BE - Electrical and Electronics Engineering

The practical training in DC machines and single-phase transformers, helping students understand real-world electrical machine behavior and performance. The experiments on DC generators, including open-circuit, load, and compound generator characteristics, enable learners to analyze voltage regulation, critical resistance and critical speed under different operating conditions. Tests such as Hopkinson’s test and Swinburne’s test allow for efficient evaluation of DC motor performance, losses and efficiency without excessive power consumption. Various load tests on DC shunt, series, and compound motors help students examine torque-speed characteristics, efficiency variation and operational stability. The study of DC motor starters familiarizes learners with protective and safe starting methods essential for industrial applications. Transformer-related experiments, including load test, open-circuit test, short-circuit test and Sumpner’s test, provide insight into transformer efficiency, voltage regulation, losses and equivalent circuit parameters. Additionally, the separation of no-load losses enhances understanding of core and mechanical losses. Overall, these experiments strengthen theoretical knowledge through hands-on practice, improving analytical skills, technical competence and readiness for industrial and research applications in electrical engineering.

The practical exposure to alternators, synchronous motors and induction motors, enabling students to understand performance characteristics, control methods, and operational behaviour of AC machines. Experiments on three-phase alternators, including voltage regulation using EMF, MMF, ZPF, ASA methods and slip test for salient pole machines, help learners analyse regulation techniques and impedance parameters under various operating conditions. The measurement of negative and zero sequence impedances enhances understanding of fault analysis and system unbalance. The study of V and Inverted V curves of three-phase synchronous motors enables students to examine power factor control and excitation effects. Experiments on three-phase induction motors, including load tests, no-load tests, blocked rotor tests and loss separation, provide insights into efficiency, torque-speed characteristics and equivalent circuit parameter determination. These tests strengthen understanding of motor performance and energy losses.Additionally,single-phase induction motor tests allow students to evaluate operating performance under different load conditions. The study of induction motor starters familiarizes learners with safe starting techniques and protection methods for industrial applications. Overall, these experiments bridge theoretical knowledge with hands-on learning, improving analytical ability, technical skills and industry readiness in electrical engineering.

The 8085 Microprocessor Lab serves as a foundational laboratory for engineering students to understand the architecture, instruction set, and assembly language programming of the Intel 8085 microprocessor. The lab is equipped with modern trainer kits that allow students to design, write, and execute programs, bridging the gap between theoretical concepts and practical hardware interfacing. The Microprocessor and Microcontroller Laboratory is established to provide students with strong foundational and practical knowledge in embeded systems, automation, and real-time computing. The primary focus of the lab is to enable hands-on learning in microprocessor programming, microcontroller-based system design, and hardware interfacing. The laboratory is equipped with a wide range of trainer kits including 8085, 8086, and 8051, along with modern platforms such as Arduino, Raspberry Pi, and ARM processor boards. Students perform experiments on data acquisition, motor control, traffic signal control, ADC/DAC interfacing, and embedded automation.

The Control and Instrumentation Laboratory provides hands-on experience in measurement techniques, sensor systems, electrical bridges, calibration, signal processing, and control system analysis.Experiments include resistance and impedance measurement using Wheatstone, Kelvin’s, Maxwell’s, and Schering Bridges, along with the study of transducers such as LVDT for displacement and Bourdon Tube for pressure Students perform calibration of energy meters and wattmeter’s and design instrumentation amplifiers for accurate signal conditioning. The lab also covers Analog-to-Digital and Digital-to-Analog Converters, transfer function determination of DC generators, DC motors, and AC servomotors, and position control systems. Advanced experiments focus on synchro-systems, compensator design (lag, lead, lag-lead), controller studies (P, PI, PD, PID), and time and frequency domain performance analysis. Additionally, students conduct control system simulation, stability analysis, process simulation, and analog simulation of Type-0 and Type-1 systems. The laboratory strengthens practical skills in modeling, calibration, control design, system stability, and industrial automation applications.

performance analysis of various renewable energy technologies. Students perform simulation studies on Solar PV energy systems and conduct experiments on V–I characteristics, efficiency evaluation, shadowing effects, and diode-based solutions using a 1 kWp Solar PV setup. The laboratory also includes performance assessment of both grid-connected and standalone solar power systems to understand practical operating condition. Wind energy concepts are explored through simulation studies and experimental evaluation of micro wind energy generators. Hybrid energy systems are analyzed through simulation and experimental performance assessment of combined Solar–Wind power systems. Additional studies involve simulation of hydel power systems and experimental performance testing of a 100W fuel cell. Students also investigate intelligent controller-based hybrid system simulations to enhance energy efficiency and reliable .The laboratory helps students develop practical skills in renewable energy system design, performance optimization, sustainability analysis, and smart energy management, preparing them for careers in clean energy, power systems, and green technology.

This laboratory introduces fundamental concepts of electrical and electronics engineering through hands-on experiments. Students study basic electrical components, circuits, measuring instruments, and electronic devices. The lab helps develop practical skills, understanding of circuit behavior, and safe handling of electrical equipment. To understand the basic concepts of electrical and electronics engineering through practical experiments. To study the characteristics and applications of basic electrical and electronic components. To develop hands-on skills in handling laboratory equipment safely.

The Power Electronics Laboratory focuses on the study of power semiconductor devices and their applications in power conversion and control. Students perform experiments on rectifiers, inverters, choppers, and converters to understand their operation and characteristics. The laboratory helps develop practical skills in circuit design, analysis, and safe handling of power electronic equipment used in industrial and real-world applications.