FE-Logo
  • Home
  • Study Material
  • Modelling Power System Components,Transmission Line Models,Network Admittance and Impedance Matrices
    • Introduction to development of Modern power system
    • Introduction to Modern power system
    • Basic Structure of a Power System
    • Series Parameters of Transmission Lines
    • Line Resistance
    • Inductance of a Straight Conductor
    • Internal Inductance
    • External Inductance
    • Inductance of a Single-phase Line
    • Inductance of Three-Phase Lines with Symmetrical Spacing
    • Inductance of Three-Phase Lines with Asymmetrical Spacing
    • Transposed Line
    • Composite Conductors
    • Inductance of Conductor
    • Bundled Conductor
    • Shunt parameters of Transmission Lines
    • Capacitance of a Straight Conductor
    • Capacitance of a 1- Φ transmission line
    • Capacitance of a Three Phase line with equilateral spacing
    • Capacitance of three phase unsymmetrical space transmission line
    • Capacitance of a double circuit line
    • Effect of Earth on Capacitance of Transmission Line
    • Synchronous Machine Model
    • Transformer Model
    • Balanced Operation of a Three Phase Circuit
    • Per Unit Representation
    • Network Admittance and impedance matrices
    • Formation of Bus Admittance Matrix
    • Node Elimination by matrix partitioning
    • Node Elimination by Kron Reduction
    • Inclusion of line charging capacitor
    • Elements of the bus impedance and admittance matrices
    • Modification of Bus Impedance Matrix
    • Adding a new bus to the reference bus
    • Adding a new bus to an existing bus through an impedance
    • Adding an Impedance between two Existing Buses.
    • Direct Determination of Zbus Matrix
    • Thevenin Impedance and Zbus Matrix
    • Transmission Line Models
    • ABCD Parameters
    • Short Transmission Line
    • Medium transmission Line
    • Equivalent π Representation of a long line
    • Nominal T Representation
    • Characterization of a long lossless line
    • Voltage and Current Characteristics of an SMIB System
    • Mid Point Voltage and Current of Loaded Lines
    • Power in lossless line

  • Economic Operation Of Power System,Load Flow Studies
    • Economic Operation Of Power System
    • Economic Distribution of Loads between the Units of a Plant
    • Generating limit
    • Economic sharing of loads between different plants
    • Automatic Generation Control
    • Load Frequency Control
    • Coordination between LFC And Economic Dispatch
    • Load Flow Studies
    • Real and reactive power injected in a bus
    • Classification of Buses
    • Preparation of data for load flow
    • Load Flow by Gauss-Seidel Method
    • Updating load bus voltage
    • Updating P-V Bus voltage
    • convergence of the algorithm
    • Solution of a Set of Nonlinear Equations by Newton-Raphson Method
    • Load Flow By Newton-Raphson Method
    • Load flow Algorithm
    • Formation of Jacobian Matrix
    • Load Flow Results
    • Load flow program in MATLAB
    • Forming Ybus Matrix
    • Gauss Seidel Load Flow
    • Solving Nonlinear Equations using Newton-Raphson
    • Newton-Raphson Load Flow

  • Short Circuit Studies - Symmetrical Faults,Symmetrical Components and Representation of Faulted Networks,Unsymmetrical Faults
    • Short Circuit Studies - Symmetrical Faults
    • Transients in R-L Circuits
    • DC Source
    • AC Source
    • Fault in an AC Circuit
    • Short Circuit in an Unloaded Synchronous Generator
    • Calculation of Fault Current Using Zbus Matrix
    • Circuit breaker selection
    • Symmetrical Fault in a Power System
    • Symmetrical Components and Representation of Faulted Networks.
    • Symmetrical Component Transformation
    • Real and Reactive power
    • Orthogonal Transformation
    • Sequence circuits for loads
    • Sequence Circuit for a Y-Connected Load
    • Sequence Circuit for a Δ -Connected Load
    • Sequence Circuits for Synchronous Generator
    • Sequence Circuits for Symmetrical Transmission Line
    • Sequence Circuits for Transformers
    • Y-Y connected transformer
    • Δ - Δ Connected Transformer
    • Y- Δ Connected Transformer
    • Sequence Networks
    • Unsymmetrical faults
    • Single-Line-to-Ground Fault
    • Line-to-Line Fault
    • Double- Line -to Ground Fault
    • Fault current computation using sequence network

  • Compensation of Power Transmission Systems,Transient Stability
    • Compensation of Power Transmission Systems
    • Ideal shunt compensator
    • Improving Voltage Profile
    • Improving Power-Angle Characteristics
    • Improving Stability Margin
    • Improving Damping to Power Oscillations
    • Ideal Series Compensator
    • Impact of Series Compensator on Voltage Profile
    • Improving Power-Angle Characteristics
    • Comparisons of the Two Modes of Operation
    • An Alternate Method of Voltage Injection
    • Power Flow Control and Power Swing Damping
    • Transient Stability
    • Power-angle relationship
    • Swing Equation
    • Equal Area Criterion
    • Multimachine Stability
    • Oscillations in a Two Area System

  • Synchronous machine,transformer
    • Introduction of Synchronous machines
    • Synchronous Machine Structures
    • Angle in Electrical and Mechanical Units in synchronous machine
    • Distributed three phase winding of synchronous machine
    • Rotating magnetic field of a Distributed three phase winding of synchronous machine
    • Rotating magnetic field of a Distributed three phase winding of synchronous machine
    • Magnetic Field of Three Phase Windings
    • An equivalent circuit model for the synchronous machine
    • Synchronizing to an infinite bus
    • Rotor and Stator Winding
    • Basic operation of the synchronous machine
    • No-Load Operation of synchronous machine
    • Generator Load Characteristics
    • Generator Voltage-Regulation
    • Generator excitation for constant voltage
    • Generator input and output
    • Power Developed in Salient-Pole Synchronous Generator
    • Synchronous machine
    • Introduction of transformer
    • Working Principle of transformer
    • Ideal Transformer
    • Analysis of ideal transformer
    • Theory of transformer on no-load, and having no winding resistance and no leakage reactance of transformer
    • Theory of transformer on load but having no winding resistance and leakage reactance
    • Theory of transformer on load, with resistive winding, but no leakage reactance.
    • Theory of transformer on load, with resistance as well as leakage reactance in transformer windings
    • EMF Equation of transformer
    • Resistance and Leakage Reactance of Transformer or Impedance of Transformer
    • Equivalent Circuit of Transformer
    • Voltage Regulation of Transformer
    • Losses in Transformer
    • Mathematical explanation of Hysteresis loss in transformer
    • Open Circuit Test on Transformer
    • Short Circuit Test on Transformer
    • Auto Transformer
    • Copper savings in Auto Transformer
    • Tertiary Winding of Transformer
    • Parallel operation of Transformers
    • Transformer Cooling System
    • Core of Transformer
    • Optimum Design of Cross – Section of Transformer Core
    • Insulating Transformer Oil
    • Transformer Accessories
    • Over Fluxing in Transformer
    • Three Phase Transformer
    • Current Transformer
    • Voltage Transformer or Potential Transformer
    • Earthing Transformer or Grounding Transformer
    • External Faults in Power Transformer
    • Internal Faults in Power Transformer
    • Backup Protection of Transformer
    • Differential Protection of Transformer
    • Restricted Earth Fault Protection of Transformer
    • Buchholz Relay in transformer
    • Transformer Testing
    • Current Voltage Method of measurement of winding resistance
    • Dielectric Test of Transformer
    • Transformer Ratio Test
    • Transformer Winding Resistance Measurement
    • Vector Group Test of Transformer
    • Impulse Test of Transformer
    • Temperature Rise Test of Transformer
    • Winding temperature rise test on transformer
    • Traveling Waves
    • Wave equation for uniform Transmission lines
    • Velocity of Wave Propagation
    • Surge impedance
    • Corona
    • Bewlay’s lattice diagram

Branch : Electrical and Electronics Engineering
Subject : Power system Analysis
Unit : Modelling Power System Components,Transmission Line Models,Network Admittance and Impedance Matrices

Introduction to Modern power system


  • It is estimated that by 2050, the world’s electrical energy needs will be somewhere between 30 and 60 Terra Watts (TW) of electric power from the current 12TW [12].

 

  • This kind of electric energy will require efficient and secure distributed, storage, transmission modern grid technologies in order to be delivered globally within high quality.

 

  • GC (Grid Computing) technology will be necessary to provide a computational infrastructure.

 

  • Grid computing is a powerful and efficient computational technology which represented as an advanced step for the previous distributing computing

 

  • Grid computing as a new computing generation that uses the resources of many separated computers connected by a Network for solving such massive computation problems by making use of the underutilized resources or grid shared resources.

 

  • Generation, transmission and distribution are three components of modern power system.

 

  • Power generating station generates the electrical power by synchronous alternators through steam or hydro turbine.

 

  • The generating stations are categorized as thermal, hydro, nuclear etc.

 

  • The electric power generated at any such station has to be transmitted over a long distance to load centers that are usually cities or towns. This is called the power transmission.

 

  • Electric power is generated at a frequency of either 50 Hz or 60 Hz

 

  • In India the frequency is 50 Hz, in an inter connected AC power system  the rated generation frequency of all units must be the same

Questions of this topic


  • Give a brief introduction of modern power system?

    Answer this
  • Explain, modern power system?

    Answer this
Ask your question

<
>