
Explore atomic theory basics, molar mass, and the mole concept, then apply calculations of moles from mass and Avogadro's number to gas volumes at standard conditions.
Solve limiting reagent problems by converting masses to moles, identify the limiting reactant, and calculate product yields; explore gas-volume relationships and mole fractions in mixtures and equal-mole scenarios.
Learn the law of multiple proportions, understand dilution and concentration in solutions, and master final concentration calculations and related practical examples.
Explore how ionisation energy and atomic radii vary across periods and groups. Explain exceptions, and connect electron configurations, shielding, and penetration to trends.
Explore ionisation energy and successive ionisation energies, including jumps when removing electrons from new shells, with key exceptions and oxidation state patterns; plus electronegativity factors and group trends.
Explore Graham's law of effusion: gas escape through a small hole is inversely proportional to the square root of molar mass, driven by partial pressures; includes hydrogen–oxygen examples.
Explore how the z value reveals ideal versus real gas behavior, with z = 1 for ideal gas and deviations guiding liquefaction and critical pressure, temperature, and volume.
explore gas behavior: pressure depends on temperature, not volume; analyze partial and gauge pressures, diffusion of gases, mean free path and collision frequency, barometer readings, and gas mixtures.
Explore hybridisation in organic chemistry, counting sigma bonds and lone pairs to determine central atom hybridisation (sp, sp2, sp3), and examine geometry versus shape with equatorial and axial positions.
Explore molecular orbital theory through hydrogen and diatomic molecules; apply bond order from bonding/antibonding electrons and Hund's rule and Pauli exclusion to predict paramagnetic and diamagnetic states.
Analyze how bond order dictates bond length and stability, and how MO theory explains bonding with sigma and pi interactions, HOMO-LUMO gaps, and orbital mixing.
Explore molecular orbital bonding, including sigma and antibonding interactions, bond order, and nodal planes; apply Farr-Jones rules to gauge ionic character.
Explore how hybridization and electronegativity of central and terminal atoms shape bond angles. Examine the electron-sea model of metallic bonding, conduction, and basic energy-band concepts in semiconductors and coordination chemistry.
Define system, surroundings, and universe; classify open, closed, and isolated systems with examples; distinguish intrinsic and extrinsic variables, state and path functions, and apply the first law of thermodynamics.
Explore isothermal and adiabatic processes, compare reversible and irreversible paths, discuss state functions, and apply diagrams of pressure–volume relationships to analyze volume, pressure, and temperature changes.
Learn how the reaction quotient Q predicts forward or backward shifts toward equilibrium, and how changes in concentration, volume, temperature, and inert gas influence Le Chatelier’s response.
Explore gas behavior through temperature and pressure effects on volume, identify ideal gas curves, and apply gas law concepts such as Boyle's law and volume changes in gas mixtures.
Parent will find that this course is useful for their wards, if their ward/wards -
- are in 11th, 12th or dropping an year and are preparing for competitive engineering or science exams such as JEE, NEET, BITS etc
- want an extra, comprehensive and complete reference to complement with your classroom coaching
- are lagging behind in your chemistry syllabus
- are dropping an year
- looking for a crash course and are willing to work hard everyday
- proper classroom coaching for these exams is not available.
This course is for those who wish to crack competitive exams specifically JEE Main/ Advanced, BITSAT, NEET and AIPMT.
The lectures contain complete content of all the chapters and is the only thing required for your complete prep. You can simply play these lectures and note down the content, just like you would in a classroom. Everything is exactly as I have taught in my class.
It has plenty of theory, examples, practice questions and assignments.
The chapters included are:
Physical Chemistry - Mole Concept, Atomic Structure, Gaseous State, Thermodynamics, Chemical Equilibrium, Ionic Equilibrium, Dilute Solutions and Colligative Properties, Solid State, Electrochemistry, Chemical Kinetics and Radioactivity, etc
Organic Chemistry - IUPAC Nomenclature, Isomerism, GOC, Hydrocarbons, Alcohol, Phenol and Ether, Carbonyl Compounds, Acids and Derivatives, Amines, Biomolecules, Polymers, etc.
Inorganic Chemistry - Periodic table, Chemical Bonding, Metallurgy, Coordination Compounds, etc