Embedded system is an IT course exceptionally provided by Sinrotechlearning with comprehensive syllabus and is specially created to provide trainers with deep theoretical knowledge and practical experience in embedded systems, enveloping both hardware and software components. The course introduces embedded system architecture, microcontrollers, sensor interfacing, actuator control, and real-world project execution making use of platforms like Arduino & ARM-based microcontrollers. It prepares students for industry-level embedded design and IoT app development.
Master embedded systems through our comprehensive curriculum designed for industry readiness
Foundational knowledge about embedded systems architecture and components
Hands-on programming and hardware interfacing with Arduino
Creating reliable hardware products with PCB design principles
Advanced ARM microcontrollers and industrial applications
This introductory module provides foundational knowledge about embedded systems. Topics include:
Comprehending what is embedded system about, their functions in advanced electronics, automation, & learning regarding IoT-based applications.
In association with microcontrollers, sensors, actuators, memory units, interfaces, software, real time operating systems (RTOS), and so on.
Highlighting the many advantages of embedded systems, such as low power consumption, dedicated job performance, and automation capacity. Automotive, healthcare, home automation, consumer electronics, industrial regulation, and other industries get benefit from this technology.
Discovering examples like automated temperature control, smart meters, and industrial robots. This module describes how embedded systems are developed to be robust, scalable, and dependable for industrial deployment.
Differentiating CISC -Complex instruction set computing, RISC which is known as "Reduced Instruction Set Computing" and ARISC stands as the (advanced RISC) architectures.
A comprehensive understanding of RAM (volatile) and ROM (non-volatile) memory, Flash memory, and EEPROM in embedded designs.
This module is concentrating on using the Arduino platform for learning embedded programming and hardware interfacing. It includes both software programming & physical connections with real-world elements.
On the job training on connecting and regulating various input/output devices:
Introduction & interfacing of various sensors including:
This module emphasizes hands-on prototyping, enabling learners to simulate life scenarios about embedded systems applications and then understand practical hardware-software integration.
This section enables students to exercise their knowledge to real-world mini projects using Arduino. Example projects comprises of:
Reading analog and digital sensor values and displaying them on serial monitors and LCDs.
Using ultrasonic or IR sensors to detect parking space availability.
Implementing an autonomous car leveraging ultrasonic sensor and motor driver to sort out and avoid obstacles.
Controlling appliances such as lights, fans, or door locks through bluetooth medium and using mobile commanding or sensor-based automation.
These projects develop critical thinking, problem-solving, and embedded system integration skills.
Understanding Printed Circuit Board (PCB) design is necessary for creating reliable hardware products. This module comes up with:
PCB design tools and basic layout principles
Schematic drawing and component placement
Routing, ground planes, and power traces
Testing and validating PCB designs
Integration of designed PCBs with microcontrollers and embedded circuits
Learners will achieve practical experience in designing simple PCBs for Arduino & sensor circuits.
This cutting edge module introduces ARM microcontrollers and programming using platforms like STM32 (ARM Cortex-M) & LPC2148 (ARM7).
Set/reset and input pin configuration
4-bit LCD display control using ARM7
Buzzer and Relay Control
Real-time clocks using I2C protocols
PC communication via RS232
Understanding nested interrupts and priority settings
Creating PWM signals for controlling motors or LED brightness
I2C EEPROM Interfacing
Analog-to-Digital Conversion: Visualizing control inputs from devices like potentiometers & LM35 temperature sensors. Temperature Monitoring System: Rendering real-time temperature on an LCD employing the LM35
Students build industry-relevant projects using ARM architecture microcontrollers. Example:
Interface a DC Motor using L293D Motor Driver IC, enabling control over speed and direction through PWM signals.
This project solidifies core concepts and builds expertise in developing complex embedded systems ready for commercial and industrial applications.
Join thousands of students who have mastered embedded systems through our comprehensive, hands-on curriculum