Survey
* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
UNIVERSITY OF CALICUT fU. Sc. PHYSICS Scheme and Syllabus (19t1 Admisrions) irintcd ar rhc cALlcur uNtvEistry pRESs ,/ a \ M. Sc. PHYSICS (1981 ADMISSIONS) UNIVERSITY OF CALICUT ABSTRACT i University of Calicut of revised scheme and syllabi - Introduction for M.Sc. courses, consequent on the disconlinuance of semester system for the University departments, etfective from 1981 admission onwards-Orders issued General and Academic Branch Dated. Calicut University P.O. 21-7-81 Read: 1 rtem No. 20 of the minutes of the Academic Council held on 29-1 2-1 980 2 Minutes of the Faculty of Science held on 3-4-1981 3 Minutes of the Academic Council held on 27-6-1981. 4 U.O. No. GA B478803/80 dated 6-7-1981. No. GA-B3/31/81 ( RDEB As per U.O. referred (4) above, sanction was accorded for the discontinuance of semesrer system in the University departments from 1981 admission onwards, for M.A /M.Sc.iM.Com. courses and for the new unified scheme and syliabi being introduced in the University departments and affiliated colleges. 2 The Academic Council at its meeting held on 27-6-81 had approved the new scheme and syllabi, for science subjects at P.G. level, subject to the recommendations df the Faculty of Science. 3 Sanction is therefore accorded for tha introdrrction of unified scheme and syllabi for M. Sc courses, in the University departments and affiliated colleges, effective from 1981 admissions. 4 The details of the new scheme and syllabi of M. Sc. Mathematics Physlcs, Chemistry, Zoology and Botany are appended to this order. sd/Registrar M. Sc. PHYSICS (1981 admissions) of Scheme I Exam. Year Paper I Paper ll Paper lll Poper lV Practical il: Mathematical Methods Mechanics, Thermodynamics and 100 marks Statistical Physics Classical Electrodynamics Basic Electronics : Basic Electronics (E) Basic Electronics (S-N) 100 marks 100 marks 100 marks General Physics/Project I (Students may be offered either of the alternates 80 marks (including 20 for records) -do- according to facilities) Viva Voce l: ll Total 40 marks 600 nrarks Year Paper Paper V Vl Paper Vll Paper vlll Paper lX Ouantum Mechanics Aton:ic and Molecular Physics Solid State Physics Nuclear Physics Optional Subjects: One of the following: 120 120 120 120 120 marks marks marks marks marks A) Electronlcs Bt Solid State Physics C) Nuclear Practical lll IV Physics Higher Electronics Project ll (Students may be offered either of the alternates according to facilities) Modern Physics Viva Voce ll Total Grand -r'otal 120 marks (including 20 for records) -do 60 marl<s 900 marks 1500 marks Practical Examination 1 Practical Examinations shall be of six hours duration. 2 Students shall do error analysis except for electronics oracticals. Students will not be reqrrirerJ to maintain or present "fair" reiord books. But, they shall have to mainiain a record work rarhich shall have entered in ii all work re:ords of daily lab work ro be signed by the supervising teacher. The notings in the book shall rncJude observatlons, calculations, results and error analysis. ihe book shall he presented for evaluation by the examiners. The above guidelines shall be applicable to project work also. ln regard to elilctronics practicals lt was specially observed that students will be expected to become farniliar with the usage of multimeters. prlse generatots and oscilloscopes. SY Paper I LI-/iBUS Mathematical f,/iethods Text Books : 1) G. Arfken __Mathematical Methods Academic press. 2 3 for physicists M.rtrices (Arfr<en chapter 4 secs 1_ 6) Determinanls, matrices, orthogenai'rnatrices, oblique co_ordi_ nates, hermirian and unirary matrices and aiiton-atrsJtLn or matrices, Functions of a complex variable (Arfken chapter 6, Chapter 7 secs 1 -3). (b) Legen Gener ts rs mura. ". (c) polynomials spheri Hermite and Laugere 1 and 3) secs' 1-6) 'rliroJffi" lT; (Arfken chapter 13 secs 4 (Arfken chapters Fourier series, (Fourier and Laplace transforms 7 14 A 1s). General ilroPerties, uses of integral transforms, Fourier of d6rivaties, convolution Laplace transform, LaPlace trant theorem and inverse Laplace transtorm' 8 :13)a"'i"ion' derini- discrete distribution, moments, binomial, ns. Mechanics. Thermodynamics and Statistical Physics Mechanics' AddisonTeit Books : t 1 H. Goldsrein, Classical New Delhi)' Company' *"stev itnaian Book Wiley' John Physics' Statistical trla'nat, f. 2) Paper A. 1 ll Mechanics Lagrange's equations Possibles 1.3 & 6t. of a Particle and a s D'Alembert's PrinciPle and 2 Sec. Nlechanics 2 deoendent Potentials and dissiP caiion, derivation of Lagrange's ciple, and Conservation laws' 3)' Two-body central force problem (Goldstein Chapterequ.ations of problem... on"-body lqriri"nt th; to Reduction varial the orbits' of classrfication motion and firsi ini"gi"ft, problem' scattering from it"o*rn, "qrrtion'ioi-otUit' tft" Kepler scatterins problem to the of ;';;;i;;i io-r"e tiela, trlnsformation laboratorY co-ordi nates' g ti""matics of rigid body-motion (Goldstein chapter 4 Secs. - ih" 1-4.6-9, A ChaPter 5 secs' 1 Co-ordinates of a rigid rian angles' Euler's change of a vector, t kinetic energy of mo 4 bodY, axis transforlnation, the Euler equations and forc Hamilton's equations of mo (Goldstein chapter r, and c ) 5 - brackets, equation of motion, angular momentum and Poisson bracket relations, Liouville's theorem' Spbcial theory of relativity (Goldstein chapter 6.Secs. 1-4)The basic program of special relativity. the Lorenlz transfor- mation, covariant four-dimensional formulations, force and energy equation. B. 1 2 T'hermodynarnics Second law of thermodynamics lMandl chapter 2 Secs. 1-3 5 & Chapter +). The direction of natural processes, the statistical weight of a ibrium of a macrostate, equilibrium of an iso e applicaClauslu the bath, in a heat system potentials, tions, Helmohltz free energy and o law o third and relations Maxwell Simple thermodydamic systems (Mandl, Chapter 5) Heai engines and refrigerators, differences of heat c-a-pacities, entropy of mixing. Joule effect, Joule-Thomson effect and adiabatic cooling. C. Statistical Physics '! Clas artition fun;tion, equation The trlbution, real gases, clasof st tition of energy. sical 2 Ouantum statistics lMandl chapter 6. 9 A 10) Bose-Einstein and' Fermi-Dirac. statistics partition functions, photons and Pl'rrck's distribution law, proper' consid y radiation and its thermodynamics, hea-t capa' ties of e electron model of metals and Bose-Einstein city of condensation. 3- Systems with variable Grand partition fu fhe (Mandl chapter 1-2) rand canonical distribu- gases, fluctuations and tion, the peifect classr multi component sYstems. Paper lll : Classical Electrodynami.cs Teit Books: 1 R. Pionsey and R. E. Collins: Principles' and Applications of Electromagnetic Fields, McGraw Hill. 2 J.D. Jackson: Classical Electrodynamics, John Wiley (2nd edition) 1 Electrostatics (Plonsey chapter 2 secs 4-8 & 1O-11 chapter 3 ield a ages, dlpol boundary conditions. , Laplace's&Poissonsequations, a sphere and cylinder, field due ility and electric flux density anci o Stationary curre_nt (Plonsey chapter 5 secs 3 6) conservation of charge, relation time, resistance of arbitrary g.haped conductors, boundary c rnditions and refraetion of current flow lines. Static Magnetic f ield in vacuum iplonsey chapter 6 secs 1-7) Ampere's law of force, vector octential, field from an infinite vuire and conducting ribbon carrying current, field from a circular loop and use of vector.potential, thL magnetic dipole, ,rgn"ti" flux, Ampere's circuirar raw and magnetid fierd in'a iin". "oairJ Magnetic field in material (plonsey chapter 7 secs 1_7) .bodies. Equivalent volume and surface polaiization'currents. field intensity t-|, boundary conditions l,or B g H, scalar potential for Hand magnetic circuit. Ouasi stationary Magnetic field lplonsey chapter g secs 1_4 A 6) lnductance and Neumann formulas, inductance of a coaxial line, self inductance of a circular loop and entlrgy of a syiGm ot current loops ndenr f ields (F'lonsey chapter 9 secs Z__g) Maxwell,s source froe wave equations, po. /er flow and energy, time -- varying fields, Helmholtz equation, corpie* poyntrng vector and scalar and vector potentials. Plane waves, wave guides and resonators (plonsey chapter 10 secs. 1..3 & 6-8 I chapter I 1 secs 1-2) classification of wave solutiorrs waves - plane - reflection from a dielectric interface, perpendicular and parallel ;"L;=;_ tion, reflecrion from a conducting plane, rectangular andciriutir wave guides, electromagnetic cavities, radiaiion from lineir current element, half wave e;tenna, radiation resistance and power of radiation. lnteration of charges particles with fields (plonsey chapter 12 secs 1-4 & 10) Motion of charged particles in static uniform electric field, in static uniform, magnetic field, combined uniform, static and magnetic Jields, electromagnetic ,,vave propagation"t"-ctri" in the ionosphere.s. Faraday rotatio.n ahO e. m. wave pro[agation in a ferrite medium. Magnetic hy and plasma physics (Jackson chapter 10 secs 2-3, Magnetohyd . quations, magnetic diffusion, viscosity and pressure,.magnetohydrodynamtc waves, high frequency plasma oscillations, short'wave length limit and distance' 10 Deiye;[;;i;g ackson chapter 1 1 secs g-1 1 a ials and fields, electromagnetic tensor and conservation lews, 7 radiation from movirrg charges, Leinard-\rveichert potentials, Larmour formula, angular distiibution of radiation ,na if,orson scattering. Paper lV: Basic Electronics 4 J. Miilman and C. C. Halkias Disintegrated nics, McGraw Hill lntegrated Electronics, 1 Servomechanism First and second 2 Circuit theory (C 3 Electro- 16 secs. i -3) and operatiohal principles. pp 81 92 g Chapter 1O. pp 353-.77) Net work theorems, Thevenin, Norton and maximum po,wer transfer theorems, band pass, low pass and high pass filteis. Vacuum tube and semiconduc;tor <Jevices (Ryder-l Chapter 1 secs.6-7, I A 11-17 A Chapter z secs. 3-b, g-13 & 15_i6) space-charge effects in vacuunr diodes. characteristics of diodesr triod pe nic energy levels in semicond p se p-n junciion, Volt-ampere relati ce o types of diodes and junc- tion 4 der-l Chapter 't3 s!cs. j-6, 8-13 A 29-30 tz) 5 6 A full-wave rectifiers. filters, capacitor, inductor, stabilization by VR tubes and Zener diodes. Lorn,-frequency amplifiers (Ryder-l Chapter 3 secs. 1-g- & 12-26, Millman Chapter 5 secs. O 8 e Millman Chapter g secs. 1-4,6 A 8-9) ldeal amplifier, current and voltage equivalant circuits of vacuum tubes a,rd tronsistors, CE, CR, CC amplifiers, coupting of cascade anrolifiers, methods of biasinq and rlesign consideraiions. Feedback Amplifiers Fr Oscillators (Ryder-ll chapter S secs. i 5 I chapter 12) amolifiers, effects on distortion. input and output . stability with feedback, feedbacl< requirements'for basic oscillator circuits, crystal oscillators, ancl osc illator. E 8 Operation Basic ope amplifidr, characteri (Millman Ch ifier, differen oltages and lC operational ional amplifier ezero ns. c and lea synchronisation, tri39ering of f lip-flops, Schmitt trigger, bistable counters, decimal ccunting and decade-c,lunter tube. conversion. Paper V: Auantum Mechanics Text Books: 1 P. M. Mathews 8- K. Venkitesan, A Text Book of Ouantum Mechanics, Tata Mc-Graw-Hill 2 L l. Schiff, Ouantum Mechanics Mc-Graw-Hill (3rd edition) 1 The Schrodinger Equation (Mathews Chapter 2 Schiff, Chapters 2€J3) Heuri6tic derivation tt tion of V, proba the equalio-n of function nornrali of the Schrociinger equation and time- dependent and 3 curlent densitY, Y, boland deltaon Y, Expectation I Dirac delta function. Problems in one Dimension (Mathews Chapter 2 Secs 10-13, Chapter 2 sec. 9 I Schiff Chapter 4 sec. 13) One dimensional square well potenlial with (a) perfectly rigid wall, (b) finite potential step, square potential barrier, quantum mecha'nical tunnelling, reflection and transmission coefficients, the linear harmonic oscillator, energy eigenvalues and eigen functions and correspondence with classical ttteory. Problems in three Dimensions (Mathews Chapter 4 secs. 12-17 values, the Ehrenfest'e theorem 2 hysical inter preta- tY wavefunctions and degeneracY' 9 4 General Formatism (Mathews chapter 3 secs. Schiff chapter 3 seci. 10*12). 5 Theory ol Angul-ar-M_omentum (Mathews chapter 4 secs. 6_9, Chapter 8 secs. 1-3, S-7I 1O- t)). Definition of angular momentum,'the basic commutation relaeigen values and eigen vectors, matrix r"pr"."ni.iion, the Ions, Pauli spin matrices, orbitir angurar momentum, the sphericar 6 7 14, & harmonics. Addition of two rn-gular momenta and the ilebschGordon coefficients Scattering theory (Mathews Chaoter Chapter 5 sec. 1B-19). Scattering cross-section, the scattering ation for scattering, Green's functions,-B mations, scattering by a central square of partial waves, expansion of a plane wave in terms of soherical waves, phase shifts, scattering bmplitude and cross seltion in terms of phase shifts, optical iheorem, dependence of the phase shift on the -potential, angular mementum and energy, tow_ energy scattpTing, scattering length and effective rang5, iesonance scattering and scattering by-a hald sphere. Approximation methods (Mathews Chapter 5 secs. 1_7,1-12, secs. S-7,9, n e 14 A Schiff'Cnrpt"ie .".".'bl, gZ, 9lrptqt9 34 A 35). (a) WKB Approximation: The WKB wavefunction, criterion for validity, solution near a line etic connection formulae, the Bohrondition, transmisjion coefficient d tunnelling (b) (c) Paper Text 2_5,7 _ Variat Upper bound on ground state energy, application to excited states and ground state of helium atom, Stationary Perturbation Theory: Vl Atomic tnd Molecular Spectroscopy Books: I 2 3 Straughan and Walker (Eds). Spectroscopy Vol. paperbacks l, Chalman g Hall _ Science Straughan and Walker (eds) Spectroscopy Vol. ll. Langyel, lntroduction td La'ser physics, .t6trn Witey. IU atomic spectrs, NMR sp 1-2I 4-6) erimental technique' resonance methods' er secs G"ner.i Fourier chemica NOR Spectroscopy (Straughan t/ol' I chaptel 3) . prin"ioi"r quadiupole resonance, Experimental detec-l*f of nuitdai in Chemistry and Solid'State applications ana O,r iii'"'-,ii chemistry. lR speciroscopy (Straughan Vol' ll, chapter 4 secs 1-6 and t 2) theory of R absorption -- rotation, spectra, ixoerimerrtal aspects,'molecules, for lR spectroscopv and for lR ;?i;;;.;;;iiiomic chapter 5, secs 1 I iRtelferometers. Lasers (Lengyel secs. seattelinq. 1.4,2.1.2'2,2'3,3'1,3'2' 3'5' 5'1 e ii Vll Solid State Pltysics Text Book: C. Kittel, lntroduction to ;Solid State Physics, Wiley Eastern (sth edition). 1 Crysta! Structure ancl Binding (Kittel chapter 1 pp 4-2E, Chapter 2 pp 40-63 I Chapter 3 pp 76 97) Peribdic arays of atonts, fundarncntal types of lattices, index system for crystal planes, .si,nple crrrstal structures, experimental diffraction methods, derivation of 'scattered wave amplitude Brillouin Zones, fourier analysis bf the basis, crystais of intert gases, ionic crystals, covalent crystals, metal crystals and hydroPaper gen -bonded crystals. 2 Phonons and thermal propertiei (i(ittel Chapter 4 pp 107421 A pp 't27-150). Vibrations of monatomic lattices, lattice with two atoms per primitive cell, quantization of lattice vibrations, phonon momentum. inelastic scattering ct neutrons by phonons, lattice heat capacity, anhormonic crystal inieractions, thermal expansion and thermal conductivity. 3 Electrons in Solids I (Kittel chapter 6 pp 160-178, chapter 7 pp 186-190 I chapter 8 pp 193-203) Free electron gas in three dimensions, heat capacity of the electron gas, electrical conductivity and ohms law, motion in magnetic fields and Hall effect, thermal conductivity of metals, nearly free electron model, Bloch functions, Kronik-Penny model, wave equation of electron in a periodic potential and number of orbitals in a band. 4 Electrons in solids ll: (Kittelchapter 8 pp 207-247 I Chapter 9, pp 251-259) Semiconductor crystals, band gap, equations of motion of electrons and holes, intrinsic carrier concentration, impurity conductivity, therrnoelectric e{fects in serni-conductors, p-n junctions, rectifictions, Schottlcy barrier, Gunn eff ect oscillators, fermi surfaces of metals, reduced and periodic zone schemes, construction of Fermi surfaces, electron orbits, hole orbits and open orbrts. 5 Superconductivity (Kittel Chapter 12, pp 357-374) Destruction of superconductivity by nragnetic fields, Meissner effect, heat capacity, energy gap, microwave and infrared properties, icctope effect, thermodynamics of the super conducting transition and London equatron. 6 Magnetic properties of solids (Kittle Chapter 14pp.438-452, Chapter 15, pp 459 493) Ouantum Theory of paramagnnetism- cooling by adiabatic demagnetizati n of a paramagnetic salt, nuclear demagnetiza' tion, paramagnetic susceptibility of conduction electrons,'ferromagnetic order, magqons, neutron magnetic scattering and ferromagnetic domei i ns. i: 7 8 Dielectrics and Ferroelectrics (Kittel Chapter 13 pp 401-4231. Macroscopic electric field, Lorentz local f ield. dielectric constant and polarizability, ferroelectric crystals, polorization catestrophe, Landau theory of the phase transition, soft optical phonons antiferroelectricity and ferroelectric domains. Structural defects and alloys (Kittel Chapter and Chapter 18, pp 565-587) 17 pp.538-561 Lattice vacancies, diffusion, colour centers, alloys, rnagnetic alloys and the Kondo effect, order-disorder transformation, elementary theory of order, shear strength of single crystals, dislocations, strength of allcys, dislocaiions and crystal growth. Paper Text Vlll Nuclear Physics 1 H. Enge, lntroduction Wesley. Books: 2 3 4 to Nuclear Physics, Addison J. Ouseph, lntroduction to Nuclear Radiation Detectors, Plenum Press. E. Kowalski, Nuclear Electronics, Springer-Verlag R. L. Chase, Nuclear Pulse Spectronterty, McGrawHitl. P. 1 lntroductory facts about nuclei (Enge chapter 1 ft Chapter 1 & Chapter 3 sec 6) Nuclear constituents, mass, radius, angular momentum, parity, magnetic dipole and electric quadrupole moments, nuctear mass formula and nuclear stability. 2 Nucleon-Nucleon interaction and nuclear two-body problem t chapter 6 sec 7) Deuter eon, spin dependance, and is6spin linguage, ergy ata, effective (Enge chapters 2 & 3 ranges ths, force. ry of nuclear 3 ;fltJI I 4 N.uclear 9.""uy (Enge chapter chapter 1 1) Experimental decay law, half-life tions. 7 secs. 1-4, chapter 9 & and mean life, units of radio- ial decays, qualitative aspects of multipole r gamma decay, internal conversion, energy r a qeta decay, Fermi-Kurie Plot, parity helicity. vioti- l3 5 6 7 8 9 Elementary aspects of nuclear reactions (Enge chapter 13 secs. 1-2 t 4-8). Reaction Rinematics, O values and thresholds, neutron spectroscopy, general features of nuclear reaction theories, compound nuclear formation and breakup and resonance scattering and reaction. Frssion and other sources and nuclear energy (Enge Chapter 14) The fission process, neutrons released in fission process, cross sections, fission reactor operating with natural uranium as fuel, fusion and prospects of controlled fusion energy: Particle physics phenomenology (Enge, chapter 15) Classification of particles into baryons, mesons and leptons stlangeness quantum number, hyper charge and qualitative aspects of SU (3) classification and general features of strong, weak and electromagnetic interactions. Nuclear detectors (Ouseph chapter 3 sec 1, sec.6, chapter4 secs 1-6 I 11, chapter 5 secs 1-5 & Enge chapter 7 sec.9) General features of gas counters, proportional counter, BF3 counter, general features of scintillation counters, Nal (Tl) and other organic scintillators, photomultiplier tube, pulse shape, height and energy and energy resolution and solid state detectors. Nuclear electronics (general features) (Kowalski chapter 3 pp 75-84, Chasechapter3secs 1t2and chase chaptersec 1). The linear amplifier, pulse discriminator and single channel analyser and coincidence circuits. Paper lX. A Special papet: Elsctronics Text Book: 1 Millman, JM A Halkias CC, lntegrated Electronics, Mc Graw Hill 2 Ryder, J. D. Electronic Fundamentals and Applications. 1 Transistor biasing and thermal stabil;zation ( ,{illman Chapter 9) Operating point-bias stability, Self-bias, stabilization against variations in lse, Vsg , and p, bias compensation, thermister and sensitor compensation, and thermal stability. 2 Transistor amplifiers at high frequencies (Millman Chapter 11 I Chapter 12). Hybrid T-model, variation of hybrid (h) Parameters, single stage I transistor amplifier response, emitter follower at high frequencies, frequency response and step response of an amplifier, R-C coupled amplier, high frequency response of multistage cascaded CE transistor stages, distortion in amplifiers and noise. 3 Feedback amplifiers and oscillators (Millman Chapter 13 I Chapter 14). Voltage and current feedback circuits, frequency characteristics, sinusoidal oscillators, resonant circuit oscillators and Wain bridge oscillaior. t4 P,ower circuit systems (Millman Chafier 18). Class A large signal amplifrers, second harmonic distortion, highel order harmonic generation, transformer-coupled audio power amplif ier, Push pull amplifiers, regulated power supplies, series voltage regulator and monolithic regulators. lntegrated circuits as analog system building blocks (Millman Chapter 16;. Differential dc amplifier, stable ac coupled ampl rrier, analog integration and differentiation, electronic analog c(Jmputation, active f ilters, delay equalizer, lC tuned amplifier, video amplifier, comparators, precision ac/dc converters, logrithmic amplifiers and wave form generation. 6 lntegrated circuits as digital system building block. (Millmn Chapter 17). Binary adders, arithmatic functions, decader/demultiplexer, data selector/multiplexer ROM, flip-flops, shift registers, ripple and synchronous counters, dynamic M OS circuits, MOS chief registers, RAM, digital-to analog converters, analog-to-digital, con\/erter and character gener€tors. 7 Micro wave Devices and the Laser (Ryder Chapter 23) Velocity modulation of an electron beam, klystron, Magnetron and travelling wave tube. and Gunn oscillator. 8 A. M. and F. M. modulation (Ryder Chapter 16) Fundamentals of modulation, frequency and power spectra in amplitude modulation, amplitude modulation principles, modulated class C amplifier, modulation efficiency, balanced modulator, SSB system, frequency spectrum in frequency modulation, F. M. generation by reactance tube and compdrison of A. M. and F. M. 9 AM AND FM dernodulation : (Ryder, Chapter ,l37). Linear and square law detection, automatic gain control, amplitude limiter, frequency descriminator, frequency conversion, A. M. and F. M. receiving systems and superhet receiver (Btock diagram only). Paper lX B Special Paper : Solid State Physics Text Book: 1 A. O. E. Animalu, lntermediate Ouantum Theory of Crystalline Solids, Prentice Hall of lndia. 2 Kittel, lntroduction to Solid State physics, Wiley Eastern (sth edition). 4 1 Lattice Vibrations and Thermal properties (Animalu Chapter 4) Lattice specific heat, theoretical estimates of Einstein and Debye temperatures, wave mechanics of phonons, creation and ennihilation operators, elastic waves and lattice vibrations in one-dimensional crystals, long-range forces arrd the rcciprocal lattice vibrations of a diatomic linear chains, dispersion ,rslation a l) three-dimensic nal crystals, Born-von Karman boundary tonOitions and density of states, experimental observation of ptonCn frequencies and thermal conductivity of insulators. for 3 Electronic Properties of Sclids (Animaly cha-pter 6' secs 1 -5) Electronic heat capacity, the phbnomenon. of electronic conduction. the Boltzmann equation, the DC conductivity and tern;oerature dependence of electr"ical resistivity' ence oscillations' 5 Optical properties of solids (Kittel chapter 10 pp 287-315 A chapter 11 pp 323 343). Ol.ie"tri" function of the electron gas, plasomons, eiectrostatic polaritons and the LST relation' electron-electron Fermi liquid, electron-phonon interaction and and i,it"ractiSn ;";;;i;g. polarons, optical reflectance and excitons 6semiconductorPhysicsanclsemiconductordevices(Animalu I6 9 Elementary excitations of the erectron gas in a sorid (Animatu chapter 1 2) Landau theory of Fermi riquids. second quantization and the equa ion of motion method. quasr_particles and ,pi; ;;*.. Paper lX C: Special Texts: e B.p. Nigam, Nuctear physics, John-Wiley. .1 iP. I loy -iirit"us, 2 A. preston and R. K. Bhaduri, Siructure-'oi Addison-weslev. 3 J' R' Lamarah, rntroduction to Nucrear Reactor Theory, Paper - Nuclear physics Addison-ltr/esley. 1 Nuclear Shelt Model (Roy chapter 7 secs 1_13) Basic ideas of singre parricre moder, totat spihs J for (l)3 configurarions, L-S and j-j coupting interactions anC configuration mixing. J"tirr"r, (i)z and diiecfive M,athemailcal Appondix (preston, Appendix A_1 e A.2) Theory of angurar momentum coupiing, nuu.n coefie-c,ts, LS-jj transformation coeffts, sphericar' tenlors ana- wig-n;lE"k.rt theorem. 2 3 4 5 Coilective modes (preston chaoter 9) collective modes of motion,'evidence for collective motion, rotational moder for even-e en nucrei, *"* fl;;iions anu enerqies; cellective moders for odd-mass nucrei,itiong-ina weat coupling and the Nilson mode' Marhe.matical Appendix (preston Appendix A_2) Rotation matrices Correlations in Nuclei (presto I sec. 8) Exclusion principle. shcrt-ra Bethe. Goldstone theory, res lations and the BCS theory. Hartee- Fock approximation, parameters (cranking formula). Electromagnetic properties of. nuc.lei (Roy chapter g) The mr-rltipore expansion of tha erectiomagneiic ra<iiation fierd o electric and magnetic multiooles, ities (Weiskopf and Moskowski estiand electric quadrupole moments of M 1 transition probablities, angular distribution-in gamnr.a decay, gamma-gamma angurar corieiition and internal conversion. Bete de.cay (Rov chapter 13) lnteraction.operators, transiiion probability, nuclear matrix elements for allo,n'ed decays, lepton factor tiaces ror unpolarised electrons and neutrinos, porarization of etectrons-ana n-"iiiinor, decay from porarized nuciei, repton consevation ino cv'ci'tiorv. ,tl 6 7 Nuclear Reactions (Roy chapter 6 secs 1-2 & 4-T secs 1-4) Reactor Physics 1 (Lamarsh chapter 4, chaptr e chapter 10, S & chapter 6) measurement of age. 8 Reactor Physics ll (Lamersh chapter 9) bare thermal reactors, criticality f of an lnfireactor. one region finite thermal reactor, n for different geometrics and optimum reac- Practical I : Basic Electronics (E) (for student.group -the. Optional Subject; to be offered Electronics under paper lXi At least 15 experiments are to be done 1 Characteristics of a triode 2 pentode (Solid State) -do3 Rectification circuits (Solid State) (Half wave, 4 5 6 7 8 9 10 11 12 13 14 15 16 17 full wave and brrdge circuits) VR tube characteristic and DC supply regulation Static characteristics of a diode and a Zener diode Characteristics of a transistor: Determination of parameters Ripple filtering of a bridge type power pack (T and a) Voltage regulation by a Zener Voltase multiplier circuit Clipping and clamping by diode Cathode and emitter follower circuits Biasing technique for transistor amplifier Phase-inverted push-pull amplifier Negative feed-back amplifer Haftley Oscillator JFET Characteristics Familiarisation of Operational Amplifier a; Buffer b) lnverting c) modes or operation Non inverting snd d) Differential il$ .18, VTvM-eonstruction. Practical l: Basic Electronics (S-fU1 (for the student group to be offered solid state Physics or. Nuclear Physics under Paper lX: Optional Subject) At-lea* 15-experiments 8Ie to be done I Characteristics of a triode 2 Rectification circuits (Half wave, full wave and bridge) 3 Static characteristics of a diode and Zener diode 4 ' Characteristics of a transistor-h parameters 5 Ripple filtering of a bride type rectifier circuit (T and z) 6 Voltage regulation by a Zener 7 Voltage multiplier circuit I Clipping and Clamping by diode 9 : Cathode and Emittet follower circuits 10 Negative feed back amplifier 11 Two stage RC coupled amplifier 12 Hartley oscillator 13 JFET characteristics 14 Familiarisation of Opprational Amplifier a) Bufier b) lnverting c) Non inverting d) Differential mode of operation. 15 Multivibrators (Monostable and Bistable) 16 Two-stage D.C. amplifier 17 Time Base circuit (Miller lntegrator) 18 Crystal Oscillator 19 Differential Amplif ier 20 Pulse circuits with Operational Amplifier a) Square wave b) Monostable and c) Triangular wave 21 Simple logic gates a) Diode gate b) DTL gate 22 Digital lC Pulse circuits a) Astable b) Monostable c) SchmittTrigger 23 Pulse discriminator circuit 24 Binary Scalar 25 Mixer circuit Practical lr: General Physics at least 15 experiments are to be done 1 Y and o by Koenig's method 2 q and o by elliptical fringes 3 Viscosity by Scarle's viscometer 4 Viscosity by oscillating disc 5 Mode constants of a vibrating strip 6 Ultrasonic diffraction of light 7 Constants of a thermocouple and'inversion tcmperature 8 Therrnal conductivity of a liquid and air by Loe's Di$omqthod 9 Stcfan'e constant le 10 Dlelectric constent by Lecher.wirm,(with REorcillrtot-to"bc constructed) 11 Measurement of self and mutual inductances*Anderson's AC bridge 12 Single phase transformer:, illeaeurement of L, R, Z of -the primary, determination of the efficiency, open and short circuit regulation and load testing 13 Microwaves: Standing wave .ratios,r guidE: 66{' f1e9:r space wavelengths 14. Study of magmetic hysterisis by BH curve 15 Susceptability by Ouincke's.and Gouy's mathods 16 Constructlon and standardisation of a search coil 17 Fraunhaufer lines and Cauchy's constants 18 Michelson's interferometer 19 Fabry-Perot interferometer 20 Studies of Polarisation of light i) Faraday effect ii) Depolarisation by Rayleigh scattering Practical lll Highcr Electronics (for the student group to be offered Electre nics under Prper lX: Optional Subjects). Atleast 15 experiments aie to be done 1 D. tion : (Series and parallel) 2 R. stage amplifier (Load line.,,ana{sis and tre 3Sc 4 Colpit Oscillator 5 Multivibrators (Monostable and Bistable) 6 Two-stage D. C. amplifier 7 Time Base Circuit (Miller lntegrator) 8 Mixer Circuit 9 Amplitude modulator and demodulator 10 Crystal Oscillator 11 Differential Amplifier 12 lF amplificr 13 UJT (Uniiunction , Transistor) characteristics and relaxation Oscillator. 11 Pulse circuits with Operational Amplifier Square wave b) Monostable and c) Triangular wave 1q a) 15 Voltage Regulation by Operational Amplifier 16 Simple logic gates a) Diode gate and b) DTL gate 17 Digital lC pulse circuits q) Astable b) Monostable c) Schmitt Trigger 18 Binary scaler 19 Solid State lntercom system 20 Tunnel diode Pulse Discriminator : : 2U lU Modern Physica Atleast 15 experiments are to bo done 1 Laue Pattern for X-rays 2 Thermionic work function using a diode 3 Planck's constent by photocell 4 Thomson's e/m experiment 5 Millikan's oil drop experiment 6 Zeeman effect 7 Raman effect 8 Compton effect I Spectroscopic arralysis by carbon arc 10 Absorption spectrum of KMnoa and 12 11 X-ray diffraction by Powder method 12 Solid State fluxmeter 13 Hall effect 14 GM counter plateau and statistics of counting 15 Thermal neutron absorption 16 Absorption coefficient for f rays 17 Scinti I lation detector 18 Back scattering coefficient for beta rays 19 Zener voltage characteristics at low and ampient temperatutes 20 Directional Distribution of Cosmic rays 21 Lecher wires 22 CRO-Lissajou's figures and BH curvo 23 Determinatlon of Band gap enercys Ge and Si using diodes 24 Rydbug's constant by lodine spectrum 25 Arc spectrum of rnetals Pndical -ooo- t