	A	B
1	Course Syllabus
2	Semester I:
3
4	Fields	Values
5	Date	3/27/2022
6	Course Code	IC1010
7	Course Name	Industrial Organic Chemistry-I
8	Credits	3
9	Pre-requisites (if any)	Not
10	Nature of Course	Theory
11	Type of Course	core
12	Targeted Program and year	BTech 1 and II
13	Contents	Chemical process industry: Introduction, Overview and current status, Raw materials, manufacturing and engineering, Introduction to different industries by taking relevant examples. Basic products of industrial syntheses (Suitable examples: Methanol, Formaldehyde and Formic acid etc.), Pharmaceuticals (Classifications, Aspirin, Paracetamol, Ibuprofen, morphine etc.), Food chemicals (Vitamins, Food additives and preservatives), Agrochemicals (Suitable examples: Fertilizers, Pesticides, Herbicides etc.), Plastic (Suitable examples: bioplastics, thermoplastics etc.).
14	References	1. Industrial Organic Chemistry by Klaus Weissermel and Hans-Jurgen Arpe, 2003 WILEY‐VCH Verlag GmbH & Co. KGaA
15		2. Handbook of Industrial Chemistry: Organic Chemicals by Mohammad Farhat AIi, Bassam M. El AIi, James G. Speight, 1st ed. New York: McGraw-Hill Education
16		3. Industrial Organic Chemistry by Mark A. Banvenuto, Berlin; Boston: De Gruyter 2017
17	Course Objective	The course intends to expose the students with the fundamentals of industrial chemistry related to different industrial backgrounds.
18	Justification:	The course is designed in such a way that the student will learn about the synthesis and applications of common chemicals used in industrial setup.
19	Justification:
20
21
22
23
24	Semester II:
25
26	Fields	Values
27	Date	3/27/2022
28	Course Code	IC1030
29	Course Name	Introduction to Systematic Inorganic Chemistry & Applications
30	Credits	3
31	Pre-requisites (if any)	not
32	Nature of Course	theory
33	Type of Course	core
34	Targeted Program and year	BTech 1 and II
35	Contents	• Acids and bases: classification, Lewis acid and base concept, hard acid, hard base classification, Pearson’s HSAB concept and application; Oxidation and reduction: redox reactions, redox potential, • Electrochemical series, use of electrochemical series;
36		• Metallic chains, sheets and clusters; Metal silicates, zeolites and polyoxo-metallates; Metals and alloys, ceramic materials, intermetallic compounds and zintl phases; • Chemistry of phosphorus, phosphorus oxides and phosphorus hydrides; Chemistry of oxyacids and oxyanion of nitrogen and phosphorus; Differences between the chemistry of nitrogen and phosphorus; Chemistry of the halogens: pseudo-halogen, inter-halogen; Oxides and oxyacids; Polyhalides; • Chemistry of the rare gases: Chemistry of xenon, structure and bonding of xenon compounds; • Non-aqueous solvents: types of solvents, general characteristics, reactions in non-aqueous solvents with reference to liquid NH3 and liquid SO2.
37
38	References	N. N. Greenwood and A. Earnshaw, Chemistry of the Elements, 2nd Ed., London: Butterworth Heinmann, 1997.
39	Course Objective
40	Justification:
41
42
43
44
45	Fields	Values
46	Date	3/27/2022
47	Course Code	IC1040
48	Course Name	Thermodynamics-I
49	Credits	3
50	Pre-requisites (if any)	not
51	Nature of Course	Theory
52	Type of Course	Core
53	Targeted Program and year	BTech 1 and II
54	Contents	Thermodynamic properties and equilibrium, concepts of heat and work, zeroth law of thermodynamics; concept of temperature, energy and various forms of energy; internal energy, enthalpy; specific heats; first law applied to elementary processes, closed systems and control volumes, steady and unsteady flow analysis. Second Law of Thermodynamics, Carnot cycle and Carnot principles/theorems, Clausius inequality and concept of entropy; microscopic interpretation of entropy, the principle of increase of entropy, T-S diagrams; second law analysis of control volume; availability and irreversibility; third law of thermodynamics;
55	Contents	Properties of Pure Substances; P-V-T behaviour of simple compressible substances, phase rule, thermodynamic property tables and charts, ideal and real gases, ideal gas equation of state and van der Waals equation of state; law of corresponding states, compressibility factor and generalized compressibility chart.
56	References	Physical Chemistry by Peter Atkins, Julio de Paula and James Keeler, 11the edition, 2018
57	References	Physical Chemistry by Robert G. Mortimer, 3rd edition, 2008
58	Course Objective	The study of thermodynamics to understand the comprehensive macroscopic theory of the behavior of material systems
59	Justification:	The course is required to understand the properties and behavior of material systems and to apply this understanding in useful ways.
60
61
62
63
64
65	Fields	Values
66	Date	3/27/2022
67	Course Code	IC1050
68	Course Name	Introduction to Quantum Chemistry
69	Credits	2
70	Pre-requisites (if any)	Not
71	Nature of Course	theory
72	Type of Course	core
73	Targeted Program and year	BTech I and II
74	Contents	The motivation for Quantum mechanics: Historical background, postulates and general principles of quantum mechanics; Operators and their properties; Schrodinger equation, its application on some model systems : free-particle and particle in a box (1D and 3D), the harmonic oscillator, the rigid rotator, and the hydrogen atom; Approximate methods; Angular momentum: Eigenfunctions and eigenvalues of angular momentum operator, Spin- Pauli Principle; Born-Oppenheimer approximation; VB and MO theory, Application to H2+, H2 molecule
75	References	Quantum Chemistry by I. N. Levine, 7th edition, 2014
76		Quantum Chemistry by McQuarrie, 1st (viva student) edition, 2018
77		Physical Chemistry by Peter Atkins, Julio de Paula and James Keeler, 11the edition, 2018
78	Course Objective	Understanding the development and uses of quantum mechanics to understand dynamics of chemical structures and bonding.
79	Justification:	The course is designed to discuss the quantum mechanical description of structure and bonding.
80
81
82
83	IC2080
84
85	Fields	Values
86	Date	3/27/2022
87	Course Code	IC2080
88	Course Name	Transport Properties
89	Credits	2
90	Pre-requisites (if any)	not
91	Nature of Course	theory
92	Type of Course	core
93	Targeted Program and year	Btech I and II
94	Contents	Introductory remarks on transport properties, The general equation for transport, Thermal conductivity in a gas, Collisions in a gas; The mean free path, Final expression for the thermal conductivity, Viscosity, Molecular diameters, Diffusion, Summary of transport properties in a gas, The nonsteady state, The Poiseuille Formula, The viscosimeter; Electrical transport; Conduction in metals, The Hall effect, The electrical current in ionic solutions, The measurement of conductivity in electrolytic solutions, The migration of ions;
95	Contents	Transference numbers; Molar ion conductivities; Applications of conductance measurements; Stokes's law; Conductivities of the hydrogen and hydroxyl ions; Temperature dependence of the ion conductivities
96	References	Physical Chemistry by G. W. Castellan, 3rd edition, 1983
97	References	Physical Chemistry by Robert G. Mortimer, 3rd edition, 2008
98	Course Objective	Understanding of various transport phenomena of charged and neutral particles in gas, liquid phases
99	Justification:	The course is designed to provide fundamentals of transport phenomena
100	Justification:
101
102
103
104	Semester III:
105	Fields	Values
106	Date	3/27/2022
107	Course Code	IC2010
108	Course Name	Industrial Organic Chemistry-II
109	Credits	3
110	Pre-requisites (if any)	IC1010
111	Nature of Course	Theory
112	Type of Course	Core
113	Targeted Program and year	BTech-III
114	Contents	Industrially relevant Vinyl-Halogen and Vinyl-Oxygen Compounds (Vinyl chloride, Vinylidene Chloride, Vinyl Fluoride, Trichloro- and Tetrachloroethylene, Vinyl Esters and Ethers etc.), Components for the synthesis of polyimides (various dicarboxylic acids and diamines, Lactams etc.), Industrially relevant chemicals derived from propene (Oxidation of propene, Acrolein, Allyl compounds, Acrylonitrile etc.), Industrially relevant Aromatics Production and Conversion, Industrially relevant benzene derivatives (Alkyl benzenes, Styrene, Phenol, Aniline etc.), Industrially relevant compounds derived from Oxidation of Xylene and Naphthalene (Phthalic Anhydride and Esters of Phthalic Acid and Derivatives)
115	References	1. Industrial Organic Chemistry by Klaus Weissermel and Hans-Jurgen Arpe, 2003 WILEY‐VCH Verlag GmbH & Co. KGaA
116		2. Handbook of Industrial Chemistry: Organic Chemicals by Mohammad Farhat AIi, Bassam M. El AIi, James G. Speight, 1st ed. New York: McGraw-Hill Education
117		3. Industrial Organic Chemistry by Mark A. Banvenuto, Berlin ; Boston : De Gruyter 2017
118		4. Modern Carbonylation Methods by Prof. László Kollár, 2008 Wiley‐VCH Verlag GmbH & Co. KGaA
119	Course Objective	To provide comprehensive knowledge of industrially relevant chemical transformations.
120	Justification:	The course is designed to provide extensive knowledge of synthesis and applications of chemicals used in the industrial sector.
121
122
123	Fields	Values
124	Date	3/27/2022
125	Course Code	IC2020
126	Course Name	Introduction to Biochemistry
127	Credits	2
128	Pre-requisites (if any)	none
129	Nature of Course	Theory
130	Type of Course	Core
131	Targeted Program and year	Btech
132	Contents	Structure, properties and reactions of mono- and di-saccharides; physicochemical properties of amino acids and peptides; structural features of proteins, nucleic acids, lipids, steroids, terpenoids, carotenoids, and alkaloids. Protein folding / misfolding and function; Enzyme kinetics, regulation and inhibition; Bioenergetics and metabolism;
133	References	References:
134		1. Biochemistry by Raymond S. Ochs & Lehninger Principles of Biochemistry, 8th Edition
135		2. Biochemistry by Stryer et.al. 9th edition
136
137	Course Objective	The course aim to teach the basics of biochemistry and prepare them for modern pharmacological applications
138	Justification:	Understanding the fundamentals of biochemistry is prerequisite for the advance level applications in drug design and development.
139
140
141
142	Fields	Values
143	Date	3/27/2022
144	Course Code	IC2011
145	Course Name	Basic Industrial Techniques Lab
146	Credits	2
147	Pre-requisites (if any)	None
148	Nature of Course	Lab
149	Type of Course	Core
150	Targeted Program and year	BTech II and BTech III
151	Contents	Experiments in Physical and Inorganic Chemistry covering first order and second order kinetics, activation energy, Freundlich adsorption, conductometric and pH metric titrations, distribution coefficient and equilibrium constant determination, phase diagram of a three-component system, viscosity determination, study of systems with lower and upper Critical Solution Temperature.
152	Contents
153	References	Manuals and references will be provided from the chemistry lab
154		1. Peter Atkins, P., and J. De Paula. Atkins’ physical chemistry. OUP Oxford, 2014.
155		2. Allen J., Bard and Larry R. Faulkner. " Electrochemical methods- Fundamentals and applications." Wiley, 2000.
156	Course Objective	To gain hands-on experience and practical realisation for the theoretical work
157	Course Objective	To apply the basic knowledge on model systems to extract various physicochemical parameters
158	Justification:	Laboratory course provides ultimate experience to the students. Theoretical knowledge can be justified by performing laboratory experiments and to realize the deviations from the ideal behavior under real conditions
159
160
161
162	Fields	Values
163	Date	3/27/2022
164	Course Code	IC2030
165	Course Name	Thermodynamics-II
166	Credits	3
167	Pre-requisites (if any)	IC1040
168	Nature of Course	Theory
169	Type of Course	Core
170	Targeted Program and year	BTechII
171	Contents	Thermodynamic Relations, T-∆S relations, Helmholtz and Gibbs functions, Gibbs relations, Maxwell relations, Joule-Thomson coefficient, coefficient of volume expansion, adiabatic and isothermal compressibilities, Clapeyron and Clapeyron-Clausius equations.
172		Thermodynamic Cycles: Carnot vapor cycle, ideal Rankine cycle, Rankine reheat cycle, air-standard Otto cycle, air-standard Diesel cycle, air-standard Brayton cycle, vapor-compression refrigeration cycle,
173		Ideal Gas Mixtures Dalton’s and Amagat’s laws, properties of ideal gas mixtures, air-water vapor mixtures and simple thermodynamic processes involving them; specific and relative humidities, dew point and wet bulb temperature, adiabatic saturation temperature, psychrometric chart.
174	References	Thermodynamics and its Applications” by J W Tester and M Modell
175		Thermodynamics: An Engineering Approach” by Michael A Boles
176		Fundamentals of Engineering Thermodynamics” by M J Moran and H N Shapiro
177	Course Objective	Various thermodynamic relations, thermodynamical cycles, thermodynamical process, and applications
178	Justification:	The course is designed for students to gain knowledges on various thermodynamical cycles, and relations. The implications of the same is highly sought after in chemical industrial processes.
179
180
181
182	Semester IV
183	Fields	Values
184	Date	3/27/2022
185	Course Code	IC2040
186	Course Name	Food Technology
187	Credits	2
188	Pre-requisites (if any)	None
189	Nature of Course	Theory
190	Type of Course	Core
191	Targeted Program and year	BTech II
192	Contents	Carbohydrates: structure and functional properties of mono-, oligo-, & poly- saccharides including starch, cellulose, pectic substances and dietary fibre. Proteins: classification and structure of proteins in food. Lipids: classification and structure of lipids, rancidity, polymerization and polymorphism. Food flavours: terpenes, esters, aldehydes, ketones and quinines. Nutrition: balanced diet, essential amino acids and essential fatty acids, protein efficiency ratio, water soluble and fat-soluble vitamins, role of minerals in nutrition, co-factors, anti-nutrients, nutraceuticals, nutrient deficiency diseases.
193	References	Food Chemistry. 4th edition, Belitz, H.-D., Grosch, Werner, Schieberle, Peter. Springer-Verlag Berlin Heidelberg, 2019 Principles of Food Chemistry. by deMan, J.M., Finley, J., Hurst, W.J., Lee, C. Springer International Publishing, 2018
194	Course Objective	To understand the food composition along with its physicochemical, nutritional, microbiological and sensory aspects.
195	Course Objective	Processing and preservation of plant and animal foods; cereals, pulses, oilseeds, fruits vegetables, spices, meat, fish, poultry, sea food, milk and dairy products. Food safety, quality management and international food laws and regulations as well as importance of food engineering and packaging in food industry
196	Justification:	The course contents have been so crafted that it can keep pace with the rapidly growing food industry
197
198
199
200	Fields	Values
201	Date	3/27/2022
202	Course Code	IC2021
203	Course Name	Synthesis and Separation Lab
204	Credits	2
205	Pre-requisites (if any)	none
206	Nature of Course	Lab
207	Type of Course	core
208	Targeted Program and year	Btech
209	Contents	1) Separation of mixtures by Chromatography: Measure the Rf value in each case; a) Identify and separate the components of a given mixture of 2 amino acids (glycine, aspartic acid, glutamic acid, tyrosine or any other amino acid) by paper chromatography
210		b) Identify and separate the sugars present in the given mixture by paper chromatography; 2) Synthesis of common industrial compounds involving two step reactions, (e.g. 4- bromo aniline, or 3-nitroaniline, or 4-amino benzoic acid, or 4-nitro benzoic acid)
211		3) Preparation of paracetamol and its analysis; 4) Preparation of sulphacetamide of sulphonamide and its analysis; 5) Preparation of oils of winter green and its analysis; 6) Determination of ascorbic acid in vitamin C tablets by iodometric or coulometric titrations.
212		7) Separation of a mixture of dyes by column chromatography; 8) Determination of alcohol contents in liquid drugs/galenical.
213	References	1. Vogel′s Textbook of Practical Organic Chemistry, 5th Ed. A. Vogel, et al., ed.,
214	References	2. Working Manuals will be provided from the chemistry lab.
215	Course Objective	To gain hands-on experience and practical training
216	Justification:	The students will be exposed to the synthesis tools and techniques
217
218
219
220
221	Fields	Values
222	Date	3/27/2022
223	Course Code	IC 2050
224	Course Name	Coordination Chemistry and Study of Transition Metal Complexes
225	Credits	2
226	Pre-requisites (if any)	None
227	Nature of Course	Theory
228	Type of Course	Core
229	Targeted Program and year	BTech II
230	Contents	•Crystal field theory, Splitting of d orbitals in linear, triangular, tetrahedral, square planar, trigonal bipyramidal, square pyramidal, octahedral and pentagonal bipyramidal fields of similar and dissimilar ligands.
231		• Crystal field stabilization energies in weak field and strong field environments, octahedral site preference energy, tetragonal distortion and Jahn Teller effect. Shapes of complexes. Effect of crystal field stabilization on ionic radii, lattice energy, hydration enthalpy and stability of complexes (Irving Williams order). Kinetic aspects of crystal field stabilization, crystal field activation energy, labile and inert complexes.
232		•Electronic spectra of metal complexes – determination of free ion terms of d1 to d9, microstates, determination of ground and all excited state terms of dn terms in octahedral and tetrahedral fields,
233		• Orgel diagrams (qualitative approach), hole formalism, inversion and equivalence relations, selection rules for spectral transitions, d-d spectra and crystal field parameters, Nephelauxetic series, qualitative idea of Tanabe–Sugano diagrams, charge transfer spectra. Magnetic properties – elementary idea.
234	References	1. Concepts and Models in Inorganic Chemistry – Douglass, McDanniel & Alexander Coordination Chemistry
235	References	2. Coordination Chemistry – S. F. A. Kettle, Inorganic Chemistry –A. G. Sharpe
236	Course Objective	Introduction to the fundamentals of transition metal and coordination chemistry
237	Justification:	This course is designed to provide basic concepts of transition metals and coordination compounds. It will build a foundation for students to learn advanced concepts of inorganic chemistry relevant to various industrial processes at later stages of the BTech program
238
239
240
241	Fields	Values
242	Date	3/27/2022
243	Course Code	IC2060
244	Course Name	Petroleum and Petrochemicals
245	Credits	2
246	Pre-requisites (if any)	No
247	Nature of Course	Theory
248	Type of Course	Core
249	Targeted Program and year	BTech II and III
250	Contents	• Origin, formation and composition of petroleum, • petroleum processing: fractionation, blending of gasoline, gasoline treatment, kerosene treatment, treatment of lubes, petroleum wax and purification; • Thermal and catalytic processes: thermal cracking, catalytic cracking, catalytic reforming, naphtha cracking, coking, hydrogen processes, alkylation, isomerization processes; polymer gasoline, asphalt, upgradation of heavy crudes; • Specialty products: industrial gases, liquid paraffin, petroleum jelly; Sources of petrochemicals; Synthesis of methanol, formaldehyde, acetylene, synthetic gas, ethanol, ethylene, ethylene glycol, vinyl acetate, acrylic acid and acrylates, acrylonitrile, acetone, acetic acid, chloroprene, vinyl chloride, vinyl acetate, acrylonitrile, propylene, butadiene, butanes, isobutene, adipic acid, adiponitrile, benzene, toluene, xylene, phenol, styrene, phthalic acid, phthalic anhydride and their applications in chemical industry.
251	Contents
252	References	B. K. B. Rao, Modern Petroleum Refining Processes, 4th Ed., Oxford & IBH Publishing Co. Pvt Ltd., New Delhi, 2002.
253	References	P. Wiseman, Petrochemicals, John Wiley & Sons, 1986.
254	Course Objective
255	Justification:
256
257
258
259
260	Fields	Values
261	Date	3/27/2022
262	Course Code	IC2070
263	Course Name	Polymer Science-I
264	Credits	3
265	Pre-requisites (if any)	None
266	Nature of Course	Theory
267	Type of Course	Core
268	Targeted Program and year	Btech II and III
269	Contents	• Classification of polymers, Kinetics of polymerization, • Molecular weight of polymer and its determination, Some specific methods for molecular weight determination of biopolymers- gel filtration, SDS-PAGE for proteins, Agarose gel method for nucleic acids.
270	Contents	• Thermodynamics of polymer solution: Polymer conformation. Molecular weights and molecular weight distributions and their determinations (viscometry, osmometry, light scattering, size-exclusion chromatography; • Principles of macromolecular synthesis: step-growth vs. chain-growth polymerizations. • Advanced synthetic techniques for controlling molecular weight dispersity in synthetic polymers- Living polymerization (living ionic, living radical and living ring-opening polymerizations); block copolymers-synthesis, microstructure, and applications; Conjugated polymers and their electrical and opto-electronic properties.
271	References	Principles of Polymer Chemistry, P.J. Flory, 2nd ed. 2000
272	References	Polymer Science and Technology, Robert O. Ebewele, CRC Press,Illustrated edition,, 2000
273	Course Objective
274	Justification:
275
276
277
278	Semester V
279	Fields	Values
280	Date	3/27/2022
281	Course Code	IC3010
282	Course Name	Material Science-I
283	Credits	3
284	Pre-requisites (if any)	None
285	Nature of Course	Theory
286	Type of Course	Core
287	Targeted Program and year	BTech II, III and IV
288	Contents	The course is designed to introduce fundamentals on solid-state materials that are suitable for applications to engineering systems.
289		Course content:
290		1. Translational symmetry, Bravais lattices, point & space group, Miller indices (planes and directions), basic concepts of powder & single-crystal X-ray and neutron diffraction; 2. Crystal chemistry of important solid-state structure types; 3. Bonding in solids, Pauling’s Rules, Bond Valence concept; 4. Point, line, planar, and bulk imperfections in crystalline solids
291		5. Introduction to Nano (nanocrystalline solids); 6. Synthetic methodologies to prepare bulk and nanocrystalline solids
292		7. Electrical properties of solids. 8. Band theory: metals, insulators, and semiconductors. 9. Bandgap engineering, doping, and semiconductor devices.
293	References	(a) Solid-state chemistry and its applications by Anthony R. West
294		(b) Solid-state chemistry: an introduction by Lesley Smart and Elaine Moore
295		(c) Elements of X-ray diffraction by B. D. Cullity.
296	Course Objective	To introduce to the world of Materials
297		To gain knowledge on the structual aspects of materials
298		To overview on the trend of emerging naomaterials
299		To understand the structure-property relationships of materials
300	Justification:	From stone age to silicon age, materials contributed to the development of human civilization. Students must need to acquire knowledge on the synthesis of materials and their structural aspects leading to the functional properties. The current era of nanomaterials is no exception and advancement towards development of new materials continue to expand.
301
302
303
304
305	Fields	Values
306	Date	3/27/2022
307	Course Code	IC3013
308	Course Name	Numerical and Computational Chemistry (Theory+Lab)
309	Credits	3
310	Pre-requisites (if any)	None
311	Nature of Course	Theory
312	Type of Course	Core
313	Targeted Program and year	Btech II, III and IV
314	Contents	Programming principles using loops, arrays and functions; use of libraries; Numerical methods: truncation and round off errors; roots; interpolation; differentiation and integration; linear equations, matrix operations; curve fitting; ODEs; optimization; Application of numerical methods to chemical problems.
315	Contents	Computational chemistry: A brief outline of molecular mechanics, semi-empirical approximations, ab initio methods, Density Functional Methods, basis sets, and Z-matrix; Application of these computational methods for prediction of structural and electronic properties of molecules, solid-state materials by using standard programs; computation of potential energy surfaces. Conformational analysis by molecular mechanics; Dynamical and structural studies of molecules using molecular dynamics simulations; Monte Carlo simulations of molecules; Molecular Docking Techniques.
316	References	Fortran 90/95 for Science and Engineering, edition 2, S.J. Chapman, McGraw Hill
317		Introduction to Numerical Computation, L. Eldén, L. Wittmeyer-Koch, H.B. Nielsen,
318		J. Cramer, Essentials of Computational Chemistry: Theories and Models
319		J. B. Foresman, A. Frisch, Exploring Chemistry with Electronic Structure Methods.
320		R. Dronskowoski, R. Hoffmann, Computational Chemistry of Solid-state materials: A Guide for Material Scientists, Chemists, Physicists, and others.
321	Course Objective
322	Justification:
323
324
325
326
327	Fields	Values
328	Date	3/27/2022
329	Course Code	IC3020
330	Course Name	Electrochemical Energy Conversion
331	Credits	3
332	Pre-requisites (if any)
333	Nature of Course	Theory
334	Type of Course	Core
335	Targeted Program and year	BTech (III or IV), M.Sc
336	Contents	This course gives an insight to fundamental of electrochemistry; corrosion and electrodeposition of metals from the aspect of electrochemistry and the course will provide comprehensive exploration of all types of batteries and fuel cells and their applications.
337		Contents:
338		Electrochemical cell - redox reaction, origin of electrode potential, Standard Hydrogen Electrode, EMF series, Reference electrodes, Concentration cells, Liquid Junction Potential, Applications of EMF, Conductivity of electrolyte solutions, Activity, Activity coefficient, Debye - Huckel - Onsager Equation, Kinetics- Over-potential, Butler Volmer equation, Tafel equation. Corrosion: Basics, chemical and electrochemical corrosion, corrosion control, Electrodeposition.
339		Principles of Operation of Cells and Batteries; Electrochemical Principles and Reactions; Factors Affecting Battery Performance; Battery Design; Primary cells and Batteries; Fundamentals of Secondary Batteries: Advanced Lead-acid, Ni-based and lithium-ion batteries, next generation batteries, Materials for batteries, Electrode preparation, cell Assembly, electrochemical performance analysis, understanding of degradation mechanism and Safety. Fuel cells: Introduction to Fuel Cells: working principle, direct methanol fuel cells, Proton Exchange Membrane Fuel Cells, alkaline fuel cells, phosphoric acid, solid oxide, molten carbonate Fuel cells. Advanced batteries and fuel cells for UPS, Solar, Telecom, Aerospace, Grid and Electric Vehicle applications.
340	References	1. Peter Atkins, P., and J. De Paula. Atkins’ physical chemistry. OUP Oxford, 2014.
341		2. Allen J., Bard and Larry R. Faulkner. " Electrochemical methods- Fundamentals and applications." Wiley, 2000.
342		3. John O'M. Bockris, Amulya, K.N. Reddy, Maria E. Gamboa-Aldeco, Modern Electrochemistry 2A, Fundamentals of Electrodics, 2nd Edn, 2006.
343		4. T. Ohtsuka, A. Nishikata, M. Sakairi, K. Fushimi, Electrochemistry for Corrosion Fundamentals, Springer, 2006.
344		5. Kirby W. Beard. Linden's Handbook of Batteries, Fifth Edition (McGraw-Hill Education: New York, Chicago, San Francisco, Athens, London, Madrid, Mexico City, Milan, New Delhi, Singapore, Sydney, Toronto, 2019).
345		6. Vladimir S. Bagotsky, Alexander M. Skundin and Yury M. Volfkovich (A.N. Frumkin Institute of Physical Chemistry and Electrochemistry of the Russian Academy of Science, Nanostructured Materials for Next-Generation Energy Storage and Conversion: Advanced Battery and Supercapacitors, Springer Nature, 10-Oct-2019 - Technology & Engineering - 472 pages.
346		8. D. Pavlov, Lead-Acid Batteries: Science and Technology, Elsevier 31-May-2011 - Technology & Engineering - 656 pages.
347		9. C. Vincent, Bruno Scrosati, Modern batteries, Elsevier, 26-Sep-1997 - Technology & Engineering - 368 pages.
348		10. Paul Breeze, Fuel cells, 2017, Elsevier Science, 100 pages.
349		Electrochemical Power Sources: Batteries, Fuel Cells, and Supercapacitors”
350		By, John Wiley & Sons Inc, New Jersey, USA, 2015, 372 pages, ISBN: 978-1-118-46023-6.
351	Course Objective	To understand the basics of electrochemistry
352		To apply such fundamental concepts in developing environmentally friendly energy storage devices
353		To motivate students in exploring cutting-edge research based on advanced electrochemistry
354	Justification:	1) Electrochemistry has a rich historical background and the domain of applied electrochemistry is given the utmost importance. What is the essence of electrochemistry in addressing some of the pressing global issues related to energy? What kind of electrochemical approaches and methods can be suitable towards realizing the fossil-fuel free society will be discussed in this course.
355	Justification:	2) IC3060 may have a little bit of basic electrochemical aspects, but the current course is a way advanced and would encourage students to pursue cutting-edge research problems related to electrochemical energy storage and electrocatalysis, fuel cells,etc. IC3011 provides hands-on experience in using specific electrochemical techniques to provide practical knowledge to the students.
356
357
358
359
360	Fields	Values
361	Date	3/27/2022
362	Course Code	IC3030
363	Course Name	Chemical Kinetics and Surface Chemistry
364	Credits	3
365	Pre-requisites (if any)
366	Nature of Course	Theory
367	Type of Course	Core
368	Targeted Program and year	BTech III, IV, M.Sc
369	Contents	Introduction to Chemical Kinetics: Order, molecularity,1st-2nd- 3rd –nth order derivations, half-life, determining the order of reaction, the effect of Temperature, Concentration, Pressure, Catalyst on Reaction Rate, Arrhenius equation, Kinetics of nuclear reactions, reversible /opposing reactions, consecutive /successive reactions, side/parallel reactions, steady-state approximation, chain reactions, collision-transition state theory.
370		Aggregation and self-assembly; Colloids: Classification and preparation; Structure and stability; The electrical double layer, Micelles, and biological membranes; Determination of size and shape; Mean molar masses; Laser light scattering
371		The growth and structure of solid surfaces, The extent of adsorption; The extent of adsorption; The rates of surface processes
372
373	References	1. K. J. Laidler, Chemical Kinetics, 3rd Ed., Pearson (2003)
374		2. M. R. Wright, An Introduction to Chemical Kinetics, John Wiley (2004)
375		3. P. Atkins, J. de Paula and J. Keeler, Atkins’ Physical Chemistry, 11th Ed., Oxfod University Press (2018).
376		4. N. J. Turro, V. Ramamurthy and J. C. Scaiano, Modern Molecular Photochemistry of Organic Molecules, Viva Student Edition, Viva (2017).
377		5. J. I. Steinfel, j. S. Francisco and W. L. Hase, Chemical Kinetics and Dynamics, 2nd Ed., Prentice Hall (1999).
378		6. Puri, Late BR, I. R. Sharma, and Madam S. Pathania. Principles of physical chemistry. Vishal, 2013.
379		7. Rajaram, J., and J. C. Kuriacose. "Kinetics and mechanism of chemical transformation." (1993).
380	Course Objective	To understand the reaction kinetics of homogeneous and heterogeneous
381		To understand the importance of surface chemistry in the heterogeneous catalysis to design certain industrial processes
382		To apply the concepts in the better design of catalysts for mitigating pollution effects by converting harmful gases to less harmful ones.
383	Justification:	1) Thermodynamics provides feasibility of a reaction but kinetics provide rate at which reaction proceeds. Depending on the rate of a chemical reaction, experimental reaction conditions such as temperature and catalyst can be explored as optimal options. Most of the heterogeneous catalysis is linked to industrial processes and hence it is very important to study surface chemistry and active sites responsible for the chemical conversion. Indeed, a lot of fertilizers and chemicals are being produced industrially with the knowledge of chemical kinetics.
384	Justification:	2) there is no overlap of this course with others and it remains the unique course
385
386	IC3040
387	Fields	Values
388	Date	3/27/2022
389	Course Code	IC3040
390	Course Name	Spectroscopy and Applications
391	Credits	2
392	Pre-requisites (if any)	none
393	Nature of Course	Theory
394	Type of Course	Core
395	Targeted Program and year	BTech II, III, IV, MSc
396	Contents	General aspects of spectroscopy, Fundamentals and applications of the following methods: Nuclear Magnetic Resonance Spectroscopy: NMR phenomenon, spin 1/2 nuclei, 1H, 13C, 19F and 31P, Zeeman splitting, Boltzmann distribution, effect of magnetic field strength on sensitivity and resolution. 1H-NMR, chemical shift, anisotropic effects, chemical and magnetic equivalence, coupling constants. Karplus relationship of J on dihedral angle, first order splitting patterns and structure correlation. 13C NMR - natural abundance, sensitivity. NOE effects, 13C chemical shifts and structure correlations. IR spectroscopy: Basic principles of IR spectroscopy, functional group frequencies of various classes of organic compounds. Factors affecting the group frequencies. UV-Vis spectroscopy: basic principles, Electronic levels and types of electronic transitions in organic, effect of extended conjugation and Woodward-Fieser rules for calculation of absorption maximum. Mass spectrometry: Introduction, Basic principle, Instrumentation, isotope abundance, molecular ions, fragmentation processes of organic molecules and deduction of structural information. Problem on structure elucidation of organic compounds based in spectral data.
397	References	1. Silverstein, Bassler and Morill: Spectrometric identification of organic compounds
398		2. Willim Kemp: Organic spectroscopy
399		3. Pavia, Lampman, Kriz, Vyvyan: Introduction to Spectroscopy
400	Course Objective	To train the students for the structural analysis of the synthetic compounds
401	Justification:	The student will learn the fundamentals of characterization tools and techniques
402
403
404
405	IC3011
406	Fields	Values
407	Date	3/27/2022
408	Course Code	IC3011
409	Course Name	Industrial Chemical methods Lab
410	Credits	1
411	Pre-requisites (if any)	none
412	Nature of Course	Lab
413	Type of Course	Core
414	Targeted Program and year	BTech II and III
415	Contents	Mini-projects based on electro- and chemical- polymerization of aniline, study of the redox reactions and the different forms of PANI by cyclic voltammetry and UV-vis spectroscopy or preparation of silver nanoparticle colloids, and understanding the dependence of band ga on particle size using UV- vis spectroscopy, electrodeposition of Ni / NiOx films and study of their electrochemical and optical properties.
416	Contents	References: Manuals and references will be provided from the chemistry lab
417	References	reference manual will be provided
418	Course Objective	Planning, preparation and execution of small scale industrial chemistry experiment
419	Justification:	To develop indipendent thinking skill, the course is designed.
420
421
422
423
424	Semester VII
425	Fields	Values
426	Date	3/27/2022
427	Course Code	IC4010
428	Course Name	Introduction to Drug Design
429	Credits	2
430	Pre-requisites (if any)	none
431	Nature of Course	theory
432	Type of Course
433	Targeted Program and year	BTech-4 year, MSc
434	Contents	Principles of Drug Discovery, Targets for drug discovery, and Identification of Lead Compounds; Physiochemical Properties of Drugs (Absorption, Distribution, Metabolism); Drug Receptor interactions; enzymes as drug targets, Drug design strategies, Structure-Based Drug Design; Use of chemoinformatics in drug design, Strategies for Organic Drug Synthesis; Combinatorial Chemistry; Prodrugs and drug delivery systems, Illustration of drug development through specific examples, Drug resistance, Drug synergism and combination therapy.
435	References	References:
436		1) Chemical Engineering in the Pharmaceutical Industry: Drug Product Design, Development, and Modeling by Mary T. am Ende (Editor), David J. am Ende (Editor). Wiley
437		2) Burger's Medicinal Chemistry, Drug Discovery and Development, 8 Volume Set. Volumes 1 – 8 Donald J. Abraham School of Pharmacy, Virginia Commonwealth University, Richmond, Virginia.
438		3) Silverman, R. B., The Organic Chemistry of Drug Design and Drug Action, 2nd Edition, 2004, ISBN: 0-12-643732-7, Academic Press
439		4) Organic Medicinal and Pharmaceutical chemistry. By Wilson and Gisvold's (English, Paperback, Beale John M)
440		5) Williams, D. A.; Lemke, T. L., Foye's Principles of Medicinal Chemistry. 5th ed.; Wolters Kluwer Health (India) Pvt. Ltd.: 2006.
441	Course Objective	To update the students regarding drug development tools and techniques
442	Justification:	The students will be taught about the rationale behind the drug design and development
443
444
445
446
447	Fields	Values
448	Date	3/27/2022
449	Course Code	IC4011
450	Course Name	Techniques in Industrial Chemistry Lab
451	Credits	2
452	Pre-requisites (if any)	None
453	Nature of Course	Lab
454	Type of Course	Core
455	Targeted Program and year	B. Tech. (III and IV)
456	Contents	• Synthesis and characterization of inorganic compounds in the diverse areas of Inorganic Chemistry such as Coordination Chemistry,
457		• Organometallic Chemistry and Bioinorganic Chemistry etc. Characterization:
458		• quantitative and qualitative determination of ligand and metal, use of spectral techniques (UV-visible, FT-IR, NMR, ESR, magnetic moment, analytical methods (conductance, TGA, DSC, cyclic voltammetry).
459	References	1. Synthesis and Technique in Inorganic Chemistry: A Laboratory Manual, Gregory S. Girolami, Thomas B. Rauchfuss and Robert J. Angelici. University Science Books.
460		2. Synthetic methods of organometallic and inorganic chemistry ed. by Wolfgang A. Herrmann, Georg Thieme Verlag, New York, 1997, Vol 7 and 8 3.
461		3. Vogel’s qualitative inorganic analysis, by Svehla, G. Publisher: Harlow: Longman, 1996. 4. Vogel’s textbook of quantitative inorganic analysis: including elementary instrumental analysis. By: Arthur Israel Vogel; John Bassett Publisher: London; New York: Longman, 1978.
462	Course Objective	This advanced laboratory course aims to introduce students to the experimental aspects of industrial inorganic chemistry such as synthesis and characterization of coordination, bioinorganic, and organometallic compounds.
463	Justification:	This practical course is required to train students in dealing with the characterization of various types of industry relevant inorganic compounds.
464
465
466
467
468	Fields	Values
469	Date	3/27/2022
470	Course Code	IC4010
471	Course Name	Materials Science-II
472	Credits	3
473	Pre-requisites (if any)	IC3010
474	Nature of Course	Theory
475	Type of Course	Core
476	Targeted Program and year	BTech IV, M.Sc
477	Contents	The course is designed to gain in depth knowledge on the physical properties of solid-state materials and their applications to engineering systems, characterization techniques and application.
478		Course content: 1. Magnetism & magnetic materials 2. Thermal and optical properties of solids 3. Superconductors, thermoelectric, photoconductors, solar cell, and battery materials 4. Properties of important metals oxides and chalcogenides for catalytic applications.
479		5. Introduction to nanoscience, nanotechnology; 6. Synthesis of Nanomaterials by Physico-chemical approaches.
480		7. Advanced Characterization Methods: X-ray diffraction and Microscopy methods, Optical Absorption and Emission Spectroscopy, Thermogravimetric Analysis, X-ray photoelectron spectroscopies, Raman spectroscopies. 8. Application of nanomaterials and safety.
481	References	a) G. A. Ozin and A. C. Arsenault, Nanochemistry-A Chemical Approach to Nanomaterials -, RSC Publishing, Cambridge, 2006.
482		b) G. Cao and Y. Wang, Nanostructures and Nanomaterials-Synthesis, Properties, and Applications, 2nd Edition, https://doi.org/10.1142/7885, Pages: 596, 2011,
483		e) Solid-state chemistry and its applications by Anthony R. West; 2014, Student edition
484		f) Solid-state chemistry: an introduction by Lesley Smart and Elaine Moore
485	Course Objective	To gain knowledge on tools for characterisation of materials
486		To understand structure-property relationships of advanced materials
487		To study the functional properties of materials and further apply them in specific applications
488	Justification:	1) Materials development advances human society. New types of materials are being discovered from time and time. It is alos very important to design materials as per specific application requirement. Therefore, characterisation of materials remain core of the subject which help guide for the better design of materials with intended properties. Understanding of different physicochemical properties of materials is very much required for the rational design of smart functional devices.
489	Justification:	2) IC 3010 deals with the structural aspects and fundamental design aspects of materials. The current course deals with the characterisation and functional properties of materials
490
491
492	IC4030
493	Fields	Values
494	Date	3/27/2022
495	Course Code	IC4030
496	Course Name	Polymer Science-II
497	Credits	3
498	Pre-requisites (if any)	None
499	Nature of Course	Theory
500	Type of Course	Core
501	Targeted Program and year	BTech III and IV and MSc
502	Contents	• Commodity and general-purpose thermoplastics: PE, PP, PS, PVC, Polyesters, Acrylic, PU polymers. Engineering Plastics: Nylon, PC, PBT, PSU, PPO, ABS, Fluoropolymers Thermosetting polymers: PF, MF, UF, Epoxy, Unsaturated polyester, Alkyds. Natural and synthetic rubbers: Recovery of NR hydrocarbon from latex, SBR, Nitrile, CR, CSM, EPDM, IIR, BR, Silicone, TPE.
503		• Difference between blends and composites, their significance, choice of polymers for blending, blend miscibility-miscible and immiscible blends, • thermodynamics, phase morphology, • polymer alloys, polymer eutectics, plastic-plastic, rubber-plastic and rubber-rubber blends, FRP, particulate, • long and short fibre reinforced composites., Polymer compounding-need and significance, different compounding ingredients for rubber and plastics, • Cross-linking and vulcanization, vulcanization kinetics.
504		• Flow of Newtonian and non-Newtonian fluids, different flow equations, dependence of shear modulus on temperature, molecular/segmental deformations at different zones and transitions.
505		• Measurements of rheological parameters by capillary rotating, parallel plate, cone-plate rheometer.
506		• Visco-elasticity-creep and stress relaxations, mechanical models, control of rheological characteristics through compounding, rubber curing in parallel plate viscometer, ODR and MDR.,
507		• Compression molding, transfer molding, injection molding, blow molding, reaction injection molding, extrusion, pultrusion, calendaring, rotational molding, thermoforming, rubber processing in two-roll mill, internal mixer.
508		• Mechanical-static and dynamic tensile, flexural, compressive, abrasion, endurance, fatigue, hardness, tear, resilience, impact, toughness.
509		• Conductivity-thermal and electrical, dielectric constant, dissipation factor, power factor, electric resistance, surface resistivity, volume resistivity, swelling, ageing resistance, environmental stress cracking resistance.
510	References	Principles of Polymer Chemistry, P.J. Flory, 2nd ed. 2000
511	References	Polymer Science and Technology, Robert O. Ebewele, CRC Press,Illustrated edition,, 2000
512	Course Objective
513	Justification:
514
515
516	IC4016
517	Fields	Values
518	Date	3/27/2022
519	Course Code	IC4016
520	Course Name	Industry Lecture Series
521	Credits	1
522	Pre-requisites (if any)	not
523	Nature of Course	Seminar
524	Type of Course	core
525	Targeted Program and year	BTech III and IV, MSc
526	Contents	A series of lectures will be conducted at the department inviting prominent industry persons. It is mandatory for the BTech students to attend and interact with the speaker.
527	References	Not required
528	Course Objective	Seminars for students to be familiarize with industry updates
529	Justification:
530
531
532
533
534	Semester VIII
535
536	Fields	Values
537	Date	3/27/2022
538	Course Code	IC4040
539	Course Name	Industrial Pollution and Chemical Industrial safety
540	Credits	3
541	Pre-requisites (if any)	None
542	Nature of Course	Theory
543	Type of Course	Core
544	Targeted Program and year	BTech III and IV
545	Contents	CPCB Guidelines, Air and Noise Pollution,
546		Water pollution- ASP, ETP, etc
547		Solid Waste
548		Emission and control methods in the Production of Sulfuric Acid, Production of Nitrates-Containing Fertilizers, Lime Production, Soda Production, NaOH/Cl2 by electrolysis, Cement, Pharmaceutical Industry, Bulk Organic Chemical Industry
549		Water Pollution: Identification, quantification and analysis of wastewater, Classification of different treatment methods into physico-chemical and biochemical techniques, Physico-chemical methods, General concept of primary treatment, Liquid-solid separation, Design of a settling tank, Neutralization and flocculation, Disinfection, Biological methods, Concept of aerobic digestion, Design of activated sludge process, Concept of anaerobic digestion,
550		Air Pollution: Classification of air pollutants, Nature and characteristics of gaseous and particulate pollutants, Analysis of different air pollutants, Description of stack monitoring kit and high volume sampler, Atmospheric dispersion of air pollutants, Gaussian model for prediction of concentration of pollutant down wind direction, Plume and its behavior, Operating principles and simple design calculations of particulate control devices, Brief concepts of control of gaseous emissions by absorption, adsorption, chemical transformation and combustion.
551		Solid Wastes: Analysis and quantification of hazardous and non-hazardous wastes, Treatment and disposal of solid wastes, Land filling, Leachate treatment, Incineration. Environmental Management System: Environment impact assessment, Its concept and constituents, Environmental audit, ISO-14000 system.
552	References	Hand Book of “Industrial Safety and Health, Trade and Technical Press Ltd. Morden,U.K.1980.
553		William Handley, Industrial Safety Hand Book, McGraw-Hill Book Company 2nd Edition, 1969.
554		Fawatt,H.H.and Wood, W.S. Safety and Accident Prevention in Chemical Operation,Interscience,1965.
555		S.P.Mahajan, “Pollution Control in Process Industries” Tata McGraw Hill, NewDelhi1985.
556		K.S.N.Raju, “Chemical Process industry safety” Tata McGraw Hill, NewDelhi 2006.
557	Course Objective
558	Justification:
559
560
561	Fields	Values
562	Date	3/27/2022
563	Course Code	IC4050
564	Course Name	Chemical Industrial separation techniques
565	Credits	2
566	Pre-requisites (if any)	Not
567	Nature of Course	Theory
568	Type of Course	Core
569	Targeted Program and year	Btech III, IV, MSc
570	Contents	Raoult’s law, distillation curves, Liquid-Liquid separation, Azeotropic distillation, Basics of Chromatography, LC, LC-MS-MS, HPLC, Detectors for HPLC, GC, detectors for GC, GC-MS-MS, GPC, IC.
571	References	Vogel, Arthur Israel, and George Harold Jeffery. Vogel's textbook of quantitative chemical analysis. Wiley, 1989.
572	References	Industrial Separation Processes, Fundamentals by André B. de Haan, H. Burak Eral and Boelo Schuur, 2nd edition, 2020.
573	Course Objective	Liquid-Liquid Extraction, Industrial membrane separation technologies, Industrial Crystallization, Fixed and fluid bed full scale chromatography
574	Justification:	Separation processes on an industrial scale account for well over half of the capital and operating costs in the chemical industry. Knowledge of these processes is key for every student of chemical or process engineering.
575
576
577
578
579	List of Electives
580
581	Fields	Values
582	Date	3/27/2022
583	Course Code	IC3023
584	Course Name	Machine Learning in Chemistry
585	Credits	2
586	Pre-requisites (if any)
587	Nature of Course	Theory and Lab
588	Type of Course	Core
589	Targeted Program and year	Btech II, III, IV
590	Contents	Artificial intelligence (AI) rapidly changes many aspects of chemical sciences, from drug discovery, material design, and the discovery of new reactions and molecules till the acceleration of computer sciences and robotics for chemical applications. This course will cover the key aspects of AI and modern chemoinformatics and how they are applied on chemical sciences.
591	References	Chemoinformatics: Basic Concepts and Methods Edited by Engel and Gasteiger, (Wiley-VCH Verlag GmbH & Co., 2018).
592	Course Objective
593	Justification:
594
595
596
597
598	Fields	Values
599	Date	3/27/2022
600	Course Code	IC3060
601	Course Name	Advanced Inorganic Chemistry
602	Credits	3
603	Pre-requisites (if any)	None
604	Nature of Course	Theory
605	Type of Course	Elective
606	Targeted Program and year	BTech III & M.Sc I
607	Contents	Basic Bonding Theory, Crystal Field Theory and Molecular orbital Theory,
608		• Molecular Symmetry and Character Tables and their Application to Vibrational and Electronic spectroscopy, Selection Rules,
609		• Reaction Mechanism (Redox, Photochemistry, Ligand substitution reactions),
610		• Acid-Base and Donor-Acceptor Chemistry, Magneto-Chemistry, Organometallic Chemistry and Bioinorganic chemistry.
611		• Applications to current research problems in inorganic and solid-state chemistry.
612	References	1. Inorganic Chemistry by Catherine E. Housecroft and Alan G. Sharpe; Physical Inorganic Chemistry by S F A KETTLE
613		2. Advanced Inorganic Chemistry, 6th Edition by F.
614		Albert Cotton, Geoffrey Wilkinson, Carlos A. Murillo, Manfred Bochmann.
615	Course Objective	This course aims to offer advanced aspects of inorganic chemistry including structural, bonding, reaction mechanism, spectroscopic, and magneto-characterization of the organometallic, coordination compounds, and extended inorganic solids.
616	Justification:	The course is designed to provide advanced concepts of inorganic chemistry, which is critical to design and fine-tune the properties of inorganic compounds relevant to industrial applications such as catalytic properties and value added inorganic materials.
617
618
619
620
621	Fields	Values
622	Date	3/27/2022
623	Course Code	IC3070
624	Course Name	Industrial Heterogeneous catalysis
625	Credits	3
626	Pre-requisites (if any)	not
627	Nature of Course	theory
628	Type of Course	elective
629	Targeted Program and year	BTech II, III and IV
630	Contents	Introduction to Heterogeneous catalysis-Theory, Kinetic modelling, L-H and E-R mechanism. Electronic and Geometric factors, Industrial catalytic applications of Zeolites, Aluminophosphates, Mesoporous materials, Aminophosphates, Hydrotalcite, clays, Nanocomposites and Metal organic Frameworks. Nanoparticles for heterogeneous catalysis
631		Catalysts Preparation Methods: Solid-Solid (Ceramic Method) Solid from Liquid- Sol-gel Method; Co-Precipitation Method; Hydrothermal Method, Chemical Vapor deposition Method.
632		Characterization methods: Isotherm models, BET, BJH. TPD, TPD, TRP, Metal dispersion.
633		Solid acids/bases/redox and multifunctional catalysts: Applications of Solid acids: Alkylation, Cracking, Isomerization, Aromatization, Methanol to olefin reaction. Solid basic catalysis. Solid redox catalysts: Phenol & Benzene hydroxylation, Ammoxidation, Alkane oxidation, Alcohol oxidation, Alkene epoxidation. Oxidative dehydrogenation, Electrocatalysis.
634		Other Industrially important catalysts and processes: Wilkinson catalyst, Zeigler Natta catalyst, Fisher trope synthesis, Heck reaction, Suzuki coupling reaction, Haber process, Bio-diesel production, Photocatalysis.
635		Enzymatic catalysis: Enzymatic catalysis, Kinetics, General Mechanism, Mechanisms for the Inhibition of Enzyme Catalysis, Advantages, LImitations, and Applications.
636	References	1. Catalysis: Principles and Applications, B. Viswanathan, S. Sivasanker, A.V. Ramaswamy, Narosa Publishing House, New Delhi 2007.
637	References	2. Industrial Catalysis A Practical Approach, Jens Hagen, Wiley-VCH, Verlag GmbH & Co. KGaA, 2006.
638	Course Objective	Heterogeneous catalysis, kinetic models, catalysts, mechanisms, examples and applications.
639	Justification:	Heterogeneous catalysis is the back bone of chemical industry. The course is designed to enhance the understanding of the students on the current advancements of industrial catalysts.
640
641
642
643
644	Fields	Values
645	Date	3/27/2022
646	Course Code	IC4060
647	Course Name	Molecular Spectroscopy
648	Credits	2
649	Pre-requisites (if any)	not
650	Nature of Course	Theory
651	Type of Course	elective
652	Targeted Program and year	BTech III and IV, MSc
653	Contents	Region of spectrum, spectral lines intensity and broadening, Microwave spectrum of rigid and non-rigid rotator, Principle of microwave oven; Vibrational spectra of harmonic and anharmonic oscillator, Vibrations of polyatomic molecules, group frequencies and its applications, instrumental methods. Raman spectroscopy and instrumentation, structure determination; Principles of UV-VIS spectroscopy and instrumentations; Principles and methodology of spin resonance spectroscopy: NMR and ESR; Magnetic resonance imaging (MRI).
654	References	1. Physical Chemistry by Peter Atkins and Julio de Paula, James keeler, 11th edition, 2018
655	References	2. Fundamentals of molecular spectroscopy by Banwell, 4th edition, 2017
656	Course Objective	The origin of interaction between radiation and matter, fundamental of molecular energy levels, absorption, instrumentations and applications
657	Justification:	Analytical methods based on spectroscopy provides one of the most accurate methods. the course is designed to provide knowledge from fundamental to applications.
658
659
660
661	Fields	Values
662	Date	3/27/2022
663	Course Code	IC4070
664	Course Name	Metals in Biological Systems and Biochemical Processes
665	Credits	2
666	Pre-requisites (if any)	None
667	Nature of Course	Theory
668	Type of Course	Elective
669	Targeted Program and year	BTech III and IV, M.Sc
670	Contents	Metal ions in biology: metallo-proteins and enzymes containing Mg, Ca, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Mo and W ions. heme and non-heme systems, Peptide and nucleotide hydrolytic enzymes, Metal environment, electronic, magnetic and redox properties; fixation of N2, water-oxidation reactions, Synthetic models for the structure and function of the above enzymes, syntheses of ligand-metal complexes, reactivity of O2, CO, NO, N2; mechanistic aspects, high-valent metal-oxo (Fe-, Mn- and Cu) systems, Interaction of metal ions with nucleotides and peptides, hydrolysis of phosphate and amide groups, Metal based drugs, environmental applications and toxic effects.
671	References	Principles Of Bioinorganic Chemistry Hardcover by Stephen J. Lippard, Jeremy M. Berg
672	Course Objective	This course offers fundamental aspects of the metal ions involved in biological processes, which include studying chemical, redox, electronic, and their biological properties.
673	Justification:	This course is designed to explore the chemistry of metals ions involved in important biological processes. This course will be useful for students to design new bioinspired molecules and to develop new routes to synthesize them in bulk scale for various important applications such as environmental remediation, green energy production, etc.
674
675
676
677
678	Fields	Values
679	Date	3/27/2022
680	Course Code	IC4080
681	Course Name	Synthetic Methodology in Organic Chemistry
682	Credits	2
683	Pre-requisites (if any)
684	Nature of Course	Theory
685	Type of Course	Elective
686	Targeted Program and year	BTech-VII/VIII, MSc
687	Contents	Basic retrosynthetic analysis: terminology associated with, prostereoisomerism, homo, enantio, diastereo ligands and faces, stereoselective synthesis.
688		Nucleophilic C-C bond forming reactions: organometallic reagents of lithium, magnesium, copper, chromium and iron, ylides of sulfur and nitrogen, Tebbe’s reagent. Enolates, kinetic and thermodynamic enolates, enolate condensation reactions like Claisen, Dieckmann, Knoevenegal, Stobbe, Darzen glycidic ester. Umpolung reagents, definition of umpolung, acyl anion equivalent, equivalents of ketene, RCOCH2+, RCOCH2CH2CH2+, RCOCH2CH2CH2- etc.
689		C-C bond formation via free radicals and carbenes: methods of generation of free radicals and carbenes, reactions of free radicals, coupling, addition, substitution, fragmentation and rearrangements.
690		C-C bond formation using tin reagents: Protecting groups, protection of hydroxyl, carboxyl, carbonyl, amino groups. Protection of carbon-carbon multiple bonds. Illustration of protection and deprotection in synthesis.
691	References	References:
692		1. F. A. Carey and R. I. Sundberg, Advanced Organic Chemistry, Part A and B, 5th edition, Plenum Press, 2007.
693		2. S. Warren, Designing Organic Synthesis, John Wiley, 2009.
694		3. S. G. Davies, Organotransition Metal Chemistry, Application to Organic Synthesis, Pergamon Press, 1984.
695		4. R. K. Mackie and D. M. Smith, Guidebook to Organic Synthesis, ELBS, 1991.
696		5. Michael B. Smith, Organic Synthesis, McGraw Hill, 1994.
697	Course Objective	The students will learn the advanced organic tools and techniques
698	Justification:	Hardcore chemistry requires strong hold on synthetic organic chemistry
699
700
701
702
703
704
705
706	Fields	Values
707	Date	3/27/2022
708	Course Code	IC4100
709	Course Name	Applied Statistical Methods and the Chemical Industry
710	Credits	2
711	Pre-requisites (if any)
712	Nature of Course	Theory
713	Type of Course	Elective
714	Targeted Program and year	BTech III and IV, MSc
715	Contents	Quality of Analytical Measurements-Propagation of error, Sampling strategy, Quality control methods-property control charts, precision control charts, collaborative tests and uncertainty of measurements, Significance tests: Comparison tests, outliers, ANOVA calculations.
716		Analytical methods Metrological Quality: Various types of analytical methods, regression analysis, Limit of detection, Limit of quantification, Random error, Calibration of equipment and instruments. Curvilinear and outlier analysis.
717		Standard Method Development and Validation: Optimization of experimental procedures in analytical chemistry, Standard addition, External standard, internal standard and dilution methods, response surfaces, specific examples, experimental design-fractional factorial designs. Validation testing parameters and their calculation with numerical examples
718	References	1. Quality Assurance and Quality Control in the Analytical Chemical Laboratory, Piotr Konieczka and Jacek Namiesnik, CRC Press, 2009 and 2nd Edition.
719	References	2. Quality Assurance in the Analytical Chemistry Laboratory, D. BrynnHibbert, Oxford University Press, New York, 2007 and 1st Edition.
720	Course Objective
721	Justification:
722
723
724
725
726	Fields	Values
727	Date	3/27/2022
728	Course Code	IC4110
729	Course Name	Introduction to Toxicology
730	Credits	2
731	Pre-requisites (if any)
732	Nature of Course	Theory
733	Type of Course	Core
734	Targeted Program and year	Btech III and IV
735	Contents	Students examine basic concepts of toxicology as they apply to the effects of environmental agents, e.g. chemicals, metals, on public health. We discuss the distribution, cellular penetration, metabolic conversion, and elimination of toxic agents, as well as the fundamental laws governing the interaction of foreign chemicals with biological systems.
736	Contents	A survey of general principles underlying the effects of toxic substances on biological systems, including consideration of the history, scope and applications of toxicology, toxicant exposure, the mechanisms of toxic action, and some major types of toxicants
737	References	Hodgson, Ernest, ed. A textbook of modern toxicology. John Wiley & Sons, 2004.
738	References	Hayes, A. W., & Kruger, C. L. (Eds.). (2014). Hayes' principles and methods of toxicology. Crc Press.
739	Course Objective
740	Justification:
741
742
743
744
745	Fields	Values
746	Date	3/27/2022
747	Course Code	IC4013
748	Course Name	MATLAB and Mathematical Computation
749	Credits	2
750	Pre-requisites (if any)	Not
751	Nature of Course	Combined theory and Lab
752	Type of Course	elective
753	Targeted Program and year	Btech III and IV, MSc
754	Contents	Variables, arrays, conditional statements, loops, functions, and plots are covered in a project-based style where much of the learning happens away from the classroom. Students are expected to spend about 4 hours per week on homework. At the end of the course, students should be able to use MATLAB in their own work, and be prepared to deepen their MATLAB programming skills and tackle other languages for computing, such as Java, C++, or Python.
755	References	1. MATLAB Programming for Engineers, Stephen J. Chapman, 6th edition, 2020
756	References	2. Programming for Engineers: A Foundational Approach to Learning C and Matlab, Aaron R. Bradley,1st Edition, 1998
757	Course Objective	To teach numerical solution to problems relevant to chemical industry and beyond.
758	Justification:	Engineers and scientists need a programming language that lets them express matrix and array mathematics directly. Linear algebra in MATLAB is intuitive and concise
759
760
761
762
763
764	Fields	Values
765	Date	3/27/2022
766	Course Code	IC4120
767	Course Name	Batteries and Fuel cells
768	Credits	3
769	Pre-requisites (if any)	not
770	Nature of Course	theory
771	Type of Course	elective
772	Targeted Program and year	Btech III and IV, MSc
773	Contents	Principles of Operation of Cells and Batteries; Electrochemical Principles and Reactions; Factors Affecting Battery Performance; Battery Design; Primary cells and Batteries; Fundamentals of Secondary Batteries: Advanced Lead-acid, Ni-based and lithium-ion batteries, next generation batteries, Materials for batteries, Electrode preparation, cell Assembly, electrochemical performance analysis, understanding of degradation mechanism and Safety. Fuel cells: Introduction to Fuel Cells: working principle, direct methanol fuel cells, Proton Exchange Membrane Fuel Cells, alkaline fuel cells, phosphoric acid, solid oxide, molten carbonate Fuel cells. Advanced batteries and fuel cells for UPS, Solar, Telecom, Aerospace, Grid and Electric Vehicle applications.
774	References	1. Kirby W. Beard. Linden's Handbook of Batteries, Fifth Edition (McGraw-Hill Education: New York, Chicago, San Francisco, Athens, London, Madrid, Mexico City, Milan, New Delhi, Singapore, Sydney, Toronto, 2019).
775		2. Vladimir S. Bagotsky, Alexander M. Skundin and Yury M. Volfkovich (A.N. Frumkin Institute of Physical Chemistry and Electrochemistry of the Russian Academy of Science, Russia) Electrochemical Power Sources: Batteries, Fuel Cells, and Supercapacitors”
776		By, John Wiley & Sons Inc, New Jersey, USA, 2015, 372 pages, ISBN: 978-1-118-46023-6.
777		3. Ying-Pin Chen, Sajid Bashir, Jingbo Louise Liu, Nanostructured Materials for Next-Generation Energy Storage and Conversion: Advanced Battery and Supercapacitors, Springer Nature, 10-Oct-2019 - Technology & Engineering - 472 pages.
778	Course Objective	This course is a guide to the evolution of the use of electrochemistry to generate energy and power.
779	Justification:	The course will provide comprehensive exploration of all types of batteries and fuel cells and their applications.
780
781
782
783
784	Fields	Values
785	Date	3/27/2022
786	Course Code	IC4130
787	Course Name	Nuclear Chemistry
788	Credits	3
789	Pre-requisites (if any)	not
790	Nature of Course	theory
791	Type of Course	Elective
792	Targeted Program and year	BTech III, IV, MSc
793	Contents	• Nuclear Chemistry Introduction: Basic Concepts,
794		• Elementary Particles, and Decay Types,
795		• Nuclear Properties: Nuclear masses and binding energies,
796		• Chemistry of Actinide and Trans-actinide elements, Radioactive decay Kinetics (α- and β-decay and γ-ray decay), Nuclear Reactions, Nuclear Fuel Cycle, and Nuclear Reactor,
797		• Separation Techniques for the Nuclear Wastes.
798	References	1. Modern Nuclear Chemistry, Walter D. Loveland, David J. Morrissey, Glenn T. Seaborg, Second Edition, 2017
799	References	2. Nuclear and Radiochemistry, József Kónya and Noémi M. Nagy, Second Edition, 2018
800	Course Objective	The course explains the basic principles and applications of the primary areas of nuclear and radiochemistry
801	Justification:	The course includes nuclear medicine and chemical aspects of nuclear power plants, namely the problems of nuclear wastes and nuclear analysis, with the analytical methods based on the interactions of radiation with matter.
802
803
804
805
806	Fields	Values
807	Date	3/27/2022
808	Course Code	IC4140
809	Course Name	Medicinal Chemistry
810	Credits	2
811	Pre-requisites (if any)
812	Nature of Course	Theory
813	Type of Course	Elective
814	Targeted Program and year	Btech III and IV
815	Contents	History and development of medicinal chemistry. An Introduction to Drugs and their action – Source of drugs, classification and route of administration and drug action. Selected Examples of Drug Action at some Common Target Areas - Examples of drugs that target cell membranes, enzymes, receptors, and nucleic acids. Pharmacokinetics and Drug metabolism - Introduction, metabolic routes, and models of drug administration
816	References	Fundamentals of Medicinal Chemistry, by Gareth Thomas
817		Foye’s Principles of Medicinal Chemistry
818		Wilson and Giswold’s Organic medicinal and Pharmaceutical Chemistry.
819	Course Objective
820	Justification: