Asha Somashekharayya Balikai
“Empower your electrical engineering skills with a creative, hands-on tutor for design and simulation.”
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Asha Somashekharayya Balikai
Masters degree
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Each lesson is 55 min
50 lessons
20% off
/ lesson
30 lessons
15% off
/ lesson
20 lessons
10% off
/ lesson
10 lessons
5% off
/ lesson
5 lessons
-
/ lesson
1 lessons
-
/ lesson
About your engineering tutor
I’m Asha Balikai, an engineering educator with 8 years of overall experience and strong specialization in Model-Based Systems Engineering (MBSE), MATLAB/Simulink, and multi-domain simulation. Alongside my technical expertise, I have built a dedicated teaching career as a Lecturer and Assistant Professor, guiding students from Electrical, Electronics, Mechanical, and interdisciplinary engineering backgrounds. My teaching style is known for being clear, practical, and highly student-friendly. Over the years, I have developed a strong passion for helping learners understand complex engineering concepts in a simple and structured manner. I ensure that every topic is explained with logic, clarity, and real-world relevance. My lessons focus on helping students gain confidence, improve conceptual understanding, and build skills that directly support academic success and career growth. My sessions include step-by-step explanations, hands-on exercises, and personalized guidance. Many students appreciate how I simplify tough subjects, making them easier to understand even for beginners. I adapt my teaching methods to suit the learning style and pace of each student, ensuring they feel comfortable and supported throughout their learning journey. Students choose me as a tutor because I combine classroom teaching experience, industry exposure, and a genuinely supportive approach. I help learners build strong technical foundations, improve their academic performance, complete projects confidently, and develop skills required for engineering roles.
Asha Somashekharayya graduated from VTU University


Engineering tutor specialities
Research paper
Review sessions
Exam prep
Technical presentation
Real world application
Student types for engineering class
Engineering class snapshot
My tutoring methodology is built on a strong foundation of problem-based learning, design thinking, and simulation-driven techniques that help students develop deep conceptual understanding and analytical skills in Electrical Engineering. I integrate a mix of modern digital tools—including online platforms, interactive simulations, and virtual labs—to create engaging, hands-on, and personalized learning experiences for every student. With a well-structured and carefully tailored curriculum, I have successfully guided more than 200 students across various learning levels, from complete beginners to advanced learners. My key strength lies in simplifying complex engineering topics, encouraging active participation, and linking every concept to real-world industry applications. This approach not only builds confidence but also ensures that students gain the practical understanding needed to excel in Electrical Engineering.

Engineering concepts taught by Asha Somashekharayya
The session covered solving electrical engineering problems, specifically circuits with switches and RLC series circuits. The student practiced applying KVL, Laplace transforms, and quadratic equation solutions to find transient current and analyze damping conditions. The student was encouraged to remember key equations and understand initial conditions for problem-solving.
KVL Application to RC Circuits
Laplace Transforms in Circuit Analysis
Initial Conditions in Circuit Analysis
Transient Response of RLC Circuits
RLC Series Circuit Analysis
Non-Homogeneous Differential Equations in Circuit Analysis
The Student and Tutor reviewed transient analysis of DC circuits, focusing on series RL and RC circuits. The Student practiced solving problems involving finding voltage and current in RC circuits with step changes, and was assigned similar problems for further practice. The next session will cover RLC circuits.
Steady State Analysis in RL Circuits
Transient Response of RL Circuits
Series RC Circuit Analysis
RC Circuit Voltage Response
Time Constant (τ) in RC Circuits
Homogeneous vs. Non-Homogeneous Equations
The Student and Tutor discussed RL circuits, focusing on differential equations, homogeneous vs. non-homogeneous equations, and transient and steady-state responses. The student practiced applying KVL to derive circuit equations and solving problems to find current values at specific time intervals. The student was assigned practice problems for the next session.
KVL Application to RL Circuits
Homogeneous vs. Non-Homogeneous Differential Equations
Transient and Steady-State Response
Time Constant (τ) in RL Circuits
Solving for Current in a Series RL Circuit
Voltage Drops in RL Circuits
The Student and Tutor reviewed Thevenin's theorem and equivalent resistance, followed by an introduction to transient analysis covering steady-state vs. transient states, natural and forced responses, and initial conditions for resistors, inductors, and capacitors. The student will practice problems on these concepts, and the tutor will provide additional problems and solutions in upcoming sessions. The next sessions will cover RL, RC, and RLC circuits.
Thévenin's Theorem
Star-Delta Transformation
Steady State Definition
Transient State Definition
Transient Time
Initial Conditions (t=0⁻
t=0
t=0⁺)
The session covered the Superposition Theorem and Maximum Power Transfer Theorem in circuit analysis. The Student practiced applying the Superposition Theorem to circuits with multiple sources, and started a problem related to the Maximum Power Transfer Theorem. The Tutor will send practice problems on Norton's, Thevenin's, and Superposition theorems, and the next session will cover RC circuits.
Superposition Theorem
Internal Resistance of Sources
Current Divider Rule
Maximum Power Transfer Theorem
The Tutor and Student reviewed Thevenin's and Norton's theorems, including example problems for each. The Student practiced converting between current and voltage sources and applying the theorems to solve for current and voltage in circuits. The next session will cover the superposition theorem and transient solutions in RC and RL circuits.
Thévenin's Theorem
Norton's Theorem
Source Transformations: Current to Voltage
Ideal Constant Voltage Source
Ideal Constant Current Source
Learning tools used by engineering tutor
Presentations
Digital whiteboard
Practice worksheets
Assessments
Simulation & Modeling Tools
Hands-on engineering classes
Note taking
Open Q&A
Chat for quick help
Record lessons
Mobile joining

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