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About Physics Department

The Department of Physics was established in 1990. The department has two well-equipped laboratories and a dark room, providing students with hands-on experimental exposure. The curriculum covers classic physics topics alongside an introduction to state-of-the-art experimental techniques under the add-on course scheme.

The department is committed to equipping students with strong analytical capabilities and problem-solving tools to face the challenges of a demanding economy — through competitive exam training, entrepreneurship guidance, and research orientation.

Head of department

Mrs. Manisha Ghogare

M.Sc.

department shedule

Mon – Tue

10:00 AM – 5:00 PM

Wed- Thu

10:00 AM – 5:00 PM

Friday

10:00 AM – 5:00 PM

2nd and 4th Sat

Open

Sunday

Closed

What We Offer

Programmes Offered

B.Sc. — Bachelor of Science (Physics — Optional)
Duration: 3 Years (6 Semesters)
Eligibility: H.S.C. from any stream, Maharashtra Board or equivalent
Syllabus: NEP 2020 / CBCS Framework
Combination Subjects
1
Physics, Chemistry, Mathematics (PCM)
2
Physics, Chemistry, Computer Science (PCC)

Curriculum

Teaching Syllabus

B.Sc. Physics

Programme Outcomes

Course / Outcome

Outcome Statements

PHY-101 — Mechanics, Properties of Matter & Sound (Sem I)

Gravitation, compound pendulum, elasticity, viscosity, Bernoulli’s theorem, surface tension, Piezo-electric and Magnetostriction effects, ultrasonics, acoustics, and Sabine’s law.

PHY-105 — Electricity & Magnetism (Sem II)

Vector algebra, Gauss’s and Stoke’s theorems, electric field, flux, and dipole, dielectrics, magnetism, Biot-Savart Law,Ampere’s Law, L-R and C-R circuits.

PHY-103 & 106 — Practical (Sem I & II)

Experiments on moment of inertia, viscosity, surface tension, thermal conductivity, CRO, spectrometer calibration, dispersive power of prism, and I-H curves.

PHY-202 — Modern & Nuclear Physics (Sem III)

Photoelectric effect, X-ray methods (Laue, Bragg), nuclear composition, radioactive decay, nuclear fission and fusion, nuclear reactors, particle detectors and accelerators.

PHY-205 — General Electronics (Sem IV)

Semiconductor devices (diode, transistor, FET, MOSFET), amplifier circuits, OPAMP, oscillators, multivibrators, AM, FM, PM modulation and demodulation.

PHY-203 & 207 — Practical (Sem III)

Energy band gap, solar cell I-V characteristics, full wave rectifier, viscosity, photocell, earth inductor, potentiometer, sonometer, polarimeter.

PHY-204 & 208 — Practical (Sem IV)

Thermal conductivity, Newton’s rings, transistor CE/CB characteristics, CE amplifier, Hartley oscillator, Wein bridge oscillator, OPAMP, JFET, Owen’s bridge.

PHY-302 — Electrodynamics (Sem V)

Gauss’s law, electric displacement vector, Faraday’s laws, Maxwell’s equations, EM wave propagation, Poynting vector, polarisation, reflection and transmission at dielectric boundaries.

PHY-305 — Atomic, Molecular Physics & LASERs (Sem V)

Thomson, Rutherford, and Bohr atomic models, hydrogen spectra, Zeeman Effect, molecular and Raman spectra, LASER principles, types, pumping schemes, and applications.

PHY-307 & 303 — Practical (Sem V & VI)

Rydberg constant, Debye temperature, dielectric constant, semiconductor resistance, focal length using laser, diffraction grating, Millikan’s oil drop, optical fibre R.I., iodine absorption spectra.

PHY-304 & 308 — Practical (Sem V & VI)

Laser divergence and wire diameter, optical fibre interference, He-Ne laser wavelength, e/m by Thomson method, surface tension by ripples, Hartmann’s formula, Zener diode power supply, bridge rectifier.

Upon completion of the B.Sc. Physics programme, graduates will be able to:

Understand fundamental theorems and concepts of classical and modern physics.
Apply experimental techniques to verify and analyse physical phenomena.
Solve real-world problems using mathematical and computational methods.
Understand electromagnetic theory, atomic and nuclear physics, and optics.
Pursue research, higher education, or careers in science, technology, and industry.
Apply concepts of mechanics, gravitation, elasticity, viscosity, and surface tension to real-world problems.
Understand vector algebra, electromagnetic fields, and Maxwell’s equations.
Analyse semiconductor devices, amplifiers, oscillators, and modulation techniques.
Understand atomic models, molecular spectra, Zeeman Effect, Raman Effect, and LASER technology.
Apply concepts of modern physics — photoelectric effect, X-rays, nuclear reactions, and detectors.
Develop practical skills through experiments in mechanics, optics, electronics, and spectroscopy.

Our Faculty

Teaching Staff

No faculty found for this department.

Departmental Events

Recent Activities

Regular Departmental Activities (ongoing across years)
Wall magazine “ORBIT” — student publication on physics topics
student publication on physics topics
Crossword and Word Puzzle competitions
Use of LMS platforms — Moodlecloud and Google Classroom
Guest Lecture on Online teaching via Zoom and Google Meet
Mentor-Mentee Mechanism for student support.
Continuous Assessment Programme
Departmental Library
WhatsApp groups for student communication
Year-wise Highlights

Our Graduates

Alumni Voices

Our graduates have gone on to lead in industry, academia, and research. Discover the journey of our alumni and how they are shaping the world.

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