Information Package / Course Catalogue
Modern Physics
Course Code: EE488
Course Type: Area Elective
Couse Group: First Cycle (Bachelor's Degree)
Education Language: English
Work Placement: N/A
Theory: 3
Prt.: 0
Credit: 3
Lab: 0
ECTS: 5
Objectives of the Course

New concepts of space and time leading to a complete revision of contemporary understanding of the universe will be studied. Student will explore the fascinating world of Modern Physics which contains many surprising results contrary to intuition. A basis to understand the physical nature of the materials involved in Electrical and Electronics Engineering and modern physics laws behind the modern engineering applications in our century will be established.

Course Content

Special relativity, black body radiation, photoelectric effect, Compton scattering, Atomic models, Bohr quantization, De Broglie hypothesis, Heisenberg uncertainty principle, Concept and interpretation of the wave function, Schrödinger’s equation: solutions of potential wells and tunneling through potential barriers, probability waves, new physics laws and quantum physics, quantization concept, wave mechanics, hydrogen atom and today’s modern engineering applications of modern physics laws.

Name of Lecturer(s)
Learning Outcomes
1.To understand Einstein’s Theory of Special Relativity
2.To understand wave and particle duality of matter
3.To understand atom models and nature of atomic radiations
4.To establish the foundations of quantum physics governing the microworlds
5.To understand today’s modern engineering designs involving modern physics laws
Recommended or Required Reading
1.Serway and Jewett, Physics for scientists and engineers, 9th ed., ISBN-13: 978-1133947271, Brooks Cole (2013
2.A. Beiser, Concepts of modern physics, 6th ed., McGraw-Hill (2003)
3.K. S. Krane, Modern Physics, 3rd ed., Wiley (2012)
4.J. Bernstein, P. M. Fishbane and S. Gazirowicz, Modern Physics, Prentice Hall (2000).
Weekly Detailed Course Contents
Week 1 - Theoretical
Einstein’s special theory of relativity and Relative Mechanics
Week 1 - Preparation Work
Beiser, Ch.: 1; Serway, Ch. 39
Week 2 - Theoretical
Einstein’s special theory of relativity and Relative Mechanics
Week 2 - Preparation Work
Beiser, Ch.: 1; Serway, Ch. 39
Week 3 - Theoretical
Einstein’s special theory of relativity and Relative Mechanics, Engineering applications
Week 3 - Preparation Work
Beiser, Ch.: 1; Serway, Ch. 39
Week 4 - Theoretical
Particle properties of waves: what is light?, X-rays, photoelectric effect, Compton effect, pair production, photons and gravity
Week 4 - Preparation Work
Beiser, Ch.: 2; Serway, Ch. 40
Week 5 - Theoretical
Particle properties of waves-continuing
Week 5 - Preparation Work
Beiser, Ch.: 2; Serway, Ch. 40
Week 6 - Theoretical
Wave properties of particles: De Broglie waves, properties of matter waves, particle diffraction and quantum double slit experiment, particle in a box, Heisenberg’s uncertainty principle and its applications
Week 6 - Preparation Work
Beiser, Ch.: 3; Serway, Ch. 40
Week 7 - Theoretical
Wave properties of particles-continuing
Week 7 - Preparation Work
Beiser, Ch.: 3; Serway, Ch. 40
Week 8 - Theoretical
Wave properties of particles-continuing
Week 8 - Preparation Work
Beiser, Ch.: 3; Serway, Ch. 40
Week 9 - Theoretical
Atomic structure: general structure of atom, electron orbits, Bohr atom, energy levels and spectra, correspondence principle, atomic excitations
Week 9 - Preparation Work
Beiser, Ch.: 4; Serway, Ch. 41
Week 10 - Theoretical
Introduction to Quantum Mechanics: necessity of quantum physics and its relation with classical physics, wavefunction concept, Schrödinger’s equation, linearity and superposition, fundemantal operators in quantum mechanics
Week 10 - Preparation Work
Beiser, Ch.: 5; Serway, Ch. 41
Week 11 - Theoretical
Introduction to Quantum Mechanics-continuing: particle in a box and probability density, finite and infinite potential wells, square potential wells and tunneling problems, quantum harmonic oscillator
Week 11 - Preparation Work
Beiser, Ch.: 5; Serway, Ch. 41
Week 12 - Theoretical
Quantum theory of Hydrogen atom: Schrödinger’s equation in spherical coordinates, separation of variables, quantum numbers
Week 12 - Preparation Work
Beiser, Chapter: 6; Serway, Chapter: 42
Week 13 - Theoretical
Quantum theory of Hydrogen atom-continuing: electron probability density, radiative transitions, selection rules, Zeeman effect
Week 13 - Preparation Work
Beiser, Chapter: 6; Serway, Chapter: 42
Week 14 - Theoretical
Engineering applications (GPS and satellite communications, relativistic conversion factor, relativistic doppler effect and spaceship communications, SEM, AFM, sensor and semiconductor technologies and quantum interference devices, etc.)
Week 14 - Preparation Work
Beiser, Chapter: 1-6; Serway, Chapter: 39-42
Assessment Methods and Criteria
Type of AssessmentCountPercent
Assignment2%10
Term Assignment1%5
Project1%60
Midterm Examination1%25
Workload Calculation
ActivitiesCountPreparationTimeTotal Work Load (hours)
Lecture - Theory141356
Assignment25010
Term Project110313
Project110212
Individual Work72228
Midterm Examination1516
TOTAL WORKLOAD (hours)125
Contribution of Learning Outcomes to Programme Outcomes
PÇ-1
PÇ-2
PÇ-3
PÇ-4
PÇ-5
PÇ-6
PÇ-7
PÇ-8
PÇ-9
PÇ-10
PÇ-11
OÇ-1
5
5
5
5
5
5
3
3
3
5
5
OÇ-2
5
5
5
5
5
5
3
3
3
4
5
OÇ-3
5
5
5
5
5
5
3
3
3
4
5
OÇ-4
5
5
5
5
5
5
3
3
3
4
5
OÇ-5
5
5
5
5
5
5
3
3
3
3
5
Adnan Menderes University - Information Package / Course Catalogue
2026