Recall the fundamental concepts of the mole concept, atomic structure, organic chemistry, catalysis, and surface chemistry  

Explain the principles of chemical stoichiometry, Hund’s rule, Aufbau principle and catalysis. 

Know the Lab Safety  

Demonstrate laboratory apparatus, equipment, reagents and laboratory techniques 

Describe the branches and scope of biology, emphasizing its environmental importance and Darwin’s contributions. 

Outline the origin and evolution of life and major evolutionary events, and analyse the current mass extinction crisis. 

Demonstrate proficiency in fieldwork techniques for biodiversity surveys and ecological assessments. 

Exhibit a comprehensive understanding of plant and animal adaptations, enhancing interpretation of ecological interactions. 

By the end of the course, students will be able to understand and classify plants into major groups (algae, fungi, lichens, bryophytes, pteridophytes, gymnosperms, and angiosperms) based on their morphological and reproductive features.  

Students will be able to identify and explain the economic significance of various plant groups, recognizing their applications in industries such as food, pharmaceuticals, biofuels, textiles, and environmental sustainability. 

Students will gain the ability to describe the reproductive cycles and morphological characteristics of plants like algae, fungi, lichens, bryophytes, and others, with examples from groups such as Nostoc, Agaricus, Riccia, Azolla, Cycas, and others. 

Students will understand the various applications of plant sciences in real-world scenarios such as environmental monitoring, bioremediation, medicine, and industrial processes like biofuel production, food processing, and landscaping. 

By the conclusion of the course, students will be well-equipped to pursue careers or further education in fields related to plant biology, biotechnology, agriculture, environmental science, and various industries benefiting from plant-derived products and services. 

Understand the concepts of divisibility and compute GCD of integers using the Euclidean algorithm. 

Explain Fermat’s theorem and Euler’s phi function. 

Identify the appropriate scale of measurement for a particular characteristic under study 

Calculate and describe data through measures of central tendency and dispersion. 

Have knowledge of preparing the frequency distribution and presentation using tabular form 

Use various diagrammatic and graphical techniques to represent statistical data and interpret 

Apply the Euclidean algorithm to find the GCD of integers and verify divisibility properties. 

Solve problems based on Fermat’s theorem and Euler’s phi function. 

 Students will be familiar with MS-Excel. 

Students will be able to create spreadsheets, enter data, and maintain data 

The concept of the ancient  intellectual knowledge tradition will be understood  

Developments in science from ancient times will be introduced. 

Recall and explain the fundamental principles and concepts from Photochemistry, Chemical Kinetics, Periodicity, Stereochemistry, and Chemical Bonding. 

Identify experimental key concepts involved in Photochemistry, Chemical Kinetics, Periodicity, Stereochemistry, and Chemical Bonding 

To learn chemistry software for drawing structures and its properties 

Create and format chemistry documents and spreadsheets using Word, Excel, or Google tools. 

Design chemistry presentations with multimedia elements using PowerPoint or Google Slides. 

Utilize chemistry software for drawing structures and predicting compound properties. 

Explore and report on online chemistry learning resources like SWAYAM and NPTEL. 

Summarize research and review articles in chemistry with key components. 

Create and manage digital images and videos using tools like Paint and video recording software. 

Familiar with basic concepts of random experiments, random variable, probability, etc. 

Get ideas regarding the use of probability in real life situations. Also, can find out the probability of real-life events 

Compute rank correlation and fit various regression models 

Construct and analyze joint, marginal and conditional probability distributions 

Calculate covariance and correlation measures 

Fit Binomial probability distribution to real life data 

To analyze data pertaining to discrete variables and to interpret the results.   

To compute various measures of central tendency, dispersion, skewness, and kurtosis using MS-Excel and interpret the values of summary statistics.  

 To summarize and analyze the data using MS-Excel. 

To apply standard discrete probability distribution to different real situations. 

To compute Correlation and fit regression to the real data using MS-Excel.  

To study matrix properties, algebraic properties, and methods for finding the inverse of a matrix..  

To explore the solution of systems of linear equations and evaluate determinants by row reduction. 

To learn the properties of determinants and study the applications of matrices and determinants 

To learn how to find the derivative of a function using limits, and understand the geometrical and physical significance of derivatives. 

To explore methods to find the nth derivatives of functions.  

To generalize the comprehensive study of combined algebra and calculus. 

Perform matrix operations, compute inverses, and convert matrices to echelon forms using elementary row transformations. 

Solve systems of linear equations and evaluate determinants using row-reduction techniques and determinant properties. 

Apply matrices and determinants to practical problems in fields such as chemistry, electronics, and cryptography. 

Compute derivatives using first principles and apply differentiation techniques to solve practical mathematical problems. 

Apply Mean Value Theorems and related derivative-based results to analyze functions and interpret their behavior. 

Integrate the use of algebraic and calculus methods to solve multi-step, application-oriented problems. 

Students will be able to identify, describe, and differentiate between the various types of plant organs (roots, stems, leaves, flowers) and their modifications, based on morphological traits.  

Students will develop the ability to analyze how specific morphological features of plants such as modified roots, stems, and leaves serve particular ecological functions, enhancing their survival in various habitats 

Students will be able to explain the morphology of flowers and inflorescences, including the different types and structures of floral whorls and their roles in the plant’s reproductive process.  

Students will gain a comprehensive understanding of the morphology of fruits and seeds, enabling them to distinguish between different types and understand their role in seed dispersal and plant reproduction.  

By the end of the course, students will have the skills to examine plant specimens in the field and laboratory, classifying them based on morphological features and demonstrating an understanding of plant function and evolution. 

Students will be able to define environmental chemistry and its scope, explaining the interconnectedness of environmental segments. 

Students will be able to describe the chemical aspects of biogeochemical cycles and their significance in maintaining environmental balance. 

Demonstrate knowledge of laboratory safety rules and proper handling of laboratory equipment. 

Collect and preserve water and soil samples using appropriate techniques for accurate analysis. 

Identify and classify major groups of plants from algae to angiosperms based on their morphological and reproductive features. 

Prepare and examine slides of different plant structures under the microscope and record their observations accurately. 

Explain the applications and significance of plants and plant products in various industries such as food, pharmaceuticals, cosmetics, and biofuel. 

Differentiate between various plant types (e.g., dicots and monocots) and understand their structural adaptations and functions. 

Demonstrate awareness of plant diversity and its role in sustainability, bioremediation, and carbon sequestration. 

Remember definitions, laws, and formulas related to reaction kinetics, thermodynamics, electrolytic conductance, and phase equilibrium. 

Understand the rate laws of third-order reactions, thermodynamic concepts like entropy and free energy, ionic conductance, and phase diagrams. 

Solve numerical problems using the Arrhenius equation, entropy changes, conductance laws, phase rule etc . 

Compare methods for determining reaction order, thermodynamic processes, and conductance and phase systems. 

Assess reaction mechanisms, thermodynamic feasibility, and conductance behavior of electrolytes. 

Summarize the effect of temperature on reaction rate, phase stability, or ion mobility in solution. 

Learn key terms and concepts such as types of ligands, isomerism, hybridization, d-orbital shapes, and theories like VBT and CFT. 

Summarize the coordination compounds according to their geometry, spin state, and ligand environment using CFT and VBT concepts 

Explain the principles of coordination bonding, types of isomerism, and the structural implications of VBT and CFT in coordination compounds 

Apply VBT and CFT to predict geometry, magnetic properties, and hybridization of coordination complexes 

Compare types of isomerism and interpret orbital splitting patterns in octahedral, tetrahedral, and square planar complexes. 

Determine the magnetic moment, ligand field strength and geometry of complexes. 

Summarize the coordination compounds according to their geometry, spin state, and ligand environment using CFT and VBT concepts 

Know the Indian Knowledge System and its significance in the protection of traditional knowledge. 

Understand the need of the Indian Knowledge System (IKS) and significance of the ancient Indian Chemistry. 

Remember the definitions, industrial processes, pollution norms, raw materials, and key chemical manufacturing techniques used in large- and small-scale industries. 

Understand the principles behind unit operations, pollution control technologies, green chemistry approaches, and the roles of industrial and plant chemists. 

Learn the fundamental chemistry concepts to real-world environmental and community 

Understand the appropriate methodologies for collecting chemical and environmental data through fieldwork 

Know the experimental procedures, formulas, and theoretical principles related to kinetics, thermodynamics, conductance, and coordination chemistry. 

Understand the principles behind rate laws, enthalpy changes, conductometric titrations, colorimetry, and coordination complex formation. 

Perform laboratory experiments to determine reaction order, heat changes, cell constants, and synthesize coordination compounds. 

Analyze the reaction rates, calculate thermodynamic parameters, determine ligand ratios, and analyze chromatographic separations. 

Evaluate the accuracy of results by comparing with theoretical values, validate Beer’s Law, and evaluate coordination complex properties like color and magnetism. 

Design experiments for synthesis, analysis, and characterization of coordination compounds. 

Students will demonstrate an understanding of the role of microorganisms in 

environmental processes and ecosystems. 

Students will identify and classify various microorganisms based on their 

environmental function. 

Perform basic and advanced microbiological techniques relevant to environmental 

science. 

Identify and isolate microorganisms from various environmental samples. 

Obtain the moments, moments generating functions, cumulant generating function for the bivariate random variable 

Compute the conditional expectation, independence, correlation between two variables. 

Understand the concept of continuous univariate distribution. 

Obtain the moments, moments generating function, cumulant generating function and other terms related to the continuous univariate distribution. 

​ Understand the role of statistics in the history of India. 

​Use of probability in ancient times. 

Fit appropriate discrete and continuous probability distributions to real-life data 

Identify and apply suitable probability models for different types of statistical situations. 

Interpret the results obtained from fitted models to draw meaningful statistical conclusions.