1. Solid State

 Content: Introduction to crystalline and amorphous solids, unit cells, close packed structures, imperfections in solids, and electrical and magnetic properties.

 Objective: Understand the classification of solids and analyze their properties based on structure and bonding.

 2. Solutions

 Content: Covers types of solutions, solubility, concentration terms, colligative properties, Raoult’s law, and van't Hoff factor.

 Objective: Study the behavior of solutions and calculate colligative properties to understand molecular interactions in solutions.

 3. Electrochemistry

 Content: Discusses electrochemical cells, Nernst equation, electrolytic conductance, and applications of electrochemistry like batteries and fuel cells.

 Objective: Understand redox reactions in electrochemical systems and their practical applications in energy storage.

 4. Chemical Kinetics

 Content: Focuses on the rate of chemical reactions, factors affecting rates, rate laws, activation energy, and the Arrhenius equation.

 Objective: Analyze reaction rates and mechanisms, and apply the concept of reaction kinetics to reallife chemical processes.

 5. Surface Chemistry

 Content: Deals with adsorption, catalysts, colloids, and emulsions, including the Tyndall effect and Brownian motion.

 Objective: Understand surface phenomena and their applications in catalysis and colloidal systems.

 6. General Principles and Processes of Isolation of Elements

 Content: Focuses on the extraction and purification of metals from ores, including thermodynamic principles, reduction methods, and refining techniques.

 Objective: Learn the principles behind metallurgical processes and their industrial applications.

 7. pBlock Elements

 Content: Discusses the properties, preparation, and uses of elements in groups 15 to 18, including oxides, halides, and interhalogen compounds.

 Objective: Study the periodic trends, chemical behavior, and practical applications of pblock elements.

 8. d and f Block Elements

 Content: Covers the general properties, electronic configuration, oxidation states, and coordination chemistry of d and fblock elements.

 Objective: Understand the chemical reactivity, coordination behavior, and significance of transition and inner transition metals.

 9. Coordination Compounds

 Content: Discusses Werner’s theory, nomenclature, bonding in coordination compounds, and their importance in biological systems and industry.

 Objective: Study the structure, bonding, and applications of coordination compounds in various fields.

 10. Haloalkanes and Haloarenes

 Content: Introduction to nomenclature, preparation, reactions, and properties of haloalkanes and haloarenes, including their environmental effects (CFCs).

 Objective: Understand the chemistry and reactions of halogencontaining organic compounds and their environmental impact.

 11. Alcohols, Phenols, and Ethers

 Content: Covers the classification, structure, preparation, and reactions of alcohols, phenols, and ethers.

 Objective: Study the reactivity of hydroxyl and ether groups and their applications in organic synthesis.

 12. Aldehydes, Ketones, and Carboxylic Acids

 Content: Discusses the structure, nomenclature, preparation, and chemical reactions of aldehydes, ketones, and carboxylic acids.

 Objective: Learn the functional group transformations and reactivity of carbonyl and carboxyl groups in organic molecules.

 13. Organic Compounds Containing Nitrogen

 Content: Focuses on amines, diazonium salts, and their reactions, as well as the structure and uses of nitro compounds.

 Objective: Understand the chemistry and importance of nitrogencontaining compounds in synthesis and pharmaceuticals.

 14. Biomolecules

 Content: Covers carbohydrates, proteins, enzymes, vitamins, and nucleic acids, including their structure, function, and importance in biological systems.

 Objective: Learn the role of biomolecules in the biological processes of living organisms.

 15. Polymers

 Content: Discusses the classification, types, and properties of polymers, including addition and condensation polymerization.

 Objective: Study the industrial significance of polymers and their applications in everyday life.

 16. Chemistry in Everyday Life

 Content: Focuses on the application of chemistry in drugs, cleansing agents, food preservatives, and artificial sweeteners.

 Objective: Understand how chemical compounds are used in daily life and their impact on health and the environment.