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:رادصلإا خيرات 24

ناريزح 2015

رادصلإا 01 ZU/QP10F004

Zarqa University Instructor: Dr. Ahmad Abu Obaid

Faculty: Science Lecture’s time: 9-10

Department: physics Semester: 2nd semester 2018/2019

Course title: solid state physics 1 (0302465)

Office Hours: TD

Course description:

This course is intended to provide an introduction to the physics of solids. This course covers the following topics: crystal structure, the crystal binding, lattice vibrations (phonons), thermal properties of solids, free electron Fermi gas.

Aims of the course:

provide the student with a clear and logical presentation of the basic concepts and Principles of solid state physics.

Strengthen an understanding of the concepts and principles through a broad range of the interesting real world applications.

Demonstrate and apply knowledge of the crystalline lattice.

Solve problems concerning the definition of the Bravais lattice.

Understand and apply the definition of the reciprocal lattice.

Intended Learning Outcomes: (ILOs) Acknowledge and Understanding

A1.ConceptsandTheories: Use the principles of solid state physics.

A2.Contemporary Trends, Problems and Research: Comprehend the meaning of crystal

structure and dynamic (lattice vibrations) arrangements of atoms. Highlighting the concepts of relationships between structure and physical (optical, electrical and magnetic) , thermal, and mechanical properties of

inorganic materials.

A3.Professional Responsibility: Use computer, graphical and algebraic tools to analyze crystal structure.

B. Subject-specific skills

B1. Problem solving skills: Apply some theories and mathematical tools to solve problems in solid state physic. These problems can be given as assignments, short exams and group projects. Student can gain valuable skills such as mathematical and software programs (Excel and Mathematica online program).

B2.ModelingandDesign: Design models of multiple crystals .

B3.Applicationof Method sand Tools: Use the special mathematical techniques such as (Fourier series).

C. Critical-Thinking Skills

C1. Analytic skills: Concepts of relationships between structure and thermal, optical, magnetic, electrical, and mechanical properties of inorganic materials.

C2.Strategic Thinking: Formulate plans designed to achieve maximum useful of the special techniques that the student uses to solve the solid state problems.

C3.Creative thinking and innovation: Strengthen an understanding of the concepts and principles through a broad range of the interesting applications to the real world.

D. General and Transferable Skills (other skills relevant to employability and personal development)

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:رادصلإا خيرات 24

ناريزح 2015

رادصلإا 01 ZU/QP10F004

D1. Communication:

Students will be able to communicate with teacher, ask questions, solve problems, and use computers.

Students ask questions during the lecture, work in groups, and communicate with each other and with me electronically, and periodically visit the sites I recommended.

D2. Teamwork and Leadership:

I encourage the student to attend lectures regularly by giving bonus marks for attendance, give students tasks, and ask questions about previous lectures.

Mutual respect is between the lecturer and students and among students themselves. I deal with them as young mature people, responsible for their actions and schedules.

I apply educational standards and behavioral control when they work in groups, I can assess the response of students as a whole and the team spirit and good character.

I enable students to communicate with me discuss any needs they have related to the course, and I welcome students' comments when they face challenging problems.

Course structures:

Week Credit

Hours ILOs Topics Teaching

Procedure

Assessment methods

1,2,3 3 A1,B1,C3 Crystal structure Lecture discussion

Oral inquiry

Class participation Homework: Text exercises (1.1,1.2,1.3) page 25 quizzes

4,5 3 A2,B2 Wave diffraction and

reciprocal lattice

lecture Class participation Homework: Text exercises

(2.1, 2.4, 2.5 , 2.7) page 49 & 50 quizzes 6,7 3 A1.B1,C3 Crystal binding Lecturing

discussion

Class participation Homework: Text exercises

(3.1, 3.2, 3.3 , 3.5 , 3.7) page 78&79

quizzes

8,9 3 A1.A2.B2 Phonon1: crystal

vibration

Lecturing Discussion, Oral inquiry

Class participation Homework: Text exercises

(4.1, 4.2, 4.4 , 3.6 ) page

96&97&98 quizzes

10,11 3 A1.B2.C1 Phonon2: thermal

properties

Lecturing Discussion, Oral inquiry

Class participation Homework: Text exercises (5.1) page 123 quizzes

12,13 3 A1,B3 Free electron

Fermi gas

Lecturing Discussion, Oral inquiry

Class participation Homework: Text exercises

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:رادصلإا خيرات 24

ناريزح 2015

رادصلإا 01 ZU/QP10F004

(6.1, 6.2, 6.3 , 6.5 , 6.6) page

153&155 quizzes

References:

A. Main Textbook:

Introduction to Solid State Physics,C. Kittel, 8th edition (Wiley)

B. Supplementary Textbook(s):

Solid State Physics,J.R. Hook and H.E. Hall, (Wiley)

Assessment Methods:

Methods Grade Date

Fist Exam 20% TD

Second Exam 20% TD

Activities 10% TD

Final Exam 50% TD

Referensi

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Contact hours for lecture is 40 hours, assignments is 48 hours Workload For this course, students are required to meet a minimum of 136 hours in one semester, which consist of: - 40

Workload For this course, students required to meet a minimum of 154.67 hours in one semester, which consist of: 26.67 hours for lecture, 64 hours for structured assignments, 64

Actual Learning Hours based on academic semester No Activity Learning Hours Contact Hours 1 Lecture 2 Laboratory/Studio 3 Seminars 4 Others specify Total Other Learning Hours* 1

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Course structures: Wee k Credi t Hours ILOs Topics Teaching Procedure Assessment methods 1 3 A1 Introduction to PDEs, Classification of PDEs Lecture,oral Inquiry,discussion

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