Structure and composition of the Atmosphere, Classification of the Atmosphere, Solar Radiation, Solar Constant, Undulated Isolation, Transmission of Solar Radiation, and Long wave Radiation in the Atmosphere, Planetary temperature. The Greenhouse effect, Energy Budget of Earth/ Atmosphere System, Energy Fluxes.
This course deals with Microprocessor Architecture, Microprocessor Cycles and Signals, Gate and Memory Directories, Interruption, Programme Gates, Software, Example of Systems.
Microprocessors I will introduce students to Linear Integrated Circuits, Operation amplifiers, Linear and Non Linear Wave conformation, Bipolar Digital ICS, MOS & CMOs digital ICS, Multi vibrator Circuits, Counters and Registers.
Students will learn Atomic Spectra, Molecular Spectra, Electronic Spectroscopy, Mossibauers effect, Nonlinearities, Optical Phase conjugation, Ultra-fast Non-linear Optics, transitions in Optical Response or Linear System theory, Fourier Optics, Optical Filtering, Hot graphic Principles, Commercial and Analog Processing Measuring Techniques
Students will have a clear understanding of Radiation Dosimetry, Biological Effects of radiation, Radiation Safety guides, Health Physics Instrumentation, External and Internal Radiation Protection, Criticality, Evaluation of Protective Measures, Non ionizing Radiation.
Students will be introduced Intro to semiconductors, crystalline lattices, material growth, polarization, optical waveguides and fibre. Electro-optic effect, magneto-optic effect, acousto-optic effect, optical modulators, lasers and light emitting diodes, Energy bands and charge carriers in solids, semiconductor doping, carrier Superfme Structure, High resolution Laser Spectroscopy of atoms in absorption and scattering. Multiphoton processes, resonant interaction of light with atoms and molecules. Velocity and Time-resolved spectroscopy, Spectrophotometer, Opt galvanic Spectroscopy.
This course deals with the Radiation outside the earth atmosphere, solar constant, spectral distribution, Atmospheric attenuation, Direct and diffuse radiation, measurement and characterization of solar radiation, laws of Plank and wien, Black and Gray bodies, spectral dependence of absorbance, emittance and reflectance, greenhouse effect, convention between sloping plane surfaces, suppression, Wind, Flat and concentrating collectors, spherical, parabolic, Fresnel and mixed, Thermosyphon-optimal flow rate, Photovoltaic cells, Desalination.
This course is intended to expose students to the need for photovoltaic energy conversion, Basic characteristics of sunlight, interaction of light with solar cell, absorption, reflection, separation and collection of carriers, Basic equation of semiconductor device physics, P-N junction diodes, Efficiency limits, losses efficiency-limiting factors and measurements, standard silicon solar cell technology, Hetero junction structures, characterization and testing of solar cells and modules, photovoltaic module operations, Photovoltaic systems. Evaporation, sputtering and other techniques, Bonding, Hardness, Thickness, Uniformity, Composition, Electrical and Optical properties, Applications, semiconductor physics and biological fields.
Students will gain theoretical and practical understanding of Medical radiation, Interaction of Radiation with matter, Dosimetric concepts and quantities, ionization Dosimetry, Low medium Energy dosimetry, Replacement for Exposure, High Energy Dosimetry, Branching therapy.
Radiation Sources and their characterization, Basic interactions with matter, radiation Instruments and techniques, Radiation Effects
