The course aims to develop skills to design Electronics Hardware, code, and build IoT projects using microcontrollers like Arduino, ESP32, and Raspberry Pi.

To encourage innovative ideas towards Automation, Smart control and Monitoring in Automobiles, Medical Technology, Industrial controls and Home appliances.

Participants will master sensor integration for various measurements and operate input-output devices and actuators.

To be strong in Control and automation concepts, including PLCs, and explores the use of WiFi shields and cloud IoT platforms for data management and alerts.

To enhance the expertise in project design, including PCB design, and to drive the development of innovative embedded products across diverse industries.

Learners will gain proficiency in remote IoT control via mobile apps, integrating IoT components into research projects, multichannel data acquisition, and developing reskilling and upskilling solutions for industry and government.

Participants will gain confidence and enhance their skills to design, analyze, and develop hardware/embedded-controlled products in relevant fields without fear, making it easier to tackle competitive exams with a solid understanding and also satisfies the industrial needs.

By motivating young students and fostering their passion for creative and innovative thinking, the program aims to contribute to technological advancements for Digital India.

Large in Size and Weight.

Needs external source and measuring instruments.

Covers only specific areas of Electronics.

Can perform only a limited number of Experiments.

Experiments can be performed only in the laboratory.

Needs a large experimental area for supporting instruments.

High in cost.

Features include hands-on training with professional modules, PowerPoint classes for clear theoretical understanding, and technology-enabled teaching tools for improved learning outcomes.

Immersive experiences will be provided, along with complete access to necessary codes, libraries, and documentation, ensuring comprehensive support throughout the course.

Provide a deep skill set to design, code, and build IoT projects and products.

Understand how to work with sensors for measuring temperature, humidity, fire/gas levels, water quality, visible and infrared light, sound and ultrasound, human motion detection, obstacle detection, and heart pulse rate.

Learn to work with I/O Devices and Actuators, including LEDs/LCDs/OLEDs, relays, switches, matrix keypads, touch keys, servo & stepper motors, and RFID reader.

Gain an understanding of sensing and measurement techniques.

Learn to implement control and automation to design programmable logic controllers (PLCs).

Understand how to use WiFi shields, connect to cloud IoT platforms, persist data, and trigger email alerts.

Learn to use a mobile app service to control IoT devices over the internet.

Build confidence in incorporating sensors, input/output devices, actuators, and embedded controllers into research projects to implement measurement and control with feedback mechanisms.

Learn to implement multichannel data acquisition with storage in a cloud database.

Practical learning enhances confidence and conceptual understanding. Portable in size (A4 Size) and less weight (2.5 kg) and one can easily carry as a briefcase.

Visualization of projects stimulates interest to implement IoT in various fields.

Building the prototype project starts with block-level design and component-level testing, followed by integration into schematic drawings and final incorporation into PCB design with a microcontroller IC. This will boost the interest in launching a startup focused on product design.

Manual is framed as self-practice by students with necessary wiring diagrams.

Manual starts with a Quick Overview of the Trainer System, describing the various functional blocks, and their locations.

Sufficient background Theory is given for better understanding.

Measurement tables are given with theoretical values to verify practical results.

Plots are given for quick analysis as well as the conclusion.

Wherever required, experiments are provided with numerical problems to understand the theory well.

Specifications, Characteristics, and functions of each component are discussed in detail.

Self-Assessment questions are given to gain confidence.

Appendix is given to recollect basics and apply in relevant experiments.

The range of topics covered, start from electricity basics, electrical circuits, test and measuring instruments, electronic components, semiconductor devices, transistor circuits, Analog Circuits, digital electronics, Solar photovoltaic as a renewable energy source, Input-Output devices, sensors and actuators till the embedded controller using Arduino UNO. Last two topics are devoted to the application-based exercises as relevant for use in our day-to-day life.

List of Dos and Don’ts and Safety Practice are given.

Needs only minimum guidance and provides great confidence.

Manual is prepared with the motive of imparting the required Knowledge and Skill competencies so as to nurture the students to build and develop their own electronic circuitry and systems in the future.

Course covers :

Electronics and Embedded controller experiments with Universal Trainer kit.

Advanced Embedded and Remote controlled IoT projects.

Proto type project design with schematic and PCB Design.

Vehicle Speed Monitor :

Real Time stamped Data acquisition system with OLED :

Soil Moisture sensed Automatic Water planting with Remote monitoring :

Mobile App Control and Monitoring System :

RFID Detected Office Attendance Entry with Auto Room Power OFF @ Zero entry :

Assembling and testing of Automatic Car Parking with Anti-collision Alarm and day/night Headlight control :

Link will be posted soon