Learn · Simulation of Modern Power Systems
Lecture 8 of 60Week 2
Lecture 8 : Power flow analysis - Newton-Raphson method (polar coordinates) Part-1
Prof. Abheejeet Mohapatra · IIT Kanpur
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- Simulation of Modern Power Systems, IIT Kanpur (at NPTEL)
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All the lectures
- Lecture 1: Introduction - Power Systems
- Lecture 2 : Introduction - Basic circuit analysis
- Lecture 3 : Power Flow Analysis - Basis / Evaluation of bus admittance matrix
- Lecture 4 : power flow analysis - Effect of mutually coupled impedances and transformer taps in bus admittance matrix
- Lecture 5: Power flow analysis - equations, classification of buses Part-01
- Lecture 6 : Power flow analysis - equations, classification of buses Part-02
- Lecture 7 : Power flow analysis - Gauss Seidel method
- Lecture 8 : Power flow analysis - Newton-Raphson method (polar coordinates) Part-1
- Lecture 9 : Power flow analysis - Newton-Raphson method (polar coordinates) Part-2
- Lecture 10 : Power flow analysis - Newton-Raphson method (rectangular coordinates)
- Lecture 11 : Power flow analysis - Participation factored power flow/basic of economic dispatch
- Lecture 12 : Power flow analysis - Fast Decoupled method
- Lecture 13 : Power flow analysis - DC Power flow
- Lecture 14 : Power flow analysis - Backward-forward technique for distribution networks
- Lecture 15 : Contingency Analysis - Basics of power system security and models)
- Lecture 16 : Contingency Analysis - phases of security analysis
- Lecture 17 : Contingency Analysis - basics of state estimation and security constrained optimal power flow Part-01
- Lecture 18 : Contingency Analysis - basics of state estimation and security constrained optimal power flow Part-02
- Lecture 19 : Contingency Analysis - overload and Voltage Security Analysis Part-01
- Lecture 20 : Contingency Analysis - overload and Voltage Security Analysis Part-02
- Lecture 21 : Contingency Analysis - Overload and Voltage Security Analysis Part-03
- Lecture 22 : Transient Rotor Angle Stability-basics and classification of power system stability
- Lecture 23 : Transient Rotor Angle Stability- linkages between rotor angle,voltage and frequency stability problems
- Lecture 24 : Transient Rotor Angle Stability- behavior of synchronous machine during disturbances, short circuit response,time constant, difference fault and stability analysis
- Lecture 25 : Transient Rotor Angle Stability- swing equation
- Lecture 26 : Transient Rotor Angle Stability - Ward reduction
- Lecture 27: Transient Rotor Angle Stability- synchronizing power coefficient equal area criteria for single machine infinite bus system
- Lecture 28: Transient Rotor Angle Stability - basics of numeric integration
- Lecture 29 : Transient Rotor Angle Stability - multi-machine stability
- Lecture 30: Transient Rotor Angle Stability - challenges with RE integration
- Lecture 31: Small Signal Rotor Angle Stability - basic introduction
- Lecture 32 : Small signal Rotor Angle Stability - State Space Analysis/ Eigen Value Analysis Part-01
- Lecture 33 : Small signal Rotor Angle Stability - State Space Analysis/ Eigen Value Analysis Part-02
- Lecture 34 : Small Signal Rotor Angle Stability - Analysis of single machine infinite bus system
- Lecture 35 : Small Signal Rotor Angle Stability - SMIB example,Effect of field circuit dynamics
- Lecture 36 : Small Signal Rotor Angle Stability - Example of field circuit dynamics and effect of excitation system
- Lecture 37 : Small Signal Rotor Angle Stability - Effect of excitation system/ Heffron-Philips model
- Lecture 38 : Small signal Rotor Angle Stability - Power system stabilizer
- Lecture 39 : Small Signal Rotor Angle Stability - Tuning of parameters and associated challenges
- Lecture 40 : Ultra-fast transient analysis- Basic introduction
- Lecture 41: Ultra-fast transient analysis-long line transmission model
- Lecture 42: Ultra-fast transient analysis-traveling wave concept
- Lecture 43: Ultra-fast transient analysis- reflection and refraction coefficients
- Lecture 44: Ultra-fast transient analysis- Bewley-lattice diagrams
- Lecture 45: Ultra-fast transient analysis- equivalent resistive companion model Part-01
- Lecture 46: Ultra-fast transient analysis- equivalent resistive companion model Part-02
- Lecture 47: Ultra-fast transient analysis- numerical methods with examples, application to DC network fault analysis
- Lecture 48: Voltage Stability Analysis- basic introduction, static vs dynamic voltage stability
- Lecture 49: Voltage Stability Analysis- factors affecting voltage stability, effect of load power factor on voltage stability
- Lecture 50: Voltage Stability Analysis- effect of load on voltage stability, reverse action of OLTC on voltage stability
- Lecture 51: Voltage Stability Analysis- singular value decomposition, eigenvalues of jacobian matrix
- Lecture 52 : Voltage Stability Analysis- Continuation power flow Part-01
- Lecture 53: Voltage Stability Analysis- Continuation power flow Part-02
- Lecture 54 : Voltage Stability Analysis- numeric example on CPF and ways to enhance static voltage stability in presence of RESs
- Lecture 55 : AC Fault Analysis-synchronous machine parameter variations
- Lecture 56: AC Fault Analysis- basis of Thevenin's theorem
- Lecture 57: AC Fault Analysis- Balanced Fault Analysis
- Lecture 58 : AC Fault Analysis- Fortescue's theorem and sequence components, networks
- Lecture 59 : AC Fault Analysis- unbalanced fault analysis Part-1
- Lecture 60: AC Fault Analysis- unbalanced fault analysis-Part-2 challenges due to RE integration