Master of science (ms)
Main courses
Advanced quantum mechanic (1)
Basic concepts – Schrodinger equation and its applications – transform theory – Feynman path integrals and propagator and
its applications – the angular momentum – symmetry in quantum mechanics – theoretical problems of quantum mechanics.
Source Course
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Modern Quantum Mechanics
By : J.J. Sakurai
Quantum Mechanics
By : E.Merzbacher
Quantum Mechanics
By : A.S.Davydov
Intermediate Quantum Mechanics
By :H.A.Bethe & R.W.Jackiw
Quantum Mechanics
By :W.Greiner
Lectures in Quantum Mechanics
By : G.Baym
Quantum Mechanics
By :A.Messiah
Quantum Mechanics
By :Balentine
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Advanced quantum mechanic (2)
Approximate methods - identical particles - time-dependent perturbation theory and the rate of passage - Scattering Theory Introduction of quantization .
Source Course
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Modern Quantum Mechanics
By : J.J. Sakurai
Quantum Mechanics
By : E.Merzbacher
Quantum Mechanics
By : A.S.Davydov
Intermediate Quantum Mechanics
By :H.A.Bethe & R.W.Jackiw
Quantum Mechanics
By :W.Greiner
Lectures in Quantum Mechanics
By : G.Baym
Quantum Mechanics
By :A.Messiah
Quantum Mechanics
By :Balentine
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Electrodynamics (1)
Maxwell's equations - conservation laws - formulation of relativistic electrodynamics - border issues - Electromagnetic
Waves - Radiant Systems Simple - Distribution - diffraction - Radiation by moving charges - brake light - the collision of
charged particles.
Source Course
1- Classical Electrodynamics
By: J.D.Jackson
2- Classical Electrodynamics Radiation
By:J.B.Marion
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20
Advanced Statistical Mechanics (1)
Review of Probability and Statistics - An overview of the principles of thermodynamics - the kinetic theory - in equilibrium
statistical mechanics (classical and quantum) consists of assembling and solvable models such as the perfect gas and Ising
model - fluctuations aware equilibrium critical phenomena.
Source Course
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Statistical Mechanics
Statistical Physics
Statistical Mechanics
Statistical Mechanics
Statistical Physics
By :Pathria
By :Huang
By :Reif
By :Ma
By :Landau & Lifshitz
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21
Computational Physics (1)
A) Analysis of data
1- computing basic statistics: average – variance (x,y,z )
2-Discussion of errors
3- Approximation of functions: interpolation
B) numerical and physical models
1- Complete numerical solution of differential equations
2- methods of numerical integration
3- solve systems of linear equations and nonlinear
C) simulations
1- Monte Carlo
2- of Metropolis
D) introducing a bundle of high cases in the country.
Note: A third lesson is that the project would be a joint project or multiple projects to be brief. Examples of projects include:
1- Distribution of the central potential
2- The two-dimensional Ising model simulations
3- Using molecular dynamics simulations of two-dimensional ideal gas
4- disparate simulation of harmonic oscillators
5- Finding the ground state of the Schrödinger potential for arbitrary
6- compares the results of various numerical methods for differential equations in physical models
7- The data for the test results
8- Simulation of charged particle motion in electromagnetic fields.
Source Course
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Computer Simulation Using Particles
By: R.W.Hockney & J.W.Eastwool, 1988,I.O.P
Computer Simulation Of Liquids
By:M.P.Allen & D.J.Tildesley , 1987,OUP
Theoretical Physics on the PC.
By:Springer- verlag . 1987
Computer Simulation Method in Theoretical Physics
By:D.W.Heeman,1990, Springer- verlag.
Computational Physics
By: S.Koonin and D.C.Meredith, 1990, Addison - wesley
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Advanced physics lab
23
Experiment 1: Electron spin resonance study of the magnetic field on the resonant frequency - Set the gamma factor.
Experiment 2: Energy band-gap semiconductors: measurement of gap semiconductors using special resistance to
temperature curve.
Experiment 3: Effect of Zyman: neon atoms to measure the magnetic moment of one of the electronic states and dissociation
coefficient of the gamma mode using the effective Zyman – calculated e/m (using a cadmium lamp).
Experiment 4: mass spectrometry: Understanding how ion mass spectrometer measurements of K + or K +
Experiment 5: Thin-film technology: an introduction to the technique of thin film vacuum evaporation method.
Experiment 6: Electron - shot noise: All measurements Diode Nvyzyk vacuum and calculate the charge of the electron.
Experiment 7: testing the analog computer, operational amplifiers: review of differentiation and integrator models,
collecting and solving quadratic equations.
Experiment 8: Discharge Optical: Optical Discharge Survey techniques to measure Earth's magnetic field and setting the
discharge time constants and determine the resonant frequency and intensity of the magnetic field by the radio-frequency
spectroscopy.
Experiment 9: Effects of Thermodynamics: Thermodynamic study of electron emission from a hot metal, the metal work
function measurements and experimental study of the equation of Richardson and Long Meyer and study the effect of
magnetic field on the flow and determine e/m .
Experiment 10 : modulation with laser light using cells optical electro choir: measuring the choir, electronic optical
properties of nitrous me benzene and get the work of the cell.
Experiment 11: fluctuations in the pair of electrical and mechanical: coupling, obtain oscillatory modes and asymmetric and
swing equation parameters.
Experiment 12: Electrical discharges in gases: the study of electrical discharges in gases and gain versus current-voltage
curves at low pressure.
Experiment 13: Measuring Time remiss in dielectric: The dielectric coefficient of the liquid crystals and the coefficient of
variation with frequency and temperature constant determination promiscuity permanent dipole moment of the liquid and
the temperature study of changes.
Experiment 14: Effect of paramagnetic and to determine the effective magnetic moment of divalent manganese ion Mn ++:
Measuring the magnetic influence of solution containing ions and determine the effective magnetic moment, the lack of
magnetic fluid by increasing the concentration of magnetic ions.
Experiment 15: Microwave: microwave frequency measurement using resonant work, study measuring the interference
patterns and the Bragg reflection.
Experiment 16: Testing the effect of the field (Fyldayshn) crystal levels, obtain the work function of the metal tungsten.
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Advanced Solid State Physics (1)
crystal networks reverse - network - Determining the crystal X-ray scattering St. - categories networks and glory at a
distance of metals - the theory of sommerfeld in metals - the failure of the free electron model - levels of electrons in
periodic potential - public properties - electrons in periodic potential weak - bond - the other ways to strip the structure of
the model of the electron dynamic classical model - half in classical semiconductor metals - measuring the Fermi level - the
structure of the tape some metals - relaxation time - the spread of the electron approximation independent - the effects of the
level of - classifying solids - energy - network in failure.
Source Course
1- Solid State Physics
By :N.W.Aschroft & N.D.Mermin
2- Quantum Theory Of Solid
By : C.Kittel
3- Theoretical Solid State Physics
By: March & Jones
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Advanced Solid State Physics (2)
Classical theory of crystal harmonics - Quantum Theory of Crystal Lite - measurement of photon dispersion relations - nonharmonic effects in crystals - photons in metal - dielectric properties of insulators - semiconductors homogeneous heterogeneous semiconductors - Crystal defects - diamagnetic and paramagnetic - electron interaction and structure magneto
- magneto order - superconductivity.
Source Course
1- Solid State Physics
By :N.W.Aschroft & N.D.Mermin
2- Quantum Theory Of Solid
By : C.Kittel
3- Theoretical Solid State Physics
By: March & Jones
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Advanced Solid State Physics Laboratory (1)
68 hours of laboratory activity based on the following tests or the equivalent in other areas of the state, according to the
Department of Plant and interests.
Group 1: x-ray diffraction
Learn about the benefits and risks of x-rays, obtain the spectrum of a monochromatic beam-column x - Introduction to Basic
and workmanship Layvh cameras, powder and rotating crystal - experimenting with one of these cameras and the results use x-ray fluorescence method for the determination of chemical elements present in a solid.
Group 2: thin films.
Understanding How They Work by thermal evaporation apparatus, vacuum pumps - the resistor capacitor elements using
thermal evaporation of thin layers of conductors and insulators, resistance and capacity measurements made elements thermal evaporation of a thin layer of tin oxide (the oxide indium) on a silicon wafer and provide a diode photocell - see
graph I (V) diodes by using an oscilloscope - a thin layer of conductive thermal evaporation and producing a MIM and plot I
(V) using the oscilloscope and study electrical properties of the system.
Group 3: the study of magnetic materials
Understanding the difference between materials Dia, Para and Ferro magnetism and workmanship following measuring
devices - Magnetic field measurements (using one of the available methods) for examples of Dia, Para and Ferro magnetic a measure of volume changes YAM Article magnetic field at different temperatures and observed the phenomenon Magneto
striation.
Group 4: Determine the characteristics of a substance.
Familiarity with the test methods and procedures for measuring devices to determine the crystal structure and defects of
components and building materials - various methods of optical microscopy and spectroscopy - mass spectrometry - a
method of nuclear magnetic and so on.
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Advanced Solid State Physics Laboratory (2)
68 hours of laboratory activity based on the following tests or the equivalent in other areas of the state, according to the
Department of Plant and interests.
Experiment 1: the study of crystal structures and study models and point defects and linear crystals using soap bubbles and
possible structural defects observed a semiconductor device using an electron microscope.
Experiment 2 diffraction of electrons by a thin layer of carbon, properly researched and calculation of distances between the
atoms of carbon, de Broglie relation.
Resistance 3 Special tests measure the volume of a semiconductor device using four needles.
Experiment 4: Measuring the density of charged carriers in a semiconductor is determined by using the power of instigating
Hall and Hall experiments using three tests.
Experiment 5: Determination of minimal forbidden energy band by measuring the resistivity change (Hall coefficient) of a
semiconductor.
Experiment 6: power measurements (drift mobility) of electrons and holes tested using Shockley - Heinz.
Experiment 7: Determination of the effective mass m in the potential of a semiconductor thermoelectric measurements at
several temperatures.
Experiment 8: Determination of gross energy level of atoms in the forbidden energy band by a thermal-optical methods.
Experiment 10: Determination of the lifetime of the minority charge carrier in a semiconductor by using a moving point of
light.
Experiment 12 : Determination of the spectral response (spectral response) of a photovoltaic (photoconductor) and the
energy gap is determined by this method.
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Material magnetic properties
Introduction , types of diamagnetic , strong magnetic properties of materials , available magnetic properties and their
application.
Source Course
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Introduction To Magnetic Materials
By :B.D.Cullity
The Magnetic Properties Of Solids
By : J.Crangle
Introduction To The Theory of Materials
By : N.Cusack
Magnetism in crystalline marerials
By : Cracknell
Lectures on modern magnetism
By : B.Barbara , D.Gignouxand C.Vettier science press, springer varlag
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Solids dielectric and optical properties
1- Solids dielectric properties : molecular origin , dielectric properties of dense matter
2- Solids optical properties : phonons , optical , phonons and acoustic phonons, plarytons, light absorption and
radiation theory by agzytrones, linear optics, non-linear optics, non-linear optics, bloch functions , stark effect, twophotons absorption, agzytron ionization, light absorption and radiation by free electron – hole pairs, direct and
indirect transition, spectroscopy
3- important semi-conductors optical properties such as :
GaAs , cds,………..
Source Course
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Semiconductors
By: R.A.Smith
Concepts in photoconductivity and allied problems
By: A.Rose
Optical properties of solids
By: Abeles
Dielectric properties and molecules behavior
By: N.E.Hill
Introduction to semiconductor optics
By : N.Peeyghambarian,S.W.Koch and mysyroulich 1993
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Superconductivity
1- Introduction to the theory of Fermi liquids Landau - the mean field calculation methods (Green's functions) of the
particle and the superconductive (equivalent Bvgvlyvbvf) - Hamylytvny model - electron interaction and the theory
of photon pairs, "Bardeen - Cooper - Shryfr "- the leaves Elijah disorder - Type II superconductivity and vortex
theory Abrykasf - phenomenological theory Gynrbrg / Landau / Gvr- magnetic and superconducting phenomena
(such as the Meissner effect / Avkznfld and Kvantsh magnetic flux - Jabjabb Knight - no superconducting energy
gap - superconductivity in ferromagnetic and antiferromagnetic) - effects (quantum Tdakhkhl) Zhozfeson.
2- New advanced topics in superconductivity:
Andersons RVB theory, sherifers spin-bag thory , habard – andersons developed patterns for describe of the two –
dimensional copper oxide materials properties , metal – dielectric and superconductor – dielectric phase transition.
Source Course
1- Theory of superconductivity
By: J.R.Schrieffer (1964, Addison Wesley)(reprint 1990)
2- High temperature superconductivity
By: J.W.Lynn (1990, springer-verlage)
3- Funddamentals of the theory of metals
By: (1988,north Holland) part II: superconducting metals
4- Solid state physics vol . 42
By: henty ehrenrich and david turnbull.(editors)
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Physics of semiconductors
Experimental study of electrical properties - Thermoelectric - optical and semiconductor connectivity - reminds Energy Bars
- Atomic types of objects - reminds intrinsic and non-intrinsic semiconductors - an estimate of the density of electrons and
holes in an intrinsic and non-intrinsic semiconductors - Electrons and holes in unbalanced mode - thermoelectric and
photoelectric properties - the relationship between electronic structure and crystal structure, and the dependence of the
physical properties of their constituent elements - crystal defects in semiconductors and its effects - scattering theory of
magnetic properties (Hall effect) - the electrical conductivity of semiconductors in strong fields electrical - major
applications of semiconductors.
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Source Course
Semiconductors
By: R.A.Smith
Concepts in photoconductivity and allied problems
By: A.Rose
Semiconductors physics, an introduction, fourth edition
By:K.seeger verlag
Semiconductors
By: wolf
Quantum processes in Semiconductors
By: B.K.Ridley oxford . science pub
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40
Multi-particle Physics Apparatus (1)
second quantization - Green's function at zero temperature - Dick story - diagrams Fyneman-linear reaction theory- green
functions in non- zero temperature – matsobara green functions – kobo formula for electrical conductivity- canonic
transforms – exact solvable models – bosons indent.
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Source Course
Quantum theory of many system
By: A.L.Fetter and J.D .Wolecka
Many – particle physics
By: G.D Maha
The theory of Quantum liquids
By: G.P.Blaizot & G.Ripha
Quantum many particle system By:G.W.Negel & H.Orland
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Solids quantum theory
Acoustic phone's – Plasmon's – optic phonons – magnetos- Fermi fields and hartry / fock – amplification – many / body
techniques and electron gas- plarons – phonon- electron interaction – super / conductivity.
Source Course
Quantum theory solids
(second revised printing) , 1987
By: C.Kittel
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42
Surface physics and its industrial applications
Introduction of vacuum technique, preparation methods introduction and cleaning surface sample, Introduction of high
vacuum technique, Introduction of surface phenomena ,related topics to electron – solid material Introduction, Introduction
of surface analysis techniques, principles and application of auger electron spectroscopy technique, auger techniques
applications and principles in petrochemical and tribology and textile industries , principle and applications of TPR and TPD
techniques, principle and applications of SIMS technique.
Source Course
1- Methods of surface analysis.
Edited By: G.M.Walls and V.G.Ionex / Cambridge university press (1989)
2- Surface physics
By: M.Prutton
3- Electronic properties of surface
By: M.Prutton
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Atomic and molecular orientation
Plasma physics
Introduction, plasma concepts, plasma production, plasma properties measurement, thermodynamics and statistical
mechanics plasmas, plasmas macroscopic properties, plasma fluid stability, transport phenomena in plasma, plasma kinetic
equations.
Vlasov theory in the case of plasma waves and instability, fluctuations, correlations and plasma radiation, collisions, shock
wave.
Source Course
1- Principle of plasma physics
By: Nicholas A.Krall & Alrin W.Trivelpiece
2- plasma physics
By: Laing
3- plasma dynamics
By: T.J.m.Boyd & sanderson
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Quantum electronics
Quantum theory of the Introduction of radiation with matter, relaxation phenomena quantum theory, quantum phenomena of
electrons-high frequency waves Introduction in the resonators, quantum systems behavior in weak field, quantum system
behavior in strong field, simulator and spontaneous emission, simulator and spontaneous emission in free space, propagation
in the resonator, non-linear phenomena in optics.
Source Course
1- Quantum electronics (3nd Ed)
2- Quantum electronics
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By: amnon yariv, john wiley & sons, Inc. (1991)
By: V.M.Fajn and Y.I.Khanin
46
Advanced atomic and molecular lab 1
Spectroscopy, hologram, ionization, required electronic equipment in researches such as multi–polayers specification,
vacuum technique.
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Advanced atomic and molecular lab 2
Thirty – four hours of laboratory work in the one of the atomic and molecular physics fields with respect to facilities and
didactic departments interests.
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Quantum methods in atomic and molecular physics
Dirac eqation, hydrogen atom, static fields, hyperfine interaction, hartri - fock formulation, multiple wave function, matrix
elements, the interaction of radiation with atoms, absorption and desorption, high levels of electromagnetic interactions,
general properties of molecules, the electron states of molecules, molecular spectroscopy, the single fields.
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Source Course
Atoms and molecules
By: M.Weissbluth
Physics Atoms and molecules
By:B.H.Bronsden and C.J.Joachain
Spectra of diatomic molecules
By:G.Herzberg
Atomies spectra and atomic structure
By: G.Herzberg
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49
Laser physics
Radiation – material interaction, pumping phenomena, optical resonators, continuous and pulsed laser treatment, laser
properties, the types of lasers, modulation of laser irradiation, laser amplifiers, switching and locking.
Source Course
1- Principles of lasers
By: O.Svelto (1989) plenum press
2- Lasers
By: K.Thyagarajan and A.K.Ghatak (1981), plenum press
3- Lasers theory
By: H.Haken, springer- verlag (1984)
4- Laser
By: P.W.Milonn, john wiley & sons (1988)
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Laser spectroscopy
Laser as light source in the spectroscopy, absorption and emission spectroscopy with laser : magnetic resonance
spectroscopy and stark spectroscopy, induced fluorescence with laser, stimulated states spectroscopy, double – resonance
methods, multi-photons spectroscopy, Raman spectroscopy with laser, high- resolution spectroscopy, laser spectroscopy
applications.
Source Course
Laser spectroscopy, (1982), springer- verlag By: W.Demtroder
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51
trend in nuclear physics
advanced nuclear physics 1
General properties of nuclei: nuclei and nuclear states - the nucleus - the nucleus - the nuclear binding energy ISO load scenarios and the effects of Coulomb - nuclear decay mode of the hub.
Independently moving particles without interacting Fermi gas - a spherical symmetric potential wells - wells
potential for particles with spin 1/2 - evidence for the core layer - model Bakouplazh jj - optical potential Nilsson model (modified potential wells)
Nucleon potential independent anti-symmetric states of nucleons - interacting Fermi gas bearing - Modified Delta
Interaction layer, Harter theory / seals - for finite nuclei - Harter / Fock pair potentials and Beauty Bar.
Layer model coupling: coupling and the coupling strength - depending layers and stimulate particle - particle.
Models set the transformation - symmetrical gig - Vibration - oval nuclei - coupling between the modes of
collection.
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Source Course
Nuclear and particle physics
nuclear physics , (An Introduction)
introduction to nuclear physics
theoretical nuclear physics
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By: E.B.Paul
By:W.E.Burcham
By: H.Enge
By: Deshalit and feshbach
53
advanced nuclear physics 2
Fundamentals of nuclear reactions: Reactions - elastic channel - the resonant behavior of the reaction threshold - describes
the coupled channels (matrix S) – two channel scattering problem
Reaction mechanism is simple: the approximation at high energies - Gelauber approximation to atomic number the image projected nuclear reactions - Direct Response - resonance - Nuclear Complex
Electromagnetic interaction: a multipolar expansions - the quantization of electromagnetic radiation - radiation
possibilities - experimental situation - nuclear reactions photon - in other electromagnetic processes and
measurements.
5678-
Source Course
Nuclear and particle physics
nuclear physics , (An Introduction)
introduction to nuclear physics
theoretical nuclear physics
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By: E.B.Paul
By:W.E.Burcham
By: H.Enge
By: Deshalit and feshbach
54
Laboratory of Advanced Nuclear 1
68 hours of laboratory or field-based experiments are similar with respect to the Facilities Department.
1- Characterized by radioactivity
2 - charged particle energy loss
3- Spectroscopy Scintillating
4- Techniques of Adaptive
5- the relative flux of neutrons
6- induced radioactivity
7- Gamma-ray spectrum Au 198
8- Induced radioactivity.
9- Neutron detection methods and properties of the neutron
10- Activities related to the analysis of mixtures of independent
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Laboratory of Advanced Nuclear 2
68 hours of laboratory or field-based experiments are similar with respect to the Facilities Department.
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Sandy Hopper and beta radiation liquid scintillating counting
Charged particle spectroscopy
Alpha particle scattering
Angular correlation
56789-
Compton scattering
Effect of mouse Baser
Submit Now fission fragment detection by solid state track
Decomposition Analysis meson II + of nuclear emulsion
Meson decay, analysis of events in bubble chamber
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Laboratory of Advanced Nuclear 2
68 hours of laboratory or field-based experiments are similar with respect to the Facilities Department.
1-beta-ray spectrometry and liquid Sntlasyvn counters
The aim of the present experiment liquid scintillation counting principles, measurements Ayzvtphay activities He3, C14
emits a weak beta particles Anchors, measure the maximum kinetic energy beta-emitting nuclei is by making a diagram
kurie.
2- charged particle spectroscopy
Experiments range alpha particles Po 210, Am241 techniques for detecting and measuring the energy of charged particles
(by detector solid state surface barrier) is used.
3- Distribution of alpha particles.
Alpha particles Po240 (with energy 5.3 Mev) is scattered by a thin gold foil. In this experiment the number of scattered
particles as a function of scattering angle scattering cross sections are measured and calculated, and these calculations are
compared with predictions of Rutherford:
‫ﻓﺮﻣﻮل‬
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A general method for determining the scattering cross section will be enhanced.
4- Angular correlation
The angular correlation between 1.7 Mev gamma rays from 4+ to 2+ and 1.33 Mev gamma rays from +2 to +0 (steady
state) NI60 caused by beta emission Co60 attempt to measure the angular correlation theory the following is known.
‫ﻓﺮﻣﻮل‬
Which can be compared with the measured curve.
5- Compton scattering
The purpose of this experiment show the distribution of gamma-ray Compton scattering by free electrons in the process of
realization of the angular dependence of the radiation energy is scattered.
6- Effect of mouse Basr
The purpose of these experiments show application of spectroscopic analysis and display of multi-channel Basr hair to
measure the width of the resonance absorption lines in rebuttal 14.4 Mev gamma rays from Fe57 is published.
7- pieces of crack detection by registering now track the solid state (solid state track recorder)
The purpose of this experiment show spark scanning technique used to count the traces (traces) is split.
8- meson decay analysis II + of nuclear emulsion
The purpose of this experiment is to become familiar with several types of measurements can be used in nuclear emulsion
and the techniques used to analyze II + meson decay.
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59
Advanced Reactor Physics
Non-spatial and spatial transfer functions and solve equations - equations form a homogeneous bare reactor - a
review of difficult calculations made in Maxwell spectrum of thermal neutrons - for Raktrvhay heterogeneous
multi-group calculations - calculations of non-homogeneous reactor calculations such as tuberculosis - Physics Dynamic – reactors
Source Course
1- Neutron physics
By: K.H.Beckurts and K.Wirtz
2- An introduction to nuclear reactor theory
By:JJ.R.Lamarsh
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60
Nuclear Chemistry
Degradation or conversion and decomposition reactor - nuclear conversion types - Fundamentals of nuclear
reactions - nuclear reaction mechanism Composites - high-energy nuclear reactions - nuclear testing methods in
chemistry - applications of nuclear chemistry.
Source Course
Nuclear chemistry
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by:L.Yaffe
61
Nuclear Structure
Discussion of models of nuclear or nuclear excitation mechanisms and the microscopic theory of the nucleus to
the selected master.
Source Course
1- Nuclear theory
By:J.Eisenbery and W.Greiner
2- Theoretical Nuclear physics
By:Deshalit and feshbach
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62
Introduction to elementary particles
Arrangements and the overall view of the phenomenon of particle - particle accelerators and detectors
classification - law of survival - interactions within easy Curacy model - electromagnetic interactions - weak
interaction - interaction curacy the standard theory of QCD.
Source Course
1- Introduction to high energy physics
By: Donald H.perkins
2- Subatomic physics
By: fraueufelder and heley
3- Introduction to elementary particles
By: david griffiths
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64
Advanced Quantum Mechanics 3
Review of
A) quantum mechanics Non-relativistic of a particle with spin
B) Special Relativity and Lorentz Verde - Klein-Gordon equation - Coulomb scattering - the effective cross
section and kinematic formulas immutable - the emitter - particles with spin 1 - quantum mechanics other than a
single particle with spin 1/2 - invariance equation Dirac - Coulomb scattering - second and higher-order processes in
electrodynamics speinury - invariance of the Dirac equation - the Dirac equation of invariance - invariance parity
- time inversion and conjugate time - strong interaction - interaction is weak.
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Source Course
Relativistic Quantum mechanics
Advanced Quantum Mechanics
Relativistic Quantum Mechanics
Relativistic Quantum Mechanics
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By: I.J.R.Aitchison
By:J.J.Sakurai
By: J.D.Bjorken and S.D.Drell
By:W.Greiner (springer- verlag 1988)
65
Lee groups in the fundamental particles
Matrix groups - Lee groups - the classic groups - the classification of classical groups - especially groups show Lee unit
groups - Group Lunates and it shows.
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Source Course
Lie algebra in particle physics
Classical groups for physicists
Group theory for physicists
Unitary system and elementary particles
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By: Grorgi
By: B.G.Wybourne
By: J.F.Cornwell
By: D.B.Lichtenberg
66
elementary particle physics 1
Coerce models - color QCD - the deep inelastic scattering - the spontaneous symmetry breaking - theory Salam /
Weinberg.
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Source Course
Quarks and leptons
By: halzen and martin
Quarks and leptons
By: huang
Gauge theories
By: I.J.R.Aitchison
Gauge theories and new physics
By:leader and predezzi
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Astrophysics trends
Astrophysics 1
Astronomical terms- a view of astrophysics- cosmic distance scale- cosmological dynamics- dynamics and argue
astronomical objects- random processes- photons and fast particles- electromagnetic processes in space-quantum processes
in astrophysics- stars.
Source Course
Astrophysical concepts
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By: M.Harwit
69
Astrophysics 2
Cosmic rays and their sources and mechanisms- astrophysics raise the matter in neutron stars and black holes - X-ray
sources and their models of active galaxies- clusters of galaxies and penetrating radiation-gamma-ray sources and models.
Source Course
Astrophysical concepts
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By: M.Harwit
70
Gravity 1
History of gravitational theory - tensor calculus - Riemannian geometry - Einstein field equations - linear approximation of
the field equations - conservation laws - solution Schwarz Shield .
Source Course
1- Introduction to general relativity
By: adler, bazin, and schifferd
2- Gravitation and cosmology principles and applications of the general theory relativity
3- Essential relativity, special, general, cosmological
By: w.rindler
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By: S.weinberg
71
Gravity 2
Effects of classical general relativity- collapse gravity and black holes- Kerr A (kerr)- cosmology- gravitational waves
Freebies (chosen by instructor).
Source Course
1- Introduction to general relativity
By: adler, bazin, and schifferd
2- Gravitation and cosmology principles and applications of the general theory relativity
3- Essential relativity, special, general, cosmological
By: w.rindler
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By: S.weinberg
72
The structure and evolution of stars
By observation-the physical state of the star- the star of the original building- advanced delivery phases- the final structure
of stars-stellar atmospheres.
Source Course
1- Structure and evolution of stars
By: M.schwarzshild
2- Stellar atmospheres
By: mahalas
3- Principles of stellar evolution and nuclei synthesis
By: D.D.Clayton
4- Atmospheres of the sun and stars
By: Aller
5- Astrophysics and stellar structure
By: L.Motz
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The structure and evolution of galaxies
Classification of galaxies - galaxies measured physical characteristics - the dynamics of galaxies - stellar distribution
systems - Dynamics of the Milky Way - galaxies and clusters of galaxies few - unusual galaxies - galaxies of type N Kvaryzarha - red shift and broadening of the World - Genesis and evolution of galaxies.
Source Course
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Galactic astronomy
By: mihalas
Galaxies : structure & evolution
By: R.J.Taylor
Galaxies
By: harlow sharply
Galaxies and the universe
By: sandage
The milky way
By: B.J.Bok & P.F.Bok
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Cosmology
74
Introduction - Newtonian gravity and cosmology - General relativity and relativistic cosmology - Analysis of observational
data - relational models that do not follow the principles of cosmology - the microwave background radiation - the thermal
history of the universe and uncle synthesis - SINGULARIST models of cosmology - gravitational constant as a field
variable - the cosmological models based on theory Einstein / carton - abnormal isotope model - the formation of galaxies a cosmological baryon asymmetry.
Source Course
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Theoretical cosmology
By: A.K.Raychaudhuri
Physics cosmology
By: E.Peebles
Gravitation and cosmology
By: s.winberg
Modern cosmology
By: D.W.Sciama
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Physics of the Sun 1
Introduction - About the Sun - Solar equipment - general atmosphere of the sun - the sun balance - active centers - the cycle
of solar activity - a breath of the internal structure - the evolution of the Sun - History of the Sun.
Source Course
1- The sun Ed
2- New sun
By: G.P.Kuiper
By: J.A. eddy
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76
Physics of the Sun 2
Introduction - Shade heaven, Split Solar - sunspots and other phenomena sphere Shade - Naj shades of sky and sun - centers
in the atmosphere of the Sun - Solar Flares - Solar flares and the like - the solar wind.
Source Course
New sun
By: J.A. eddy
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77
Pulsar
Pulsar Survey - Breakdown of Search and Find - identified with rotating neutron stars - a pulse of radiation X- the internal
structure of a neutron star - neutron star's magnetic field - the timing pulse - integrated radio pulse properties - single radio
pulses - Crab Nebula - Crab Pulsar (Crab) - Pulsar distances determined through interstellar space - interstellar magnetic
fields - interstellar scintillation - the process of radiation- issuing mechanism - Analysis of observational properties geometric considerations - discusses the origins Pulsar - high energy and compact stars.
Source Course
PulsarS
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By: F.G.Smith
78
Astronomical instruments and observatories
1- Introduction devices measure the position of celestial objects
2- stars photometric devices
3- astronomical spectroscopy and analysis of stellar spectra
4- Introduction to Astronomical Imaging Devices
5- Introduction and how to use different Catalog
6- Radio telescope
7- Project
Color graph theory - so, the standard star photometry, preparation and analysis of the spectrum of the sun, planets and stars.
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79
Trends fundamental physics
Theoretical Foundations of Quantum Mechanics
An overview of the mathematical formalism of quantum mechanics - density matrix formalism - Test EPR - integral
quantum - hidden variables - von Neumann theorem - problems after nose (Retro diction) - Measurement theory - Non-High
status members and inequalities - Paradox Kvshn / Aspkr - Quantum Logic.
Source Course
1234-
Quantum theory of motion
By: peter R.holland, Cambridge U.P,1993
Quantum non-locality and relativity
By: time maudlin, blachwell,1994
The structure and interpretation of quantum mechanics
By: R.I.G.Hughes U.P,1989
Conceptual foundations of quantum mechanics
By: B.D Espagant, Addison – Wesley , 1989
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81
Philosophical Foundations of Quantum Mechanics
Semi-classical interpretation - Uncertainty Relations - Mklmlyk - Conflicts of B / Einstein - EPR argument and its
philosophical consequences - potential variables and their bugs - Bell jobs - Quantum Logic - the statistical interpretation of
quantum mechanics - the measurement problem.
Source Course
1- The philosophy of quantum mechanics
2- The philosophy of quantum mechanics
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By: Max. jamma , wiley- interscience, 1974
By:R.Healey , Cambridge U.P, 1989
82
Quantum field theory 1
Quantum scalar and electromagnetic fields - Vector Dirac mass and non-zero vacuum expectation values and thermal issues
- interacting quantum field - the matrix S and the effective cross section approach - interaction Dirac formalism (or
formalism LSZ) - Feynman diagrams and examples of interaction of quantum fields - Green functions - Examples of
interactions of quantum fields - he normal - quantum electrodynamics (QED) - Compton effect - mating destruction correction of radiation - infrared problem - using quantum path integral method - constrained systems Non- abelian gauge
fields - the model of Weinberg / Salam - color quantum fields - Open Bhnjarsh and Bazbhnjarsh - Unknown Bhnjaryha Treaty of massive fields - spontaneous symmetry breaking and the Higgs mechanism.
Source Course
1- Quantum field theory
2- Quantum field theory
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By: revised ed, f.mandl and G.Shaw, wiley, N.Y,1984
By: R.H. ryder, Cambridge U.P,1985
83
Quantum field theory 2
Quantum scalar and electromagnetic fields - Vector Dirac mass and non-zero vacuum expectation values and
thermal issues - interacting quantum field - the matrix S and the effective cross section approach - interaction Dirac
formalism (or formalism LSZ) - Feynman diagrams and examples of interaction of quantum fields - Green functions
- Examples of interactions of quantum fields - he normal - quantum electrodynamics (QED) - Compton effect mating destruction - correction of radiation - infrared problem - using quantum path integral method - constrained
systems Non- abelian gauge fields - the model of Weinberg / Salam - color quantum fields - Open Bhnjarsh and
Bazbhnjarsh - Unknown Bhnjaryha - Treaty of massive fields - spontaneous symmetry breaking and the Higgs
mechanism.
Source Course
1- Quantum field theory
2- Quantum field theory
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By: revised ed, f.mandl and G.Shaw, wiley, N.Y,1984
By: R.H. ryder, Cambridge U.P,1985
84
Physics - Philosophy 1
(A) General information:
Role models and approximations - Principles - stakes tests - the relationship between mathematics and physics - the physics
of the contract - Measurement - Particles and Fields in Classical Physics
(B) philosophical aspects of quantum theory and quantum field theory:
Supplements - Not sure - Measurement - incompleteness - Final variables - except attitude - Quantum Logic - the different
interpretations of quantum mechanics - quantum field theory Philosophical Foundations and Essentials
(C) The Philosophy of Time and Space:
Theory of space and time - to measure the time - the philosophical theory of relativity.
Source Course
123456-
Philosophy of physics
By: M.bunge
Space, time and causality
By: J.R Lucas
Space, time and Space – tim
By: L.sklar
The physics of time asymmetry
By:P.C.W Davies
Conceptual foundations of quantum mechanics
By: de espagnat
Quantum physics : illusion or reality
By: rae
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85
Nuclear Physics 2
(A) philosophical aspects of quantum mechanics:
Formalism - Scenarios - Visibility - density matrices and operators Illustrated - theories that contain variables final Neumann theorems and techniques Kvshn / Aspkr - realist interpretations of quantum mechanics - a paradox EPR Theorems Bell / Vygyz - Non-High status members - Measurement theory - Interpretation Kpthagy - Logic quantum
paradoxes of quantum mechanics - quantum field theory problems - problems and methods in elementary particle physics
(B) Statistical Mechanics and reversible time:
Theory Ergodic - set theory - the case of H - reversible paradoxes - Relationship Varvnd (Retro / causation) and the paradox
of Takhyvn.
Source Course
7- Philosophy of physics
By: M.bunge
8- Space, time and causality
By: J.R Lucas
9- Space, time and Space – tim
By: L.sklar
10- The physics of time asymmetry
By:P.C.W Davies
11- Conceptual foundations of quantum mechanics
By: de espagnat
12- Quantum physics : illusion or reality
By: rae
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86
Classical Mechanics 1
Overview of the basic principles - principles of variation and Lagrangian equations - of both physical force - kinematic rigid
body - rigid body equations of motion - small fluctuations - the Hamiltonian equations of motion - turning Kayvnyk classical perturbation theory.
Source Course
Classical mechanics (second ed)
By: H.Goldstein
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88
Electrodynamics 2
Waveguides and resonant cavities collisions between charged particles - energy loss and scattering - Radiation by moving
charges - Radiation Brakes - Virtual Kvantahay methods - the processes of beta radiation - a multipolar fields - Attenuation
damping - Own a piece battles - scattering and absorption of radiation by a system tying.
Source Course
1- Classical Electrodynamics
By: J.D.Jackson
2- Classical Electrodynamics radiation
By: J.B.Marion
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89
Relativistic Quantum Mechanics
Relativistic wave equation for a particle with zero spin - wave equation for a particle with spin 1/2 - Properties of Dirac
Aspytvrhay - Dirac particle in an external field - Hole Theory - Will wave equation (weyl) - The wave equation for particles
with arbitrary spin - Lvrntysy reliability and relativistic symmetry principles.
Source Course
1234-
Relativistic quantum mechanics
Advanced quantum mechanics
Relativistic quantum mechanics
Relativistic quantum mechanics
By: J.J.aitchison
By: J.J.Sakurai
By: J.D.Bjorken and S.D.DRELL
By:W.Greiner (springer-verlag 1988)
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90
Advanced Statistical Mechanics 2
Fluctuations of equilibrium critical phenomena - classical fluid - fluid Quantum - transfer and hydrodynamic theory and the
human relations (Onsager) - Theorem fluctuations - waste - into phase disequilibrium.
Source Course
12345-
Statistical mechanics
Statistical physics
Statistical mechanics
Statistical mechanics
Statistical physics
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By: pathria
By: huang
By:E.Rrif
By:shang keng ma
By:landau and lifshitz
91
Computational Physics 2
A) Advanced Numerical Methods
1 issue of boundary conditions and the eigenvalues and Special Systems
2 Partial Differential Equations
(3) estimate
4 Special Functions
5 Fourier spectral methods.
6 Optimization
B) Advanced Simulation
1 Monte Carlo - critical phenomena
2 Molecular dynamics - Study liquid phase transition
3 Chaos in dynamical systems
4 network models
C) The third lesson is a joint project with the computer.
12345-
Computer simulation using particles
By: R.W.Hockney and J.W.Eastwood,1988 , I.O.P
Computer simulation Of liquids
By: M.P.Allen and D.J.Tildesley , 1987 , O,U,P
Theoretical physics on the PC
By: 1987, springer – verlag
Computer simulation method in Theoretical physics
By: D.W.Heeman, 1990 , springer – verlag
Computer physics
By: S.Koonin and D.C.Meredith, 1990 addison - wesley
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92