Department of Physics

Course no.

Course Title

Credit

PSC 1101

Algebra and Trigonometry

2

PSC 1102

Calculus I 

2

PSC 1103

Mechanics

3

PSC 1104

Properties of Matter I

3

PSC 1105

Computer Fundamentals

2

PSC 1106

Physical Chemistry I

3

PSC 1107

Inorganic Chemistry I

2

PSC 1108

বাংলা ও বাংলাদেশের ইতিহাস

2

PSC 1109

English Language

2

PSC 1110L

Experiments in General Physics

3

PSC 1111L

Experiments in General Chemistry

2

Semester Viva

1

Total-

27

Course no.

Course Title

Credit

PSC 1201

Set Theory and Matrix Algebra

2

PSC 1202

Calculus II (Integral Calculus)

2

PSC 1203

Properties of Matter II

2

PSC 1204

Electricity and Magnetism

3

PSC 1205

Inorganic Chemistry II

2

PSC 1206

Organic Chemistry I

3

PSC 1207

Statistics I

2

PSC 1208

Computer with Numerical Analysis

2

PSC 1209

English Language Advanced

2

PSC 1210

People Movement From 1900- 1971

2

PSC 1211L

Experiments in Electricity and Magnetism I

2

PSC 1212L

Qualitative Inorganic analysis

2

Semester Viva

1

Total-

27

Course no.

Course Title

Credit

PSC 2301

Analytical Geometry

2

PSC 2302

Linear Algebra 

2

PSC 2303

Optics

3

PSC 2304

Electronics

3

PSC 2305

Physical Chemistry II

3

PSC 2306

Organic Chemistry II

3

PSC 2307L

Experiment in Optics

2

PSC 2308L

Physical Chemistry Lab I

2

Semester Viva

1

Total-

21

Course no.

Course Title

Credit

PSC 2401

Differential Equation

2

PSC 2402

Heat and Thermodynamics

3

PSC 2403

Statistics II

3

PSC 2404

Nuclear Physics & Chemistry

2

PSC 2405

Biochemistry

3

PSC 2406

Chemical Spectroscopy I

3

PSC 2407L

Experiment in Heat & Thermodynamics

2

PSC 2408L

Inorganic preparation and volumetric analysis

2

Semester Viva

1

Total-

21

Course no.

Course Title

Credit

CHEM 3501

Electrochemistry

3

CHEM 3502

Chemistry of the Representative Elements  

3

CHEM 3503

Organic Chemistry III

3

CHEM 3504

Stereochemistry

2

CHEM 3505

Analytical Chemistry I

3

CHEM 3506L

Physical Chemistry Lab II

3

CHEM 3507L

Identification of Organic Compounds

2

Semester Viva

1

Total-

20

Course no.

Course Title

Credit

CHEM 3601

Chemical Kinetics

3

CHEM 3602

Transition metals and coordination chemistry  

3

CHEM 3603

Organic Reaction Mechanism I

3

CHEM 3604

Chemical Spectroscopy II: Application

3

CHEM 3605

Organic Process Industries

3

CHEM 3606L

Complexometric Titration and Gravimetric Analysis

3

CHEM 3607L

Organic Preparations

2

Semester Viva

1

Total-

21

Course no.

Course Title

Credit

CHEM 4701

Quantum Chemistry and Statistical Mechanics

3

CHEM 4702

Solid State Chemistry

2

CHEM 4703

Chemistry of Natural Products

3

CHEM 4704

Inorganic Process Industries

3

CHEM 4705

Analytical Chemistry II

3

CHEM 4706L

Spectroscopic Analysis

2

CHEM4707L

Chromatographic Techniques

2

Semester Viva

1

Total-

19

Course no.

Course Title

Credit

CHEM 4801

Surface Chemistry, Colloid Science & Phyase Equilibrium

2

CHEM 4802

Advanced concepts of atomic structure and chemical bonding

3

CHEM 4803

Organic reaction mechanism II

3

CHEM 4804

Polymer Chemistry

3

CHEM 4805

Environmental Chemistry

3

CHEM 4806

Project work/Internship

3

Semester Viva

1

Total-

18

Course no.

Course Title

Credit

PSC 1101

Algebra and Trigonometry

2

PSC 1102

Calculus I 

2

PSC 1103

Mechanics

3

PSC 1104

Properties of Matter I

3

PSC 1105

Computer Fundamentals

2

PSC 1106

Physical Chemistry I

3

PSC 1107

Inorganic Chemistry I

2

PSC 1108

বাংলা ও বাংলাদেশের ইতিহাস

2

PSC 1109

English Language

2

PSC 1110L

Experiments in General Physics

3

PSC 1111L

Experiments in General Chemistry

2

Semester Viva

1

Total-

27

Course no.

Course Title

Credit

PSC 1201

Set Theory and Matrix Algebra

2

PSC 1202

Calculus II (Integral Calculus)

2

PSC 1203

Properties of Matter II

2

PSC 1204

Electricity and Magnetism

3

PSC 1205

Inorganic Chemistry II

2

PSC 1206

Organic Chemistry I

3

PSC 1207

Statistics I

2

PSC 1208

Computer with Numerical Analysis

2

PSC 1209

English Language Advanced

2

PSC 1210

People Movement From 1900- 1971

2

PSC 1211L

Experiments in Electricity and Magnetism I

2

PSC 1212L

Qualitative Inorganic analysis

2

Semester Viva

1

Total-

27

Course no.

Course Title

Credit

PSC 2301

Analytical Geometry

2

PSC 2302

Linear Algebra 

2

PSC 2303

Optics

3

PSC 2304

Electronics

3

PSC 2305

Physical Chemistry II

3

PSC 2306

Organic Chemistry II

3

PSC 2307L

Experiment in Optics

2

PSC 2308L

Physical Chemistry Lab I

2

Semester Viva

1

Total-

21

Course no.

Course Title

Credit

PSC 2401

Differential Equation

2

PSC 2402

Heat and Thermodynamics

3

PSC 2403

Statistics II

3

PSC 2404

Nuclear Physics & Chemistry

2

PSC 2405

Biochemistry

3

PSC 2406

Chemical Spectroscopy I

3

PSC 2407L

Experiment in Heat & Thermodynamics

2

PSC 2408L

Inorganic preparation and volumetric analysis

2

Semester Viva

1

Total-

21

Course no.

Course Title

Credit

PHY 3501

Classical Mechanics and Relativity

4

PHY 3502

Classical Electrodynamics   

4

PHY 3503

Solid State Physics I

4

PHY 3504

Quantum Mechanics I

4

PHY 3505L

Experiments in Electricity and Magnetism II

3

Semester Viva

1

Total-

20

Course no.

Course Title

Credit

PHY 3601

Quantum Mechanics II

4

PHY 3602

Solid State Physics II

4

PHY 3603

Statistical Mechanics

4

PHY 3604

Digital Electronics

4

PHY 3605L

Experiments in Electronics and Instrumentation I

3

Semester Viva

1

Total-

20

Course no.

Course Title

Credit

PHY 4701

Nuclear Physics

4

PHY 4702

GeoPhysics

4

PHY 4703

Laser Physics

4

PHY 4704

Solar Energy

4

Experiments in Electronics and Instrumentation II

3

Semester Viva

1

Total-

20

Course no.

Course Title

Credit

PHY 4801

Reactor Physics

4

PHY 4802

Biophysics

3

PHY 4803

Astronomy and Cosmology

3

PHY 4804

Atmospheric Physics

3

Project Work

4

Semester Viva

1

Total-

18

PSC 1101

Algebra and Trigonometry 

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

At the end of the course the students will be able to:

·   Represent situations and solve problems using algebraic equations and inequalities

·   Identify, use notation and calculate sums and terms or arithmetic, geometric and harmonic, progression.

Inequalities: Ordered properties of Real number, Arithmetic, Geometric and harmonic means; Weierstrass; Chauchy’s and Chebyshev’s inequalities.

Lecture, Handouts

Quiz test

·   Basic concept of cubic and biquadrate equations, summation of algebraic series.

Theory of equations: Relations between roots and coefficients of an Algebraic equation; Descartes Rule of sign; Cubic equations; Cardan’s method.

Lecture, Handouts

Tutorial examination

·   Perform basic mathematical operations with complex numbers. Find complex solutions or certain equations.

Complex numbers and their properties: De Moivre’s theorem and its applications; Hyperbolic functions and their relations or trigonometric functions.

Lecture, Handouts

Tutorial examination

·         Explain the summation of trigonometry series

Summations of series: (Algebraic and trigonometric); Gregory’s series.

Lecture, Handouts

Midterm examination

PSC 1102

Calculus I: Differential Calculus

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After Completion of the course, the students will be able to:

·   explain real number system

·   define function, domain, range, limit, graPhys of functions  and some properties

·   explain L’Hospital’s rule, continuity and differentiability

·   Differentiate any algebraic or transcendental function.

·   define and using notations of successive differentiations

·   Mean-Value theorem,Taylor’s and Maclaurins series

·   define maxima and minima of a function and determine  its value of functions of one variable

·   define tangent and normal, find the equation of tangent and normal

·   define curvature and determine center and radius of curvature

Introduction: Real Number system; Intervals; absolute value; Solution of Linear and quadratic inequalities.

Lecture

Handouts

Quiz Test

Functions of a single variable: Domain and Range; GraPhy of simple functions; such as polynomials; Exponential function and Trigonometric functions.) (Y = e^x, Y = a^x, Y = x^a etc.); Inverse functions.

Lecture

Handouts

Quiz test,

Assignment

Limit and Continuity: Related theorems; Evaluation of limits; Infinite limits; Continuity (properties of Continuous functions, standard theorems, examples).

Lecture

Handouts

Tutorial Examination

Assignment

Differentiation: Definition of a derivative; Derivative of algebraic; trigonometric and Hyperbolic functions;  Parametric functions; Implicit functions;  Successive Differentiation and Leibnitz theorem; Increasing and decreasing functions; Maximum and Minimum of functions; Mean value theorem; Maclaurin’s and Taylor’s theorem; Indeterminate forms; L’Hospital’s Rule.

Lecture

Handouts

Tutorial Examination

Assignment

Polar coordinates.

Lecture

Handouts

Midterm Examination

Applications of Derivatives: Tangents and Normals; Asymptotes; Curvature envelopes and evolutes.

Lecture

Handouts

Quiz test,

Assignment

PSC 1103

Mechanics

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

Ø  Learn the basic of vector algebra and its related theorem.

1. Vector Algebra: Vector and scalar quantities; Vector addition and subtractions; Vector differentiation and integration; Gradient of a scalar, divergence and curl of a vector; Scalar and vector products and their significance; Gauss’s divergence theorem, Green’s theorem and Stokes theorems, SPhyerical polar and cylindrical coordinates; Surface and volume element, Δ- and Laplacian operators in polar and

Cylindrical coordinates.

Lectures, hand notes.

Assignments, Class tests

Ø  Understand the basic of motion

2. Kinematics and Particle Dynamics: Concept of motion and frame of reference; Equations of motion; Tangential and normal components of acceleration in a place; Projectile motion; Uniform Circular motion; Newton’s laws of motion; Concept of mass and force; Frictional forces and their laws.

Lectures, hand notes.

Class tests

Ø  Understand the basic of work and energy.

3. Work, Energy and Power: Work done by constant and variable forces; Kinetic and potential energies; Work-energy theorem; Conservative and non-conservative forces; One dimensional forces depending on position only; two and three dimensional conservative systems; Principle of conservation of energy.

Lectures, hand notes and power points.

Class tests

Ø  Understand the basic of linear momentum and collision.

4. Conservation of Linear Momentum: Centre of mass; Motion of a system of particles and its linear momentum; Conservation of linear momentum for a system of particles; Application of the linear momentum principle in cases of rocket propulsion and collision Phyenomena.

Lectures, hand notes

Quiz tests

Ø  Understand the basic of kinematics.

5. Rotational Kinematics: Rotational motion; Rotational quantities as vectors; Rotation with constant angular acceleration; Relation between linear and angular kinematics of a particle in circular motion.

Lectures, hand notes and power points.

Midterm exams, Power Point Presentations

Ø  Learn the basic of rotational dynamics and its various theorem.

6. Rotational Dynamics: Torque and angular momentum; Kinetic energy of rotation and rotational inertia (moment of inertia); Rotational dynamics of a rigid body; Parallel and perpendicular axes theorems; Calculation of moment of inertia; Conservation of angular momentum.

Lectures, hand notes

Midterm exams

PSC 1104

Properties of Matter-I

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to: 

• state Hook’s law and its applications

Properties of Matter:

• Oscillatory Motions: Hook’s law and vibration, simple harmonic motion, motion combination of harmonic motion, damped harmonic motion, forced oscillation and resonance.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Define simple harmonic motion, damped harmonic motion.

·         Describe the motion of planets and satellites.

·         Define escape velocity, derive its mathematical expression, and calculate its value & related mathematical problems.

Gravitation:

• Center of gravity of extended bodies, gravitational field and potential with their calculations, determination of gravitation constant and gravity, compound and Kater’s pendulum, motion of planets and satellites, escape velocity.

Lectures, handout and group discussion

Assignment

The students will be able to: 

·         Define surface tension & surface energy.

·         Describe the molecular Phyenomenon of surface tension and the relation between surface tension and surface energy.

Surface Tension:

·         Surface tension as a molecular Phyenomenon, surface tension and surface energy, capillary rise or fall of liquids, pressure on a curved membrane due to surface tension, determination of surface tension of water, mercury and soap solution, effect of temperature.

Lectures, handout and group discussion

Assignment

·         Describe the capillarity of liquids and determine the surface tension of water, mercury and soap solution.

·         Define elastic constants and derive the relations between them.

Elasticity:

·         Moduli of elasticity, Poisson’s ratio, relations between elastic constants and their determination, cantilever, flat spiral spring.

Lectures, handout and group discussion

Assignment

PSC 1105

Computer Fundamentals

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will learn….

-Using Shortcut

-Creating word document.

-Creating CV and cover letter.

– Creating styles

Software

Microsoft Office Word Document:

• Getting started
• New documents
• Working with text
• Shortcut commands
• Cutting, coping, pasting text
• Formatting text
• ParagraPhy formatting
• Table formatting
• Working with pictures
• Editing background

 Lecture

Discussion in group

Practice by doing

Assignments,

Lab test,

Class test

– Creating a workbook

– Opening, closing and saving workbooks

– Entering data into cells

– Automatic calculation

Microsoft Office Excel

• Create and design a spreadsheet
• Create Marks Sheet
•  Writing formulas in cells
• Using the Formula Bar
• Selecting columns and rows

Lecture

Discussion in group

Practice by doing

Final Exam

-Work with the basic features of PowerPoint.

– Work with presentations.

– Create brilliant presentations

– Previewing A Slide Show

Microsoft Office Power point  Presentation:

• Creating a PowerPoint presentation.
• Insert text into a slide and apply basic formatting.
• Work with the various slide layouts.
• Animating Slides
• Create and work with SmartArt graPhyics.
• Insert Date & slide number.

Lecture

Discussion in group

Practice by doing

Class-test,

Presentation

-Basic  computer hardware

Hardware

• Motherboard
• CPU
• RAM
• Power Supply
• Hard Disk Drive

showingand describe these components

Lab test

PSC 1106

Physical Chemistry I

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about SI unit and Accuracy & precision in the measurement.

Introduction: An introduction to Phyysical chemistry; Energy; Electromagnetic radiation; Quantization of energy levels; Population of energy levels; Equipartition of energy, Chemistry and Measurement, SI units; Measurement and significant figures; Accuracy and precision; Application of statistical methods.

Lectures, group discussion

Assignment

The students will be able to learn the basic law of gases and ideal gas & real gas and related mathematical problems.

The Gaseous State: The perfect gas; Pressure; Gas laws; Mixture of gases; Kinetic model of gases; Molecular speeds; Collision frequency; Real gases; Compression factor; Condensation; Critical constant; the van der Waals equation; Principle of corresponding states; Equation of state for real gases; Andrews experiment; P-V-T surface for real substances; Heat of transmission; Virial equation.

Lectures,

handout

Tutorial examination

The students will be able to draw the Phyase diagram of different substance. They will able to explain about Phyase rule and also the structure of crystal.

The Liquid and Solid: Composition; Change of state; Phyase transitions; Phyase diagrams; Properties of liquids; Vapour pressure of  liquids; Surface tension and viscosity; Intermolecular forces.

Classification of solids: Crystalline solids; Crystal lattices and unit cell; Structure of some crystalline solids.

Lectures,

PowerPoint

Tutorial examination

The students will be able to prepare the solution of different concentration and to explain the Colligative properties of different types of solution.

Solutions: Types of solutions; Solubility and the solution process; Factors determining solubility; Molecular solution and Ionic solutions; Effect of temperature and pressure on solubility; Henry’s law; Colligative properties; Vapour pressure of a solution; Rauolt’s law of vapour pressure lowering; Boiling point elevation and freezing point depression; Osmosis and osmotic pressure.

Ionic solutions:  Properties of ionic solutions; Degree of dissociation; Colligative properties of solution; Conductivities of ions; Ion mobility.

Lectures,

Handout and PowerPoint

Quiz test

The students will be able to understand Chemical equilibrium. They will gain the knowledge about solubility of different substance and the factors affecting solubility. They will able to calculate the solubility of different substance and Phy of different solutions.

Chemical Equilibrium: Equilibrium states; Law of mass action; Gaseous reactions; Chemical equilibrium; A dynamic equilibrium; Equilibrium constant; Homogeneous equilibria; Le Chatelier principle; Variables affecting equilibrium concentration ( pressure, temperature, substrate ); Effect of catalyst; Dissociative and Associative reactions; Ostwald dilution law; Solubility products; Common ion effect; Phy and buffer solution.

Lectures, group discussion and

PowerPoint

Midterm Examination

PSC 1107

Inorganic Chemistry I

2.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about the abundance of elements in universe and origin of universe.

Introductory Concepts: Relative abundance of the elements of the universe; stellar evaluation and nuclear synthesis of elements; Origin of the universe; Big bang theory, inflationary universe.

Lectures, group discussion

Assignment

The students will be able to understand the wave nature of particles. They also will be able to know about quantum concept, atomic structure, and electronic configuration.

Particle, Properties of waves:  Particle properties of waves in nature; Electromagnetic radiation; Phyotoelectric effect and its important features: Compton  effect; Pair production and pair annihilation; Concept of light; Phyotons and gravity; Black holes; x-ray; Production, continuous and characteristic of x-rays, x-ray diffraction; Quantum concept and Atomic structure; Schrodinger equation-four quantum numbers.

Electronic configuration of atoms: Aufbau Principle; Hund’s rule; Pauli exclusion principle; Uncertainty principle; Wave particle duality; Electron probability distribution; Shapes of orbitals.

Lectures,

handout

Tutorial examination

The students will be able to understand the structure of atoms and atomic spectra in terms of Bohr atom model.

The Structure of the atoms; Historical background; Discharge of electricity through gases; Conduction of electricity through solution of  some substances; Determination of  c/m for  cathode rays; Determination of charge of an electron; system, Radioactivity;  Nature and characteristics of the radiation. J.J Thomson’s theory; Rutherford’s nuclear theory; Isotope and mass spectrograPhy; Nuclear  Dimensions; Electron orbit; Atomic spectra-the Bohr model of the atoms; Bohr Sommerfield modification.

Lectures,

PowerPoint

Midterm examination

The students will be able to describe periodic table

Periodic Table and Classification of Elements: The modern periodic table; variation of properties within periods and groups; Usefulness and limitation of the periodic table; Ionization potentials; Electron affinity and electro negativities.

Lectures,

Handout and PowerPoint

Quiz test

The students will be able to explain different types of chemical bonds

The Chemical Bonds: The electronic concepts of chemical bonds; Types of bonds: Ionic bond, general properties of ionic bonds; Covalent bonds; Lewis formulae. Resonance; Valence shell Electron Repulsion theory; Preliminary treatment of Valence Bond theory; Hybridization; Principles of Molecular orbital theory of simple molecules; Delocalized bonding: other types of chemical bonds Metallic bond, hydrogen bond, van der Waals forces.

Lectures,

handout

Assignment

The students will be able to define acids and bases

Acid And Bases: The Arrhenius concept; the protonic or Bronsted concept; Lewis acids and bases; Usanovich concept; The strength of acids and bases.

Lectures,

handout

Tutorial examination

The students will be able to explain X-rays.

X-rays: Production of x-rays, x-ray spectrum etc.

Lectures,

Handout and PowerPoint

Quiz test

PSC 1108

evsjv fvlv I mvwnZ¨

2.0  CH

50marks

wkÿYxq welq

cvV¨m~wP

wkÿv-c×wZ

g~j¨vqb-c×wZ

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aŸwb, eY© I Aÿi

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5. YZ¡ I lZ¡ weavb m¤ú‡K© Ávbjvf I Gi e¨envi Ges cÖ‡qvM wewa m¤ú‡K© Av‡jvPbv|

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†jKPvi

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KweZv :

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cÖKvi‡f` I welqe¯‘ m¯ú‡K© ÁvbvR©bc~e©K  iex›`ªbv_ VvKzi I KvRx bRiyj Bmjv‡gi `ywU KweZvi g~j welqe¯‘ m¤ú‡K© Av‡jvPbv|

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     ‡QvUMí:

     iex›`ªbv_ VvKzi : mgvwß

‰mq` IqvjxDjøvn : GKwU Zzjmx Mv‡Qi Kvwnbx

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PSC 1109

English Language

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to: This section of practice makes students fluent and spontaneous in using English as foreign language. Students feel more confident sharing their ideas in this language. This fundamental topic helps them to use the language in daily necessity

 1. Conversation:      

1.1 & 1.2 Greetings (formal and informal).

1.3 & 1.4 Parting (formal and informal)

1.5 & 1.0 Introducing self.

1.7 & 1.8 Introducing one to another

1.9 & 1.10 Telling about self.

1.11  Asking  Wh-Questions.

1.14 Answering Wh-questions.

1.15 Answering telePhyone

1.16 TelePhyonic Conversation.

1.17 & 1.18 Describing persons/places/things

1.19-1.20 Interviewing people.

Lecture, group participation

Tutorial, assignment, quiz

Ø  Students became able to read rapidly and find out the moral if given any through the text.

2. Reading Comprehension:

2.1 Glaciers.

2.2 Wonderful Water

2.3 Presidential Talent

2.4 The Ebony Express.

2.6 The Verrazano-Narrows Bridge.

2.7 Johnny Appleseed.

2.8 Hurricuanes.

2.9 The Kangaroo Rat

2.10 Boy Genius.

2.11 Chimpanzees Can Learn.

2.12 Busy Honey Bees.

2.13  Robert Wadlow

2.14 Bat Rider.

2.15 Feas

2.16 Thomas Edison’s Intensions.

2.17 Geodesic Domes

2.18 Saguaro Cactrus

2.19 Clyde Betty.

Lectures, hand notes,

Class test.

Tutorial, assignment, quiz

PSC 1110L

Experiments in General Physics

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

• Understand how to determine acceleration due to gravity, surface tension, viscosity, different elastic constants and velocity of sound

1. Verification of Hook’s law for spring.

2.Properties of a compound pendulum; determination of ‘g’

3. Determination of ‘g’ by Kater’s pendulum

4. Surface tension by capillary tube method and Quincke’s method.

5. Mariation of surface tension of a liquid with temperature.

6. Viscosity of fluids; Variation of viscosity of water with temperature.

7. Young’s modulus of a wire by Searle’s apparatus

8. Rigidity modulus of a wire by dynamic  method

9. The measurement of the velocity of sound in air by standing wave observations.

Practical and hand notes

Assignments, Viva voce and Class tests

PSC 1111L

Experiments in General Chemistry

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to measure accurate volume of pipette.

Calibration of volumetric glassware: Calibration of a Pipette.

Lectures, demonstration

Assignment

The students will be able to calculate the number of water molecule in hydrated compounds.

Determination of the formula of a hydrate.

Lectures, demonstration

Tutorial examination

The students will be able todetermination of gram equivalent weight of magnesium.

Determination of gram equivalent weight of magnesium.

Lectures, demonstration

Tutorial examination

The students will be able todetermination of the molecular weight of condensable vapour.

Determination of the molecular weight of a condensable vapour.

Lectures, demonstration

Quiz test

The students will be able todetermine the heat of neutralization of a strong acid and a strong based (NaOH, HCl).

Determination of the heat of neutralization of a strong acid and a strong based.

Lectures, demonstration

Oral Examination

The students will be able to calculate the number of drops in one mL of water.

Determination of the volume of a drop of water and to calculate the number drops in one mL of water.

Lectures, demonstration

Oral Examination

The students will be able to determine the concentration of acid and base by titration.

Acid-base titration.

Lectures, demonstration

Midterm Examination

The students will be able to determine the Phy of different acids and bases.

Measurement of Phy

Lectures, demonstration

Tutorial examination

The students will be able to determine theSolubility of organic compounds.

Solubility of organic compounds.

Lectures, demonstration

Midterm Examination

The students will be able to determine thedistribution co-efficient of iodine between water carbon tetrachloride.

Determination of the distribution co-efficient of iodine between water carbon tetrachloride.

Lectures, demonstration

Midterm Examination

The students will be able todraw the Phyase diagram of Phyenol water system.

Phyase diagram of Phenol water system.

Lectures, demonstration

Oral Examination

PSC 1201

Set Theory and Matrix Algebra

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to

·   recognize and perform basic operations of sets, relations and functions and find their inverses

·   perform basic operations of matrix algebra and evaluate adjoint, inverse and rank of matrices

·   Implement Crammer’s rule and matrix method to solve the system of linear equations

Set theory: Algebra of set: Cartesian product; Functions and Relations; Binary operations.

Lecture

Handouts

group discussion

Quiz test, Tutorial Examination, Assignment.

Matrices and Determinants. Algebra of Matrices and Determinants; Evaluation of determinants; Inverse Matrices; Rank of Matrices; Block Matrices.

Lectures

Handouts

power point

Mid Term Examination, Assignment Presentation

System of Linear equations and their solutions by Matrix Method, Cramer’s rule.

Lectures

Handouts and power point

Tutorial Examination

Assignment

presentation

1.

Lipschutz, S.

:

Set Theory and Related Topics, McGraw-Hill Co., New Delhi, 11^thed, 2013

2.

Hadley, G.

:

Linear Algebra, Addision Wesley, NY, 9^thed, 2010

3.

Lipschutz, S.

:

Linear Algebra, McGraw-Hill Co., New Delhi, 7^thed, 2013

4.

Ansary, M. A.

:

Matrix, Bangla Academy, Dhaka, 1^sted, 2003

5.

Agarwal, R.S.

:

Set Theory & Number System, S. Chad & Co., New Delhi, 12^thed,2014

6.

P. N. Chatterjee

:

Matrices, Rajhans Prakashan Mandir, Kolkata, 22^thed, 2012

7.

Howard Anton

:

Elementary Linear Algebra, Wiley & Sons, USA, 5^thed, 2013

PSC 1202

Calculus II (Integral Calculus)        

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

·   basic definition of indefinite integrals, integrand and integration and also solve these types of mathematical problems.

·   perform accurately definite integrals, and acquire knowledge of fundamental theorem, general properties of definite integrations and also calculate the mathematical problem.

·   evaluate the different types of integrals and it develops their skill in integration.

·   basic definition of reduction formula, improper integrals, Beta and Gamma function.

·   determine the arc lengths, areas and volumes of different types of curves.

Indefinite Integrals: Techniques of integration (by substition, by parts, rational fractions). Integration of Trigonometric, Hyperbolic and Transcendental fractions.

Lecture, Handouts

Quiz test

Definite Integrals: Fundamental theorem of calculus; Integration as the limit of a sum; properties of definite integrals.

Lecture, Handouts

Assignment,

Tutorial examination Assignment

Application of definite integrals; Area under a curve; Area between two curves; Volumes; Length of a plane curve; Area of surface of revolution.

Lecture, Handouts

Midterm examination

Reduction formula.

Lecture, Handouts

Assignment,

Tutorial examination

Improper Integrals; Beta and gamma functions.

Lecture, Handouts

Tutorial examination

PSC 1203

Properties of Matter II

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to:

• Learn the basic of simple harmonic motion, energy conservation in simple harmonic motion, resonance and its application

Oscillations: Harmonic, simple harmonic motion (SHM); Mass- spring system, Energy conservation in SHM; Applications of SHM; Relationship between SHM and uniform circular motions; Combination of harmonic motions; Lissajons figure; Damped harmonic motion; under-damped, over- damped motion, critical damping; Forced oscillations and resonance.

Lectures, hand notes.

Assignments, Class tests

The students will be able to:

• Learn the basic of waves, characteristics of different types of waves, group and Phyase speed and the superposition principle.

Travelling Waves: Waves in Elastic media, transverse and longitudinal waves: Equations of travelling waves; Speed of propagation of waves in a stretched string; Longitudinal waves in a bar; plane waves in fluid, Transmission of energy by travelling waves; mathematical representation of plane & sPhyerical wave fronts; The superposition principle; Waves in a canal; Ripples; Courier series; Group speed and Phyase speed.

Lectures, hand notes,

Class tests

The students will be able to:

• learn how to solve the problems of stationary waves of string and their vibration of rods and plates.

Stationery Waves: Reflection and transmission at a junction; Reflection at a fixed end of a stretched string; Boundary conditions for no reflection; Normal modes and proper reflection; Frequencies of a stretched string; Damped and forced vibrations of a string; Laws of transverse vibration of a stretched string; Reflection of compressional waves in a tube; Open pipes; Closed pipes; Vibration of rods and plates.

Lectures, hand notes

Quiz tests,

midterm,

Assignment

The students will be able to:

• learn about beats, loudness, pitch intensity and intensity level and practical use of doppler effect.

Sound waves: Intensity and intensity levels; Loudness and pitch. Waves in three dimensions; Interference of sPhyerical sound waves; diffraction of sound waves; Radiation efficiencies of a sound source; Beats Combination to tones; Doppler effect.

Lectures, hand notes

Quiz tests, presentation

PSC 1204

Electricity and Magnetism

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to:

·         learn the basic of electricity and related theorem and its application

1. Electric field:

Electric charge; Coulomb’s law; Electric field; Point charge in an electric field: electric flux; Gauss’s law and some applications. Gauss’s law in differential form.

Lectures, hand notes.

Assignments, Class tests

The students will be able to:

·         understand the basic of electric potential

2.Electric potential:

Potential and field strength; Potential due to a point charge; Group of point charges and a Dipole Electric Potential Energy; Calculation of field strength from potential

Lectures, hand notes,

Class tests

The students will be able to:

·         differentiate between capacitors and dielectric

3.Capacitors and Dielectric: Capacitance, its calculation; Dielectric and Gauss’s law; Parallel plate capacitor with dielectric: Polarization vector and displacements vector; Electric vectors; Energy stored in an electric field; Capacitors in parallel and in series

Lectures, hand notes

Quiz tests

The students will be able to:

·         learn about current, resistance and how energy transfer in electric circuit.

4.Current and Resistance:

Current and current density; Drift speed and charge carrier; Resistance; Resistivity and conductivity; Ohm’s law; Resistivity. Addition of resistance in series & parallel and atomic view; Energy transfer in an electric circuit; electrical energy density in terms of electric field.

Lectures, hand notes

Quiz tests

The students will be able to:

·         design various electric circuits.

5.Electromotive force and Circuits: Electromotive force and potential difference; Kirchhoff’s laws; Single loop and multiloop circuits; Ammeter; Voltmeter and Galvanometer and their use, RC circuit; charging and discharging of a capacitor and the time constant; Energy transformation in RC circuit.

Lectures,

hand notes.

Midterm exams, Power Point Presentations

The students will be able to:

·         understand the basic of magnetic field and some laws of its with applications.

6.Magnetic force:

    Magnetic induction and magnetic effects of currents Lorentz force; Absence of magnetic monopole, properties of static magnetic field; Gauss’s law for magnetic field: Magnetic induction and magnetizing force; Magnetic force on a charge and on a current; Torque on a current loop; Moving coil galvanometer, The Hall effect: Magnetic effects of currents-The Biot-Savart law and its application: The Ampere’s law and its appication. Comparison between Biot–Savart and Ampere’s law its application. Comparison between Biot – Savart and ampere’s law: Field due to an infinite straight wire; ideal solenoid and Toroid.

Lectures,

hand notes

Midterm exams

The students will be able to:

·         realize how an induction motor runs.

7. Electromagnetic Induction and Inductance:

Faraday’s Law of electromagnetic induction; Lenz’s law; Motional emf; Self-inductance, Mutual Inductance; LR circuit and time constant, Energy and density of energy stored in a magnetic field. Energy transformation in an LR circuit; Analogy of inductor with mass.

Lectures,

hand notes

Midterm exams

The students will be able to:

·         understand the basic of capacitors and inductors and design Rl, Rc and LCR circuit.

8.Alternating Current:

The simple AC generator; Alternating voltage and current and their graphyical representation; R.M.S value in an AC voltage applied to resistors; Capacitors and Inductors; AC current and voltage in series RL and in series RC circuits; LCR circuits; Power dissipation in and AC Circuits; Transformer

Lectures,

hand notes

Assignments

The students will be able to:

·         understand the basic of thermoelectricity

9.Thermoelectricity:

Seebeck, Peltier and Thomson effect; Relation between Seebeck, Peltier and Thomson e.m.f.; Thermoelectric power; Thermocouple.

Lectures,

hand notes

Class tests

·         the students will be able to:

·         learn how to develop and employ various circuit models.

10.Circuit Analysis and Network Theorems:

Theremin’s theorem; Superposition theorem; Maximum power transfer theorem; Norton’s theorem; RLC ckts; Transient currents.

Lectures,

hand notes

Class tests

PSC 1205

Inorganic Chemistry II        

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to learn about preparation, properties, uses and compounds of hydrogen. They will learn about hydrogen bond and isotopes of hydrogen.

Hydrogen: General remarks; Occurrence; Preparation; Properties and uses, Compounds; Hydrides sand hydride complexes; Hydrogen bond; Isotopes of hydrogen; Hydrogen fuel.

Lectures, group discussion

Assignment

The students will be able to learn the properties, uses, isolation and reactions of noble gases.

The noble gas: General remarks; Occurrence: properties and uses; Chemistry of noble gas.

Lectures,

handout

Tutorial examination

The students will be able to learn about isolation and properties of the group I elements as well as preparation and properties of their compounds.

The group I elements: General remarks; Occurrence; Isolation and properties; Preparation and properties of compounds.

Lectures,

PowerPoint

Tutorial examination

The students will be able to learn about isolation, properties and compounds of the group II elements as well as synthetic applications.

The group II elements: General remarks; Occurrence; Isolation and properties; Compounds; Grignard reagents- Structure, Solution and equation and synthetic applications.

Lectures,

Handout and PowerPoint

Quiz test

The students will be able to learn about isolation and properties of the group III elements as well as their chemistry.

The group III elements: General remarks; Occurrence; Isolation and properties; Chemistry of trivalent state; Lower valent compound

Lectures, group discussion and

PowerPoint

Assignment

The students will get knowledge about transition elements and coordination compounds.

The Transition Elements: Periodic Trends in Transition elements.  Complex ions and coordination compounds.

Lectures,

PowerPoint

Quiz test

The students will be able to understand oxidation and reduction. They will be able to calculate oxidation number of different compounds and equivalent weights of oxidizing and reducing agents.

Oxidation and reduction: The electronic concept; oxidation state and oxidation number; Assignment of oxidation number; Writing of equations involving oxidation reduction reactions; Equivalent weights of oxidizing and reducing agents; Oxidation-reduction potentials and electromotive series of elements.

Lectures, group discussion

Midterm Examination

PSC 1206

Organic Chemistry I

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about various types of chemical bonds. They also will be able to know about molecular orbital theory.

Review and Background: Covalent bonds and shapes of molecules Electronic structure of atoms; The Lewis model of bonding; The octet rule; Functional groups; Bond length; Bond angles; polar and non-polar molecules; Molecular orbital theory of covalent bonding.

Lectures, group discussion

Tutorial examination

The students will be able to know the nomenclature, preparations, and properties of alkanes, alkenes, dynes and alkynes.

Alkanes and cycloalkanes: Structure; Structural isomerism Cycloalkanes; Nomenclature of alkanes and cycloalkanes; Configuration and conformations, Cs-trans isomerism in cycloalkanes; sources and preparation; Phyysical Properties and chemistry; Free radicals’ mechanism of halogenations; Octane number.

Alkenes: Structure; Nomenclature; cis-trans isomerism; E-Z isomerism Preparation; Phyysical and chemical properties; Mechanism electroPhyilic addition; Markovnikovs’ rule; synthetic application of oxidation by O3 KMnO4 per acid etc.; Polymers of alkenes.

Dienes: Structure; Nomenclature; classes of dienes; Conjugated dienes and their stability; Reactions of conjugated dienes; Diels-Alder reaction, Polymerization.

Alkynes: Structure; Nomenclature; Preparation: Reactions; ElectroPhyonic addition reactions; Acidity of terminal alkynes and application of their salts.

Lectures,

PowerPoint

Tutorial examination

The students will be able understand the basic concepts of aromatic hydrocarbons. They also will be able to know the nomenclature, preparation and properties of aromatic hydrocarbons.

Aromatic Hydrocarbons: Benzene: Source; structure; Concept of aromaticity; Huckel-rule; Nomenclature of benzene denyatives Preparation; Disubstitution and poly- substitution; ElectroPhyilic and mucleoPhyilic substitution with mechanism of nitration, sulfonation halogenation, alkylation, acylation etc.

Lectures,

handout

Assignment

The students will be able to know the preparation and properties of alkyl halides. They also will be able to know about Grignard reaction.

Alkyl and Aryl Halides: Structure; Nomenclature; Preparation, Phyysically properites; Chemial properties; Substitution and elimination reaction with mechanism (SN1, SN2, E1, E2): Grignard reagent.

Lectures,

Handout and PowerPoint

Quiz test

The students will be able to know the structure, preparation, properties and reactivity of alcohols and Phyenols.

Alcohols and Phyenols: Structure; Nomenclature; Preparation, Phyysical properties (acidity and basicity of alcohols and Phyenols); Reactions of alcohol-esterification; Oxidation; Williamson synthesis; Periodic acid oxidation of glycols; Reactivity of Phyenols in electroPhyilic substitution reactions (Reimer Tiemann reaction, Kolbe reaction, Diazonium coupling reaction).

Lectures, group discussion

Assignment

The students will be able to know the structure, nomenclature, and preparation of ether, sulPhyides and epoxides

Ether, Sulphyides and Epoxides: Structure; Nomenclature; Preparation; Williamson-ether synthesis; Reactions of ether.

Lectures,

handout

Tutorial examination

PSC 1207

Statistics I

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The student will be able to describe concept of statistics and its terminology.

An overview of Statistics: Scope of Statistics; Sampling; Population and sample, Random sample; Statistical thinking; System and Process; Data information and knowledge; Branches of Statistics- Descriptive and Inferential Statistics.

Lecture, Group Discussion etc.

Assignments, Class Test, tutorial etc.

The student will be able to provide concept of level of measurement

Describing Data: Classification of variables- Numerical (discrete of continuous) and Categorical; Measurement levels- Nominal, ordinal and ratho scale; Sources of data: Primary, secondary and on-line.

Lecture, Group Discussion etc.

Assignments, Class Test, tutorial etc.

The student will be able to present data in tabular and graPhyical form.

Tables and GraPhys for Numerical Data: Classification and tabulation; Frequency distribution and its construction; Cumulative and relative cumulative frequency distribution; GraPhyical representation- Histogram, frequency. Polygon and Ogive; Stem and leaf display; Bar chart; Pie short.

Lecture, Group Discussion etc.

Assignments, Class Test, tutorial etc.

The student will be able to explain different measurements of central tendency for averaging data.

Measures of Central Tendency: Mean: Arithmetic mean, Geometric mean and Harmonic mean; Median; Mode; Symmetry and skewness.

Lecture, Group Discussion etc.

Assignments, Class Test, tutorial etc.

The student will be able to measure the variability and compare data.

Measures of Variability (dispersion): Absolute measure: range, mean deviation, interquartile range, quartile deviation, variance, standard deviation percentile and quartile, Relative measures.

Lecture, Group Discussion etc.

Assignments, Class Test, tutorial etc.

PSC 1208

Computer withNumerical Analysis with Programming

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After Completion of the course, students will learn

·   Basic concepts of numerical analysis

·   Definition of forward difference, backward difference, central difference

·   Define of interpolation, extrapolation and polynomial

·   To derive different types of interpolation formula

·   To derive numerical methods to solve a system of linear equations and solve

·   To derive numerical methods of differentiation and Integration   and solve some problems

·   Solve some related problems using programming language

Numerical solution of algebraic and transcendental equations: Bisection method, methods of false position and its modification, Secant method, Newton-RaPhyson method, methods of successive approximation. Newton-RaPhyson method for a polynomial equation. Solutions of simultaneous equations of two variables by Newton-RaPhyson method.

Lecture

Handouts

Quiz Test

Tutorial Examination

Assignment

Interpolation: Concept of interpolation & extrapolation. Interpolation with equal intervals: Newton’s forward and backward interpolation formula. Gauss central difference forward and backward interpolation formula: Stirling’s interpolation formula. Interpolation with unequal intervals. Newton’s general divided difference interpolation formula. Interpolation with unequal intervals. Newton’s general divided difference interpolation formula, LaGrange’s formula.

Lecture

Handouts

Quiz test

Assignment

Tutorial Examination

Solutions of simultaneous equations: Gauss elimination method, Gauss-Jordan elimination method, Gauss-Jacob iterative method, Gauss-Seidal iterative method, Crout’s Lu decomposition method and Dolittle decomposition method.

Lecture

Handouts

Tutorial Examination

Assignment

Numerical differentiation 1^st order and 2^nd order derivatives with divided backward and central differences.

Lecture

Handouts

Tutorial Examination

Assignment

Numerical Integration: Newton’s general quadratic formula, Simpon’s rule. I rape/oidal Rule, Weddle’s rules, Picards method.

Lecture

Handouts

Midterm Examination

Assignment

Numerical solution of 1st order differential equation, Euler’s method polygon method, Heun’s method, Runge-Kutta method of order 4.

Lecture

Handouts

Midterm Examination

Computer Programming of the above topics with alogrithm in Fortran C/C++.

Lecture

Handouts

Tutorial Examination

Assignment

PSC 1209

English Language (Advanced)

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be fluent in speaking

1.      Conversation: Situational Dialogue

Note: Materials will be selected by the Course Teacher.

Lecture, Hand out.

Assignment, tutorial, class test.

They will be able to develop their reading, speaking and writing skills.

2.      Reading Comprehension:

2.1.   Winter Farm Scene.

2.2.   The World Grows Younger

2.3.   The Health Check up

2.4.   Children and Dogs

2.5.   Workers on High Building.

2.6.   World of Word.

2.7.   Blood to Save Lives.

2.8.   Song of the Talking Wire.

2.9.   Riches of the Sea.

2.10.                    Atomic Power

2.11.                    The Life sand Writing of Edgar Allan Poe

                                                              i.      Part One (Class-1)

                                                            ii.      Part Two (Class-ii)

2.12.                    The Mask of the Red Death.

2.13.                    The Story of Willium Wilson

i.         Part One (Class-1)

ii.       Part Two o(Class-ii)

iii.     Part Three (Class-iii)

iv.     Part Four (Class-iv)

2.14.                    The Black Cat.

2.15.                    The Tell-Tale Heart.

2.16.                    The Cash of Amontillsado.

Lecture, Hand out

Assignment, tutorial, class test.                          

PSC 1210

People’s Movement’s from 1900-1971        

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to know the origin and the major factors of the rise of Bengali Nationalism

The Background (The Rise of Bengali Nationalism); The British rule in Indian subcontinent, The World War-II; Creation of Pakistan and its ruling system; economic disparity, Failure in national integration.

Lecture

handouts

Tutorial

Examination

Students will be able to identify the need and importance of Political Movements.

Political movement: Language movement 1948-1952, The formation of Juktafront Government 1954; Constitutional movement 1962, Autonomy movement 1966; Mass movement 1969, General election 1970, Non-cooperation movement 1971.

Lecture           and

Group discussion

Quize test

Students will be able to explain the war processes and the achievement of Liberation War of Bangladesh.

War of Liberation 1971: Attack on Bangladeshi people by Pakistani Army. Genocide and mass killing: Declaration of Independence of Bangladesh. Formation of Expatriate Government; The Muktibahini’s operations, Collaboration with Pakistani Army; The role of big powers in the war (India, USSR, USA, UK, Japan, UN); The surrender of Pakistan Army; Formation of the postwar Government, Freedom struggle in different countries.

Lecture

and

Field work

Assignment

PSC 1211L

Experiments in Electricity and Magnetism                                  

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

• Understand how to determine the critical damping resistance.
• Know about absolute capacitance.
• Characteristics of a p-n-p (n-p-n) transistor in common emitter circuit.
• Determination of the resistance of an inductive coil.
• The characteristics of a series resonance circuit.
• Transistor radio transmitter.

1.         Determination of the logarithmic decrement of a ballistic galvanometer & hence determining the critical damping resistance.

2.         Determination of the absolute capacitance of a condenser.

3.         Determination of the self-inductance of a cell by Reyleigh’s method.

4.         Determination of the mutual inductance by direct throw method.

5.         Determination of the resistance of an inductive coil & loss factor of a capacitor by voltmeter measurements.

6.         Studying the characteristics of a series resonance circuit.

7.         Construction of a full wave bridge rectifier & studying the filtering action of a capacitor.

8.         Studying the output & transfer characteristics of a p-n-p (n-p-n) transistor in common emitter circuit.

9.         Construction of a T.R.F. receiver.

10.     Construction of a transistor radio transmitter.

11.     Construction of two stages R-C coupled transistor voltage amplifier

12.     Polarization of light by four plates & investigation of intensity of polarized light (i) as a function of a position of the analyzer & (ii) also as a function of the angle between the optic axis of the 4 plate & that of the analyzer.

13.     Determination of specific rotation of the plane polarization of light by sugar solution using a polarimeter.

Practical and hand notes

Assignments, Viva voce and Class tests

PSC 1212L

Qualitative Inorganic Analysis

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to identify separate cations and anions in mixture by qualitative methods. They will learn different chemical reactions in semi micro level and their applications.

Identification of inorganic cations and anions in mixture by semi-micro qualitative inorganic analysis (4-5 radicals).

Lectures, demonstration

Assignment, Practical work, Oral, Tutorial & Midterm Examination

PSC 2301

Analytical Geometry            

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to

·      simplify equation in different coordinate system.

·      identify straight  line  and pair  of  straight  of  line, circle and system of circle. 

·      explain the relationship between direction cosines and direction ratios

·      solve related problems based on circle, elipse, sPhyere, cone, hyperbloid, and cylinder

·      concept on General equation of  Second degree &  its characteristics.

 1.    Two-dimensional geometry:

(a)      Transformation of co-ordinates; Pair of straight lines.

Lecture, Handouts

Quiz test

(b)      Important properties and related topics on circle, parabola, ellipse and hyperbola.

Lecture, Handouts

Assignment

(c)      The general equation of second degree and reduction to standard forms; General properties of conic sections.

Lecture, Handout

Tutorial Examination

 2.     Three-Dimensional geometry:

(a)          Different systems of co-ordinates; Direction cosine and direction ratios.

Lectures, group discussion

Mid Term

Examination

(b)         Transformation of co-ordinates.

(c)          Plane and straight lines.

Lecture, Handout

Quiz test

Assignment

(d)         General equations, important properties and related topics on SPhyere, Cone, Ellipsoid, Hyperboloid, Paraboloid and Cylinder.

(e)          General equations of the second degree and reduction to standard forms.

Lectures,

Handout and power point

Tutorial Examination

Power point presentation

PSC 2302

Linear Algebra         

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to

·   Perform basic concepts of matrix algebra

·   Explain the basic concepts of vector spaces and determinants.

·   Perform  dimension,  rank, nullity  and linear transformations

·   Understand the  concepts  of  linear  independence,  basis, and dimension

·   Manipulate systems of linear equations using Gauss-Jordan elimination to reduce to echelon form.

·   Solve systems of linear equations using the inverse of the coefficient matrix when possible.

·   Interpret the existence and uniqueness of solutions of linear systems geometrically.

·   locate algebraic and geometric representations

 Of vectors in Rⁿ and their operations.

Linear equations and Matrices: Introduction: Elementary Row operations of Matrices (Echelon Form), Applications to Linear equation; Matrix Algebra, Types of Matrices; Inverse of a Matrix, Similar matrices, Canonical forms of Matrices, Symmetric, orthogonal and Hermitian Matrices.

Lecture, Books, Handouts

Quiz Test.

Vector Spaces: Introduction, Definition and Examples of vector spaces, Subspaces. Linear independence, Basis, Dimension and Director sums. 

Lecture, Books, Handouts

Tutorial Examination, Assignment.

Linear Transformation of vector spaces: The Matrix of a linear transformation The Kernel and Image of a linear transformation, Rank and Nullity of a Linear Transformation, K-IsomorPhyism and Non-singular Linear Transformation Applications to Linear Equations and the rank of Matrices.

Lecture, Books, Handouts

Mid Term Exam, Assignment

Inner Product Spaces: Introduction to three dimensional geometry, Euclidean and Unitary/spaces, orthogonally and Gram-Schmidt Process.

Lecture, Books, Handouts

Quiz Test.

Diagonalization of Matrices: Introduction, Eigen values and Eigen vectors, Diagonalization of Matrices. The minimum polynomial of a Matrix and the Cayley Hamilton theorem, the diagonalization of symmetric Matrices, Jordan canonical form, Bilinear and quadratic forms.

Lecture, Books, Handouts

Tutorial Examination, Assignment.

1.

Lipschutz, S

:

Linear Algebra, McGraw Hill book Co., New Delhi, 3^rded, 2004

2.

Herstein, L.N.

:

Topics in Algebra, Wiley & Sons, NY, 2^nded, 1975

3.

M.L. Khanna

:

Linear Algebra, Jai Prakash Nath & Co., Meerut, 7^thed, 1993

4.

Md. AbdurRahman

:

Linear Algebra, MRS, Nurunahar Rahaman, Dhaka, 3^rded, 1993

5.

Lang.S

:

Linear Algebra, Springer, NY, 4^thed, 2001

PSC 2303

Optics

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The Student will be able to:

• state the characteristics of a waves.
• describe wavelength, frequency, speed of travelling waves Doppler effect

Review of wave propagation: Travelling wave; Phyase and group velocities luminal light: Energy and power of a wave. Velocity of light in vacuum of t_o and /U_o – Poynting Vector and intensity of light, Wave front and I principle.

Lectures, Books

Hand notes,

Assignment, Class test, Quiz, and Power Point Presentation

Student will be able to:

·         describe theory of geometric optics.

·         explain about transfer matrices of lenses and mirrors free propagation.

Geometrical optics and liberations; Ray tracing through optical systems formulation of geometric optics; Transfer matrices of lenses and mirrors free propagation; Examples: Seided aberration, sPhyerical aberration; Achromatic doublets, example.

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

The Student will be able to:

·         describebasic concept and Principle of light propagation in optical Acceptance angles.

·         explain about fiber.

Fibre optics; Basic concept; Principle of light propagation in optical Acceptance angles: Numerical Apperture Fibre but Coherent and incoherent bundles; Types’ of fibre; Step Index Fibre; Graned Fibre; Multimode and Single Mode Fibe

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

Student will be able to:

• describe about fiber loss and explain Wave dispersion, optical fiber communication.

Fiber Loss: dB/Km; Communication Window; Dispersion in fiber; Dispersion: Model delay in calculation; Material dispersion; Wave dispersion; optical Fiber Communication; EDFA; WDM/ DWDM

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

Student will be able to:

• explain Basic principle of interference and determine the condition of constructive and destructive interference.
• explain and use the Principle of Superposition.

Interference: Huygens’ principle; superposition of waves: Young’s expert Fresnel’s biprism; Lloyd’s mirror; Michelson’s Interferometer, Reflection a plane parallel film; Colour of thin films; Newton’s ring; Feltriv interferometer; Antireflection coating; Interference filters. Mach-Zehnd Rayleigh interferometers; Michelson Stellar interferometer

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion.

The student will be able to:

• explain the Phyenomenon of diffraction and the conditions under which it is observed (Fraunhofer class).
• describe diffraction through a single slit.
• explain briefly the classification of diffraction.
• describe Rayleigh’s grant dispersive and resolving power of a grating.

Diffraction (Fraunhofer class): Two classes of diffraction Phyenom Diffraction by a single slit; Diffraction of circular aperture, Rayleigh’s grant Dispersive and resolving power of a grating; interferometer and its resol power.

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

Student will be able to:

• discuss Fresnel class diffraction.
• describe zone plate and half period zones.
• explain Diffraction by a circular obstacle and explain diffraction by a circular aperture.

Diffraction (Fresnel class): Half Period Zones and Strips; Diffration by a cire aperture; Diffraction by a circular obstacle; Zone plates; Diffraction at a natedge; Cormu’s spiral; Fresnels integrals.

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

student will be able to:

• define polarized, unpolarized, polarizer.
• state& explain brewster’s law.
• calculate the effect of polarization by reflection and brewster’s angle.
• discuss about malus-law.

Polarization: Polarization of light; Polarizing sheets; Polarization reflection; Brewster’s laws, full wave, half wave and quarter wave plates. refraction; Circular polarization; Nicol prism/ Polarizing microscope … activity. Dispersion; polarization by scattering, Rayleigh scattrering seats Phyenomenon in the atmosPhyere; Faraday, Kerr and Pockets effects

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

they will be able to:

·         describe about telescope; microscope; spectrometer; polarimeter.

Optical Instruments:Telescope; Microscope; Spectrometer; Polarimeter.

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

Student will be able to:

·         discussFundamental Principles of laser and   describe the requirements for a system to act as a laser.

·         differentiate the various types of lasers and their means of excitation.

·         relate the structure and properties of lasers to their performance and intended applications.

·         assess which laser would best meet the need for a particular industrial or research task

The Laser: Fundamental Principles; Stimulated emission; Einstein’s population: inversion; Optical feed-back; Types of Lasers; Ruby, He-Be Argon in, Dye; Semiconductor; some applications of laser.

Lectures, Books

Hand notes

Assignment, Class test, Quiz, and Group Discussion

PSC 2304

Electronics

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

students will be able to:

• Learn the basic of diode, Phyoto diode and some special diode

1. Semiconductors Diode:

Semiconductors diode; p-n junction, forward/reverse bias, I-V cure diode equation, Ge and Si diodes. Breakdown: Avalanche and zener Mechanism. PIV rating. DC & AC resistance. Load line and Q-point, maximum current and power, dissipation rating. Reverse recovery time. Ohmmeter testing of a diode. Zener diode. LED, Phyotodiode & Solar Cell (Basic concepts).

Lectures, hand notes

Class tests

students will be able to:

• Understand the applications of diode

2. Diode Applications:

Application in reverse voltage protection or auto polarity (using bridge) of de equipment & as an OR gate in instant emergency power supplies. Half wave & full wave rectification of sinusoidal AC, average voltage, capacitor smoothing, ripple voltage & factor, diode conduction period, Zener voltage regulator.

Lectures, hand notes,

Quiz tests

 students will be able to:

• Learn the basic of transistor, how its connect, and its various uses.

3. Bipolar Junction Transistor (B JT):

npn& pnp configuration, transistor action; CB, CE & CC configuration, alPhya & beta CE characteristics load line & operating points. Cut-off and saturation transistor as a switch. Active region for linear amplification. Q-point, graPhyical analysis. Class A. B & C amplifiers. Transistors biasing: fixed bias, collector feedback and voltage dividers bias, Emitter feedback for bias stabilization (including bypass capacitor). Phyoto-transistor (Basic concepts only).

Lectures, and power points

Class tests

students will be able to:

• Analyze and design simple electronic circuits

4. Equivalent Models and Circuits:

Constant Voltage and Constant Current sources, Thevenin’s and Norton’s theorems and determination of equivalent circuits for known and an unknown network. Superposition theorem. Two-port network equations, Z.Y & h equivalent circuits & parameters. Ebers Moll model & h-equivalent model for a transistor, ideas on the variability of h-parameters.

Lectures, hand notes

Midterm exams

students will be able to:

• Understand the basic of common emitter amplifier and its various connection

5.CE Amplifier:

Small signal analysis of a CE amplifier with voltage divider bias (voltage gain, input & output impedances using Ebers Moll & approximate h-equivalent circuits), Typical CB and CC (Emitter Follower) amplified circuits. Comparison of the important features of CB, CR & CC amplifiers. BJT constant current source. Maximum voltage, current and power transfer between stages of networks. RC coupled cascaded CE amplifier, equivalent circuit and analysis.

Lectures

hand notes.

Midterm exams

students will be able to:

• Learn how to determine bandwidth and effects of frequency in a circuit

6.Frequency Response:

General voltage gain and Phyase response consideration bandwidth, decibel (dB) voltage gain, Bode plots, rolling off slope in dB/decades and dh/octave. Identification of low pass and high pass elements in CE amplifier including stray capacitance and Miller effect capacitance. Multistage frequency effects.

Lectures, hand notes

Midterm exams

students will be able to:

• Understand the basic of operational amplifier and its application

7. Operational Amplifier:

Basic concepts on difference amplifier (double ended input, single ended) as the input stage of an op-amp. Differential and Common mode of Common Mode Rejection Ratio. Equivalent circuit. Ideal approximations. Inverting, amplifier, non-inverting amp. Adder Such Comparator, Integrator, Differentiator (all analysis based on approximation). Frequency response, Gain-bandwidth product. Active Applications in mill volt meter and current meter

Lectures, hand notes

Assignments

students will be able to

• Understand the basic of negative feedback amplifier and its various types.

8.Negative Feedback:

Basic concepts on four types of negative feedback, advantages of feedback. Analysis for gain distortion, band width, input impedances for series feedback using an op-amp.

Lectures, hand notes

Class tests

students will be able to

• Analyze and design feedback circuits

9. DC stabilized   power supply.

Series Voltage regulation with feedback using transistor and op-amp, source regulation, Current limiting (short circuit protection). IC (positive and negative, fixed and variable),

Lectures, hand notes

Class tests

PSC 2305

Physical Chemistry II

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about the chemical equilibrium and factors affecting chemical equilibrium. The will understand order of strength of different types of acids and bases and thermodynamics of ATP.

Chemical Equilibrium: Spontaneous chemical reactions, Gibbs energy minimum, composition of reaction at equilibrium; Response of equilibria to the conditions (pressure, temperature etc.), Application to selected system; Extraction of metal from their oxides, Acids and Bases; Thermodynamics of ATP.

Lectures, group discussion

Assignment

The students will be able to learn about different types of electrochemical cell, emf of the cell and dependency of emf. They will able to calculate the emf of the cells.

Electrochemistry: Electromotive forces; Electrolytic and galvanic cells, Electrode potentials; standard electrode potentials; e.m. f. and equilibria; Dependency e.m.f. on concentration, Some commercial voltaic cells.

Lectures,

handout

Tutorial examination

The students will be able to understand thermodynamic properties of ions and application of Debye-Huckel limiting law. They will know about different types of half cells. They will able to calculate solubility product, Phy and pK from the measurement of cell potential.

Equilibrium Electrochemistry: thermodynamic properties of ions in solution, Thermodynamic functions of formation; Ion activities, Debye-Huckel limiting law, Electrochemical cells: Half reactions and electrodes, varieties of cell standard potentials; Application of standard potentials: The electrochemical series, solubility constants; Measurement of Phy and pK; Potentiometric titration, Thermodynamic functions from cell potential measurements.

Lectures,

PowerPoint

Midterm examination

The students will be able to understand about different types of colloidal system, their properties and application.

Colloidal Systems: Colloidal dispersion, Sols and the properties; The properties of suspended sols; Optical properties of sols, Zeta potential; ElectroPhyoresis, Stability of suspended sols; Emulsions, Gels, Association colloids; Donnan equilibrium.

Lectures,

Handout and PowerPoint

Quiz test

PSC 2306

Organic Chemistry II

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about aromaticity, structures, synthesis, reactions and derivatives of fused ring polynuclear aromatic hydrocarbons.

Polynuclear aromatic Hydrocarbons: General treatment, NaPhythalene, Anthracene and Phyenanthrene; Their sources, structures, synthesis, reactions and derivatives; Carcinogenecity.

Lectures, group discussion

Assignment

The students will be able to learn about the nomenclature, preparation, reactions and reaction mechanisms of aldehydes and ketones.

Carbonyl Compounds:Aldehydes and ketones: Nomenclature of aldehydes and ketones; General methods of preparation of aldehydes and ketones; Reactions of aldehydes and ketones: NucleoPhyilic addition of carbonyl compounds; A simple study of mechanisms: Reimer-Tiemann reachtions, Cannizzaro reaction,Aldol condensation, Perkin reaction, Knoevenagel reaction and Witting reaction.

Lectures,

handout

Tutorial examination

The students will be able to learn about the nomenclature, preparation, Reactions and derivatives of carboxylic acids.

Carboxylic Acids: Nomenclature, Acidity; Resonance effect and inductive effects on acidity; General methods of preparation and reactions of carboxylic acids; Preparation and reaction of hydroxy acids; Unsaturated acids; Keto acids; Synthesis using active methylene compounds; soap and detergents.

Derivatives of Carboxylic Acids: Nomenclature, Preparation and reaction of Esters: Acids halides; Anhydrides and amides.

Lectures,

PowerPoint

Midterm examination

The students will get knowledge about the nomenclature, preparation and reactions of amins.

Nomenclature, Preparation of amines: Reaction of amines; Hofmann degradation of quaternary ammonium hydroxides; Aromatic Diazonium salts; Structure: Preparation; Introduction of functional groups in aromatic system; Coupling reaction.

Lectures,

Handout and PowerPoint

Quiz test

The students will get knowledge about the nomenclature, preparation and reactions of nitro and SulPhyur compounds.

Nitro Compounds: Chemistry of nitro compounds-aliPhyalic and aromatic.

Organic SulPhyur Compounds: Nomenclature, Preparation and reactions of mereaptan, Thioether, thioaldhyde, thioketone, Thioacids, Di-thio acid, DisulPhyides. Thioamides, thoesters.

Lectures, group discussion

Assignment

The students will get understand about bifunctional compounds and theirnomenclature, preparations and reactions.

Bifunctional Compounds: 1,3-dienes, α, β-unsaturated carbonyl compounds, Hydroxy ketones; 1,2 and 1,3-diketones, Hydroxy acids.

Lectures,

PowerPoint

Tutorial examination

PSC 2307L

           Experiments in Optics                       

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

·         Students will be able to :

·         describe and discuss theories.

·         investigate and prove fundamental geometrical optical relationships.

·         handle optical apparatus and components. 3. they will be able

·         record, analyses and present experimental findings through written laboratory reports

·         Refractive index of a glass prism by a spectrometer.

·         Calibration of spectrometer & determination of an unknown wavelength.

·         Determination of Cauchy’s constant & the resolving power of a prism using a spectrometer.

·         Measurement of thickness of a paper & a wire by means of interference fringes in air wedge.

·         Determination of the redius of curvature of a plano-convex lens & the wavelength of light by newtons’s ring method.

·         Application of Interferometer.

·         Application of a diffraction grating; Diffraction at multiple slits.

·         Polarimetry

·         Determination of the Kerr constant.

·         Determination of the spectral response curve of a Phyotoelectric cell.

·         Measurement of the color sensitivity of the human eye.

·         Determination of the Planck’s constant.

·         Response of a PhyotograPhyic emulsion.

Lectures,

Demonstration

Assignment, Quiz, Class test,

Oral

Examination

PSC 2308L

Physical Chemistry Lab I

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to know how to determine molecular weight, integral heat, heat of solution, velocity constant, Phyase diagram, dimerization constant, and solubility product. They also will be able to verify Hess’s law.

1.            Determination of the molecular weight of a volatile substance by Victor method.

2.            Determination of the equilibrium constant for the reaction, KI = KI₃, KI+I₂= KI₃.

3.            Determination of the integral heat of solution of solids calorimetrically.

4.            Determination of the heat of solution from solubility measurement.

5.            Determination of the velocity constant for the hydrolysis of an ester catalyzed by hydrogen ion (Titrimetric method).

6.            Determination of the Phyase diagram for the Phyenol-water system.

7.            Determination of the dimerization constant of salicylic acid in benzene method.

8.            Determination of the formula of the silver amine complex.

9.            Determination of the molecular weight of a given liquid by steam distillation method.

10.        Determination of the solubility product of Ca(OH)₂ in H₂O and to  effect of added CaCl₂ on the solubility of Ca(OH)₂. 

11.        Verification of the Hess’s law of constant heat summation.

Lab works, Lectures, group discussion

Tutorial+

Assignment

PSC 2401

Differential Equations         

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to

·    Definitions and Terminology and identify the various kind of differential equations.

Differential Equations: Classification and formation of ordinary differential equations. Separation of variables. Homogeneous equations. Exact equations. Integrating factor.

Lecture,

Handouts

Quiz test;

Assignment

·   Solving first order ordinary differential equation using various method: Step-by-Step example and its applications.

Linear equations: First order and first degree, Bernoulli’s equations of first order but not first degree. Clairaut’s form and Lagrange’s form.

Lecture,

Handouts

Tutorial examination

·   Find the general solution of second and higher order linear homogeneous and non-homogeneous equations with constant coefficients.

·   Use the method of undetermined coefficients and operator method to solve differential equations.

Linear Second and higher order differential equations solution. Homgeneous and non-homogeneous equations.

Lecture,

Handouts

Mid-Term Examination;

Assignment

·      Explain systems of linear differential equations using method of Wronskian

Wronskian system of first and second order ordinary differential equations.

Lecture,

Handouts

Tutorial examination

·   Use power  series  to  solve  differential equations.

Solution is series.

Lecture,

Handouts

Assignment

PSC 2402

Heat & Thermodynamics

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to: 

§  Write down and explain the meaning of the zeroth law.

Heat and Transfer of Heat:

Newton’s law of cooling; Heat capacities. Conduction: Thermal conductivity and thermal diffusibility; Rectilinear flow of heat: Radial flow of heat in a sPhyere or cylinder, Experimental measurements of thermal conductivity; Convection.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Define standard enthalpy of formation.
• Differentiate between C_p and C_v.

Thermodynamics:

Work, Heat and energy; The first law of thermodynamics; Expansion work; Enthalpy; Adiabatic changes; Standard enthalpy changes; Standard enthalpy of formation; Bond enthalpy; Enthalpy of combustion temperature; Dependence of reaction enthalpies; State functions and exact differentials; Relation between C_p and C_v.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Define entropy.
• Differentiate between reversible and irreversible process.
• Know the  significance of chemical potential;

Second Law of Thermodynamics:

The concepts-Direction of spontaneous change: Dispersal of energy, Entropy; Change of entropy in reversible and irreversible processes; Variation of entropy with temperature; Measurement of entropy; Entropy and the Second law of thermodynamics; Principle of the increase of entropy; Maxwell’s thermodynamic relations; Thermodynamic potential functions; Joule-Thomson cooling effects; Refrigeration cycle; Change of Phyase; The machinery-combining the first and second law; Properites of the internal energy; Properties of the Gibbs energy; Chemical potential; Chemical potential of a pure substance; Chemical potential of a substance in a mixture; Significance of chemical potential; Real gases: Fugacity, Standard states of real gases, relation between fugacity and pressure.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Define  efficiency of thermal processes.
• Describe  Standard molar Gibbs energies.

Third Law of Thermodynamics:

Efficiency of thermal processes; Efficiencies of heat engines; Thermodynamic temperature scale: Energetic of refrigeration: Helmholtz and Gibbs energies, Maximum work; Standard molar Gibbs energies.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Define Phyase stability .
• Differentiate between reversible and irreversible process.
• Know the  significance of chemical potential;

Phyysical Transformation of Pure Substances:

Phyase Diagrams: Phyase formations. Phyase diagrams of single substances; Phyase stability and Phyase transitions; dependence of stability on the conditions, location of Phyase boundaries, Ehrenfest classification of Phyase transitions.

Lectures, handout and group discussion

Assignment

The students will be able to: 

§  Deduce the simplifications appropriate to a perfect gas.

Properties of simple Mixture:

Thermodynamic Description of Mixtute Partial molal quantities, Thermodynamics of mixing; Chemical potential liquids; Properties of solutions: Liquid mixtures, Colligative property solvent activity, Solute activity.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Deduce the  Vapour Phyase diagrams

Phyase diagrams:

Phyase Components and Degrees of Freedom: Definition Phyase rule, one component system; Two-component systems: Vapour Phyase diagrams; Temperature-composition diagrams: Liquid-Liquid Phyase diagrams Ultra purity and controlled purity; Three component systems; Triangular Phyase diagrams, partially miscible liquids, role of added salts.

Lectures, handout and group discussion

Assignment

The students will be able to: 

• Explain planck’s distribution law for black body

Radiation:

Black body radiation, thermodynamics of radiation, Strefn’s Rayleigh Jeans law and ultraviolet catastroPhye, Wien’s displacement law planck’s distribution law for black body radiation and quantum hypothesis.

Lectures, handout and group discussion

Assignment

PSC 2403

Statistics II

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

To understand the concepts of some terminology of statistics

An Overview of Statistics: Scope of Statistics; Sampling; Population and sample; Random sample: Statistical thinking; System and Process: Data information and knowledge; Branches of statistics- Descriptive Inferential Statistics.

Lectures, group discussion

Assignment

To provide the concepts about level of measurement of data

Describing Data: Classification of variables- Numerical (discrete continuous) and Categorical; Measurement levels- Nominal, ordinal and ratio scale: Sources of data: Primary, secondary and on-line.

Lectures,

handout

Tutorial examination

To represent Statistical problem in tabular form and graPhyically

Tables and GraPhys for Numerical Data: Classification and tabulation Frequency distribution and its construction; Cumulative and relatives cumulative frequency distribution; GraPhyical representation- Histogram frequency Polygon and Ogive; Stem and leaf display; Bar chart; Pie chart.

Measures of Central Tendency: Mean: Arithmetic mean, Geometric mean and Harmonic mean; Median; Mode; Symmetry and Skewness.

Lectures,

PowerPoint

Tutorial examination

To provide a description of the method used for analysis of central tendency

Measures of Variability (dispersion):  Absolute measure: Range, Mealt deviation, interquartile range, quartile deviation, variance, standard deviation percentile and quartile; Relative measures: Coefficient of quartile deviation coefficient of mean deviation, coefficient of variation, z-score; Outlier and its detection.

Lectures,

Handout and PowerPoint

Quiz test

To measure the variability of data and compare two or more data sets

Numerical Summary of Grouped Data: Mean and Variance.

Summarizing Description Statistics: Scatter Plot/Covariance and correlation coefficient; Coefficient of determination; Linear relationship between variables (simple and multiple regression an analysis).

Lectures, group discussion and

PowerPoint

Midterm Examination

To calculate central tendency and variability

Probability: Meaning of probability and its various terms: experiment, sample space, event, intersection of events, union of events, completed eversion exhausting events and mutually exclusive events, probability of postulates. Complete rule; addition, multiplication and conditional rule of probabilities Vicariate probabilities:  Joint and marginal probabilities; Joint and marginal probabilities; odds ratio; over involvement ratio.

Lectures, group discussion and

PowerPoint

Assignment

To predict the relationships among variables

Probability Distributions: Discrete and continuous random variables and probability distributions, Expectation of a random variable; Binomial distribution; Poisson distribution; Normal distribution.

Lectures, group discussion and

PowerPoint

Assignment

To provide basic concepts of probability

Statistical Interference; Meaning of hypothesis; Null and Alternative hypothesizes: One-sided and two-sided tests; Type I and type II errors; Acceptance and Rejection regions; Level of significance; Power of a test; Test of means; Variances; Correlation coefficients and regression coefficients.

Lectures, group discussion and

PowerPoint

Assignment

PSC 2404

Nuclear Physics and Chemistry

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

Student will be able to:

·         define and discuss the nucleus in an atom.

·         discuss isotopes, calculate the density of the nucleus and explain about the nuclear force.

Nuclear Properties: Constitution of the nucleus, Nuclear radius, Mirror nuclei, Coulomb displacement energy; Mass defect, Binding energy, Semi-empirical mass formula, Angular momentum, Spin, Parity and Symmetry, Iso-spin, Magnetic Dipole moment and electric moments, Nuclear force origin and Characteristics, Energy levels.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

·         discuss about radioactivity.

·         explain decay law half-life, average life and determine the half-life of radioactive decaying elements.

·         describe decay process.

Radioactivity: Natural and artificial radioactivity; Radioactive decay law; Half-life and average life; Radioactive equilibrium; Successive decay and branching decay; Radiometric dating; units of Radioactivity

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

• describe briefly about gamma decay.
• explain interaction and absorption of gamma rays.
• discuss energies state of gamma decay. and process of internal conversion

Gamma Transitions: Interaction and absorption of gamma rays, Measurements of gamma ray energies and life-times of excited states, internal conversion.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

• describe the process of alPhya decay.
• explain Geiger muller law and explain operation of Geiger muller counter.
• determine energies of alPhya decay.

AlPhya decay: Stability of heavy nuclei against break up; Measurement of alPhya-particle energies, Geiger Muller law, Theory of alPhya decay and selection rules.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

·         describe process of beta decay.

·         explain state the conservation laws.

·         determine disintegration energies.

·         described fermi theory of beta decay, selection rule, orbital electron capture and positron emission.

Beta decay: Introduction, Conservation of energy; conservation of angular momentum; Neutrino hypothesis; Measurement of disintegration energies; Fermi theory of beta decay and selection rules. Orbital electron capture and positron emission.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

·         explain the working principle of radiation detectors.

Stopping and Detecting Nuclear Radiations: stopping power and range for charged nuclear particles; ;Stopping of neutrons; gas-filled counters; Geiger Mueller counter; Solid state counter; Scintillation counter; Neutron detection; counting statistics.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

Student will be able to:

·         explain the working principle of Particle accelerator.

Accelerations and sources of Atomic Particles: Van de Graff acceleration Cyclotron: Betterton; Proton synchrotron; Neutron sources.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

student will be able to:

·         compare and contrast nuclear reactions and chemical reactions and explain the role of subatomic particles in a nuclear reaction.

·         describe different types of nuclear reactions

Nuclear reactions: Concept of nuclear reactions; Elastic scattering: Inelastic scattering; nuclear transformation; Q-value in nuclear reaction: Nuclear reaction cross section: Excitation function; Nuclear reaction mechanism low and high energy.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

student will be able to:

·         explain nuclear fission and nuclear fusion.

·         describe how the processes of fission and fusion work in nuclear weapons and in generating nuclear power

Nuclear fission and fusion: Definition and illustrations; Fission probability Mass and charge distributions; concept of nuclear fusion and energy relation.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

student will be able to:

• describe general principles of radioisotope product.
• discuss how radiation is used in agriculture and various industries.
• explain the difference between diagnosticand therapeutic radiation.

Production of radioisotopes: General principles of radioisotope product Radiochemical separation techniques; Career techniques; Chemical yield, Uses of radioisotopes in medicine.

Lectures,

Hand notes

Assignment, Class test,

Quiz, and Group Discussion

PSC 2405

 Biochemistry

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to know about the structure of cell as well as other related terms.

Cell:  Structural features; Usefulness of cells and organisms in Biochemical studies; Evolution of structure of Prokaryotic cells; Evolution of Eukaryotic  cells- structural features of Eukaryotic  cells: The plasma membrane Endocytosis; Endoplasmic Reticulum; The Golgi  complex, Lysosomes Nucleus; Isolation of organelles; Evolution of multicultural  organisms.

Lectures, group discussion

Assignment

The students will be able to learn about Cellular Constituents.

Structure and Function of Cellular Constituents:

(i)                             Amino acids and proteins.

(ii)                           Fatty acids.

(iii)                         Lipids and Membranes.

(iv)                         Sugars and polysaccharides.

(v)                           Nucleotides and Nucleic acids, Structure-sequencing of nucleic acids.

Lectures,

handout

Tutorial examination

The students will be able to learn about enzymes in detail.

Enzymes: Definition; Isolation; Characterization; Kinetics; Inhibition mechanism of action of few structural enzymes; Application of enzyme health and diseases.

Lectures,

PowerPoint

Tutorial examination

The students will be able to learn about metabolism in detail.

Metabolism: Carbohydrate; Lipid and protein metabolism; Integration metabolic pathway.

Lectures, group discussion and

PowerPoint

Midterm Examination

The students will be able to learn about Oxidative PhyosPhyorylation and PhyotoPhyosPhyorylation.

Oxidative PhyosPhyorylation  and PhyotoPhyosPhyorylation; Mitochondrial electric flow; Electron carriers in the respiratory chain; Ubiquinone; The cytochrome ATP synthesis coupled to Respiratory Electron Flow; The Chemiosm model; Proton gradient in electron flow and PhyosPhyorylation.

Lectures, group discussion and

PowerPoint

Midterm Examination

PSC 2406

Spectroscopy

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about Basic Spectroscopic method.

Spectroscopic method: General consideration, Characterization of electromagnetic radiation; Energy levels; Potential energy curve; Region the spectrum; Representation of spectrum.

Atomic Spectroscopy: Atomic spectra; Spectra of hydrogen and hydrogen like elements; Energy level diagrams; Angular momentum of atoms; Coupling of orbital and spin angular momenta; Term symbols; Fine structure of atomic spectra; Methods of excitation; Applications of atomic spectroscopy.

Lectures, group discussion

Assignment

The students will be able to learn the basic knowledge about Microwave, Vibration Spectroscopy.

Microwave Spectroscopy; Observational methods for the absorption of radiation by rotating molecules; Rotation of molecules; Rotation spectra; Rotation of diatomic molecules; The quantum restriction.

The Vibration Spectroscopy: The vibrating diatomic molecules; The diatomic vibrating rotation; The vibration-rotation spectra of carbon monoxide; Breakdown of the Born-Oppenheimer approximation; The interaction of rotation and vibrations: The vibration of poly atomic molecules

Lectures,

handout

Tutorial examination

The students will be able to learn about spectroscopic method. They will able to explain about Elementary treatment of Raman spectrum.

Elementary treatment of Raman spectra: Pure rotational spectra; Vibrational Raman spectra; Structure determination from Raman and infrared spectroscopy; Techniques and instrumentation.

Spain Resonance spectroscopy: spin in an applied magnetic fileds Nuclear Resonance spectroscopy: ¹H NMR and ¹³C NMR  spectroscopy; chemical shift and coupling constant; Non-first order spectra-variable temperature spectra; Simplification of complex spectra-LSR and spin decoupling; New principle techniques in FT-NMR-NOE-COSY-NOESY-2 D spectra; Para electron spin resonance spectroscopy; Origin; Experimental method and applications.

Lectures,

PowerPoint

Tutorial examination

The students will be able to understand Mass Spectrum. They will gain the knowledge about the presence of isotope

Mass spectroscopy: Ionization of a molecule of electron impact. Molecular ion; The base peak – the mass spectrum, Detection of the presence of isotopes – recognition of molecular peak; The mass spectrometer, Fragmentation – IHD; Nitrogen raceme general appearance of mass spectrum, Metastable ions.

Lectures, group discussion and

PowerPoint

Midterm Examination

PSC 2407L

Experiments in Heat and thermodynamics

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

Ø explain and calculate the properties of waves including propagation, reflection, refraction, polarization, interference and diffraction by using the theory of waves apply the theory of optics to calculate the geometrical parameters of thick lenses and design optical devices apply essential theories to design anti-reflection and reflection-enhancement films

1. Specific heat of solids, liquids & gases at low, medium & high temperatures.
2. Thermal conductivities of solids liquids & gases.
3. Thermal conductivities by Lee’s method.
4. Mechanical equivalent of heat, J by electrical method.
5. Use of resistance thermometer.
6. Resistance of a wire with temperature & measurement of temperature coefficient of resistance.
7. Measurement of thermoelectric e.m.f. and its variation with temperature using a milliammeter and standare resistance.
8. Construction & calibration of a direct reading thermoelectric thermometer thermocouple.
9. Characteristics of a junction diode.
10. Characteristic of a p-n-p transistor in common emitter circuit.

Practical and hand notes

Assignments, Viva voce and Class tests

PSC 2408L

Inorganic preparation and Volumetric Analysis

2.0 CH

50 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

The students will be able to understand about Inorganic Compounds

Preparation of Simple Inorganic Compounds:

(i)  Preparation of sodium thiosulPhyate.

(ii)  Preparation of Ammonium nickel (II) sulPhyate.

(iii)  Preparation of Ammonium copper (II) sulPhyate.

Lectures,

PowerPoint

Tutorial examination

The students will be able to learn the Quantitative Analysis.

2.       Quantitative Analysis:

Neutralization Titrations:

(i)    Standardization of approximately 0.1M NaOH solution against succinic acid.

(ii)        Standardization of approximately 0.1 M HCI by titration with standard 0.1M NaOH (using both methyl orange and methyl red indicator).

O     Oxidation –Reduction Titrations: 

(i)   Determination of Ferrous iron by oxidation with standard K₂Cr₂O solution.

(ii)  Determination of Ferric iron with standard K₂Cr₂O₇ solution.

(iii) Determination of total iron with standard K₂Cr₂O₇ solution.

(iv) Determination of Ferrous iron by oxidation with standard KM_nO₄ solution.

(v)  Determination of Ferric iron by oxidation with standard KMnO₄ solution.

(vi) Determination of total iron with standard KMnO₄ solution.

Iodometric titrations: Determination of copper by Iodometric titration.

Pricipitation titration:  Determination of chloride by Volhard’s method.

Lectures, group discussion and

PowerPoint

Midterm Examination

PHY 3501

Classical Mechanics and Relativity

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

• Learn the basic of constraints,   Alembert’s principle, velocity dependent potentials and dissipationfunction and with its application

1. Review of Elementary Principles: Mechanics of a system of particles; constraints; D Alembert’s principle and Lagrange’s equations; Velocity dependent potentials and dissipation function

Lectures, hand notes.

Assignments, Class tests

• Understand the basic Hamilton’s principle and Lagrange’s equation to non-conservative and non-homonymic system.

1. Variational Principles and Lagrange’s Equation: Hamilton’s principle; Derivation of Lagrange’s equation from Hamilton’s principle; Extension of Hamilton’s principle to non-conservative and non-homonymic system.

Lectures, hand notes,

Class tests

• solve the differential equations of orbits and explain viral theorem, and Kepler’s law .

3. The two body Central Force Problem: Reduction to equivalent one body problem: Kepler’s law and classification of orbits; The virial theorem; The differential equation for the orbit; Scattering in a central force field; Transformation of scattering problem to laboratory coordinates.

Lectures, hand notes

Quiz tests

• Learn how  to identify symmetric and solving rigid body problems

4. Rigid Body Motion:.Eulerian angles; Euler’s equation of motion for solving rigid body problems; Symmetrical top.

Lectures, hand notes

Quiz tests

• Derivate VariationalPrinciple.

5. The Hamilton’s Equation of motion: Hamilton’s Equation of motion; Derivation from Variational Principle; The principle of least action.

Lectures,

hand notes.

Midterm exams, Power Point Presentations

• Understand the basic of canonical and Legendre transformations and its applications.

6. Canonical Transformation: The equations of canonical transformations; Legendre transformations; the internal invariants of Poincare; Lagrange and Poisson’s Brackets; Equations of motion in Poisson’s notation.

Lectures,

hand notes

Midterm exams

• Learn fundamental concepts of special relativity and applications.

7. Special Theory of Relativity: Michelson and Morley experiment; Galilean transformations; Basic Postulates; Lorentz transformations; Length contraction and time dilation.

Lectures,

hand notes

Midterm exams

• Understand the basic of momentum, energy and relativistic force law.

8. Relativistic Mechanics:

Mass and Momentum; Relativistic energy; Equivalence of mass and energy; Momentum-energy four vector; Relativistic force law

Lectures,

hand notes

Assignments

PHY 3502

Classical Electrodynamics

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

Ø  Learn the basic of obtain Maxwell’s equation in vacuum and derive the equation of the electromagnetic field using the potentials and  its application

1. Framework: a) Review of Maxwell: Equations in vacuum and in matter-integral and differential formulation, Boundary conditions at an interface.

b) Vector and Scalar Potentials, Gauge invariance, Lorentz and coulomb Gauge, Lorentz force in terms of potentials.

c) Poynting’s theorem and Energy-Momentum conservation for Electromagnetic fields and charges.

Lectures, hand notes.

Assignments, Class tests

Ø  Understand the basic of Poisson equations and Solution of Laplace’s equations in two and three dimensions in coordinates.

2. Boundary Value Problems in Electrostatics: a) Poisson equations and Laplace equations, Uniqueness of the solution with Dirichlet or Neumann equation.

        b) Method of Image Charges. Solution of Laplace’s equations in two and three dimensions in Cartesian, Cylindrical and SPhyerical coordinates; Associated Legendre Polynomials and SPhyerical Harmonics.

        c)  Multiple expansion of the potential due to a localized charge distribution: dipole and quadruple moments.

        d) Field inside dielectrics, Boundary value problems involving dielectrics.

Lectures, hand notes,

Class tests

Ø  Learn about different problems in magneto statics.

3. Elements of Megneto-statics:Calculation of the vector potential for current carrying loop, Boundary value problems in magneto statics.

Lectures, hand notes

Quiz tests

Ø  Learn about characteristics of Reflection, Refraction, Dispersion and Polarization.

4. Electromagnetic wave equation:

a)     Deviation of the wave equation in vacuum and non-conducting medium, Plane waves and polarization.

b)    Reflection and Refraction of electromagnetic waves at a plane interface between dielectrics. Fresnel equations, polarization by reflection and total internal reflection.

c)     Dispersion characteristics of dielectrics, conductors and plasmas Anomalous dispersion, plasma frequency.

d)    Waves in a conducting medium, Fields at the surface and within a conductor: attention Phyenomena and skin depth.

Lectures, hand notes

Quiz tests

Ø  Formulate and solve electromagnetic problems with the help of electrodynamics potentials and super potentials. calculate the electromagnetic radiation from radiating systems

5. Wave Guides: Solution of the wave equation in a cylindrical and rectangular waveguide. TE, TM and TEM modes and their differences. Cutoff frequencies, Phyase and group velocities in a waveguide.

        a)  Green function techniques for solving wave equations advanced and retarded Green functions.

        b) Solution of the wave equation in sPhyerical coordinates. Multiple expansions of the electromagnetic potentials: Multiple moments.

        c)  Electric Dipole radiation from an oscillator, Larmor formula. Center-fed antennas.

        d) Radiation from point charges. Lienard-Wiechert potentials. Power radiated by a point cahrge: Classical Bremsstrahlung. Radiation reaction and Abraham-Lorentz formula.

        e)  Scattering of electromagnetic waves by charges: Thompson and Rayleigh scattering.

Lecture,

 Hand notes.

Midterm exams, Power Point Presentations

Ø  Understand the. Formulate and solve electro-dynamic problems in relativistically covariant form in four-dimensional space-time.

6. Relativistic Electrodynamics:      

Lagrangian formulation of electrodynamics, Covariant formulation of electrodynamics.

Lectures,

hand notes

Midterm exams

PHY 3503

Physics and Chemistry of Solid State

4.0 CH

100 Marks

Learning Outcomes

         Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

Ø  Learn the basic of the crystalline state of solids and Experimental diffraction methods

1.Crystal Structure: The crystalline state of solids; Unit cells and Bravais lattices; Symmetry operations; Miller indices; Simple crystal structures; Diffraction of X-rays by crystals; Laue equation and Bragg law; Experimental diffraction methods- Laue method; Rotating crystal method and powder method; Reciprocal lattice.

Lectures, hand notes.

Assignments, Class tests

Ø  Understand the basic of crystal bonding and their applications.

2.Crystal Bonding: Inter-atomic forces and crystal bonding; Ionic crystals; Calculation electrostatic energy; Madelung constant and Bulk modulus; Covalent crystals; Crystals of inert gas; van der Waals and Repulsive interactions; Metal crystals and Hydrogen bonded crystals.

Lectures, hand notes,

Class tests

Ø  solve the thermal properties of solid.

  3. Lattice vibration and thermal properties; Vibrations of monatomic linear lattice; Vibration of diatomic linear; Phyonon; Enumeration of normal modes; Lattice specific heat; Einstein and Debye modes; Lattice thermal resistivity.

Lectures, hand notes

Quiz tests

Ø  Learn the behavior of free electron in different dimensions.

4. Free Electron Fermi Gas: Energy levels and density of states in one dimension; Free election gas in three dimensions; Heat capacity of the electron gas; Electrical conductivity of metal; Ohm’s law; Hall effect; thermal conductivity of metals; Weidman-Franz law.

Lectures, hand notes

Quiz tests

Ø  Derivate dielectric properties of solids.

5.Dielectric Properties: Macroscopic electric field; Local electric field of and atom; Static Dielectric constant; Ionic and orientational polarizabilities; Claussium-Mossottii relation; Pyrro-, Piezo- and Ferro electricity.

Lectures,

hand notes.

Midterm exams, Power Point Presentations

Ø  Understand band theory of solids and Bloch theory

6. Band Theory of Solids: the Bloch theory; The Kronig penny model; the motion of electrons in one dimension; Distinction between metals; Insulators and intrinsic semiconductors; The Concept of a hole.

Lectures,

hand notes

Quiz test

Ø  Learn fundamental concepts of semiconductor and Hall effect

7.Band Theory of Insulators and Semiconductors: A simplified model of an insulator and intrinsic semiconductors; Improved model of an insulator and intrinsic semiconductors; Model of an impurity; Semiconductors; Hall effect in semiconductor with a single type of charge carrier.

Lectures,

hand notes

Midterm exams

Ø  Understand the basic of magnetism.

8. Magnetism: Origin of Magnetism; Diamagnetism; Paramagnetic equations; Ferromagnetism; Weiss theory of ferromagnetism; Nature and origin of Weiss molecular field; Concept of Domains and Hysteresis; Anti ferromagnetism; Ferrimagnetisms.

Lectures,

hand notes

Assignments

Ø  Learn fundamental concepts of superconductor

9. Basic properties of superconductors; Meissner effect; Type II superconductors; Thermodynamics of superconductivity; Landon equation; BCS theory; Tunneling and JosePhyson effect; High-Te superconductors.

Lectures,

hand notes

Power Point Presentations

Ø  Understand Phyotoconductivity, defects in solid excitations.

Excitation; Phyotoconductivity; Luminescence and defects in solids excitations; Phyotoconductivity in crystals; Traps; Space change effects; Defects in solids; Point defects; Line defects; Plane defects; Dislocations; Class; Lattice effects; Inherent thermodynamic effects; Schottky defects; Frenkel defects; Electrical conductivity in ionic solid; Nonstoichiometry in alkali metal halides; Transition metal halides; Transition metal oxides and sulfides; Structural and the dynamic aspects of nonstoichiometry; Foreign impurity atoms or ions; Impurity of solid state

        Ions in an ionic crystal; Impurities in a semi conducting element; Colour centers; Experimental investigation of lattice defects; Hall effect.

Lectures,

hand notes

Tutorial

Power Point Presentations

Ø  Describe reaction of solids.

10. Reaction in Solids: Kinetics of decomposition; tarnishing Phyotolytic reaction; Phyotoconduction; Phyotocells.

Lectures,

hand notes

Class test

PHY 3504

Quantum Mechanics I

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

After completion of the course, students will be able to:

Ø  Learn the basic ofpinpoint the historical aspects of development of quantum mechanics

1. Phyysical Basis:  Failures of classical mechanics and emergence of quantum mechanics; Bohr atom and old quantum theory; Shortcomings of old quantum theory; Domain of quantum mechanics; Heisenberg’s uncertainty relation.

Lectures, hand notes.

Assignments, Class tests

Ø  Understand how to apply the postulates of quantum mechanics to specific Phyysical situations

2. Formulation: Concepts and Phyysical postulates of quantum mechanics; Operators; State function and state function space; Eigen value equations; Basis vectors; Measurement in quantum mechanics and expectation values; Eigen functions; Orthogonality and the sharing of Eigen function sets.

Lectures, hand notes,

Class tests

Ø  solve time-dependent and time-independent Schrödinger equation for simple potentials

3. Schrodinger Equation: Time dependent and time-independent Schrodinger Equation; Significance of wave function; Probability current density; Expectation value and Ehrenfest’s theorem; Time variation of expectation values.

Lectures, hand notes

Quiz tests

Ø  Learn how to solve problems in one dimension.

4.Problems in One Dimension: Particle in a box quantization; step potentials and potential barrier, square, square-well potentials; Linear Harmonic oscillator.

Lectures, hand notes

Quiz tests

Ø  Understand the basic of Parity, sPhyerically symmetric potentials.

5. SPhyerically Symmetric System: Schrodinger equation for sPhyerically symmetric potentials; SPhyerical harmonics; Parity; angular momentum; Hydrogen atom;

Lectures,

hand notes.

Midterm exams, Power Point Presentations

Ø  Understand the basic of describe Phyysical situations using the mathematical language of complex vectors and kits interpret the results of experiments in terms of quantum theory.

6. Matrix Formulation of Quantum Theory: Matrix representation of operators and wave functions; Normalization and orthogonality of wave functions in Matrix form; Dirac’s Bra and Ket notations; Schrodinger equation and the eigen value problem energy representation; Diagonalization.

Lectures,

hand notes

Midterm exams

PHY 3505L

Experiments in Electricity and Magnetism II

3.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

At the end of the course, students will be able to

• know how to work oscilloscope, calibration of cathode ray,
• learn how to perform a charge of an electron by Helmholtz coil,
• how to find out the resolution time of G.M tube,
• explain detection of nuclear reaction, charging & discharging of condensers,
• identify random nature of the emission of alPhya particles from a radioactive source,
• Measure of thermal & electrical conductivity of metals,
• Measure of the magnetic flux density between the poles of an electromagnet.

1. (a)Familiarization of an     oscilloscope.

(b)Calibration of a cathode ray tube for both D.C. and A.C. sources.

(c)Measurement of an unknown frequency and also Phyase angle between two A.C. sources using cathode ray tube.

1. Determination of a charge of an     electron by Helmholtz coil.
2. Charging & discharging of condensers & studying their various characteristics.
3. Determination of the characteristics & the resolution time of a G.M. tube.

(a)        Measurement of the background radiation using a G.M. tube with a scalar.

(b)        Detection & elementary identification of principal nuclear radiation.

(c)        Demonstration of the directional emission from a radioactive source.

1. Demonstration of the random nature of the emission of alPhya particles from a radioactive source & introduction of statistical methods of predicting & interpreting the results of radioactivity measurements.
2. Determination of the current voltage characteristics of an ionization chamber & the range of alPhya particles.

1. Measurement of the electrical conductivity of electrolytes of different concentration by Kohlrauch’s method.
2. Measurement of thermal & electrical conductivity of metals & verification of the Weidman-Franz law.
3. Measurement of the magnetic flux density between the poles of an electromagnet.
4. Exploration of the magnetic field along the axis kof a solenoid & measurement of the self-inductance of the solenoid coil.
5. Determination of cell constant, Ôa’ & Ôb’ spacing & indexing of X-ray powder diffraction PhyotograPhy.
6. The scintillation counter as a gamma-ray energy spectrometer.

Lectures, demonstration,

Discussion in group

Practice by doing,

Lab test

Quiz test, Assignments, Tutorial examination,

Presentation.

PHY 3601

Quantum Mechanics-II

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

students will be able to:

• Learn the basic of Quantum mechanics, describes many aspects of nature at an ordinary (macroscopic) scale.

1. Angular Momentum:

General Treatment: Spin angular momentum. Addition of Angular momentum. Clebsch-Gordan Coefficients. Wigner-Eckert Theorem.

Lectures, hand notes

Class tests

students will be able to:

• Understand the applications of First-Order, Second-Order

Perturbation.

2. Approximation Methods in quantum Mechanics:

(a)   Time Independent Perturbation Theory.

First-Order Perturbation. Second-Order Perturbation. Degenerate vs.

Non-degenerate cases. Examples.

(b)   Variational Method.

        Principle of the variational method. Examples. Helium Atom.

(c)   WKB approximation.

        Semi-classical approximation. Connection Formulae. Application to Bound States. Validity.

(d)      Other Methods: Adiabatic Appproximation, Sudden Approximation.

Lectures, hand notes,

Quiz tests

 students will be able to:

• Learn the basic of Fermi’s Golden Rule.

3. Time Dependent Perturbation Theory

        Principle of the Method. Fermi’s Golden Rule, Radioactive Transition, Dipole Transition, Selection Rules

Lectures, and power points

Class tests

students will be able to:

• Analyze and design symmetries of two Nucleon System.

4. Identical Particles

        States of Non-Interacting Identical particles. Pauli Principle. Scattering of two Bosons. Symmetries of two Nucleon System. Slater determinant.

Lectures, hand notes

Midterm exams

students will be able to:

• Understand the basic of Schrodinger Equation, Born Approximation Validity

5. Scattering Theory

       Scattering Cross-section. Partial Wave Expansion Optical Theorem. S- matrix. Green’s Function Technique of Solving the scattering Schrodinger Equation. Lippmann-Achwinger Equations. Formal Solution in the form of Von Neumann Series. Born Approximation Validity Examples.

Lectures

hand notes.

Midterm exams

students will be able to:

• Learn how to determine Dirac Equation, Electron spin and Negative Energy Solutions.

6. Dirac Equation

Relativistic Schrodinger Equations. Klein-Gordon Equation, Dirac Equation, Electron spin, Electron Magnetic Moment, Positive Energy solution, Negative Energy Solutions (Holes).

Lectures, hand notes

Midterm exams

PHY 3602

Solid State Physics-II           

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

students will be able to:

§  Learn the basic of Write down and explain the meaning of the zeroth law.

1. Band Theory of Solids:

The Bloch theorem. The Kronig Penney model; The motion of electrons in one dimension; Distinction among metals, insulators and intrinsic semiconductors. The concept of a hole.

Lectures, hand notes

Class tests

studeStudents will be able to :

§  Understand the applications of insulator and intrinsic semiconductors

2. Band Theory of Insulators and Semiconductors :

 A simplified model of an insulator and intrinsic semiconductors, Improved model of an insulator and intrinsic semiconductors; Improved model of an insulator and intrinsic semiconductors; Models for an impurity semiconductor; Hall effect in semiconductors.

Lectures, hand notes,

Quiz tests

 Stude   Students will be able to :

• Learn the basic Concept of Domains and hysteresis;

3. Origin of magnetism: Diamagnetism; Diamagnetism; Para-magnetism, Ferromagnetism, Weiss theory of ferromagnetism: Nature and Origin of Weiss molecular field; Concept of Domains and hysteresis; Anti-ferromagnetism: Ferromagnetism, Ferrites.

Lectures, and power points

Class tests

Students will be able to :

Analyze Thermodynamics of Superconductivity; London equation; BCS theory.

1.      Superconductivity :

Basic properties of superconductors; Meissner effect, Type-I and Type-II Superconductors, Thermodynamics of Superconductivity; London equation; BCS theory, Tunneling and JosePhyson effect; High-Te Superconductors.

Lectures, hand notes

Midterm exams

Students will be able to :

Understand the basic of Phyotoconductivity in crystals, Traps; Space charge effects.

5. Excitons, Phyotoconductivity, Luminescence and Defects in Solids: Excitons, Phyotoconductivity in crystals, Traps; Space charge effects, point defects in solids; Lattice vacancies; Schottky defects, Frenkel defects, Diffusion, Colour centres.

Lectures

hand notes.

Midterm exams

PHY 3603

Statistical Mechanics

4.0 CH

100 Marks

Learning Outcomes

Course Contents

Teaching Strategy

Assessment Strategy of ILOs

Students will be able to :Learn the basic of Know thermodynamic functions and their equilibrium conditions.

1.         Statistical System: Macroscopic and Microscopic states; Thermodynamic functions and their equilibrium conditions

Lectures, hand notes

Class tests

Students will be able to :

Understand the applications of

different Phyase space; Lieu; Ville’s theorem.

2.         Ensembles:Phyase space; Lieu; Ville’s theorem; Micro canonical ensemble; Canonical ensemble-its connection with thermodynamic parameters; Ideal monatomic gas; Harmonic oscillator; Specific heat of solids; grand conical ensemble; Maxwell velocity distribution and mean values.

Lectures, hand notes,

Quiz tests

Students will be able to :

• Learn the basic of Determinate the  Maxwell velocity distribution and mean values.

3.         Statistical Distribution: Maxwell-Boltzmann distribution; Bose-Einstein distribution and Planck’s radiation law; Fermi- Dirac distribution and heat capacity of free electron gas.

Lectures, and power points

Class tests

Students will be able to :

Analyze define entropy and number of Eigen states.

4.         Statistical Thermodynamics: Entropy and probability; Entropy and number of Eigen states; Relationship between partition function and thermodynamic function of monatomic and diatomic molecules.

Lectures, hand notes

Midterm exams

Students will be able to :

Deduce the expression of Rational, translational and vibration function.

5.      Separation of Partition Functions: Rational, translational and vibration partitions function of a diatomic molecule.