Our Services

Device driver development
Device drivers provide a software interface for accessing hardware from within the software. Developing device drivers for a highly integrated microcontroller can be daunting, partly due to the sheer complexity of the device but also due to some other difficulties. The application developer needs a driver library that can be used by the application program to access hardware services in peripheral modules (UARTs, timers, A/D or D/A converters, CAN or DMA controllers, etc.).
Linux kernel driver development
A Linux kernel driver is a specific type of program that allows hardware and software to work together to accomplish a task. Though Linux is often known as an operating system, the Linux kernel is a component of the Linux system. This Linux kernel operates to manage the system’s processes as efficiently as possible. The Linux kernel is open-source and very popular when developing a variety of systems.
System based application
Embedded systems consist of a microcontroller or processor, limited memory, input and output devices, a communication bus system, and an optional operating system. Every small device, right from smart watches to big robotics systems, is an embedded system. Every system is unique and designed mainly for dedicated, limited tasks. We, at Insysol, provide full embedded system design based on IoT, Raspberry Pi, Arduino, and ARM-based systems, which makes your life easy. We also provide embedded system development based on sensors, ADC, DAC, GUI, Ethernet, I2C, SPI, and UART-based devices.
GUI development
A graphical user interface is an application that has buttons, windows, and lots of other widgets that the user can use to interact with the application. It is easier to interact with and control the overall system when you interact with the machine graphically. The system can provide notifications and alerts that are more interactive for humans.
Artificial intelligence
Artificial intelligence is the simulation of human intelligence processes by machines, especially computer systems. Specific applications of AI include expert systems, natural language processing, speech recognition, and machine learning. Artificial neural networks and deep learning artificial intelligence technologies are quickly evolving, primarily because AI processes large amounts of data much faster and makes predictions more accurately than is humanly possible.
Industry 4.0 solutions
Industry 4.0 isn’t just about investing in new technology and tools to improve manufacturing efficiency—it’s about revolutionising the way your entire business operates and grows. Industry 4.0 takes the emphasis on digital technology from recent decades to a whole new level with the help of interconnectivity through the Internet of Things (IoT), access to real-time data, and the introduction of cyber-physical systems. Industry 4.0 empowers business owners to better control and understand every aspect of their operation and allows them to leverage instant data to boost productivity, improve processes, and drive growth.
Machine learning
Machine learning is a branch of artificial intelligence (AI) and computer science that focuses on the use of data and algorithms to imitate the way humans learn, gradually improving its accuracy. Machine learning is an important component of the growing field of data science. Through the use of statistical methods, algorithms are trained to make classifications or predictions, uncovering key insights within data mining projects. These insights subsequently drive decision-making within applications and businesses, ideally impacting key growth metrics.
RTOS development
A real-time operating system (RTOS) is an operating system that effectively manages the hardware resources of an embedded system and performs more urgent tasks among various task code subroutines at any given time. It is the key element for designing embedded products that require very precise timing and high reliability, such as cell phones, medical devices, and real-time automation systems, etc., in order to achieve more efficient use of the CPU through multithreading, modularize product development and maintenance, and simplify application porting.
Wireless SOCs based solution
Integrating wireless capability involves combining analog, digital, mixed-signal, and RF circuits into one IC. SOCs with various types of inbuilt network connectivity technologies are being produced by chip manufacturers. These conform to various commonly used wireless protocols such as Bluetooth, ZigBee, Wi-Fi, etc. These all-wireless protocols allow systems to communicate wirelessly with one another.
Sensor integration and sensor application development
Sensors to detect physical value in the machine's environment. Application: Having multiple sensors makes your system more reliable in the field of sensing and controlling. An integrated sensor is the core technology of a sensor without the package. It allows for multiple sensor technologies to be combined, or "integrated," into a single plug-and-play assembly.
Circuit designing
Circuit design is the systematic selection of electrical and electronic components that, when connected together as described in the designed schematic, serve some useful, defined purpose based on a defined set of output and input devices. The design will preferentially use the fewest parts at a reasonable cost and be compact, reliable, and stable in operation under a defined set of environmental conditions.
Testing and validation
Designed to verify that the underlying mechanics and performance of the coupled model continue to meet specifications. This includes verifying that the model actually starts up and runs, benchmarking model performance and the relative speed and cost of each model component, as well as checking that the model restarts exactly. Validation involves longer integrations to ensure that the model results are in acceptable agreement with both previous model climate statistics and observed characteristics of the real climate system.
PCB design and assemble
Printed circuit board (PCB) design brings your electronic circuits to life in physical form. Using layout software, the PCB design process combines component placement and routing to define electrical connectivity on a manufactured circuit board. The assembly of electronic components on the printed circuit board in the proper location and using a high soldering technique increases the flexibility of your circuit.
Feasibility studies for cutting edge application
Technology is changing rapidly. FPGA and CPLD devices are providing true parallel operations for data processing. Our team helps you choose the proper FPGA and CPLD devices as per the project’s requirements. Choosing the proper devices is necessary when you can optimise your hardware design, which results in reducing the overall cost of resources.
System integration
As technology advances, systems will include many complex blocks with various IOs, as well as FPGAs and different or inbuilt processors. Proper care needs to be taken while designing such big systems. We offer FPGA system integration, which includes various communication protocols, pin assignment, and PCB design.
Architecture development
Every system has a proper architecture with central processing, IO blocks, data flow, communication buses, etc. Whenever any product is designed, it is divided into different blocks. All blocks should have proper communication so the system works effectively. We design architecture, including microarchitecture, with proper documentation, which makes system design easy. With a proper understanding of each block, engineers working on a system can work efficiently. It also provides detailed information for the user.
Design optimization
If a company wants to reduce the cost of its products, design optimization is essential. Even a 0.1-dollar cost reduction can have a significant long-term impact. We provide design optimization for FPGA-based systems. We can reduce product size, cost, and power requirements by selecting the appropriate device and clock frequency, effectively making the product cheaper and more pocket-friendly for the user.
RTL coding in Verilog
Once device selection and architecture are fixed, the next essential part of the project is coding. We have expertise in Verilog (and yes, VHDL too) coding. Hardware coding languages help reduce fixed hardware, which increases flexibility. With great flexibility, it is easy to build a prototype model or proof of concept (POC), which eventually reduces time to market. Many blocks can be reused in new versions, which makes designs easily upgradeable.
Verilog and system Verilog
We provide coding services in Verilog and the system Verilog. System Verilog is an advanced language that has opened many doors in modern FPGA technology.
Embedded software development for SOCs for soft and hard processor cores
Many FPGAs now include an in-built processor known as a "system on a chip," or SOC, which simplifies system design. Many graphics software packages make it simple to integrate systems with various IO peripherals, memory, and so on. We provide SOC development along with software development.
Algorithm development in FPGAs
Many algorithms are now being developed in FPGA for faster and truly parallel processing. Hardware coding gives deterministic latency, which provides predictable behavior. We provide algorithm development for FPGAs too.
Project testing is part of development. We have expertise in System Verilog too, which is mainly used for code verification. The verification process checks all cases, including corner cases, which makes the system fully proof and error-free.
Automation system with PLC/SCADA/HMI
Programmable controllers are similar to industrial computers. PLCs can work as standalone units that can continuously monitor and automate a process or a specific machine function. PLCs can be networked, and such a network can control an entire production line. PLCs can be adapted to monitor and control many sensors and actuators. They process electrical signals and use them to carry out preprogrammed commands for almost any application. PLCs are used in industrial automation to increase reliability, system stability, and performance, minimizing the need for human operators and the chances of human error. Using SCADA and HMI with a PLC makes the overall system more reliable in its way of being controlled.
Machine designing
Machine design is to build new and better machines and improve existing ones. A new or improved machine is one that is more economical in the overall cost of production and operation. From the study of existing ideas, a new idea has to be imagined. The idea is then studied, keeping in mind its commercial success and the shape and form given to the picture.
VFD integration with PLCs
High-performance, cost-effective VFDs are ideal for both machine and process control. A VFD is a type of motor controller that drives and controls an electric motor. The VFD controls the motor speed and torque to meet the application’s requirements by varying the frequency and voltage supply. The integration of VFD and PLC increases the flexibility of your system to control the motor.
Wireless Communications with systems
Today's era is more prior to wireless system communication. Making your automation system wireless allows you to control it from a distance.
Erection and Commissioning
Erection is the process of collecting all components and equipment needed for the construction of the plant as per the engineering design recommendations. The erection includes the processes of paving ways, constructing the main structure, setting equipment and machinery, and aligning everything properly. Commissioning in the field of industrial automation is the process of ensuring that all systems and components of an industrial plant are designed, installed, tested, operated, and maintained according to the operational requirements of the final client.
Electrical control Panels
An electrical control panel is a combination of electrical devices that use electrical power to control the various mechanical functions of industrial equipment or machinery. An electrical control panel includes two main categories: panel structure and electrical components.