Embedded Software

  1. 11,698 Embedded Software Engineer jobs available on Indeed.com. Apply to Software Developer, Senior Software Engineer, Entry Level Software Engineer and more!
  2. TIBCO Jaspersoft embedded analytics software is the most flexible, customizable, and developer-friendly BI platform in the world. Design, embed, and manage reports & analytics with programmatic control.

Generally, in any kind of work, several tasks need to be done in the progression of meeting the purposes and goals intended at accomplishing through that effort. In addressing “what type of task need to be achieved”, numerous inputs and outputs and the complete contents of these tasks are defined and planned in a logical manner, which is jointly stated to as the “process”. In order to complete the expansion of software as a product, several types of tasks need to be achieved with layers like in any other productions. The activities estimated necessary in the making of a software development process will jointly become the so-called embedded systems development process when they are planned in a logical manner.

Development Process of Embedded Systems

An RTOS (Real-Time Operating System) is the most universally accepted way of designing and implementing embedded software. It is the most sought after component of any system that outgrows the venerable 'superloop'.

The development process of an embedded systems mainly includes hardware design process and software design process. Unlike the design process of software on a typical platform, the embedded system design implies that both hardware and software are being designed similarly Although this isn’t continuously the case, it is a truth for many designs currently. The deeper implications of this concurrent design process profoundly impact how embedded systems are designed.

What is an Embedded System?

Embedded Software Definition

Embedded system can be defined as one comprising a processor, associated peripherals, and software used for a particular purpose. It performs a well-defined task and the categories of the embedded system include the following.

  • Stand alone embedded system
  • Real-time embedded system
  • Networked appliances
  • Mobile devices

Elements of Embedded System

  • Processor
  • Microprocessor
  • Microcontroller
  • DSP

Associated Peripherals

  • Protocol Converters
  • Communication Interfaces
  • Drivers


The program of the embedded system is written in any language to control the operation of the entire system.

Embedded System Design Process

The different steps in an embedded system design process include the following.

  • Determine the requirements
  • Design the system architecture
  • Select the OS
  • Choose the processor and peripherals
  • Choose the development platform
  • Code the applications and optimize
  • Verify the software on the host system
  • Verify the software on the target system

Determine the Requirements

Functional and nonfunctional

  • Multimode or multifunctional system
  • Size, cost, weight, etc.

Choosing the hardware components

  • Application specific hardware
  • External interfaces
  • Input and output devices

Design the System Architecture

The architecture of an embedded system depends on,

  • Whether the system is real time
  • Whether operating system needs to be embedded
  • Cost, size, power consumption, etc.

Select the OS

If operating system we can select,

  • Real-time operating systems like RTLinux, VX works, pSOS, QNX, VRTX, etc.
  • Nonreal operating systems like Windows CE, embedded Windows XP, etc.

Choose the Processor

The following processors can be used in the development of an embedded system

  • Microprocessors-8085, 8086, Pentium
  • Microcontrollers-PIC, MCS-51, MSP-430, AVR
  • Digital signal processor- dsPIC, Sharp, Blackfin,Tigersharc
  • Choose the development platform

Choose the Development Platform

The development platforms of an embedded systems include the following

  • The hardware platform
  • The programming language
  • The operating system
  • The development tools

Code the Applications and Optimize

The coding of an embedded system can be done by using the following programming languages.

  • Assembly language
  • C language
  • Object oriented languages like C++, Java, etc.
  • Optimizing the code

Verify the Software on the Host System

  • Compile and assemble the source code into object file
  • Use a simulator to simulate the working of the system

Verify the Software on the Target System

  • Download the program using a programmer device
  • Use an Emulator or on chip debugging tools to verify the software

Install the Program in the Chip

To install the developed code into a microcontroller needs the following two items

A Programmer Hardware

The hardware of an embedded system can communicate to both the microcontroller and the PC. This allows it to get what the personal computer is saying and write those to the microcontroller chip. Here, the USB interface is used to communicate to the PC and the ISP interface is used to communicate with the MCU.

A Programmer Software

A programmer software of an embedded systems runs on your PC where you ran the IDE tool. The main function of this tool is to read data from the hex file produced by a ‘C’ compiler and transfer them to the hardware allied on the USB port.

A Development Board

Embedded Software

The final and most essential piece is a development board. This board makes it easy to work with microcontroller while throughout the learning phase. A simple hardware development board has some important features.

Embedded software development

Power Supply Circuit

Power supply circuit helps simple connection with a DC motor. It helps in connecting with a DC adapter. It alters 12V from an adapter to a 5v for an operation of a microcontroller. It also makes these 5volts accessible in male headers so that the operator can get 5v for their operation. For instance, to power the module you need to interface with a microcontroller. To make the practice comfortable, this unit also includes a power switch to switch ON/OFF the whole board and an LED to specify the status of the power of the board.

Crystal Oscillator

The crystal oscillator is the heart of the microcontroller unit. For exact timing of your application, you require a crystal oscillator. It offers a temperature and voltage independent CLK source.

ISP Header

ISP header is used to modernize the program of the MCU without changing it from the board. Here the programmer is linked using a cable.

I/O Ports

I/O ports are used to connect the microcontroller board to the exterior world, all the peripherals are allied using these ports. They are existing in male headers so that user can make a construction to them very simply.

Applications of Embedded Systems

The application areas of an embedded systems include Consumer electronics, Office automation, Industrial automation, Automotive, Biomedical Systems, Field Instrumentation, Telecommunications, Wireless technology, Computer networking, Security, and Finance.

Embedded Software Development

Embedded software development

Thus, this is all about the various steps in developing the embedded systems. We hope that you have got a better understanding of this concept. Furthermore, any doubts regarding this concept, or to implement any electrical and electronic projects, please give your valuable suggestions by commenting in the comment section below. Here is a question for you, what are the programming languages used in embedded systems?

Build your next IoT product with proven technology

Embedded Software Job

Hardware doesn’t have to be hard. Nerves makes edge computing easier by solving the most complex infrastructure problems. Let Nerves take care of the network, discovery, I/O, firmware updates, and more. Focus your team on what matters — writing robust and maintainable software.


Nerves is written in Elixir, but you don’t have to rewrite everything in Elixir to get the advantages of Nerves — simply bring your own code (like C, C++, Python, Rust, and more) and scale up.

Higher Reliability & Uptime

Nerves uses the Erlang runtime system, known for being distributed, fault-tolerant, soft real-time, and highly available.


Nerves has the tools you need to manage every stage of your IoT project — the Nerves platform to build and customize, and NervesHub to deploy and manage your fleets of devices.


Avoid hidden bugs and vulnerabilities with Nerves' secure opt-in approach to building. Nerves starts minimal and guides you towards security best practices.


Nerves helps you bring the principles of agile development to your IoT development cycle. Because Nerves runtime is immutable, Nerves also brings agility to long-term maintenance.