‏This course provides students with a general overview of the fundamentals of the Arabic language, focusing on spelling, grammar, and morphology. It aims to equip students with the skills necessary for academic and professional writing, while introducing selected examples of Arabic poetry from the pre-Islamic, Islamic, Umayyad, Abbasid, and modern periods, including free verse poetry.

‏This course aims to develop students’ proficiency in Standard Arabic and equip them with the skills necessary for academic and professional writing. It covers advanced grammar topics, including subject and predicate, object of cause, object with, adverbs, interrogative structures, and demonstrative pronouns. The course also introduces students to Andalusian and modern Arabic poetry, while exploring rhetorical devices such as metaphor, simile, and metonymy.

‏This course provides students with the essential fundamentals of the English language, focusing on developing pronunciation and speaking skills to support academic and professional writing. Topics include demonstrative, quantifying, and interrogative determiners, nouns and their types, pronouns, adjectives and their order, subject-verb agreement, transitive and intransitive verbs, adverbs, prepositions, conjunctions, as well as reading comprehension and writing skills.

Teaching students the scientific research method according to the correct scientific process and rules in order to be able to write scientific reports, researches, and training them on scientific research methods

مفهوم الذرة والنظرة التاريخية، نموذج بور ومفهوم الذرة، العدد الذري ورقم الكتلة، وحدة الكتل الذرية، النظائر والوزن الذري، عدد التكافؤ وعدد الأكسدة، تصنيف العناصر والفاعلية الكيميائية، الطيف الذري وعدد الكم، التركيب الإلكتروني للذرة، الجدول الدوري، الكهربية، الروابط الكيميائية، أساسيات الكيمياء العضوية، المحاليل وقوانينها، الغازات وقوانينها.

In this course, the student studies the gaseous state, the laws of gases, atmospheric and vapor pressure, in addition to identifying electrolyte solutions, their types, ionic equilibrium, melting and freezing points, and the kinetics of chemical reactions. The course also covers the acidic radicals of some salts and acids.

This course will provide students with a fundamental understanding of the functions، continuity and the differential and its applications and other essential fundamental concepts of mathematics.

This course is concerned with studying some important differentiation applications that were not studied in General Mathematics I course. It is also concerned with studying integration in detail, dealing with the mathematical methods used to find it and some related applications.

This course is concerned with studying functions in more than one variable and their properties. It identifies the different methods for solving partial differential problems and its applications, calculating the areas and volumes of geometric shapes

In this course, the student will be introduced to the algebraic concepts of matrices and determinants, as well as vector spaces and related concepts. Learn about systems of linear equations and their applications, then learn about the basis and dimension of vector spaces

This course will provide students with a fundamental understanding of the of ordinary differential equations and methods of solving some differential equations of the first order are introduced, as well as solving linear differential equations of higher orders, whether homogeneous or inhomogeneous.

This course will provide students with an introduction to fundamental of C++ Programming, C++ building block (variables, Operations, Input/output, Operators, comments). Decisions and Conditional statements. Loops (for loop, while loop, do while loop). Introduction to arrays

This course aims to introduce students to the theory and applications of partial differential equations (PDEs, and to explore various methods of solution. On successful completion of this unit, students should be able to classify and solve PDEs by using appropriate methods.

The aim of this course is to train the student on how to deal with complex numbers and provide them with the skills of dealing with functions in complex variables from primary functions, studying them in detail and using them as compliant transformations

This course provides an introduction to numerical analysis. It presents fundamental concepts and methods and basic numerical analysis tools in the field. This course is aimed at not only numerical methods, but also the analysis of their convergence and convergence rates. It also develops the basic understanding of numerical algorithms and the skills to implement algorithms to solve mathematical problems on the computer

The general physics course contains the basic concepts of the principles of classical mechanics, units of measurement, vectors, types of motion, Newton's laws and their applications, work, energy, energy conservation laws, momentum, and the law of universal gravitation.

This course has two parts: Heat: the concept of thermal energy, measuring temperature and types of thermometers, the first law of thermodynamics, heat transfer, expansion of solids, expansion of liquids, ideal gas laws. Properties of matter: Elasticity and Hooke's law, states of matter, atmospheric pressure and its units, and fluids: surface tension, viscosity, Pascal's rule, buoyancy law, Archimedes' rule, capillary property, fluid flow, continuity equation and Bernoulli's equation.

This course is concerned with studying the electrostatic laws such as Coulomb's law and Gauss's law, in addition to finding the electric potential by solving Laplace's equation and Poisson's equation. It also deals with the study of the electrostatic field in a dielectric medium and the polarization experienced by the medium. The course also includes the study of the movement of electric charges and magnetic force

This course will give students a fundamental understanding of the waves and their types, the nature and theories of light, the science of optics and its applications, Waves in elastic media, sound waves, the speed of sound, and the basics of Geometrical optics

The course aims to introduce the student to the safe and correct methods of conducting experiments, how to take correct measurements, collect and analyze the results mathematically and graphically, calculate the error rate, compare the practical results with the theoretical results, discuss what has been achieved in a scientific way, and then prepare a comprehensive practical report. The different measurement methods and tools used in the laboratory are also identified, and a number of practical experiments related to what has been studied theoretically are conducted.

Magnetism and alternating current circuits course includes topics of magnetism and alternating current and focuses on: • Magnetic force and magnetic field • Induction and Faraday's Law • Maxwell's equations • Magnetism in matter AC circuits

This course is concerned with the study of the forces applied to the body, its motion, and particle systems, so that it includes conservation of linear momentum, mass center, some applications of the principle of momentum, and collision of rotational motion. It also explains the meaning of collision and inertia, as well as explains vibrational systems and applications to simple harmonic motion

This course contains a set of laboratory experiments dealing with • Heat and the quantity of heat, set Joule equivalent and specific resistance of a wire. • Electric current, studying Ohm's law and its practical applications. • Sound and some acoustic phenomena, the speed of sound, frequency of the tuning fork. • Light and some optical phenomena.

This course is concerned with studying the basic properties of semiconductor materials, as well as studying the effect of doping on the semiconductor properties. It also deals with the study of basic electronic elements such as diodes and transistors of different types and their most important uses. The course also includes the logic circuits

This course includes the basics of Newtonian mechanics, solving problems using calculus theories, the principle of energy transmission, different coordinate systems, and finding the position vector, velocity, and acceleration in each coordinate system. Types of vibrational motion of different systems, Kepler's laws and be able to solve centripetal problems

This course will provide students with a fundamental understanding of Temperature, thermal equilibrium, equation of state, the first law of thermodynamics, some results of the first law, entropy, the second law of thermodynamics, Helmholtz function, Gibbs function, Maxwell's equations and the third law of thermodynamics

This course is concerned with conducting laboratory experiments related to the physical phenomena of the electric current in both its direct and alternating types. It studies in particular the magnetic field generated by the movement of charge and the passage of current. And the phenomenon of induction and its applications such as transformers in addition to the various alternating current circuits and the phenomenon of resonance and filters.

This course includes a complement to the concepts of Classical Mechanics, especially with regard to the equations of Euler-Lagrange and the rotational motion of solid bodies, and touches on the most advanced concepts in the formulation of the laws of mechanics, such as the formulation of Lagrange and Hamilton, in preparation for what follows from the most advanced physics

This course is concerned with studying the nature of light and its various properties through careful treatment of several phenomena. Then it moves to the physics of lasers, including production methods, of its, Laser rays properties and some of their applications

This course is concerned with studying the electrostatic laws such as Coulomb's law and Gauss's law, in addition to finding the electric potential by solving Laplace's equation and Poisson's equation. It also deals with the study of the electrostatic field in a dielectric medium and the polarization experienced by the medium. The course also includes the study of the movement of electric charges and magnetic force

This course deals with the basic concepts of modern physics by studying the special theory of relativity, Rutherford's Nuclear theory, black body radiation, X-ray spectrum, De-Broglie's Hypothesis, Heisenberg uncertainty principle and Optical spectra

This course will provide students with basic fundamental understanding of various electronic devices and how they work and their applications

History and discovery of quantum theory. How to describe the microscopic world, and the effect of this theory on technology

This course studies the basic concepts of statistical physics. It is concerned with the distribution of velocities and traditional statistics. Then it moves to quantitative statistics and deals with some applications of each type.

This course is concerned with the study of Maxwell's equations. Electromagnetic energy and the derivation of the wave equation. It also includes studying generation and propagation of electromagnetic waves. The course also includes studying the magnetic classification of materials and the relationship between electromagnetic theory and relativity

In this course integrates theory in the Light and Modern Physics courses with experimental demonstrations in the Lab.

In this course, the student completes the coverage of quantum mechanics topics by applying concepts and approximate methods to find solutions to some cases quantitatively, such as studying double potential wells and oscillators. In addition to studying some theories quantitatively, such as the theory of perpendicularity, perturbation, and the effect of magnetic fields, and some physical phenomena such as the phenomenon of decay, angular momentum, spin motion, and the properties of the hydrogen atom and the deuteron.

This course will provide students with basic fundamental understanding of nuclear physics, nuclear fundamental particles, radioactivity process, radiation types and their properties

During this course, the student becomes familiar with the basic structure of solid materials and the methods and theories used to study them. The course also covers the study of some characteristic properties of materials based on their atomic structure.

This course focuses on the study of the properties of electromagnetic radiation, the regions of the spectrum, and their types and characteristics. It also examines the hydrogen atom spectrum and similar spectra. In addition, the course covers the Bohr model of the atom, spin angular momentum and its resultant in multi-electron atoms, as well as the Stark and Zeeman effects.

This course aims to introduce students to laser beams, their properties, the mechanism of laser beam generation, the construction of a laser production device, the types of stimulation processes for laser production, and the various applications of lasers.

This course will provide students with a fundamental understanding of the concepts of nuclear reactions, the interaction of radiation with matter, nuclear models, and general introduction to elementary particles

In this course students will study, electric and magnetic properties, thermal and electronic transport as well as superconductivity.

This course aims to introduce students to radioactive elements, radioactivity, and how to measure radioactivity using a set of radiation detectors

In this course, experimental demonstrations integrate theory of Solid-State Physics

This course is concerned with studying the electronic circuits. The course also includes processing amplifiers and learning about the integrated circuits and logic circuits

This course deals with a specific research point conducted by the student under the supervision of an Academic staff member. It lasts for two semesters, and it begins in the seventh semester. Physics researches are divided into two types: – Research in theoretical physics. - Research in experimental physics