1	1. INTRODUCTION • Simple Mathematical Model • Principles of Engineering Design • Workable Systems • Optimum Systems • Packages and Modular Programming • Case Studies
2	1. INTRODUCTION • Simple Mathematical Model • Principles of Engineering Design • Workable Systems • Optimum Systems • Packages and Modular Programming • Case Studies
3	1. INTRODUCTION • Simple Mathematical Model • Principles of Engineering Design • Workable Systems • Optimum Systems • Packages and Modular Programming • Case Studies
4	2. REVIEW OF BASIC ENGINEERING FUNDAMENTALS • Fluid Mechanics – Mass Balances • Thermodynamics – Energy Balances • Thermal Systems and Design • Basic Electronics
5	2. REVIEW OF BASIC ENGINEERING FUNDAMENTALS • Fluid Mechanics – Mass Balances • Thermodynamics – Energy Balances • Thermal Systems and Design • Basic Electronics
6	2. REVIEW OF BASIC ENGINEERING FUNDAMENTALS • Fluid Mechanics – Mass Balances • Thermodynamics – Energy Balances • Thermal Systems and Design • Basic Electronics
7	3. MODELLING AND EQUATION FITTING • Matrices and System of Simultaneous Equations • Polynomial Representation • Lagrange Interpolation • Functions of Two Variables • Least Squares Regression – Linear, Polynomial, Non-Linear • Curve Fitting
8	3. MODELLING AND EQUATION FITTING • Matrices and System of Simultaneous Equations • Polynomial Representation • Lagrange Interpolation • Functions of Two Variables • Least Squares Regression – Linear, Polynomial, Non-Linear • Curve Fitting
9	3. MODELLING AND EQUATION FITTING • Matrices and System of Simultaneous Equations • Polynomial Representation • Lagrange Interpolation • Functions of Two Variables • Least Squares Regression – Linear, Polynomial, Non-Linear • Curve Fitting
10	3. MODELLING AND EQUATION FITTING • Matrices and System of Simultaneous Equations • Polynomial Representation • Lagrange Interpolation • Functions of Two Variables • Least Squares Regression – Linear, Polynomial, Non-Linear • Curve Fitting
11	4. SYSTEM SIMULATION • Description, Uses and Classes • Information Flow Diagrams • Successive Substitution, Pitfalls • Taylor Series and Newton/Raphson Technique • Case Studies • Engineering Applications
12	4. SYSTEM SIMULATION • Description, Uses and Classes • Information Flow Diagrams • Successive Substitution, Pitfalls • Taylor Series and Newton/Raphson Technique • Case Studies • Engineering Applications
13	4. SYSTEM SIMULATION • Description, Uses and Classes • Information Flow Diagrams • Successive Substitution, Pitfalls • Taylor Series and Newton/Raphson Technique • Case Studies • Engineering Applications
14	4. SYSTEM SIMULATION • Description, Uses and Classes • Information Flow Diagrams • Successive Substitution, Pitfalls • Taylor Series and Newton/Raphson Technique • Case Studies • Engineering Applications

Textbook:

B.S. Blanchard, W.J. Fabrycky, Systems Engineering and Analysis, 3rd Ed., Prentice Hall, 1998.

References:

Çengel, Y.A., Boles, M.A., Thermodynamics, An Engineering Approach, 4th Ed., McGraw Hill, 2002.
Fox, Mc Donald, Introduction to Fluid Mechanics
Fraser & Milne, Integrated Electrical and Electronic Engineering
Arthur Fraas, Engineering Evaluation of Energy Systems
Hildebrand, Advanced Calculus for Applications
Y. Ercan, Mühendislik Sistemlerinin Modellenmesi
Kreyszig, Advanced Engineering Mathematics