Get Through Medical College - Study NEET Chemistry with Dr Uma Sharma
The Learning Process with Dr Uma Sharma
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Gain clear understanding of basics of topics so that complete comprehension is achieved.
Highly interactive sessions customized as per your needs
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All Sessions recorded for review any time later. Review the recorded sessions from your I-pad or your mobile also.
Practice Quizzes based on NEET Chemistry Syllabus to hone your skills after every session.
Take a look at What the parents of students have to say or Check out the Session Reviews- by students.
My Teaching Style
For best comprehension, I like to divide my session into two parts:Learning Using Specially Created Content. I use my own training content which has been specially prepared keeping the needs of students in mind. I focus upon clearing the basics of the subject first before moving on. Detailed explanations provided in a easy to understand manner forms the key to understanding.
Solving problems based on topics covered. At the end of each session I go over the quizzes on the topic with the student which ensures correct assimilation by the student and any gaps in knowledge are clarified. I also provide Chemistry Quizzes for NEET Chemistry Exam which students can attempt in their own time and discuss with me during the sessions.
NEET Chemistry Exam Course Content Outlined Below
1.1 General Introduction: Important and scope of chemistry.
1.2 Laws of Chemical Combination.
1.3 Dalton’s Atomic Theory.
1.4 Concept of elements,Atoms and molecules.
1.5 Atomic and molecular masses.
1.6 Mole concept and molar mass.
1.7 Percentage composition.
1.8 Empirical and molecular formula.
1.9 Types of Chemical reactions.
1.10 Concentrations -Molarity ,molality ,ppm ,ppb, mass percent, volume percent.
1.11 Stoichiometry and Calculations based on Stoichiometry.
2.1- Atomic number, Isotopes and Isobars.
2.2- Electromagnetic Spectrum.
2.3- Dual Nature of Matter and Light.
2.4- De Broglie’s Relationship.
2.5- Heisenberg Uncertainty Principle.
2.6- Concept of orbital, Quantum numbers, Concept of Shells and Subshells, Shapes of s,p and d orbitals.
2.7- Rules for filling electrons in orbitals- Aufbau principle, Pauli exclusion principles and Hund’s rule.
2.8- Electronic configuration of atoms.
2.9- Stability of half filled and completely filled orbitals.
3.1 Modern periodic law and long form of periodic table.
3.2 Periodic trends in Properties of Elements-
(a) General electronic configuration.
(b) Valence shell and valence electrons.
(c) Atomic radii.
(d) Ionic radii.
(e) Ionization enthalpy.
(f) Electron gain enthalpy.
(g) Electronegativity.
(h) Metals and non-metals.
(i) Acidic oxides and basic oxides.
(a) General electronic configuration.
(b) Valence shell and valence electrons.
(c) Atomic radii.
(d) Ionic radii.
(e) Ionization enthalpy.
(f) Electron gain enthalpy.
(g) Electronegativity.
(h) Metals and non-metals.
(i) Acidic oxides and basic oxides.
4.1- Valence electrons ,rule of octet ,expanded octet and less than 8 electrons species.
4.2- Ionic bond
4.3- Covalent bond
4.4- Bond parameter like bond length and bond angle.
4.5- Formal charge and Lewis structure.
4.6- VSEPR theory, geometry of molecules and shapes of some simple molecules.
4.7- Polar character of covalent bond and polarity of molecules.
4.8- Concept of hybridization involving s, p and d orbitals and valence bond theory.
4.9- Resonance.
4.10- Molecular orbital theory of homonuclear diatomic molecules (qualitative idea only).
4.11- Hydrogen bond.
5.1 Gases and Liquids
5.1.1- Three states of matter.
5.1.2- Intermolecular interactions.
5.1.3- Types of solids and comparison of their melting and boiling points.
5.1.4- Empirical derivation of gas law -
(a) Boyle’s law.
(b) Charle’s law.
(c) Gay Lussac’s law.
(d) Avogadro’s law.
(e) Ideal gas equation.
(a) Boyle’s law.
(b) Charle’s law.
(c) Gay Lussac’s law.
(d) Avogadro’s law.
(e) Ideal gas equation.
5.1.5- Kinetic energy and molecular speeds (elementary idea),
(a) Ideal behaviour of gases.
(b) Deviation from idealbehaviour.
(c) Liquefaction of gases.
(d) Critical temperature.
(a) Ideal behaviour of gases.
(b) Deviation from idealbehaviour.
(c) Liquefaction of gases.
(d) Critical temperature.
5.2 Liquid State- (qualitative idea only, no mathematical derivations).
5.2.1- Vapour pressure.
5.2.2- Boiling point.
5.2.3- Viscosity.
5.2.4- Surface tension.
6.1 First law of thermodynamics-internal energy and enthalpy.
6.2 Heat capacity and specific heat.
6.3 Measurement of U and H.
6.4 Hess’s law of constant heat summation.
6.5 Enthalpy of :
(a) Bond dissociation.
(b) Combustion.
(c) Formation.
(d) Atomization.
(e) Sublimation.
(f) Phase transition.
(g) Ionization.
(h) Solution and.
(i) Dilution.
(a) Bond dissociation.
(b) Combustion.
(c) Formation.
(d) Atomization.
(e) Sublimation.
(f) Phase transition.
(g) Ionization.
(h) Solution and.
(i) Dilution.
6.6 Introduction of entropy as state function,
6.7 Second law of thermodynamics.
6.8 Gibbs energy change for spontaneous and non-spontaneous process.
6.9 Criteria for equilibrium and spontaneity.
6.10 Third law of thermodynamics- Brief introduction.
7.1 Equilibrium in physical and chemical processes,
7.2 Dynamic nature of equilibrium.
7.3- Law of chemical equilibrium.
7.4- Equilibrium constant.
7.5- Factors affecting equilibrium-Le Chatelier’s principle.
7.6- Ionic equilibrium- ionization of acids and bases.
7.7- Strong and weak electrolytes.
7.8- Degree of ionization.
7.9- Ionization of polybasic acids.
7.10- Acid strength.
7.11- Concept of pH.
7.12- Hydrolysis of salts (elementary idea).
7.13- Buffer solutions.
7.14- Henderson equation.
7.15- Solubility product.
7.16- Common ion effect (with illustrative examples).
8.1 Concept of oxidation and oxidation and reduction.
8.2 Redox reactions.
8.3 Oxidation number.
8.4 Balancing redox reactions in terms of loss and gain of electron and change in oxidation numbers.
9.1 Occurrence, isotopes, preparation, properties and uses of hydrogen.
9.2 Hydrides ionic,covalent and interstitial.
9.3 Physical and chemical properties of water.
9.4 Heavy water.
9.5 Hydrogen peroxide-
(a) Structure.
(b) Preparation.
(c) Reactions.
(d) Uses.
(a) Structure.
(b) Preparation.
(c) Reactions.
(d) Uses.
10.1 General introduction and occurrence.
10.2 Electronic configuration.
10.3 Anomalous properties of the first element of each group.
10.4 Diagonal relationship.
10.5 Trends in the variation of properties (such as ionization enthalpy, atomic and ionic radii).
10.6 Trends in chemical reactivity with
(a) Oxygen.
(b) Water.
(c) Hydrogen.
(d) Halogens.
(a) Oxygen.
(b) Water.
(c) Hydrogen.
(d) Halogens.
10.7 Uses and preparation and properties of Some important Compounds:
(a) Sodium Carbonate.
(b) Sodium Chloride.
(c) Sodium Hydroxide and.
(d) Sodium Hydrogen Carbonate.
(e) Biological Importance of Sodium and Potassium.
(f) Industrial Use of Lime and Limestone.
(g) Biological Iimportance of Mg and Ca.
(a) Sodium Carbonate.
(b) Sodium Chloride.
(c) Sodium Hydroxide and.
(d) Sodium Hydrogen Carbonate.
(e) Biological Importance of Sodium and Potassium.
(f) Industrial Use of Lime and Limestone.
(g) Biological Iimportance of Mg and Ca.
11.1 Group 13 elements:
(a) General introduction, occurrence.
(b) Electronic configuration.
(c) Variation of properties.
(d) Oxidation states.
(e) Trends in chemical reactivity.
(f) Anomalousproperties of first element of the group.
(g) Boron and some important compounds.
i Borax.
ii Boric acids.
iii Boron hydrides.
(h) Aluminium.
i Uses.
ii Reactions with acids and alkalies.
(a) General introduction, occurrence.
(b) Electronic configuration.
(c) Variation of properties.
(d) Oxidation states.
(e) Trends in chemical reactivity.
(f) Anomalousproperties of first element of the group.
(g) Boron and some important compounds.
i Borax.
ii Boric acids.
iii Boron hydrides.
(h) Aluminium.
i Uses.
ii Reactions with acids and alkalies.
11.2 General 14 elements:
(a) General introduction, occurrence.
(b) Electronic configuration.
(c) Variation of properties.
(d) Oxidation states.
(e) Trends in chemical reactivity.
(f) Anomalous behaviour of first element.
(g) Carbon, allotropic forms.
i Physical and chemical properties.
ii Uses of some important compounds: oxides.
(h) Important compounds of silicon and a few uses.
i Silicon tetrachloride.
ii Silicones.
iii Silicates and zeolites, their uses.
(a) General introduction, occurrence.
(b) Electronic configuration.
(c) Variation of properties.
(d) Oxidation states.
(e) Trends in chemical reactivity.
(f) Anomalous behaviour of first element.
(g) Carbon, allotropic forms.
i Physical and chemical properties.
ii Uses of some important compounds: oxides.
(h) Important compounds of silicon and a few uses.
i Silicon tetrachloride.
ii Silicones.
iii Silicates and zeolites, their uses.
12.1 General introduction.
12.2 Methods of Purification Qualitative and Quantitative Analysis.
12.3 Classification and IUPAC Nomenclature of Organic Compounds.
12.4 Electronic Displacements in a Covalent bond:
(a) Inductive effect.
(b) Electromeric effect.
(c) Resonance.
(d) Hyperconjugation.
(e) Molytic and heterolytic fission of a covalent bond.
(a) Inductive effect.
(b) Electromeric effect.
(c) Resonance.
(d) Hyperconjugation.
(e) Molytic and heterolytic fission of a covalent bond.
12.5 Free Radials, Carbocations,Carbanions.
12.6 Electrophiles and Nucleophiles.
12.7 Types of Organic Reactions.
13.1 Alkanes-
(a) Nomenclature.
(b) Isomerism.
(c) Conformations (ethane only).
(d) Physical Properties.
(e) Chemical Reactions Including.
i Free Radical Mechanism of Halogenation.
ii Combustion and.
iii Pyrolysis.
(a) Nomenclature.
(b) Isomerism.
(c) Conformations (ethane only).
(d) Physical Properties.
(e) Chemical Reactions Including.
i Free Radical Mechanism of Halogenation.
ii Combustion and.
iii Pyrolysis.
13.2 Alkenes.
(a) Nomenclatur.
(b) Structure of Double Bond (Ethene).
(c) Geometrical Isomerism..
(d) Physical Properties.
(e) Methods of Preparation.
(f) Chemical Reactions: Addition of.
i Hydrogen.
ii Halogen.
iii Water.
iv Hydrogen Halides (Markovnikov’s Addition and Peroxide Effect).
v Ozonolysis.
vi Oxidation.
vii Mechanism of Electrophilic Addition.
(a) Nomenclatur.
(b) Structure of Double Bond (Ethene).
(c) Geometrical Isomerism..
(d) Physical Properties.
(e) Methods of Preparation.
(f) Chemical Reactions: Addition of.
i Hydrogen.
ii Halogen.
iii Water.
iv Hydrogen Halides (Markovnikov’s Addition and Peroxide Effect).
v Ozonolysis.
vi Oxidation.
vii Mechanism of Electrophilic Addition.
13.3 Alkynes.
13.4 Nomenclatur.
13.5 Structure of Triple Bond (Ethyne).
13.6 Physical Properties.
13.7 Methods of Preparation.
13.8- Acidic Character of Alkynes.
13.9- Chemical Reactions: Addition Reaction of-
(a) Hydrogen.
(b) Halogens.
(c) Hydrogen halides.
(d) Water.
13.10- Aromatic Hydrocarbons.
13.11- Introduction.
13.12- IUPAC Nomenclature-Benzene.
13.13- Resonance.
13.14 Aromaticity.
13.15 Chemical Properties.
(a) Mechanism of Electrophilic Substitution.
(b) Nitration.
(c) Sulphonation.
(d) Halogenation.
(e) Friedel Craft’s Alkylation and Acylation.
(a) Mechanism of Electrophilic Substitution.
(b) Nitration.
(c) Sulphonation.
(d) Halogenation.
(e) Friedel Craft’s Alkylation and Acylation.
13.16 Directive Influence of Functional group in mono-substituted Benzene.
13.17 Carcinogenicity and Toxicity.
14.1 Environmental Pollution.
(a) Air.
(b) Water and.
(c) Soil.
(a) Air.
(b) Water and.
(c) Soil.
14.2 Chemical Reactions in Atmosphere.
14.3 Smogs.
14.4 Major Atmospheric Pollutants.
14.5 Acid Rain Ozone and its Reactions.
14.6 Effects of depletion of ozone layer.
14.7 Greenhouse Effect.
14.8 Global Qarming-Pollution Due to Industrial Wastes.
14.9 Green Chemistry as an Alternative Tool for Reducing Pollution.
14.10 Strategy for Control of Environmental Pollution.