Power System Engineering-II syllabus

PCC-351-ELE · Third Year Electrical Engineering, SPPU 2024 pattern. Every unit, the marks scheme, course outcomes and books, copied from the official syllabus PDF.

PCC-351-ELE3 h/week theoryCCE 30 + End-sem 70
05.units
03.credits

Unit-wise syllabus

UNIT I

Power Flow Analysis of long transmission Lines

8 hours

Derived reading outline. Source text split at semicolons, line breaks and sentence boundaries, not an official topic hierarchy.

  • Evaluation of ABCD constants of long transmission lines, Concept of complex power, power flow using generalized constants, Characteristic Impedance and Surge impedance loading, Numerical based on: Calculation of ABCD constants of Long transmission line, Complex power flow calculation at sending end and receiving end.
  • Exemplars/Case Studies
Preserved official unit paragraph

Evaluation of ABCD constants of long transmission lines, Concept of complex power, power flow using generalized constants, Characteristic Impedance and Surge impedance loading, Numerical based on: Calculation of ABCD constants of Long transmission line, Complex power flow calculation at sending end and receiving end. Exemplars/Case Studies

Unit permalink
UNIT II

Per Unit System & Load Flow Analysis

8 hours

Derived reading outline. Source text split at semicolons, line breaks and sentence boundaries, not an official topic hierarchy.

  • A) Per Unit (PU) System: SLD of a typical power system network, Impedance and reactance diagram, per unit quantities, relationships, selection of base, change of base, reduction to common base, advantages and application of per unit system.
  • Numerical based on: Network reduction by using per unit system.
  • B) Load Flow Analysis: Network topology, driving point and transfer admittance, concept of Z-bus and formulation of Y-bus matrix using bus incidence matrix method, Generalized powerflow equations for n bus systems, classification of buses, Newton- Raphson method (polar method) for 3 bus system.
  • Numerical based on: Y Bus Matrix formation Exemplars/Case Studies
Preserved official unit paragraph

A) Per Unit (PU) System: SLD of a typical power system network, Impedance and reactance diagram, per unit quantities, relationships, selection of base, change of base, reduction to common base, advantages and application of per unit system. Numerical based on: Network reduction by using per unit system. B) Load Flow Analysis: Network topology, driving point and transfer admittance, concept of Z-bus and formulation of Y-bus matrix using bus incidence matrix method, Generalized powerflow equations for n bus systems, classification of buses, Newton- Raphson method (polar method) for 3 bus system. Numerical based on: Y Bus Matrix formation Exemplars/Case Studies

Unit permalink
UNIT III

Symmetrical Fault Analysis

7 hours

Derived reading outline. Source text split at semicolons, line breaks and sentence boundaries, not an official topic hierarchy.

  • 3-phase short-circuit analysis of unloaded alternator, sub-transient, transient and steady state current and impedances, Estimation of fault current without pre-fault current for simple power systems, selection of circuitbreakers and current limiting reactors and their location in power system (Descriptive treatment Only) Numerical based on: Symmetrical fault analysis (Fault Current and Short Circuit MVA).
  • Exemplars/Case Studies
Preserved official unit paragraph

3-phase short-circuit analysis of unloaded alternator, sub-transient, transient and steady state current and impedances, Estimation of fault current without pre-fault current for simple power systems, selection of circuitbreakers and current limiting reactors and their location in power system (Descriptive treatment Only) Numerical based on: Symmetrical fault analysis (Fault Current and Short Circuit MVA). Exemplars/Case Studies

Unit permalink
UNIT IV

Un-symmetrical fault Analysis

9 hours

Derived reading outline. Source text split at semicolons, line breaks and sentence boundaries, not an official topic hierarchy.

  • Symmetrical components, sequence components, power in terms of symmetrical components, sequence impedance of transmission line and zero sequence networks of transformer, solution of unbalances by symmetrical components, L-L, L-G, and L-L-G fault analysis of unloaded alternator and simple power systems with and without fault impedance.
  • Numerical based on: Symmetrical components, Fault Current and Short Circuit MVA.
  • Exemplars/Case Studies
Preserved official unit paragraph

Symmetrical components, sequence components, power in terms of symmetrical components, sequence impedance of transmission line and zero sequence networks of transformer, solution of unbalances by symmetrical components, L-L, L-G, and L-L-G fault analysis of unloaded alternator and simple power systems with and without fault impedance. Numerical based on: Symmetrical components, Fault Current and Short Circuit MVA. Exemplars/Case Studies

Unit permalink
UNIT V

Reactive Power Compensation and FACTS Devices

8 hours

Derived reading outline. Source text split at semicolons, line breaks and sentence boundaries, not an official topic hierarchy.

  • Necessity of reactive power compensation, production and absorption of reactive power, Types of compensation – series and shunt.
  • Introduction to FACTS devices, Types of FACTS devices - Series compensation: TCSC, Shunt compensation: STATCOM. circuit diagram, working principle, VI characteristics, applications.
  • Exemplars/Case Studies
Preserved official unit paragraph

Necessity of reactive power compensation, production and absorption of reactive power, Types of compensation – series and shunt. Introduction to FACTS devices, Types of FACTS devices - Series compensation: TCSC, Shunt compensation: STATCOM. circuit diagram, working principle, VI characteristics, applications. Exemplars/Case Studies

Unit permalink

Marks and credits

HeadMarksCredit
CCE (continuous comprehensive evaluation)303
End-semester exam70

Prerequisite: Knowledge of Power generation techniques, two port network and ABCD parameters of short and medium lines, working of Power system components.

Course outcomes

  1. CO1Estimate ABCD constants and power flow in long transmission line.
  2. CO2Determine per unit values and develop Y bus matrix for load flow analysis.
  3. CO3Evaluate fault current and short circuit MVA for Symmetrical fault condition.
  4. CO4Evaluate fault current and short circuit MVA for unsymmetrical fault condition.
  5. CO5Interpret reactive power compensation and classify FACTS devices.

Books

Text books

Reference books

FAQ

How many units are in Power System Engineering-II?

Power System Engineering-II (PCC-351-ELE) has 5 units: Unit I Power Flow Analysis of long transmission Lines (8 h); Unit II Per Unit System & Load Flow Analysis (8 h); Unit III Symmetrical Fault Analysis (7 h); Unit IV Un-symmetrical fault Analysis (9 h); Unit V Reactive Power Compensation and FACTS Devices (8 h).

What is the marks scheme for Power System Engineering-II?

The official Electrical Engineering 2024 pattern syllabus lists continuous comprehensive evaluation (CCE) for 30 marks and the end-semester exam for 70 marks, for 3 credits.

What should I know before Power System Engineering-II?

Prerequisite listed in the syllabus: Knowledge of Power generation techniques, two port network and ABCD parameters of short and medium lines, working of Power system components.

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