Course Outcomes - Bachelor of Science in Chemistry (B.Sc. Chemistry)
| CO No. | Course Outcome |
|---|---|
| CO 1 | Demonstrate a good understanding of the various theories on atomic structure and periodicity in the properties of elements. |
| CO 2 | Apply the acquired knowledge about periodicity to predict and explain the properties of elements. |
| CO 3 | Analyse and apply the rules in representing organic compounds with structural formulae and naming organic compounds. |
| CO 4 | Develop skill in solving problems involving stoichiometric calculations. |
| CO 5 | Develop skills in practical Chemistry and in using online resources. |
| CO 6 | Demonstrate good laboratory practices. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Attain basic information on atomic structure and theories associated with it and understand the periodic properties of elements. |
| CO 2 | Get insight about the concept of chemical bonding and theories to explain bonding in various molecules. |
| CO 3 | Get awareness about various types of molecules including coordination compounds and organic molecules. |
| CO 4 | Acquire proficiency in analytical chemistry techniques, demonstrate knowledge of qualitative and quantitative analysis methods, and apply them in practical scenarios. |
| CO 5 | Provide practical experience on various titrimetric analysis. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Provide knowledge about environmental segments, their structure and composition. |
| CO 2 | Create scientific awareness regarding the source, effects and sink of pollutants in the environment. |
| CO 3 | Study energy resources, role of fuel consumption in pollution, importance of energy management, and eco-friendly alternatives. |
| CO 4 | Inculcate importance of environmental protection and environment-friendly lifestyle. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand the principles of chemical bonding, coordination compounds and acid-base concepts. |
| CO 2 | Apply hybridisation and VSEPR theory to predict molecular shapes. |
| CO 3 | Develop basic knowledge about reaction intermediates and aromaticity of molecules. |
| CO 4 | Analyse electron displacement and structural effects on organic reactions. |
| CO 5 | Understand packing and imperfections in solids; solve problems on unit cell and packing efficiency. |
| CO 6 | Develop advanced practical skills in volumetric analysis and laboratory communication. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Comprehensive understanding of properties of liquid state and solutions. |
| CO 2 | Understand instrumental techniques in analytical chemistry. |
| CO 3 | Comprehend laws/theories of chemical equilibrium and corrosion, apply them in real life. |
| CO 4 | Analyse environmental issues and develop protective habits. |
| CO 5 | Acquire proficiency in analytical chemistry techniques, chromatographic separation, solvent extraction and virtual lab titrations. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand nuclear reactions, distinguish constructive and destructive applications. |
| CO 2 | Apply statistical treatment of analytical data and qualitative mixture analysis. |
| CO 3 | Comprehend periodicity in properties of s and p block elements. |
| CO 4 | Analyse bonding theories in coordination compounds and predict geometry/properties. |
| CO 5 | Acquire skill in identifying anions in salt mixtures and eliminating interfering radicals. |
| CO 6 | Acquire skill in preparing alums and applying them in water purification. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Examine chemical properties of different classes of organic compounds. |
| CO 2 | Understand named reactions and their applications in synthesis. |
| CO 3 | Propose stereochemistry of organic molecules and predict conformer stability. |
| CO 4 | Analyse reaction mechanisms and suggest mechanisms for given reactions. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand properties of matter in gaseous and crystalline states. |
| CO 2 | Understand principles of spectroscopic analysis. |
| CO 3 | Apply theoretical concepts in electrochemistry and electromotive force. |
| CO 4 | Understand significance of nanomaterials. |
| CO 5 | Acquire skills in qualitative analysis of cation mixtures. |
| CO 6 | Employ techniques of nanomaterial synthesis in practice. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand safety measures in laboratory and professional ethics. |
| CO 2 | Understand scientific importance of personal protective equipment. |
| CO 3 | Safely handle, store, use and dispose waste scientifically. |
| CO 4 | Develop good laboratory practices. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Comprehensive understanding about transition and inner transition elements. |
| CO 2 | Explain the industrial importance of certain inorganic compounds and metallurgical processes for extracting metals from ores. |
| CO 3 | Differentiate the role of different metals in various biological processes. |
| CO 4 | Comprehensive understanding about organometallic compounds, their structure and applications. |
| CO 5 | Acquire skill in qualitative analysis of salt mixtures. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand preparative methods and properties of carboxylic acids, carbonyl compounds and nitrogen-containing compounds. |
| CO 2 | Describe classification, structure and properties of carbohydrates. |
| CO 3 | Explain the configuration of glucose and fructose. |
| CO 4 | Examine carbohydrate content of biological samples. |
| CO 5 | Analyse characteristics of different functional groups. |
| CO 6 | Classify different dyeing agents. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Identify and distinguish types of solutions. |
| CO 2 | Explain colligative properties of dilute solutions and determine molecular weight of solutes. |
| CO 3 | Recognize and relate properties of ideal and real gases. |
| CO 4 | Describe properties of liquids. |
| CO 5 | Understand basic principles of ionic equilibrium and its laboratory applications. |
| CO 6 | Acquire practical skills in physical chemistry experiments (Cryoscopy, Transition temperature, Viscosity, CST, etc.). |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand the chemical composition of natural water. |
| CO 2 | Apply scientific knowledge to determine the presence of various contaminants in water. |
| CO 3 | Analyse drinking water quality of samples collected from the locality to assure safe water for society. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand the basic principles of chemical equilibrium, Le-Chatlier principle and its application in industries. |
| CO 2 | Understand basic principles of surface chemistry and its application in various fields. |
| CO 3 | Correlate the types of colloids with their properties and explore applications in daily life. |
| CO 4 | Apply scientific principles of kinetics to simple, complex, enzymatic, and surface reactions. |
| CO 5 | Construct phase diagrams, study equilibrium between states of matter, and apply phase diagram principles to separation processes and property modification. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand qualitative and quantitative aspects of analysis and separation techniques; gain practical lab knowledge. |
| CO 2 | Explain instrumentation and working principles of analytical techniques (TGA, DTA, radiochemical methods). |
| CO 3 | Understand scientific principles and theories of corrosion, and factors affecting corrosion. |
| CO 4 | Understand properties, behaviour, and applications of acids, bases, and non-aqueous solvents. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Identify fundamental experiments and theories that led to quantum mechanics; recognize limitations of classical models. |
| CO 2 | Understand and explain core postulates of quantum mechanics (state function, operator, eigenvalue, expectation value). |
| CO 3 | Apply Schrödinger equations to potential problems (e.g., particle in a box) and compute quantized energy levels/wave functions. |
| CO 4 | Use symmetry elements and operations to classify point groups of molecules and predict effects of symmetry on properties. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand environmental segments (lithosphere, hydrosphere, atmosphere, biosphere) and their chemical compositions. |
| CO 2 | Analyse air pollutants, their effects, and control methods. |
| CO 3 | Assess water pollution sources, impacts, and control methods. |
| CO 4 | Examine soil pollution causes, effects, and bioremediation techniques. |
| CO 5 | Understand noise and radiation pollution, their sources, effects, and control measures. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Classify polymers and explain their properties. |
| CO 2 | Illustrate preparation, properties, and applications of polymers. |
| CO 3 | Interpret mechanisms of polymerization. |
| CO 4 | Apply polymer processing technologies and explain thermal analysis methods. |
| CO 5 | Understand recent advances in polymer chemistry. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Comprehensive understanding of cosmetics to identify quality products and scope of the industry. |
| CO 2 | Understand constitution of cosmetics to analyse and use judiciously. |
| CO 3 | Learn chemistry of personal care products, explain harmful side effects, and promote cautious usage. |
| CO 4 | Identify quality of cosmetic products through testing, packaging, and labelling. |
| CO 5 | Analyse dental products, compare synthetic and herbal options, and choose wisely. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Analyse structure of amino acids and proteins. |
| CO2 | Understand properties of heterocyclic compounds. |
| CO3 | Recognize types of pericyclic reactions. |
| CO4 | Examine photochemistry of chemical reactions. |
| CO5 | Estimate amines and phenols in laboratory samples. |
| CO6 | Develop skills to synthesize simple organic compounds. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Comprehensive understanding of laws of thermodynamics. |
| CO2 | Explain energy changes in processes and predict feasibility of reactions. |
| CO3 | Understand entropy concept. |
| CO4 | Apply spectroscopic techniques to interpret compound spectra. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Understand electrical conductance mechanisms and conductometric titration. |
| CO2 | Design electrochemical cells and calculate potentials. |
| CO3 | Use electrodes for pH measurement. |
| CO4 | Understand laws of crystallography. |
| CO5 | Develop practical chemistry skills in laboratory. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Identify biochemical structures (proteins, DNA) relevant to drug action/design. |
| CO2 | Describe mechanisms of pharmacodynamic agents. |
| CO3 | Apply enzyme kinetics/regulation to inhibition and therapeutic uses. |
| CO4 | Analyse biochemical mechanisms of antimicrobials, GI agents, and radiopharmaceuticals. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Understand fundamentals of nanomaterials. |
| CO2 | Demonstrate proficiency in nanosynthesis methods. |
| CO3 | Understand characterisation techniques of nanomaterials. |
| CO4 | Analyse and apply nanomaterials in remediation, energy, drug delivery, and electronics. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Understand UV-Vis and fluorescence spectroscopy; gain hands-on experience. |
| CO2 | Understand IR spectroscopy and analyse IR spectra. |
| CO3 | Understand NMR spectroscopy and analyse NMR spectra. |
| CO4 | Apply mass spectroscopy in structural analysis. |
| CO5 | Understand importance of photoelectron spectroscopy. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Understand fundamentals governing quantum systems. |
| CO2 | Comprehend quantum mechanical models (particles in confined spaces, harmonic potentials, rotational motion). |
| CO3 | Represent symmetry operations and point groups using matrices. |
| CO4 | Analyse point group representations using Great Orthogonality Theorem (GOT). |
| CO5 | Apply computational chemistry skills to problem-solving. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Apply bonding theories to predict geometry of coordination compounds. |
| CO2 | Explain spectroscopic features and interpret spectra of complexes. |
| CO3 | Describe magnetic behaviour of complexes and apply in structural determination. |
| CO4 | Understand reaction mechanisms in inorganic complexes. |
| CO5 | Acquire skill in analysing inorganic mixtures with rare earth elements. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Associate reaction conditions/reagents with intermediates and formulate mechanisms. |
| CO2 | Analyse structure-property relations in substitution/elimination reactions. |
| CO3 | Understand aromatic systems and classify molecules by aromatic behaviour. |
| CO4 | Distinguish photochemical reactions and understand natural mechanisms. |
| CO5 | Acquire lab skills in synthesis, purification, and chromatography. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Illustrate concepts of third law of thermodynamics and irreversibility. |
| CO2 | Analyse phase transitions and diagrams of three-component systems. |
| CO3 | Correlate principles of quantum and statistical mechanics. |
| CO4 | Understand synthesis and characterization of nanomaterials. |
| CO5 | Acquire skills in advanced physical chemistry experiments and nanosynthesis. |
| CO No. | Course Outcome |
|---|---|
| CO1 | Contextualize relation between quantum mechanics and thermodynamics. |
| CO2 | Apply molecular partition functions. |
| CO3 | Derive and compute thermodynamic functions from partition functions. |
| CO4 | Understand properties of solids (electric and magnetic). |
| CO5 | Understand climatic changes and atmospheric parameters. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Explain the structure and properties of Boron, Phosphorous, Sulfur, and Nitrogen compounds. |
| CO 2 | Understand the different inorganic compounds in biological systems. |
| CO 3 | Apply the principles of transition metal coordination complexes in understanding reactivity and properties of organometallic compounds. |
| CO 4 | Understand the interaction of metal ions and ligands facilitating the design and synthesis of coordination compounds with specific properties and applications. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand conformational analysis of cyclohexane and substituted cyclohexane. |
| CO 2 | Apply various rules and models of stereochemistry in predicting the products of asymmetric synthesis. |
| CO 3 | Understand various types of pericyclic reactions. |
| CO 4 | Understand various named organic reactions and their reagents, and predict products. |
| CO 5 | Understand synthesis and reactions of various heterocyclic compounds and structural elucidation of steroids. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand various theories of chemical kinetics and their applications in different reactions. |
| CO 2 | Understand the theory and applications of various electroanalytical techniques. |
| CO 3 | Evaluate advanced theoretical models of corrosion. |
| CO 4 | Understand the chemistry of batteries, supercapacitors, LEDs, etc. |
| CO 5 | Acquire skills in physical chemistry practicals. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand the theoretical foundations of computational chemistry; classify and analyze the importance of quantum mechanics in molecular behaviour. |
| CO 2 | Demonstrate proficiency in the use of basis sets and molecular orbitals in computational chemistry. |
| CO 3 | Understand the foundations of Density Functional Theory (DFT) and utilize it to study molecular systems. |
| CO 4 | Conduct computational spectroscopy to predict vibrational, electronic, and NMR spectra. |
| CO 5 | Prepare input programs in Gaussian / GAMESS / ORCA or other formats for various calculations. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Synthesize nanomaterials using physical, chemical, and biological approaches. |
| CO 2 | Understand the functionalization of nanoparticles for specific applications. |
| CO 3 | Form nanocomposites for tuning their functional properties. |
| CO 4 | Fabricate device structures using lithographic techniques. |
| CO No. | Course Outcome |
|---|---|
| CO 1 | Understand various research types and methodologies, distinguishing descriptive, analytical, applied, and fundamental approaches. |
| CO 2 | Develop skills to define and formulate research problems, using literature reviews and constructing hypotheses. |
| CO 3 | Gain proficiency in research design principles, data collection methods, and statistical analysis. |
| CO 4 | Master the structure and components of scientific reporting, including thesis writing, ethical considerations, and oral presentations. |