the code.
Also, it shows the places where errors were found for a quick rewriting by developers and eliminating future mistakes. The linking tool creates the whole picture of the code. As the code is written and parted into smaller pieces and modules, all of those pieces have to be gathered and combined in the final result.
This tool gives the ability to see how the software will function in real-time. Emulator helps to define the wrong activities and change them to reach the perfect work of the code. After this process, the code can be embedded in the device. For developing a functional and full-cycle embedded system, you need to find a team of developers who are professionals in that area.
It is important for them to have experience in software architecture, design, testing, and system integration. You have to be sure that this team will propose all the services you will need for the accurate functioning of your software solution. Taking everything into account, an embedded system is a microprocessor that is created to perform a specific task. To describe this system shortly, there should be mentioned three main elements of embedded software:.
Embedded software solutions are now used in many areas. As this development is not very expensive and can be easily customized, it saves the company expenses and increases the efficiency of the work processes.
Simultaneously, it adds new processes and challenges for the solution and makes it more complex from inside. It is very important to find and choose reliable and experienced developers who will help you to define the right development tools, programming language, and framework libraries for creating successful embedded software.
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Our client manager will get in touch within the specified hour window. Use of embedded systems As we have already mentioned above embedded systems are in need in many industries.
Healthcare The medical area is actively being digitalized and requires the development of embedded systems. Consumer Electronics Embedded systems are a crucial component of every electronic product. Contact us. Write us. Want to implement an embedded system into your solution? Because embedded systems are closely related to the hardware, dedicated units should cooperate equally as close. This is often difficult because the work methodology of engineers is distant from the habits of coders.
While the first group focuses on organizing and clinging to the outline, the other is much more flexible and prefers the trial and error method. It is important to be very precise in specifying the requirements before commencing work and select the operating system, processor, peripherals, programming platform as well as set new milestones of production, which should be verified at the test level.
These involve:. Such a formalized method allows for greater control over the consistent implementation of individual project elements. At least when it comes to the hardware side, but is it equally well suited to programming?
This model is nested in the belief that programmers should have a much easier time adapting the code for possible changes. Enough with the theory. In practice, any shift from the original specifications and design documents will entail delays and additional budget burdens.
The software requires as much work as the equipment. So, is it possible to approach the problem differently and lead to the synergy of engineers and programmers? The agile software development methodology abandons a linear, sequential action framework for an iterative-incremental approach such as Scrum. Product development is divided into sprints of a certain time interval and takes into account the current contact between teams or the creation of one interdisciplinary team of specialists.
Such teams are multifunctional and self-regulating; they bring together planners, designers, engineers, programmers and testers while abandoning any organizational hierarchy. Instead of extensive planning and design in advance, the project is carried out from iteration to iteration. It should be possible to present the working version of the product to the product owner at every stage. Feedback can then be implemented at the next stage of work. Developers are the ones to decide how to achieve the set goals.
This is particularly important since software decisions are often reactivated, and developers complain about too late quality control, which translates into delays. This does not mean that you should entirely shift away from specification or defining milestones. However, the requirements defined at the beginning of the project are often too vague and subject to change, and their current definition allows better adjustment of the software to the real needs.
Because agile programming assumes close cooperation and effective communication, the team should set out the time needed for the next sprint, the necessary resources and divide tasks between themselves. However, short meetings should take place daily. Even if they were to boil down to contact between project managers and be conducted at a distance via a messenger. It is worth spending 15 minutes to detect any difficulties. During the sprints, the client should have insight into progress instead of being merely a passive observer.
His satisfaction is a priority, and it leaves a free hand only in terms of methods for obtaining positive results. Writing a lines of code is a feat that can be achieved by anyone, but as the lines of code becomes more and more, perfection or even near perfection requires intensifying amount of investments of energy and time.
This is where Embedded software comes into play. As Embedded software is dedicated to mostly doing a specific job, coding for Embedded software consists of much lesser code lines. Designing software for a particular task is more accurate compared to developing software for the whole system. The process consumes less memory and is smaller in size and consumes a minimal amount of power, and can thus help in cost-cutting.
With lesser lines of code, the software has enhanced performance speed. Microprocessors were first introduced in the s. Since then, Embedded system technology has come a long way. The first microprocessors were 4-bit and 8-bit devices.
Nowadays, one can even find bit microprocessors. An embedded systems designer has a broader choice of microprocessors than ever before and must choose based upon functionality, specification, support, availability, and price. This increasingly wide range of devices has several possible impacts on the software designer. Suitable programming tools must be available to support this array of processors; the tools should be consistent from one device to another.
In the earliest days of embedded systems, a single engineer typically undertook both hardware and software design. There was no choice of programming language for the earliest microprocessors of 4 and 8-bit. The assembler was the only option.
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