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BS-MS Full Syllabus

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BS-MS Full Syllabus 1 BS-MS Course Structure Sl. No Course Description Minimum Credits Period 1 Foundation Courses 76 Semester I to IV 2 Major Courses 63 Semester V to X 3 Major Project 30 Semester IX to X 4 Minor Courses 9 Semester V to VIII 5 Minor Project 6 Semester VIII 6 Humanities 3 Semester V to X Total 187 Remark: Minor project is optional in certain schools. However, students may adjust this credit by taking additional courses. 2 Structure and Syllabus Foundation Courses (Semesters 1 – 4) Semester 1 Semester 2 Semester 3 Semester 4 Introduction to Cell Ecology and Evolution Biomolecules Genetics and Molecular Biology and (3103) (3103) Biology (3103) Microbiology (3103) Atomic Structure & Basic Concepts in Basic Concepts in Physical Chemistry I Chemical Bonding Organic & Inorganic Organic & Inorganic (3103) (3103) Chemistry I (3103) Chemistry II (3103) Single Variable Calculus Introduction to Linear Multivariable Calculus Introduction to (3103) Algebra (3103) (3103) Probability (3103) Mechanics Electromagnetism Optics Thermal and Statistical (3103) (3103) (3103) Physics (3103) Biology Lab I (0031) Biology Lab II (0031) Biology Lab III (0031) Chemistry Lab I (0031) Chemistry Lab II (0031) Chemistry Lab III (0031) Physics Lab I (0031) Physics Lab II (0031) Physics Lab III (0031) Physical Principles in Principles of Mathematical Tools I Mathematical Tools II Biology Spectroscopy (2102) (3103) (3103) (3103) Fundamentals of Data Handling and Numeric Computing Scientific Computing Programming Visualisation (0031) (0031) (0031) (0031) Communication Skills I Communication Skills II Economics Languages (1001) (1001) (1001) (1001) [19] [19] [19] [19] 3 Biology Major (Fifth to Tenth Semester) Semester 5 Semester 6 Semester 7 Semester 8 Semester 9 Semester 10 BIO311 (3003) BIO321 (3003) BIO411 (3003) BIO42XX/52XX BIO41XX/51XX BIO521 (1001) Advanced Structural Developmental (3003) (1001) Scientific Microbiology Biology Biology Elective III Elective VII writing BIO312 (3003) Advanced BIO322 (3003) BIO413 (3003) BIO42XX/52XX Genetics and (3003) Immunology Neurobiology Genome Elective IV Biology BIO313 (3003) BIO323 (3003) BIO41XX/51XX BIO42XX/52XX (3003) (3003) Major Project Physiology Cell Biology Elective I Elective V Phase II (15) BIO324 (3003) BIO314 (3003) BIO41XX/51XX BIO42XX/52XX Molecular (3003) (3003) Major Project Biochemistry Biology Elective II Elective VI Phase I (15) BIO316 (3003) BIO326 (3003) Biostatistics Bioinformatics BIO315 (0093) BIO325 (0093) BIO412 (0093) Minor Project (6) Advanced Advanced Advanced Biology Lab I Biology Lab II Biology Lab III Minor Course Minor Course I Minor Course III II Credits=21 Credits=21 Credits=18 Credits=18 Credits = 16 Credits = 16 4 Chemistry Major (Fifth to Tenth Semester) Semester 5 Semester 6 Semester 7 Semester 8 Semester 9 Semester 10 CHY421 (3003) CHY411 CHY311 CHY321 (3003) Instrumental (3003) CHY41XX/12XX (3003) Organometallic methods for Main Group (3003) Coordination Chemistry Structure Chemistry Elective III Chemistry Determination CHY312 CHY412 (3003) CHY322 (3003) (3003) CHY422 (3003) Organic CHY41XX/12XX Solid-State Advanced Physical Organic Chemistry - (3003) Chemistry Organic Chemistry Reactions and Elective IV Chemistry mechanisms CHY323 (3003) CHY413 (3003) CHY313 Organic Chemical and (3003) CHY42XX/52XX Chemistry- Statistical Major Quantum (3003) Synthetic Thermodynamic Project(18) Chemistry methods s Elective I CHY414 CHY314 CHY324 (3003) (3003) (3003) CHY42XX/52XX Theoretical Chemical Major Project Physical (3003) Spectroscopy Kinetics and (12) Chemistry II Dynamics Elective II CHY315 CHY325 (0093) CHY 415 (0093) Inorganic (0093) Organic Chemistry Physical Chemistry Laboratory Chemistry Minor Project (6) Laboratory Laboratory Minor Course Minor Course I Minor Course II III Credits=18 Credits=18 Credits=18 Credits=18 Credits = 18 Credits = 18 5 Mathematics Major (Fifth to Tenth Semester) Semester Semester 5 Semester 6 Semester 7 Semester 8 Semester 9 10 MAT421 MAT311 (3003) MAT321 (3003) MAT411 (3003) (3003) MAT511 (3003) Real Analysis Complex Analysis Measure Theory Functional Fourier Analysis Analysis MAT312 (3003) MAT422 MAT322 (3003) MAT412 (3003) Theory of (3003) MAT41XX/51XX Fields, Modules Commutative Groups and Algebraic (3003) and Algebras Algebra Rings Topology Elective II MAT423 MAT413 (3003) Major MAT323 (3003) (3003) MAT41XX/51X MAT313 (3003) Analysis on Project General Topology Differential X (3003) Linear Algebra Manifolds Phase II Geometry Elective III (18) MAT424 MAT314 (3003) (3003) MAT324 (3003) MAT414 (3003) MAT41XX/51X Numerical Number Theory of ODE PDE X (3003) Analysis Theory and Elective IV Cryptography MAT325 (3003) MAT315 (3034) Probability Theory MAT415 (3034) MAT42XX/52X Mathematical and Stochastic Programming and X (3003) Major Project Statistics + Lab Processes Data Structures Elective I Phase I (6) Minor Project Minor Course I Minor Course II Minor Course III (6) Credits = 18 Credits = Credits=19 Credits=18 Credits=19 Credits=21 18 6 Physics Major (Fifth to Tenth Semester) Semester Semester 5 Semester 6 Semester 7 Semester 8 Semester 9 10 PHY421 (3003) PHY311 (3003) PHY321 (3003) PHY411 (3003) PHY41XX/51XX Mathematical Computational (3003) Methods in Statistical Nuclear Particle Techniques and Physics Mechanics Physics Programming Elective V Languages PHY422 (3003) PHY41XX/51XX PHY312 (3003) PHY412 (3003) PHY322 (3003) (3003) Atomic and Classical Condensed Condensed Molecular Elective VI Mechanics Matter Physics I Matter Physics II Physics Major PHY313 (3003) PHY413 (3003) PHY42XX/52XX PHY323 (3003) Project Electronics (3003) Electrodynamics Quantum (18) and STR Mechanics- II Elective III PHY314 (3003) PHY42XX PHY41XX/51XX PHY42XX/52XX Major (3003) (3003) (3003) Quantum Project (12) Mechanics I Elective I Elective II Elective IV PHY315 (0093) PHY325 (0093) PHY415 (0093) Adv. Physics Adv. Physics Adv. Physics Lab I Lab II Lab III Minor Project (6) Minor Minor Minor Credits = Credits=18 Credits=18 Credits=18 Credits=18 Credits = 18 18 7 Foundation Courses Syllabus School of Biology BIO111 Ecology and Evolution [3103] The course will introduce students to the basics of what life is, scales of biological organization and how interactions between an organism and its environment shape all aspects of the Learning organism's biology. A student of the course will understand the fundamentals of biological Outcomes evolution, how evolution has shaped phenotypic diversity & behavior, and why evolution is a unifying theme in biology. 1. Overview of Biology: What is life? Characteristics of living organisms; Importance of studying biology; Scales in biology (molecules (including DNA), organelles, cells, tissues, organs, organisms, populations, communities and ecosystems); Disciplines of biology in relation to these scales; Origins of life. [3] 2. Principles of Evolutionary Biology: History of evolutionary thinking - ideas that formed the basis of modern understanding of evolution; Genes and alleles; Fundamental concepts (variation, selection, units of selection, fitness, adaptation); Prerequisites for evolution by natural selection; Evidence for natural selection and evolution; Types of selection (directional, stabilizing, disruptive); Evolution without selection (genetic drift, gene flow); Species concepts and speciation; Phylogenetics (basic terminology, tree of life, phylogenetic reconstruction, molecular dating); Macroevolutionary patterns (mass extinction, adaptive radiation, convergent evolution, divergent evolution). [10-12] Syllabus 3. Principles of Ecology: Biomes; Ecosystems (trophic levels, trophic structure, energy transformation, gross and net production, primary productivity, secondary productivity); Ecosystem types (tropical, temperate, subtropical); Population ecology (population characteristics, growth, life history strategies, population regulation, metapopulations); Community ecology (ecological succession, microhabitats, niche, structure of communities); Species interactions (predation, parasitism and mutualism).[6] 4. Behavioural ecology: Adaptive value of behaviour; Sexual selection; Mating systems; Kinship; Cooperation; Sociality (altruism, cooperation, kin selection, reciprocal altruism, etc.); Optimal foraging theory; Parental care; Social symbiosis. [10] 5. Biodiversity and conservation biology: Taxonomy and phylogenetic systematics; Diversification of life - a phylogenetic perspective; Diversification of life - a timeline; Measuring extant diversity; Threats to extant biodiversity (habitat loss and degradation, Invasive species, Pollution, Over- exploitation, Global climate change); In-situ and ex-situ conservation; Biodiversity of India; Island biogeography. [4-5] 1. Manuel C Molles, Ecology: Concepts and Applications Mc Graw Hill 7th Edition 2014 2. Douglas J Futuyma, Evolution Oxford University Press 3rd Edition 2013 Text and 3. Barton et al., Evolution Cold Spring Harbor Laboratory Press 1st Edition 2007 Reference 4. Stephen C. Stearns and Rolf F. Hoekstra, Evolution: An Introduction Oxford University Press Books 1st Edition 2000 5. Nicholas J. Gotelli, A primer of Ecology Oxford University Press, 4th Edition 2008 6. Begon et al., Ecology: From Individuals to Ecosystem Wiley-Blackwell, 4th Edition 2005 BIO121 Biomolecules [3103] To understand the importance of biomolecules (carbohydrates, lipids, proteins and nucleic acids) and its chemical diversity in shaping the biological structure and function. Students can appreciate Learning how complex living systems are built from a handful of simple atoms and how their molecular Outcomes
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