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Faculty of Science Handbook, Academic Session  2024/2025





               SIF1015 QUANTUM PHYSICS (2 CREDITS)

               History and developement of Physics Quantum
               Mathematical  background:  Complex    numbers,  second  order
               differential equations, eigenvalues and eigenvectors, integrals
               Limitations of classical physics
               Basic  principles:  wave  functions,  eigen  functions,  superposition
               principles,  quantum  mechanical  postulates  and  probability  density,
               uncertainty  in  measurements,  Heisenberg  uncertainty  principles,
               space representation and momentum representation, measurement
               effect,  commutators  and  constant  of  motion,  equation  of  flux
               continuity, probability, Ehrenfest theorem.
               Time  independent  Scrodinger  equation  :  Infinite  square  well,
               stationery  states,  infinite  square  well,  free  particle,  step  potential,
               square well potential and barrier potential, harmonic oscillator.

               Assessment Method:
                Final Examination:     60%
                Continuous Assessment:   40%
               SIF1016 MECHANICS I (2 CREDITS)

               Introduction to classical dynamics; Analysis of motion of single particle
               (Newton’s laws of motion, equation of motion, conservation principle,
               linear momentum, forces depend on time, velocity, force depends on
               position,  work-energy  theorem,  potential  function,  simulation  of
               practical examples); Oscillation ( simple harmonic oscillation, phase
               diagram,    damped      oscillation,   forced   oscilation,
               simulation/demonstration  of  oscillation  in  various  systems);  Central
               forces (reduced mass, equation of orbital motion, effective potential,
               qualitative analysis, planetary motion and Kepler’s laws, gravitational
               force,  stability  of  circular  orbit,  orbital  mechanics,  satellite  orbits,
               search  for  exoplanets);  Dynamics  of  system  of  particles  (center  of
               mass,  example  of  motion  in  center  of  mass  coordinates,  elastic
               collision,  inelastic  collision,    Rutherford  scattering,  simulation  of
               collisions); Motion of systems with variable mass( equation of motion,
               rocket equation, simulation of rocket-like motion in various real world
               systems)

               Assessment Method:
                Final Examination:     60%
                Continuous Assessment:   40%
               SIF1017 MATHEMATICAL METHODS I (3 CREDITS)



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