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

This course provides students with a fundamental understanding of the 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, homogenous or inhomogeneous. Differential equations will also be used in many applications and the use of series to solve linear differential equations of the second order equation.

This course contains the basic concepts of the principles of mechanics, units of measurments, vectors, type of motion, Newton laws with their applications, work, energy, and the laws of conservation of energy,proprties of matter, state of matter, atmospheric pressure with its units and fluids. Pascal rule, buoyancy law and archimedes rule, capillary propty, fluid flow and Bernoullii equation.

This course includes the electrostatic and properties of electrical charges, conductors and dielectric, Coulomb's law, the electric field, an explanation of what is electric current, resistance, electrical energy, power. DC circuits.

This course includes: sound, light and heat.

This course includes measures of central tendency and measures of dispersion, the concept of probability, Bayes theorem, the concept of random variables and probability distributions, , sampling distributions and the central limit theory, estimation, hypothesis tests.

This course includes Bohr's model of atomic structure, atomic number and atomic weight, atomic mass unit, isotopes, valence number, oxidation number, classification of elements and chemical reactivity, atomic spectrum and quantum number, electronic structure of the atom, periodic table, electronegativity, chemical bonds, basics of organic chemistry. , Solutions and their laws, Gases and their laws.

This course includes ideal gases and real gases, expressing the concentration of solutions, chemical equilibrium, acids and bases, solubility and equilibrium of complex ions.

The three groups of acids cracks are detected and identified. Examination and identification of the acid fraction of unknowen inorganic salt, solubilities of different salts will be stadied.

includes introduction to analytical chemistry, types of chemical analysis, gravimetric analysis, volumetric analysis methods, theory of neutralization titration for simple system, titration curves for complex systems.

Includes methods for preparing standard solutions, calculating PH, and titrations.

Includes acid - base titration in nonaqueous media, complex- formation titration, equilibria in oxidation- reduction titration, theory of oxidation- reduction titration, application of oxidation- reduction titration.

Includes methods of preperation of standred solutions for oxidaizing and reducing agents, redox and reduction titration.

Includes potentiometric methods, electrocemical cells and electrogravimetry methods, coulometric methods of analysis, voltammetry.

Includes applied foundations of electrolysis methods in the analytical chemistry.

Includes separation methods of precipitation,extraction method for isolating, chromatographic. quantitative aspects of absorption measurements.

Includes theoretical and practical foundations of solvent extraction methods, chromatography method, their different types and applications.

Includes molecular fluorescence and phosphorescence, infra- red spectroscopy,atomic spectroscopy ( atomic emission- flame photometer), atomic absorption, mass spectroscopy.

Spectral analysis methods and experimental foundations where the devices are used for analysis and interpretation.

Includes modern atomic theory, periodic table, periodicity effect, group I,group II, group III, group IV, group v, group VI, group VII, group VIII, ionic bounding, covalent bonding, ( molecular orbital theory, valance orbital theory), chemiecal forces .

This cource is coordination chemistry: nomenclature, preparation,classification, stereochemistry, bonding, reaction kinetics and mechanisms, chemical equilibrium, of reactions, of metal complexes, types of ligands.

This course focuses on compounds of simple salts and coordination compounds in terms of their interactions and internal structure. studing amino cobalt carbonate compounds and ethylene compounds.

It includes the fundemantal of symmetry, describes the theoretical methods and how to apply them to vibrational and electronic spectroscopy. the study of molecular structure, bonding, and chemical reactivity.

It studies electromagnetic rediation and its methods of measuring radiation and the study of applications on inorganic compounds, the charactristic absorption of inorganic compounds, amd the use of ultraviolet complexes in harmonizing absorption and stability energy complexe.

It focuses on the preparation of simple saltes.

it includes the chemical properties, reactions and methods of preparing alkanes, alkenes alkynes and aromatic compounds. Stereochemistry and knowing how to fifferentiate between stereoisomers.

It includesthe basic techniques of practical organic chemistry.

Includes chemical proprties, reactions, and preperation methods of cyclic alkanes, alcohols, ethers, aldehydes, ketones, and carboxylic acids.

Includes qualitative analysis of organic compounds including solubility and reactions identification analysis.

Includes chemical proprties,reactions, and methods of preperation of carbanions, a,B- unsaturated carbonyl compounds. Conjugate addition.In addition, tothe physical properties, preparation and reactions of phenols, aryl halides and aminos.

Includes synthesis of different organic compounds using various chemical mechanics such as substitution nucleophile reactions, deletion, oxidation, and rearrangement reactions, and others.

Describe thebasic instrumental principles including the operation of mass spectrometers, infrared spectrometer, and nuclear magnetic resonance spectrometer. Describe the physical and chemical principles that occur at the molecular level during a MS, IR, or NMR experiment. Anlyze MS, IR, and/ or NMR spectral data to elucidate the structure of organic molecule.

Describe the basic instrumental principles including the operation of mass spectrometers, infrared spectrometer, and nuclear magnetic resonance spectrometer. This includes methods of sample handlingand preperation, signal generation and detection, and data analysis.

Includes the liquid state of matter and its properties such as vapor pressure, critical temperature of liquids, surface tension, viscosity, refractive index, boiling point, density, paracor, It also studies the collective properties of diluted solution, some practicl application of electrical continuation measurmenrs- Debye and Hockle theoty.

Assign most of the physical properties of the liquid state.

Examines the gaseous state of matter and the ideal gas behavior.

Includes gaseous case study by solutions.

Study of the I,II and III laws of thermodynamics.

Includes the laws of thermodynamics by assigning the equilibrium constant by the distribution coefficient (KC).

General description of kinetic chemistry and electrochemistry.

Includes determination of the order (n), rate constant, and half life time for the hydrolysis of ester by acis, and saponification and other reactions. determination the efficiency of an electroplating process.

Full description of Schrodinger equation applications of quantum state.

Includes statistical thermodynamics and the study of molecular spectra, bonding also molecular diuretics in polyatomic molecules, solid state and crystallography, and molecular symmetry and photovoltaic efficiency.

It is concerned with explaining the chemical structure and properties of biomolecules as well as explain their role in cell metabolism.

Explaining the chemical structure and properties of biomolecules asn explain their role in cell metabolism.

Explaining the chemical structure and properties og biomolecules as well as explain their role in cell metabolism.

Explaining the chemical structure and properties og biomolecules as well as explain their role in cell metabolism.

Introduction to polymer science, basic concepts of polymers, naming polymers classification of polymers, petrochemical industrial and industrial silicate technology.

Experimental description to recognize some polymers also identification of some polymers, petrochemical industrial and industrial silicate technology.