Lectures & Notes
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Thermodyanmics I & II
1. First law of Thermodyanmics
2. Closed and Open Systems
3. Second law and Entropy
4. Exergy
5. Power Plant Cycles
6. Refrigeration cycles
7. Air-conditioning Principles
8. Chemical Reactions
Thermodynamics I
Sample
Thermodynamics II
Sample
Applied Thermodynamics
Sample
Heat and Mass Transfer
1. Modes of Heat Transfer
2. Fins (Extended Surfaces)
3. External Flows (Heat by Convection)
4. Internal Flows (laminar and Turbulent)
5. Heat Exchangers (Applied of Heat Transfer)
7. Radiation (Exchange Analysis )
8. Numerical Analysis in Heat transfer Applications
Sample
Computer and Programming
1. Overview of computers and software
2. Flow charts and Algorithms
3. Input and output
4. Forloops and conditional statements
5. Functions and Subroutines
6. Data Structure
7. Data Files input and Output
8. Visualization
9. Plots and User Graphical Interface
Sample
Numerical Methods in Engineering Applications
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Roots of Nonlinear Equations: Iteratively pinpoints where a single function crosses zero .
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Systems of Linear Equations: Solves massive matrix equations modeling interconnected physical components.
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Numerical Calculus: Approximates integrals (areas under curves) and derivatives (rates of change) for complex data sets.
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Differential Equations (ODEs/PDEs): Simulates time-dependent and spatial behaviors of dynamic engineering systems.
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Interpolation & Curve Fitting: Constructs predictive geometric lines or smooth curves through discrete experimental data points
Statics
1. Introduction
2. Static Equlibruim and Newton's Law
3. Forces and Momentum Analysis
4. Free body diagrams of structural elements: truss,beams,frames and shaft
5. Support reactions and loads
6. Frictional Forces between sliding surfcae
7. Work and Energy
Sample
Dynamics
1. Kinematics of a particle
2. Kinetics of a particle : force and accleration
3. Impulse and momentum
4. Plannar kinematics of a rigid body: Force and acceleration
5. Plannar kinematics of a rigid body: Work and Energy
6. Plannar Kinetics of a rigid body: Imuplse and momentum
7. Vibrations
Sample
Fundamentals of Fluid Mecahnics
1. Introduction
2. Shear stress
3. Fluid Measurements
4. Hydro-static Force
5. Conservation of mass and Momentum Equations
6. Navier Stocks Equation
7. Bernoulli Equation and It's applications
Sample
Refrigeration and Air-Conditioning (HVAC)
1. Introduction
2. Types of Refrigerants
3. Refrigeration Cycles
4. Cooling and Heating Loads (Comfortable)
5. Using EES in Refrigeration Cycles
6. Air-Conditioning Connections Systems
Sample
Ordinary Differential Equations
First-Order Equations.
Higher-Order
Linear Equations
Systems of ODEs
Series Solutions
Laplace Transforms
Sample
Mechanics of Materials
Stress (σ or τ): The internal force intensity divided by the area over which it acts (P/A), measured in Pascals (Pa) or psi.
Strain (ε or γ): The measure of geometric deformation or change in shape relative to an original length or angle.
Elasticity and Plasticity: How materials return to their original shape or permanently deform when loaded past their yield point
Sample
Fundamentals of Electrical Circuits
Basic Variables: Voltage drives electrical charge, current measures the flow rate of charge, and power tracks energy transfer.
Ohm's Law relates voltage to current Kirchhoff's Current Law balances junction currents, and Kirchhoff's Voltage Law balances loop voltages.
Network Analysis.
Simplification Theorems: Superposition isolates independent sources, while Thevenin and Norton theorems reduce sprawling networks into a single equivalent source and resistor.
Reactive Elements.
AC Phasors.
Sample
Engineering Economy
Introduction to Engineering Economy
Cost Concepts and Design Economics
Money-Time Relationships and Equivalence
Nominal and Effective Interest Rat
Present Worth Analysis
Annual Worth Analysis
Rate of Return Analysis
Benefit-Cost Ratio Analysis for Public Projects
Depreciation and Corporate Taxation
inflation and Price Changes
Replacement and Retention Decisions
: Selection from Alternatives Under Risk and Uncertainty
Machine Elements Design
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Engineering Materials and Material Properties
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Stress and Deflection Analysis
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Combined Stresses and Theories of Failure
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Design for Fatigue and Fluctuating Stresses
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Shaft Design (Torsion and Bending)
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Couplings, and Sealing Devices
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Sliding and Rolling Contact Bearings
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Spur Gears Design
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Helical, Bevel, and Worm Gears
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Threaded Fasteners and Power Screws
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Welded, Riveted, and Permanent Joints
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Mechanical Springs Design
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Belt and Chain Drives
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Clutches and Brakes
Machine Elements Design I
Sample
Machine Elements Design II
Sample
Engineering Drawing
Engineering drawing basics cover essential principles across seven key chapters, as follow:
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Line conventions to complex orthographic projections, solid geometry.
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3D isometric representation.
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Key areas include creating accurate views, understanding section views, and developing 2D layouts for 3D objects.