Ders Planı

Lesson Information

Course Credit	3.0
Course ECTS Credit	6.0
Teaching Language of Instruction	Türkçe
Level of Course	Bachelor's Degree, TYYÇ: Level 6, EQF-LLL: Level 6, QF-EHEA: First Cycle
Type of Course	Compulsory
Mode of Delivery	Face-to-face
Does the course require compulsory or optional work experience?	Z
Course Coordinator
Instructor (s)
Course Assistant

Purpose and Content

The aim of the course	The purpose of lecture is to provide a calculus-based physics instruction to help students pursue advanced studies in engineering; develop critical thinking, conceptual and quantitative understanding of physical principles and gain skills for problem solving. The basic method of study will be to define the concepts, discuss and demonstrate the principles and laws, and to test and refine understanding by problem solving.
Course Content	Topics in Electricity and Magnetism: Electric charges and matter, Coulomb's law, electric fields, electric field calculations, motion of a charged particle in electric field. Gauss's law, electric flux and Gauss's law, applications of Gauss's law. Electric potential and electric potential difference, electric potential energy, electric potential due to point charges and charge distributions. Capacitance and dielectrics, definition and calculations of capacitances, energy stored in capacitors, capacitors with dielectrics. Current and resistance, electric current, resistance, electrical conduction. Direct-current circuits, electromotive force, Kirchhoff's rules, applications. Magnetic fields, definition and properties of Magnetic fields. Magnetic forces on charges and currents, applications of magnetic fields. Sources of magnetic fields, the Biot-Sawart Law, Ampere's law. Faraday's law, Lenz's law, induced electric fields, generators and motors. Inductance, mutual and self inductance, RL circuits, energy in magnetic fields.

The aim of the course

The purpose of lecture is to provide a calculus-based physics instruction to help students pursue advanced studies in engineering; develop critical thinking, conceptual and quantitative understanding of physical principles and gain skills for problem solving. The basic method of study will be to define the concepts, discuss and demonstrate the principles and laws, and to test and refine understanding by problem solving.

Course Content

Topics in Electricity and Magnetism: Electric charges and matter, Coulomb's law, electric fields, electric field calculations, motion of a charged particle in electric field. Gauss's law, electric flux and Gauss's law, applications of Gauss's law. Electric potential and electric potential difference, electric potential energy, electric potential due to point charges and charge distributions. Capacitance and dielectrics, definition and calculations of capacitances, energy stored in capacitors, capacitors with dielectrics. Current and resistance, electric current, resistance, electrical conduction. Direct-current circuits, electromotive force, Kirchhoff's rules, applications. Magnetic fields, definition and properties of Magnetic fields. Magnetic forces on charges and currents, applications of magnetic fields. Sources of magnetic fields, the Biot-Sawart Law, Ampere's law. Faraday's law, Lenz's law, induced electric fields, generators and motors. Inductance, mutual and self inductance, RL circuits, energy in magnetic fields.

Learning Outcomes

Have advanced theoretical and practical knowledge in mathematics and computer science.
Gain an in-depth knowledge on Computer Science including computer programming, word processing, database functions, accessing the internet and softwares.
Possess the knowledge of advanced research methods in mathematics-computer field.
Possess theoretical and practical knowledge in mathematics, computation and computer science.
Define computer programming, word processing, data functions, internete access and software programs.
Describe advanced research methods in the field of Mathematics-Computer Science.
Evaluate and interpret data using the knowledge and skills gained in the fields of mathematics and computer science.
Identify, define and analyze problems in the fields of mathematics and computer science; develop solutions based on research and evidence.
Identify, define and model mathematics, computation and computer science problems; select and apply appropriate analysis and modeling methods for this purpose.
Design and apply interactive experimental environments to get the definitions and first solutions of the problems of computer science and computer science and evaluate these environments.
Having the discipline of mathematics, understand the operating logic of the computer and gain the ability to think based on account.
Perform all phases of life cycle in computer based systems.
Work effectively as an individual and as a team member to solve problems in the areas of mathematics and computer science.
Have the ability to act independently, use initiative and creativity.
Work effectively either individually or in multidisciplinary teams.
Evaluate advanced knowledge and skills in the field with a critical approach.
Follow current developments about the awareness of the necessity of continuous professional development and information and communication technologies.
Have the consciousness of the necessity of lifelong learning and continuously develop professional knowledge and skills.
Use the time effectively in the process of getting the conclusion with analytical thinking ability.
Have at least one foreign language knowledge and the ability to communicate effectively in Turkish, verbally and in writing.
Be aware of the effects of information applications on individual, institutional, social and universal dimensions and have the awareness about entrepreneurship, innovation.
Have the awareness of professional and ethical responsibility and legal consequences of information applications
Use the knowledge about the field for the benefit to society.

Weekly Course Subjects

1	Mathematical Application of electric charges and matter, Coulomb's law, electric fields, motions of charged particles in electric fields.
2	Mathematical Application of Gauss's law and various applications of Gauss's law.
3	Mathematical Application of electric potential, electric potential energy, relations between electric potential and electric field.
4	Mathematical Application of electric fields and electric potentials of point charges and continuous charge distributions.
5	Mathematical Application of capacitors and dielectrics, capacitances of various capacitors, energy stored in capacitors, microscopic description of dielectrics.
6	Mathematical Application of current and resistance and electromotive force. Electric power.
7	Mathematical Application of direct current circuits, Krichhoff's rules, RC circuits.
8	Mathematical Application of magnetic field, magnetic forces on moving charges and electric currents.
9	Mathematical Application of various applications of magnetic fields.
10	Mathematical Application of sources of magnetic field, Biot-Sawart law, Ampere's law.
11	Mathematical Application of various applications of the Biot-Sawart law, Ampere's law.
12	Mathematical Application of Faraday's law yasası, Lenz's law, induced electric fields, generators and motors.
13	Mathematical Application of inductance, mutual and self inductance, RL circuits, energy stored in magnetic fields.
14	Review of the topics.

Resources

1-Fen Bilimleri ve Mühendisler İçin Fizik 2 , Raymond A. Serway, Çeviri Editörü, Kemal Çolakoğlu, Palme Yayıncılık 5. Baskı

CLASS 1

CLASS 2

CLASS 3

CLASS 4

Lesson Information

Purpose and Content

Learning Outcomes

Weekly Course Subjects

Resources

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