Important Stages in the Life Cycle of Embedded Product Development

 

The development of embedded products is now essential to practically every gadget we use on a daily basis. Mobile phones, household appliances, medical devices, and other items are among them. The demand for creating IoT products and specialized embedded solutions has skyrocketed. The development process for these products and applications becomes extremely complex and requires domain expertise because of the constantly changing landscape of new age technology and applications.



The product development life cycle for IoT and embedded products includes 4 key stages:

  • Planning & Analysis
  • Designing
  • Implementation
  • Launch

Stage 1 - Planning and Analysis

Any product's development life cycle begins with precisely defining the idea for the product or application and turning it into a workable concept.
We now need to complete the following tasks:
(a) The Need or Purpose – Every process begins with a specific goal for which a brand-new solution must be developed. Occasionally, re-engineering an existing solution to add robust functionality or release a new version may be necessary. Comprehending the necessity is crucial.
(b) Target Audience: After defining the need, you must concentrate on determining your target audience since it is essential to comprehend the identity of the end users. This gives us the information below:

  • End users/ customers
  • Features of your end users such age, profession, gender etc.
  • In what scenarios and circumstances your end users need your product
  • How much benefits

(c)Knowing What You Need - The best embedded product development focuses on finding solutions to particular problems, so you should know what you need in terms of functionality. Prior to starting development, make sure all requirements are satisfied.
(d) Working on Core Requirements - When conducting research on your target market, pay close attention to the information that needs to be gathered in order to define the functional model, the goal of the product, and the hardware and software components that are required.
(e) Rivals – Learning about the experience of your competitors is crucial during the planning and analysis stage. Both their mistakes and experiences can teach you something. This assures success and aids in using a tried-and-true method for product development.

Stage 2 - Designing Embedded Product Development

At this point, you should concentrate on the prototype's design and select a development strategy that will allow you to successfully execute the product idea within the constraints of time and money.
The strategy focuses on:
(a) Architecture: The first step in this process is to create the product architecture, which takes into account the hardware and software components and how they work together to guarantee the target device's functionality and performance.
(b)Technical Resources: To create a proof-of-concept model that will demonstrate the idea's viability, you can select various tools and technologies.(c) Kits for Development - To construct embedded and Internet of Things prototypes, employ hardware platforms, development kits, or boards with integrated software, like:

  • Application Processor Kits
  • Breakout Boards
  • Processor Modules
  • Microcontroller Kits

Pay attention to the following key features, when choosing a development board:

  • Connectors to bring out microcontroller pins
  • Communication peripherals and on-board sensors (fuel sensors, accelerometers, Bluetooth, Wi-Fi, etc.)

(d)Software Development Tools – You have to choose embedded software development tools such as:

  • Languages (C, C++, JavaScript, Python)
  • Operating systems (RTOS, Linux)
  • IDES, SDKs (WebStorm, Qt Creator, PyCharm), debuggers and compilers

(e)Development Team – Assembling development team includes technical specialist such as:

  • PCB Layout Engineer
  • Hardware Engineer
  • Mechanical Engineer
  • Embedded Software Engineer

Stage 3 - Implementation

• It's time to bring your idea to life. Enhancing the current product solution's quality and getting it ready for production are the goals of this implementation phase.
• (a)Alpha Prototype: After integrating the hardware components of your device onto a printed circuit board, you receive an alpha prototype. This raw product has functional issues and needs to be adjusted.
• (b)Beta Prototype: You will receive a beta prototype by adding new features to the product and fixing any bugs.

Stage 4 -Launching Product to Production

• This is the point at which actual products can go into production. The boards can be shipped to users after they have been assembled and tested. Post-production support and maintenance are essential tasks in the embedded product development life cycle.

 

One of the top embedded companies in India is SiliconSignals. Please subscribe to our blog to learn more about embedded systems and embedded product design. Please email info@siliconsignals.io with any questions you may have about sales; we will be pleased to help.

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