POs, PSOs, Cos

 

 

Programme Outcomes- B.Sc.
After the completion of three year graduation, students will be able to acquire the following attributes.
PO 1	Domain Knowledge- Acquire knowledge of fundamentals, models, basic scientific principles and methods.
PO 2	Application- Able to apply fundamentals, techniques, skills and tools of sciences in new contexts.
PO 3	Analysis- Able to analyse problems scientifically and find solutions.
PO 4	Project Management- Able to undertake projects/tasks, plan and implement effectively.
PO 5	Individual and Team Work- Able to work both as an individual and together with people of different socio-cultural backgrounds.
PO 6	Communication Skills- Able to use proper communication skills for successful interaction in personal and public life.
PO 7	Social Awareness- Able to undertake activities informed by social values (such as social equity), social issues and cultural diversity.
PO 8	Environment and Sustainability- Develop consciousness to preserve the earth’s finite resources and balance human needs and the environment.
PO 9	Ethics and Human Values- Apply ethical principles and appreciate the importance of ethical practices in professional life and uphold human dignity.
PO 10	Lifelong Learning- Able to acquire emerging knowledge and skills and adapt to the changing needs of the times.

 

B.Sc. Physics
Program Specific Outcomes After successful completion of three year degree program in Physics, students are able to -----
PSO1	Understand core theories and principles of Physics.
PSO2	Learn the concepts of Physics through classical and quantum Phenomena.
PSO3	Use basic mathematics to describe and analyze physical phenomena.
PSO4	Enhance their learning abilities through development of laboratory experiments.
PSO5	Develop practical skills and techniques to solve the scientific Problems.

 

B.Sc. Physics

Course Outcomes

B.Sc. I, Semester I Mechanics I (DSC-1-A) (2018 - 19)

At the end of this course, students will have -----
CO 1	Basic knowledge of applications of vector algebra in Physics.
CO 2	Knowledge about ordinary differential equations.
CO 3	Awareness about Newton’s laws of motion and their applications.
CO 4	Basic concept of rotational motion.

 Mechanics II (DSC-2-A)

At the end of this course, students will have -----
CO 1	Knowledge about Newton’s law of gravitation and Kepler’s laws of planetary motion.
CO 2	Knowledge about simple harmonic motion and fundamentals of oscillations.
CO 3	Understood the concept of elasticity and its applications.
CO 4	Learnt the concept of surface tension and its applications.

 

B.Sc. I, Semester II

Electricity Magnetism I (DSC-1-B)

At the end of this course, students will have -----
CO 1	Applications of vector calculus.
CO 2	Basic theorems in vector calculus.
CO 3	Coulomb’s law in electrostatics and its applications.
CO 4	Gauss’s law in electrostatics and its applications.

 

Electricity Magnetism II (DSC-1-B)

At the end of this course, students will have -----
CO 1	Qualitative analysis of AC circuits.
CO 2	Magnetism and magneto-statics and their applications.
CO 3	Concept of electromagnetic induction.
CO 4	Basic idea of Maxwell’s equations and propagation of electromagnetic waves.

B.Sc. II Semester III

Thermal Physics and Statistical Mechanics-I (DSC-1-C) (2019 - 20)

At the end of this course, students will have -----
CO 1	CO 1 Different velocities of gas molecules.
CO 2	CO 2 Maxwell’s distribution of molecular velocities.
CO 3	CO 3 Merits and drawbacks of thermometers.
CO 4	CO 4 Laws of thermodynamics.

 Waves and Optics –I (DSC-2-C)

At the end of this course, students will have -----
CO 1	Superposition of harmonic oscillators.
CO 2	Theory of coupled oscillations.
CO 3	Ultrasonic waves and their applications.
CO 4	Basics of sound in the context of acoustics of buildings.

 

B.Sc. II, Semester IV

Thermal Physics and Statistical Mechanics-II (DSC-1-D)

At the end of this course, students will have -----
CO 1	Thermodynamic functions and Claussius-Clapeyron equation.
CO 2	Black body radiation spectrum.
CO 3	The general law of radiation- Planck’s law.
CO 4	Classical and quantum statistical mechanics.

 Waves and Optics –II (DSC-2-D)

At the end of this course, students will have -----
CO 1	Cardinal points and their graphical representation.
CO 2	Rayleigh criterion and resolving power of prism and grating.
CO 3	Qualitative study of polarization of light.
CO 4	Interference and diffraction of light.

 B.Sc. III Semester V

Mathematical Physics (DSE-E1) (2019 - 20)

At the end of this course, students will have -----
CO 1	Method of separation of variables: Laplace and wave equations.
CO 2	Some special functions: Legendre and Bessel functions.
CO 3	Some special integrals: Factorial, Gamma, Beta and Error functions.
CO 4	Complex algebra and analysis.

 Quantum Mechanics (DSE-E2)

At the end of this course, students will have -----
CO 1	Concept of wave particle duality.
CO 2	Wave function and development of Schrodinger’s wave equation.
CO 3	Fundamental operators in quantum mechanics.
CO 4	Applications of Schrodinger’s wave equation.

 Classical Mechanics and Classical Electrodynamics (DSE-E3)

At the end of this course, students will have -----
CO 1	Lagrange’s equations and their applications.
CO 2	Hamilton’s principle and techniques of calculus of variation.
CO 3	Einstein’s special theory of relativity.
CO 4	Dynamics of charged particle under electric and magnetic fields.

 Digital, Analog Circuits and Instrumentation (DSE-E4)

At the end of this course, students will have -----
CO 1	Logic gates and flip flops.
CO 2	Transistor amplifier and oscillator.
CO 3	CRO for different applications.
CO 4	Operational amplifier and timer circuits

B.Sc. III Semester VI

Nuclear and Particle Physics (DSE-F1)

At the end of this course, students will have -----
CO 1	Basic properties of nuclei.
CO 2	Construction and working of different types of nuclear accelerators.
CO 3	Construction and working of different types of nuclear detectors.
CO 4	Classification of elementary particles.

 Solid State Physics (DSE-F2)

At the end of this course, students will have -----
CO 1	Basics of solids and crystal structure.
CO 2	X-ray diffraction and direct and reciprocal lattice.
CO 3	Theoretical aspects of magnetic materials.
CO 4	Theoretical understanding of band theory of solids.

Atomic and Molecular Physics and Astrophysics (DSE-F3)

At the end of this course, students will have -----
CO 1	Atomic spectra.
CO 2	Molecular spectra.
CO 3	Raman and Infrared spectra.
CO 4	Structure of universe and stellar evolution.

 Energy Studies and Materials Science (DSE-F4)

At the end of this course, students will have -----
CO 1	Working principles of wind and solar energy and their importance.
CO 2	Origin and conversion processes of biomass.
CO 3	Superconductivity and their applications.
CO 4	Concept of Nano-science and Nano-technology.

 B.Sc. I Semester I (NEP 2022-23)

Mechanics-I (DSC A1)

At the end of this course, students will have -----
CO 1	Students are able to understand and identify scalar and vector physical quantities in mechanics
CO 2	Students are able to understand and apply vector algebraic methods to elementary exercises in mechanics
CO 3	Students are able to understand and identify degree and order of given differential equations
CO 4	Students are able to solve second order, homogenous ordinary differential equations in mechanics
CO 5	Students are able to understand the conceptual evolution of conservation laws of momentum and energy for both single and system of particles
CO 6	Students are able to understand and apply basic concepts of rotational motion
CO 7	In general, students are capable of correlating above concepts and methods in mechanics to both theoretical and experimental domains revealing analytical as well as numerical skills

 B.Sc. I Semester I (NEP 2022-23)

Mechanics-II (DSC A2)

At the end of this course, students will have -----
CO 1	Students are able to understand and apply Newtons Law of Gravitation to celestial objects
CO 2	Students are able to understand geometry of planetary orbits under the action of central force
CO 3	Students are able to solve numerical problems based on Kepler`s Laws of planetary motion
CO 4	Students are able to understand simple concepts like weightlessness, Geosynchronous satellite and GPS
CO 5	Students are able to setup differential equation for simple harmonic motion and its allied cases
CO 6	Students are able to calculate time averages of KE, PE and TE
CO 7	Students are able to revise basic concepts such as stress, strain and elastic constants of elasticity
CO 8	Students are able to derive elastic constants for beam supported at both ends and at one end
CO 9	Students are able to derive elastic constant (eta) of a wire under torsional oscillations (Searle’s Method)
CO 10	Students are able to explain the phenomenon of surface tension on the basis of molecular forces
CO 11	Students are able to derive the relation between surface tension and excess pressure
CO 12	Students are able to perform an experiment to determine ST by Jaeger`s method
CO 13	Students are able to discuss and state the factors affecting the ST
CO 14	In general, students are capable of correlating above concepts and methods to both theoretical and experimental domains revealing analytical as well as numerical skills

B.Sc. I Semester II (NEP 2022-23)

Electricity and Magnetism-I (DSC B1)

At the end of this course, students will have -----
CO 1	Students are able to understand the physical significance of gradient, divergence and curl
CO 2	Students are able to apply concepts in vector calculus such as gradient, divergence and curl related to vector and scalar fields using Gauss, Stokes and green`s theorem
CO 3	Students are able to understand and apply concepts of electrostatic field, potential to point charges, electric dipole and geometrically regular charged bodies
CO 4	Students are able to understand and apply concept of capacitor to isolated conductor, parallel plates, cylindrical and spherical capacitors and allied modifications in it
CO 5	Students are able to understand and apply concept of energy density in electric field
CO 6	Students are capable of applying above concepts to solve numerical exercise in electrostatics

 B.Sc. I Semester II (NEP 2022-23)

Electricity and Magnetism-II (DSC B2)

At the end of this course, students will have -----
CO 1	Students are able to understand importance of complex numbers in analysis of AC Circuits contacting Inductance(L) Capacitor(C) and Resistance (R) and their various configurations
CO 2	Students are able to define and apply the concepts in AC circuits such as Impedance (Z), reactance (XC and XL), Admittance, Susceptance and Quality Factor (Q)
CO 3	Students are able to understand and design AC bridge: Owen`s Bridge
CO 4	Students reveal mastery in basic terminology in network analysis for further studies
CO 5	Students are able to state and apply Network theorems to simple circuits
CO 6	Students are able to understand basic working principle of Ballistic galvanometer
CO 7	Students are able to define constants of ballistic galvanometer
CO 8	In general, students are capable of applying above concepts in network analysis to both theoretical and experimental domains
CO 9	Students are able to understand simple elementary concepts such as magnetization and intensity of magnetization
CO 10	Students are able to state Biot-Savart`s law and are capable to apply it to straight, circular wires and solenoid
CO 11	Students are able to understand concept of magnetic vector potential along with Ampere`s circuital law
CO 12	Students are able to understand the explain the phenomenon of hysteresis in magnetism
CO 13	Students are able to discriminate different magnetic materials based on their characteristic properties

    B.Sc. I Semester I (NEP 2.0) 2024-25 

   Electricity & Magnetism I

This course gives quick introduction to Electricity and magnetism. This course gives an overview and understanding of basic physics. It provides a basis for further study of vectors, electricity and magnetism. Content will include: Gradient of scalar field, divergence of vector field, curl of the vector field, Line, Surface and volume integral of vector field, Gauss’ diversion theorem and their physical significance, Electric flux, electric dipole, capacitance of isolated spherical conductor, capacitance of parallel plate condenser, polarization, parallel plate capacitor with completely filled dielectric.

Course Outcomes:-

After going through the course, the student should be able to

 CO1: Understand the principles of vector analysis and concepts of electrostatics.

CO2: Understand the ideas regarding to electric field as containing energy and capacitance of a parallel plate capacitor, capacitance of spherical and cylindrical condensers.

CO3: Apply methodologies vector analysis while solving problems.

CO4: Use mathematical and vectorial operations to quantify and analyze the nature of electric forces and field.

CO5: Solve problems involving combinations of electric force, electric field and electric  potential quantities.

Skills to be learned:-

Training in calculus will prepare the student to solve various mathematical problems.

Student shall develop an understanding of how to formulate a physics problem and solve given mathematical equation risen out of it

  B.Sc. I Semester II (NEP 2.0) 2024-25

 Electricity & Magnetism II

This course develops concepts in electricity and magnetism such that the behavior of the physical universe can be understood from a fundamental point of view. It provides a basis for further study of current electricity. Content will include: Complex numbers, Admittance and susceptance of A. C Circuit, Owen’s Bridge, Biot–Savarts law, Amperes Circuital law ,Magnetic properties of the material, Faraday’s law of electromagnetic induction, Lenz’s law, Energy stored in magnetic field, Equation of continuity of current, Maxwell’s equations, Electromagnetic wave propagation through vacuum, Electromagnetic wave propagation in isotropic dielectric medium etc.

Course Outcomes: -

After going through the course, the student should be able to

CO1: Understand the A.C series L.C.R. circuit and resonance in series L.C.R. circuit.

CO2: Develop skill in computing Maxwell’s equation problems and A.C circuit.

CO3: Apply law such as Biot-Savart’s and Lenz’s law for selected problems in electricity and magnetism.

CO4: Use the tools, methodologies, language and conventions of physics to test and communicate ideas and explanations.

Skills to be learned:-

· This course will help in understanding basic concepts of electricity and magnetism and their applications.

· Basic course in electrostatics will equips the student with required prerequisites to understand electrodynamics phenomena.

· Acquire the knowledge of Maxwell’s equations and understand electricals and magnetic phenomenon deeply.