Science Guru | Tutorial for electrical/electric engineers or students

Electrical (EE)
Basic Electrical and Electronics Engineering
◉ Basic Electrical
◉ Basic Terminologies
◉ Basic Laws
◉ Kirchhoff’s laws
◉ Node Voltage Method
◉ Mesh Current Method & Superposition
◉ Thevenin’s Theorem
◉ Norton’s Theorem
◉ Maximum Power Transfer Theorem
◉ Alternating Quantities
◉ Introduction DC & AC
◉ Generation of Alternating Quantities
◉ Phasor Representation
◉ RMS Values
◉ Pure R, L & C Circuits
◉ Series RC, RL & RLC Circuits
◉ Power & Power Factor
◉ Rotating Electrical Machines
◉ DC Machine
◉ Induction Motor
◉ Synchronous Machine
◉ Basic Electronics
◉ Basic Electronics
◉ BJT
◉ FET
◉ Logic Gates & Binary Algebra
◉ Number Systems & Binary Arithmetic
◉ Communication Systems
◉ Communication Systems
◉ Transducer
◉ Integrated Circuits
Power System Engineering
◉ Economic Operation of Power Systems
◉ Introduction to EOPS
◉ System constraints
◉ Input output, heat rate and incremental rate curves
◉ Economic distribution of load between generating units within a plant
◉ Economic distribution of load between power stations
◉ Transmission loss equation
◉ Unit Commitment
◉ Dynamic programming
◉ Power System Stability-I
◉ Power System Stabilities
◉ Power Angle Curve
◉ Rotor dynamics
◉ Swing equation
◉ M & H constants
◉ Equivalent system
◉ Synchronizing power coefficient
◉ Power System Stability-II
◉ Transient stability & its limits
◉ Equal area criterion
◉ EAC Application - 1
◉ EAC Application - 2
◉ EAC Application - 3
◉ EAC Application - 4
◉ EAC Application - 5
◉ Factors affecting stability
◉ Methods to improve stability
◉ Assumptions Made During Transient Stability Studies
◉ Excitation Systems & Interconnected Power Systems
◉ Introduction to excitation system
◉ Elements of excitation system
◉ DC excitation systems
◉ AC excitation systems
◉ Static Excitation System
◉ Isolated and interconnected power system
◉ Reserve capacity
◉ Power systems interconnection in India
◉ Voltage Control, stability & Power system security
◉ Introduction to Voltage Control
◉ Tap Changing Transformer
◉ Booster Transformer
◉ Induction Regulator
◉ Phase Shifting Transformer
◉ Series Compensation of Transmission Line
◉ Location and Protection of Series Capacitor
◉ Voltage Stability
Smart Grid
◉ Introduction to Smart Grid
◉ Evolution of Electric Grid
◉ Concept & Definitions
◉ Need for Smart Grid
◉ Smart grid drivers
◉ Functions
◉ Opportunities
◉ Challenges
◉ Benefits
◉ Difference between conventional & Smart Grid
◉ Concept of Resilient & Self-Healing Grid
◉ Present development & International policies in Smart Grid
◉ Diverse perspectives from experts and global Smart Grid initiatives
◉ Acronyms
◉ References
◉ Smart Grid Technologies
◉ Technology Drivers
◉ Smart Energy Resources
◉ Smart substations
◉ Substation Automation
◉ Feeder Automation
◉ Transmission systems: EMS, FACTS and HVDC
◉ Wide Area Monitoring
◉ Protection and Control
◉ Distribution Systems: DMS, Volt/VAr control
◉ Fault Detection
◉ Isolation and service restoration
◉ Outage management
◉ High-Efficiency Distribution Transformers
◉ Phase Shifting Transformers
◉ Plug in Hybrid Electric Vehicles (PHEV)
◉ Acronyms
◉ References
◉ Smart Meters and AMI
◉ Power Quality Management
◉ High Performance Computing for Smart Grid Applications
Generation of Electric Power
◉ Conventional Energy Generation Methods
◉ 1.01: Thermal Power plants
◉ 1.02: Gas Power Plants
◉ 1.03: Hydro Power Plants
◉ 1.04: Nuclear Power Plants
◉ New Energy Sources
◉ 2.01: Environmental Impact of Power Plants
◉ 2.02: Greenhouse gases
◉ 2.03: Non-Renewable Energy Resources
◉ 2.04: Renewable Energy Resources
◉ 2.05: Conservation of Natural Resources
◉ 2.06: Sustainable energy System
◉ 2.07: Indian energy scene
◉ 2.08: Solar Power Generation
◉ 2.09: Wind Power Generation
◉ 2.10: Tidal Power Generation
◉ Loads, Load Curves and Power Factor Improvement
◉ 3.01: Load Curve & Load Duration Curve
◉ 3.02: Some Important Terms & Factors
◉ 3.03: Types of Loads
◉ 3.04: Energy Load Curve & Mass Curve
◉ 3.05: Power Factor Improvment
◉ 3.06: Why should we improve power factor ?
◉ 3.07: Methods for Power Factor Improvement : Static Capacitor
◉ 3.08: Synchronous Condenser
◉ 3.09: Phase Advancer
◉ 3.10: Examples
◉ Power Plant Economics
◉ 4.01: Introduction
◉ 4.02: Cost of electric generation
◉ 4.03: Methods to Calculate Annual Depreciation Cost of a Power Plant
◉ 4.04: Significance of Load Factor and Diversity Factor
◉ 4.05: Most Economical Power Factor when kW demand is constant
◉ 4.06: Most Economical Power Factor when kVA demand is constant
◉ 4.07: Annual Fixed cost, Operating Cost & Generating Cost of plants
◉ 4.08: Energy cost reduction: Off peak energy utilization & Energy Conservation
◉ 4.09: Energy cost reduction: Cogeneration
◉ Tariffs & Selection of Power Plants
◉ 5.01: Tariff
◉ 5.02: Spot (time differentiated) pricing
◉ 5.03: Selection of Size and Number of Generating Units
◉ 5.04: Comparison of Thermal, Hydro, Gas & Nuclear Power Plant
◉ 5.05: Base Load and Peak Load
◉ 5.06: Operating Reserves
◉ 5.07: Power Plant Site Selection Criteria
◉ 5.08: Size of plant

Electrical engineering is a field of engineering that generally deals with the study and application of electricity, electronics, and electromagnetism.