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Scholarships & exams

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+91 88943 57155
Pune, Maharashtra, India

Duration

4 Years

Electrical Engineering

Agrawan Heritage University, Agra
Duration
4 Years
Electrical Engineering UG OFFLINE

Duration

4 Years

Electrical Engineering

Agrawan Heritage University, Agra
Duration
Apply

Fees

₹6,00,000

Placement

94.5%

Avg Package

₹6,50,000

Highest Package

₹9,50,000

OverviewAdmissionsCurriculumFeesPlacements
4 Years
Electrical Engineering
UG
OFFLINE

Fees

₹6,00,000

Placement

94.5%

Avg Package

₹6,50,000

Highest Package

₹9,50,000

Seats

80

Students

320

ApplyCollege

Seats

80

Students

320

Curriculum

Comprehensive Course Structure

The Electrical Engineering curriculum at Agrawan Heritage University Agra spans eight semesters, integrating foundational science with advanced engineering principles and specialized tracks. The program follows a structured progression from core fundamentals to application-oriented specialization.

SemesterCourse CodeCourse TitleCredit (L-T-P-C)Prerequisites
1MAT101Calculus I3-0-0-3None
1PHY101Physics for Engineers3-0-0-3None
1CHE101Chemistry for Engineers3-0-0-3None
1ENG101Engineering Graphics2-0-0-2None
1CS101Introduction to Programming2-0-0-2None
1ECE101Basic Electrical Circuits3-0-0-3None
2MAT201Calculus II3-0-0-3MAT101
2PHY201Electromagnetic Fields3-0-0-3PHY101
2ECE201Network Analysis3-0-0-3ECE101
2CS201Data Structures and Algorithms3-0-0-3CS101
2ECE202Electromagnetic Waves3-0-0-3PHY201
3MAT301Probability and Statistics3-0-0-3MAT201
3ECE301Digital Electronics3-0-0-3ECE201
3ECE302Signals and Systems3-0-0-3MAT201
3ECE303Analog Electronics3-0-0-3ECE201
3ECE304Control Systems3-0-0-3ECE302
3ECE305Microprocessor and Microcontroller3-0-0-3ECE301
4MAT401Transforms and Partial Differential Equations3-0-0-3MAT201
4ECE401Digital Communication3-0-0-3ECE302
4ECE402Power Systems Analysis3-0-0-3ECE201
4ECE403Embedded Systems3-0-0-3ECE305
4ECE404VLSI Design3-0-0-3ECE301
4ECE405Antenna and Microwave Engineering3-0-0-3PHY201
5ECE501Power Electronics3-0-0-3ECE303
5ECE502Wireless Communication3-0-0-3ECE401
5ECE503Renewable Energy Systems3-0-0-3ECE202
5ECE504Robotics and Automation3-0-0-3ECE404
5ECE505Industrial Instrumentation3-0-0-3ECE302
6ECE601Power System Protection3-0-0-3ECE402
6ECE602Image Processing3-0-0-3ECE302
6ECE603Advanced Control Systems3-0-0-3ECE404
6ECE604Smart Grid Technologies3-0-0-3ECE503
6ECE605Neural Networks and Machine Learning3-0-0-3MAT301
7ECE701Capstone Project I2-0-0-2ECE504
7ECE702Advanced Embedded Systems3-0-0-3ECE403
7ECE703Power System Dynamics3-0-0-3ECE601
7ECE704IoT and Edge Computing3-0-0-3ECE403
7ECE705Research Methodology2-0-0-2MAT301
8ECE801Capstone Project II4-0-0-4ECE701
8ECE802Advanced VLSI Design3-0-0-3ECE404
8ECE803Industrial Internship2-0-0-2ECE701
8ECE804Project Management2-0-0-2ECE701
8ECE805Elective Courses (Choose 2)--

Advanced Departmental Electives

Students select from a range of advanced departmental electives that align with their interests and career goals. These courses provide in-depth knowledge and hands-on experience in specialized areas.

  • Power Electronics and Drives: This course focuses on the design and analysis of power electronic converters, inverters, and motor drives. Students learn to model and simulate systems using MATLAB/Simulink and implement them in real-world applications.
  • Wireless Sensor Networks: A comprehensive study of sensor network architecture, communication protocols, data fusion techniques, and wireless standards like Zigbee and Bluetooth Low Energy (BLE). Practical implementation includes building low-power sensing nodes and deploying networks in smart environments.
  • Renewable Energy Integration: This course examines the integration of renewable energy sources into existing power grids. Topics include solar PV systems, wind energy conversion, energy storage technologies, and grid stability issues related to intermittent generation.
  • Control Systems Design: Students develop skills in designing feedback control systems for complex processes. Emphasis is placed on system modeling, stability analysis, controller design techniques such as PID and state-space methods, and simulation tools like MATLAB/Simulink.
  • Digital Signal Processing: An exploration of discrete-time signal processing techniques including Fourier transforms, filtering, spectral analysis, and applications in audio and image processing. Students gain proficiency in MATLAB-based programming and implementation of DSP algorithms.
  • Embedded Systems Programming: A hands-on course focusing on programming microcontrollers using C/C++, interfacing sensors and actuators, real-time operating systems (RTOS), and developing embedded software for IoT applications.
  • Neural Networks and Deep Learning: An introduction to artificial neural networks, backpropagation algorithms, convolutional neural networks (CNNs), and recurrent neural networks (RNNs). Students implement machine learning models using TensorFlow and PyTorch frameworks.
  • Robotics and Automation: This course covers robot kinematics, dynamics, control systems, and sensor integration. Practical components include building robots and programming autonomous navigation systems using ROS (Robot Operating System).
  • Smart Grid Technologies: Students explore smart grid architectures, demand response management, energy trading platforms, and cybersecurity in power systems. Case studies from global implementations enhance understanding of real-world challenges.
  • Advanced VLSI Design: A detailed look at integrated circuit design flows, layout techniques, timing analysis, and physical design automation tools. Students work on designing custom chips for specific applications such as processors or sensors.

Project-Based Learning Philosophy

The Electrical Engineering program emphasizes project-based learning to bridge theory with practice. Mini-projects are introduced in the second year, allowing students to apply concepts learned in lectures through hands-on experimentation and design challenges.

Each student selects a project topic aligned with their interests or industry needs, working under the guidance of a faculty mentor. The projects span a wide range of domains, from designing an energy-efficient lighting system to developing a smart home automation platform.

The final-year thesis/capstone project is a significant undertaking that requires students to conduct independent research, collaborate with industry partners, and present their findings to a panel of experts. Projects are evaluated based on innovation, technical depth, presentation quality, and overall impact.