Electrical Circuit Analysis I

Mode of Delivery

Face to Face

Prerequisites and Co-Requisites

None

Recommended Optional Programme Components

There is not

Course Contents

Fundamental Concepts. The Structure of matter. Electrical particle, conductor, semiconductor, insulator. The Concept and Forms of DC (Direct Current). The Definitions and concepts of potential, potential difference, current, voltage, resistance, resistivity, conductance, conductivity, capacitor, capacity. Behaviour of circuit components (R,L,C) in DC. Colour codes of resistors. Ohm’s Law. V-I characteristic of resistor. The changing of resistance with temperature. Work, Power, Energy and Efficiency. Joule Law. Calculation of Energy consumption. Electrical work, energy, power and efficiency. Relationship between mechanical and electrical power. Resistance circuits. Series, Parallel and mixed connected resistances. Calculation of Equivalent resistance. Star-Delta and Delta-Star transformations of mixed connected resistances. Calculation of branch current and resistance voltage drop. Kirchhoff`s Laws. Kirchhoff`s Current Law. Kirchhoff`s Voltage Law. Series, Parallel and mixed connected networks. Voltage Divider. Wheatstone Bridge. Sources. Source Conversions. Matrix and Determinant. Matrix Form of Ohm’s Law. Mesh (or Loop) Networks. Loop (or Mesh) Analysis Method. Node Voltage Analysis Method. Thévenin`s Theorem. Norton’s Theorem. Maximum Power Transfer Theorem. The Superposition Theorem. Magnetism. Magnetic Flux. Magnetic Field. Magnetic Induction. Induction Law. Self Induction. Magnetic Circuit. Transients in DC Circuits. Transients of Inductor and Capacitor in DC. The Charge and Discharge of Inductor and Capacitor.

Weekly Schedule

1) Fundamental Concepts. The Structure of matter. Electrical particle, conductor, semiconductor, insulator. The Concept and Forms of DC. The Definitions and concepts of potential, potential difference, current, voltage, resistance, resistivity, conductance, conductivity, capacitor, capacity
2) Ohm’s Law, Joule Law, Work, Power, Energy and Efficiency.
3) Resistance circuits. Series, Parallel and mixed connected resistances. Calculation of Equivalent resistance. Star-Delta and Delta-Star transformations of mixed connected resistances. Calculation of branch current and resistance voltage drop.
4) Kirchhoff`s Laws. Kirchhoff`s Current Law. Kirchhoff`s Voltage Law. The analaysis of series, parallel and mixed connected networks
5) Sources ve source conversions.
6) Matrix and Determinant
7) Loop (or Mesh) Analysis Method
8) Midterm examination/Assessment
9) Node Voltage Analysis Method
10) Thévenin`s Theorem
11) Norton`s Theorem
12) Maximum Power Transfer Theorem
13) The Superposition Theorem
14) The transients of Inductor and Capacitor in DC. The Charge and Discharge of Inductor and Capacitor.
15) Magnetism, Magnetic Flux, Magnetic Field, Magnetic Induction, Induction Law, Self Induction.
16) Final examination

Recommended or Required Reading

Planned Learning Activities and Teaching Methods

1) Lecture
2) Question-Answer
3) Discussion
4) Drill and Practice
5) Simulation
6) Brain Storming
7) Self Study
8) Problem Solving

Assessment Methods and Criteria

Contribution of Semester Studies to Course Grade	50%
Number Percentage Semester Studies Midterm Examination 1 50% Practices 1 50%
Contribution of Final Examination to Course Grade	50%
Total	100%

Language of Instruction

Turkish

Work Placement(s)

Not Required