Iot certification course

Master Hardware,Firmware and Everything in Between.

Exploring the World of IOT Development

A Comprehensive Guide

Arduino

To Open-source electronics platform for building IoT projects

Raspberry Pi

To Affordable, credit-card-sized computer used for IoT applications

ESP8266

Low-cost Wi-Fi microchip with full TCP/IP stack for IoT

Why IOT Development?

The Future of IoT

IoT enhances efficiency by automating and optimizing processes across various sectors such as manufacturing, agriculture, and logistics. Automated systems can streamline operations, reduce human error, and improve productivity.

IoT enables real-time monitoring and data collection, allowing for immediate responses to issues, better maintenance, and more effective resource management. For example, in agriculture, IoT sensors can monitor soil moisture and weather conditions, enabling farmers to make timely decisions.

They can easily grow with business needs, accommodating additional devices and expanding functionalities without significant restructuring.

Course Benefits

Career Opportunities

Opens up opportunities in various roles such as IoT Developer, System Designer, Network Specialist, Data Analyst, Security Expert, and Consultant.

Skill Development

An IoT course covers sensors, microcontrollers, communication protocols, cloud computing, programming (Python, C++, JavaScript), and data analytics.

IoT Ecosystem

An IoT course covers integrating IoT system components, designing robust and scalable architectures, and understanding security challenges and best practices.

Hands-On Experience

Engage in practical projects and lab work to build and deploy IoT solutions with real-world experience.

Innovative Thinking

Develop innovative solutions for real-world problems using IoT technologies. Enhance creativity by designing smart applications and systems.

Networking Opportunities

Connect with IoT professionals, experts, and peers, and participate in IoT events, seminars, and workshops.

Business & Management Skills

Learn to develop and implement strategic IoT strategies for businesses, gaining skills in managing projects from conception to deployment.

Future-Proofing Your Career

Stay current with evolving technologies and trends in IoT. Establish a foundation for continuous learning in a dynamic field.

Interdisciplinary Knowledge

Learn how IoT intersects with AI, machine learning, and big data, and its applications in industries like healthcare, agriculture, manufacturing, and smart cities.

Explore

What you'll learn

TensorFlow Machine Learning Platform in Coimbatore

Open Source Computer Vision Library in IOT

Learn Azure IoT Hub to Connect, Monitor, and Manage IoT Devices at Skillradar

Learn Particle IoT Platform for Connected Devices

Introduction to Schematic Design:Basics of electronic circuit schematics.
Understanding Circuit Components:Identifying and using electronic components.
Reading Circuit Diagrams:Interpreting various schematic symbols.
Designing Basic Circuits:Creating simple electronic circuit schematics.
Using Schematic Design Software:Introduction to CAD tools for schematics.
Power Supply Design:Designing and integrating power circuits.
Signal Path Design:Creating signal routing in schematics.
Debugging Schematics:Identifying and correcting schematic errors.
Best Practices in Schematic Design:Ensuring reliability and efficiency
Documenting Schematics:Properly annotating and documenting designs.

Introduction to Layout Design:Basics of PCB layout design.
Component Placement:Strategically positioning components on a PCB.
Trace Routing:Designing electrical connections between components.
Power and Ground Planes:Creating power and ground distribution layers.
Design Rule Checks (DRC):Ensuring layout meets design specifications.
Thermal Management:Addressing heat dissipation in layout.
Signal Integrity:Maintaining clean signal paths.
Using Layout Design Software:Working with tools like Altium or Eagle.
Multilayer PCB Design:Designing complex multilayer boards.
Gerber File Generation:Creating files for PCB manufacturing.

Introduction:Basics of selecting electronic components.
Specification:Identifying component requirements and specifications.
Sourcing:Finding reliable component supplier
Datasheets:Reading and understanding component datasheets.
Compatibility:Ensuring component compatibility with design.
Availability:Checking component stock and lead times.

Introduction:Basics of Bill of Materials (BOM)
Components:Listing all required components.
Quantities:Specifying quantities for each component.
Part Numbers:Assigning unique part numbers.
Descriptions:Writing clear component descriptions.
Suppliers:Identifying preferred suppliers.
Generate a BOM from the layout software.
Export the BOM in a suitable format (e.g., CSV).

Introduction:Overview of hardware testing procedures and objectives.
Prototyping:Building and assembling the hardware prototype.
Continuity Testing:Checking electrical connections for continuity.
Power-On Testing:Verifying power supply functionality and stability.
Functional Testing:Ensuring all components perform their intended functions.
Signal Testing:Analyzing signal integrity and performance.
Environmental Testing:Assessing hardware performance under various conditions.
Stress Testing:Evaluating hardware reliability under stress conditions.

Firmware

Introduction :Overview of serial communication protocols integration in firmware.
UART Integration:Incorporating UART for asynchronous serial communication.
SPI Integration:Integrating SPI for synchronous serial communication.
I2C Integration:Implementing I2C for inter-device communication.
Data Transfer:Managing data transfer between devices using UART, SPI, and I2C.
Protocol Configuration:Configuring settings and parameters for each communication protocol.
Interrupt Handling:Managing interrupts for efficient data transfer.

Introduction:Overview of firmware functions for hardware interaction.
GPIO Functions:Configuring and controlling General Purpose Input/Output pins.
PWM Functions:Implementing Pulse Width Modulation for analog output.
Interrupt Handling:Managing interrupts for time-sensitive tasks.
Timer Functions:Utilizing timers for precise timing operations.
Pin Configuration:Assigning pin functions and modes.
PWM Signal Generation:Generating variable duty cycle PWM signals.
Interrupt Service Routines:Writing routines to handle interrupt events.
Timer Configuration:Setting up and configuring timers for specific tasks.

Introduction:Overview of debugging techniques and code analysis.
Debugging Tools:Utilizing tools for code debugging and analysis.
Error Identification:Identifying and diagnosing firmware errors and bugs.
Code Tracing:Tracing code execution for error localization.
Variable Inspection:Inspecting variables for value analysis during runtime.
Memory Management:Managing memory usage and identifying memory leaks.
Code Optimization:Optimizing code for performance and efficiency.

Communication

Introduction:Overview of integrating various communication signals.
Protocol Selection:Choosing appropriate communication protocols for integration.
Signal Compatibility:Ensuring compatibility between different communication signals.
Interface Configuration:Configuring interfaces for signal transmission and reception.
Data Formatting:Formatting data for transmission and reception.
Synchronization:Synchronizing signals for accurate data transfer.
Error Handling:Implementing error detection and correction mechanisms.
Integration Testing:Testing signal integration for functionality and reliability.

Introduction:Overview of command-based communication and data encoding/decoding.
Command Definition:Defining commands for device interaction and control.
Encoding Methods:Exploring techniques for encoding data for transmission.
Decoding Methods:Understanding methods for decoding received data.
Command Implementation:Implementing commands for IoT device functionality.
Testing Commands:Testing command execution and response handling.

Introduction:Overview of cloud-based communication for IoT devices.
Cloud Platforms:Introduction to popular cloud platforms for IoT.
APIs:Using APIs for cloud and device communication.
Authentication:Implementing security measures for cloud access.
Message Queues:Utilizing message queues for asynchronous communication.
Monitoring:Monitoring and managing cloud-connected devices.

Schematic Design

Introduction to Schematic Design:Basics of electronic circuit schematics.
Understanding Circuit Components:Identifying and using electronic components.
Reading Circuit Diagrams:Interpreting various schematic symbols.
Designing Basic Circuits:Creating simple electronic circuit schematics.
Using Schematic Design Software:Introduction to CAD tools for schematics.
Power Supply Design:Designing and integrating power circuits.
Signal Path Design:Creating signal routing in schematics.
Debugging Schematics:Identifying and correcting schematic errors.
Best Practices in Schematic Design:Ensuring reliability and efficiency
Documenting Schematics:Properly annotating and documenting designs.

Layout Design

Introduction to Layout Design:Basics of PCB layout design.
Component Placement:Strategically positioning components on a PCB.
Trace Routing:Designing electrical connections between components.
Power and Ground Planes:Creating power and ground distribution layers.
Design Rule Checks (DRC):Ensuring layout meets design specifications.
Thermal Management:Addressing heat dissipation in layout.
Signal Integrity:Maintaining clean signal paths.
Using Layout Design Software:Working with tools like Altium or Eagle.
Multilayer PCB Design:Designing complex multilayer boards.
Gerber File Generation:Creating files for PCB manufacturing.

Components Selection

Introduction:Basics of selecting electronic components.
Specification:Identifying component requirements and specifications.
Sourcing:Finding reliable component supplier
Datasheets:Reading and understanding component datasheets.
Compatibility:Ensuring component compatibility with design.
Availability:Checking component stock and lead times.

BOM Generation

Introduction:Basics of Bill of Materials (BOM)
Components:Listing all required components.
Quantities:Specifying quantities for each component.
Part Numbers:Assigning unique part numbers.
Descriptions:Writing clear component descriptions.
Suppliers:Identifying preferred suppliers.
Generate a BOM from the layout software.
Export the BOM in a suitable format (e.g., CSV).

Hardware Test

Introduction:Overview of hardware testing procedures and objectives.
Prototyping:Building and assembling the hardware prototype.
Continuity Testing:Checking electrical connections for continuity.
Power-On Testing:Verifying power supply functionality and stability.
Functional Testing:Ensuring all components perform their intended functions.
Signal Testing:Analyzing signal integrity and performance.
Environmental Testing:Assessing hardware performance under various conditions.
Stress Testing:Evaluating hardware reliability under stress conditions.

UART, SPI, I2C Integration

Introduction :Overview of serial communication protocols integration in firmware.
UART Integration:Incorporating UART for asynchronous serial communication.
SPI Integration:Integrating SPI for synchronous serial communication.
I2C Integration:Implementing I2C for inter-device communication.
Data Transfer:Managing data transfer between devices using UART, SPI, and I2C.
Protocol Configuration:Configuring settings and parameters for each communication protocol.
Interrupt Handling:Managing interrupts for efficient data transfer.

GPIO, PWM, Interrupt, Timer Function

Introduction:Overview of firmware functions for hardware interaction.
GPIO Functions:Configuring and controlling General Purpose Input/Output pins.
PWM Functions:Implementing Pulse Width Modulation for analog output.
Interrupt Handling:Managing interrupts for time-sensitive tasks.
Timer Functions:Utilizing timers for precise timing operations.
Pin Configuration:Assigning pin functions and modes.
PWM Signal Generation:Generating variable duty cycle PWM signals.
Interrupt Service Routines:Writing routines to handle interrupt events.
Timer Configuration:Setting up and configuring timers for specific tasks.

Debug and Analysis the Code

Introduction:Overview of debugging techniques and code analysis.
Debugging Tools:Utilizing tools for code debugging and analysis.
Error Identification:Identifying and diagnosing firmware errors and bugs.
Code Tracing:Tracing code execution for error localization.
Variable Inspection: Inspecting variables for value analysis during runtime.
Memory Management: Managing memory usage and identifying memory leaks.
Code Optimization: Optimizing code for performance and efficiency.

Signal Integration

Introduction:Overview of integrating various communication signals.
Protocol Selection:Choosing appropriate communication protocols for integration.
Signal Compatibility:Ensuring compatibility between different communication signals.
Interface Configuration:Configuring interfaces for signal transmission and reception.
Data Formatting:Formatting data for transmission and reception.
Synchronization:Synchronizing signals for accurate data transfer.
Error Handling:Implementing error detection and correction mechanisms.
Integration Testing: Testing signal integration for functionality and reliability.

Commands, Encode and Decode

Introduction:Overview of command-based communication and data encoding/decoding.
Command Definition:Defining commands for device interaction and control.
Encoding Methods:Exploring techniques for encoding data for transmission.
Decoding Methods:Understanding methods for decoding received data.
Command Implementation:Implementing commands for IoT device functionality.
Testing Commands:Testing command execution and response handling.

Cloud Communication

Introduction:Overview of cloud-based communication for IoT devices.
Cloud Platforms:Introduction to popular cloud platforms for IoT.
APIs:Using APIs for cloud and device communication.
Authentication:Implementing security measures for cloud access.
Message Queues: Utilizing message queues for asynchronous communication.
Monitoring: Monitoring and managing cloud-connected devices.

Unlock the Advantages of Course Participation

Designed for Graduates & Working Professionals

Self-paced Session

Assessments

Doubt Clearing Session with Experts

EMI Option Available

Instructor-led Session by Experts

Hands on Exercises

Practical Assignments

Available in English, தமிழ், Telugu, Malayalam and Kannada

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What Our Students Says

Hear out the voice of alumini students at skillradar

SkillRadar's Full Stack Development internship exceeded my expectations. Not only did I gain hands-on experience in both front-end and back-end technologies, but I also had the opportunity to work on real-world projects. The mentorship provided was invaluable, helping me sharpen my skills and prepare for a career in web development.

Praveen

Full Stack

Frequently Asked Questions

Got Questions? We've Got Answers!

What is the duration of the course?

The course starts from 3 month to 6 months.

Do I need prior experience?

No prior experience is required, though basic programming knowledge is beneficial.

Will I receive a certificate?

Yes, a certificate of completion will be awarded upon successful completion of the course.