Physics is offered as a compulsory subject in the curriculum of B.Sc.(Non Medical)[for undergraduates].A degree with Physics develops skills that open up a wide range of career options like research and development ,manufacturing ,education and many other options .Department also offers an ADD ON course in INSTRUMENTATION.

1. Certificate Course in Instrumentation,

b .Diploma in Instrumentation

1. Advanced Diploma in Instrumentation (Sponsored by UGC)

B.Sc.1 SEM I

1. Mechanics-I
2. Vibrations and Waves-I
3. Electricity and Magnetism
4. Physics Practical Laboratory

B.Sc.1 SEM II

1. Mechanics-II
2. Vibration and Waves –II
3. Electricity and Magnetism-II
4. Physics Practical Laboratory

COURSE OUTCOMES:

MECHANICS: Students will be able to articulate and describe:

1. Relative motion, inertial and non inertial reference frames.
2. Parameters defining the motion of mechanical systems and their degrees of freedom.
3. Study of the force of interaction between solids in mechanical systems.
4. Newton’s Laws of motion and conservation principles

VIBRATION AND WAVES: Students will be able to

1. Use phasor description of waves.
2. Explain oscillation in terms of energy exchange, giving various examples.
3. Distinguish between oscillators and normal modes in coupled oscillator system.
4. Calculate the reflection and transmission of a travelling wave at a boundary and explain impedance matching.

ELECTRICITY AND MAGNETISM: The major concepts covered are:

1. The abstraction from forces to fields using the examples of the electric and magnetic fields.
2. The connection between conservative forces and potential energy.
3. How charge moves through electric circuits.
4. The integral form of Maxwell’s Equation.

PHYSICS PRACTICAL LABORATORY: Students will be able to understand the basic concepts, mathematical methods and can explore important connection between theory, experiment and current applications .Students can develop a basis for future learning and work EXPERIENCE :.

B.Sc.2 SEM III

1. Statistical Physics and Thermodynamics-I
2. Optics
3. Quantum Mechanics-I
4. Physics Practical Laboratory

B.Sc.2 SEM IV

1. Statistical Physics and Thermodynamics-II
2. Lasers
3. Quantum Mechanics-II
4. Physics Practical Laboratory

COURSE OUTCOMES:

STATISTICAL PHYSICS AND THERMODYNAMICS: The students

1. Has thorough knowledge on different classical and quantum mechanical distribution functions.
2. Can explain the procedures for deriving the relation between thermodynamic parameters such as pressure, temperature, entropy and heat capacity from the distribution function.
3. Can explain phase transitions and magnetization in magnetic systems.

OPTICS AND LASERS: The students will be able to

1. Discuss the important and fascinating areas of interference with many experiments associated with it
2. Differentiate between Fraunhofer and Fresnel diffraction.
3. Apply skill to find the wavelength of spectral lines using Plane diffraction grating.
4. Distinguish the methods of polarisation by reflection, refraction and scattering.

QUANTUM MECHANICS: The students will be able

1. Show an understanding of wave mechanics in three dimensions.

Describe the structure of the hydrogen atom and show an understanding of quantisation of angular momentum

2. Apply techniques such as Fourier methods and ladder operators for selects problems in quantum mechanics.

PHYSICS PRACTICAL LABORATORY: Students will be able to understand the basic concepts, mathematical methods and can explore important connection between theory ,experiment and current applications .Students can develop a basis for future learning and work EXPERIENCE :.

B.Sc. 3 SEM V

1. Condensed Matter Physics-1
2. Electronics-I(Electronics and Solid State Devices)
3. Nuclear and Radiation Physics
4. Physics Practical Laboratory

B.Sc.3 SEM VI

1. Condensed Matter Physics-II
2. Electronics-II
3. Nuclear and Particle Physics
4. Physics Practical Laboratory

COURSE OUTCOMES:

CONDENSED MATTER PHYSICS: Students will be able to

1. Explain the significance and value of condensed matter physics ,both scientifically and in the wider community
2. The subject treats functional material from an experimental viewpoint, solid state theory and properties.
3. Critically analyse and evaluate experimental strategies and decide which is most appropriate for answering specific questions.

ELECTRONICS: Students will try to learn

1. To understand operation of semiconductor devices.
2. To understand DC analysis and AC models of semiconductor devices.
3. To apply concepts for the design of Regulators and amplifier.
4. To verify the theoretical concepts through laboratory and simulation experiments.

NUCLEAR AND PARTICLE PHYSICS: The student will be able to

1. Demonstrate knowledge of fundamental aspects of the structure of the nucleus, radioactive decay, nuclear reaction and the interaction of radiation and matter.
2. Discuss nuclear and radiation physics connection with other physics disciplines-solid state, elementary particle physics, radiochemistry, and astronomy.
3. Discuss nuclear and radiation physics applications, in medical diagnostics and therapy,

Energetic ,archaeology.

PHYSICS PRACTICAL LABORATORY: Students will be able to understand the basic concepts, mathematical methods and can explore important connection between theory ,experiment and current applications .Students can develop a basis for future learning and work