AP EAMCET Chemistry Syllabus 2026: JNTU Kakinada has published the AP EAMCET 2026 Chemistry syllabus on the official website, cets.apsche.ap.gov.in. The section has a total weightage of 25%. Aspirants are advised to go through these topics to ace the AP EAMCET 2026. This section will consist of 40 questions, each carrying one mark. The AP EAMCET exam is being held on May 12, 13, 14, 15 and 18, 2026 (engineering) and May 19, 20, 2026 (A&P). Along with the syllabus, candidates should be aware of the AP EAMCET paper pattern. Read the article to know the EAPCET syllabus 2026. The AP EAMCET Chemistry syllabus PDF is available below
Direct Link to Download the AP EAMCET Chemistry Syllabus 2026
The AP EAMCET Chemistry syllabus has been released. Candidates can access the syllabus PDF file here and on the official website. The Chemistry syllabus has a total of 26 chapter Units. Find below some of the topics and sub-topics under the Chemistry syllabus.
| Topics | Sub Topics |
|---|---|
ATOMIC STRUCTURE | Subatomic particles; Atomic models; Developments to Bohr’s model; Wave–particle duality; Planck’s quantum theory; Atomic spectra; Bohr’s model of hydrogen; Limitations of Bohr’s model; Quantum mechanical model of atom; Dual behavior of matter; Heisenberg’s uncertainty principle; Quantum mechanical features; Orbitals and quantum numbers; Shapes and energies of orbitals; Aufbau Principle; Pauli’s exclusion principle; Hund’s rule; Electronic configurations; Stability of half‑filled and completely filled orbitals |
CLASSIFICATION OF ELEMENTS AND PERIODICITY IN PROPERTIES | Genesis of periodic classification; Modern periodic law and periodic table; Nomenclature of elements beyond atomic number 100; Electronic configurations and s-, p-, d-, f‑block elements; Periodic trends in physical properties (atomic radius, ionic radius, size variation in inner transition elements, ionization enthalpy, electron gain enthalpy, electronegativity); Chemical periodic trends (valence/oxidation states; anomalous properties of second-period elements; periodic trends and reactivity) |
CHEMICAL BONDING AND MOLECULAR STRUCTURE | Kossel–Lewis bonding approach; Octet rule and Lewis structures; Formal charges; Limitations of octet rule; Ionic bonding; Crystal structure of NaCl; Lattice enthalpy; Bond parameters (length, angle, enthalpy, order, resonance, dipole moment); Fajan’s rules; VSEPR theory; Molecular geometry; Valence bond theory; Orbital overlap; σ and π bonds; Hybridization (s, p, d); Coordinate bonding; Molecular orbital theory (LCAO, orbital combination conditions, MO types, energy-level diagrams); Bonding in H₂, He₂, Li₂, B₂, C₂, N₂, O₂; Hydrogen bonding |
STATES OF MATTER: GASES AND LIQUIDS | Intermolecular forces vs thermal energy; Gas laws; Ideal gas equation; Graham’s law of diffusion; Dalton’s law of partial pressures; Kinetic molecular theory; Speed distributions; Real gas behavior; Liquefaction; Liquid state—vapour pressure, surface tension, viscosity |
STOICHIOMETRY | Significant figures; Laws of chemical combination (conservation of mass, definite and multiple proportions); Mole concept and molar mass; Equivalent weight; Empirical and molecular formula calculations; Limiting reagent; Concentration units (mass %, mole fraction, molarity, molality, normality); Redox reactions—electron transfer, oxidation numbers; Types of redox reactions; Balancing redox (oxidation number method, half‑reaction method); Redox titrimetry |
HYDROGEN AND ITS COMPOUNDS | Position of hydrogen; Occurrence and isotopes; Preparation and properties of H₂; Uses of hydrogen; Ionic, covalent, and non‑stoichiometric hydrides; Water—physical properties, structure, hardness; Hydrogen peroxide—preparation, properties, structure, storage, uses; Heavy water; Hydrogen as a fuel |
THE s‑BLOCK ELEMENTS (ALKALI AND ALKALINE EARTH METALS) | Group 1 and Group 2 elements; Electronic configurations; Atomic and ionic radii; Ionization and hydration enthalpies; Physical and chemical properties; Uses; Compounds (oxides, halides, oxo salts); Lithium’s anomalous behavior and its similarities with magnesium; Sodium compounds (NaCl, Na₂CO₃, NaOH, NaHCO₃); Biological roles of Na, K, Ca, Mg |
p‑BLOCK ELEMENTS – GROUP 13 (BORON FAMILY) | Electronic configuration; Atomic radius; Ionization enthalpy; Electronegativity; Physical and chemical properties; Boron’s anomalous trends; Compounds—borax, orthoboric acid, diborane; Uses of boron, aluminum, and their compounds |
p‑BLOCK ELEMENTS – GROUP 14 (CARBON FAMILY) | Electronic configuration; Atomic radius; Ionization enthalpy; Electronegativity; Physical and chemical properties; Allotropes of carbon; Uses of carbon; Compounds—CO, CO₂, silica, silicones, silicates, zeolites |
ENVIRONMENTAL CHEMISTRY | Definitions: air, water, soil pollution; Environmental pollution and its types; Acid rain; Particulate and stratospheric pollution; Water and soil pollution; Pollution control strategies; Green chemistry |
ORGANIC CHEMISTRY – BASIC PRINCIPLES AND HYDROCARBONS | Carbon’s tetravalency; Structural representations; Classification; Nomenclature; Isomerism; Reaction mechanisms; Bond fission (homolytic/heterolytic); Nucleophiles and electrophiles; Electron displacement effects (inductive, resonance, electromeric, hyperconjugation); Types of organic reactions; Purification methods; Elemental analysis (qualitative and quantitative); Hydrocarbons—classification; Alkanes (nomenclature, isomerism, preparation, properties, reactions including halogenation, oxidation, polymerization), Alkenes (structure, isomerism, preparation, addition reactions with mechanisms such as Markovnikov, anti‑Markovnikov), Alkynes (nomenclature, structure, preparation, acidic behavior, addition/polymerization), Aromatic hydrocarbons (benzene—structure, resonance, electrophilic substitution reactions like nitration, sulfonation, halogenation, Friedel–Crafts alkylation/acylation; directive influence; toxicity and carcinogenicity) |
SOLID STATE | Solid-state characteristics; Amorphous vs crystalline solids; Crystal classification by bonding; X-ray crystallography; Bravais lattices and unit cells; Atom count per unit cell; Close-packed structures; Tetrahedral and octahedral voids; Packing efficiency in SC, BCC, HCP, CCP; Unit cell dimension and density calculations; Point defects (stoichiometric and non‑stoichiometric); Electrical (conductors, semiconductors, insulators) and magnetic properties |
SOLUTIONS | Types of solutions; Concentration expressions (mass, volume, ppm, mole fraction, molarity, molality); Solubility (solid in liquid, gas in liquid); Henry’s law; Vapour pressure of solutions; Raoult’s and ideal/non‑ideal behavior; Colligative properties and molar mass determination; Abnormal molar mass and van’t Hoff factor |
ELECTROCHEMISTRY AND CHEMICAL KINETICS | Electrochemistry: Electrochemical and galvanic cells; Nernst equation; Cell reaction Gibbs energy; Electrolytic conductance; Kohlrausch’s law; Faraday’s laws; Batteries; Fuel cells; Metal corrosion; Hydrogen economy. Chemical Kinetics: Reaction rates; Integrated rate equations; Pseudo-first-order kinetics; Collision theory |
SURFACE CHEMISTRY | Adsorption vs absorption; Adsorption mechanisms and types; Applications; Catalysis (homogeneous and heterogeneous, promoters, adsorption theory, solid catalysts); Colloids (classification; Tyndall effect; Brownian movement; electrophoresis; coagulation) |
GENERAL PRINCIPLES OF METALLURGY | Occurrence of metals; Ore concentration (levigation); Extraction techniques (oxide conversion, reduction, metal extraction); Thermodynamic and electrochemical metallurgy principles; Oxidation and reduction |
p‑BLOCK ELEMENTS – GROUPS 15 to 18 | Group-wise coverage: Group 15 (N, P) – properties, ammonia, nitric acid, phosphine, oxoacids; Group 16 (O, S) – properties, ozone, sulfur oxoacids, sulfuric acid; Group 17 (halogens) – properties, oxoacids, interhalogen compounds; Group 18 (noble gases) – xenon compounds (XeF₂, XeF₄, XeF₆, XeO₃, XeOF₄) |
d‑ AND f‑BLOCK ELEMENTS & COORDINATION COMPOUNDS | Transition metals – trends, properties, colored ions, alloys, applications; Lanthanoids and actinoids; Coordination chemistry – Werner’s theory; Nomenclature; Isomerism; Bonding theories (VBT, CFT); Crystal field splitting; Metal carbonyls |
POLYMERS | Polymer classification; Polymerization mechanisms; Commercial polymers (polyethylene, Teflon, nylon, Bakelite, etc.); Biodegradable polymers; Molecular mass and polydispersity index |
BIOMOLECULES | Carbohydrates: structure and classification; Amino acids; Proteins (structure levels); Enzymes; Vitamins; Nucleic acids; Hormones |
CHEMISTRY IN EVERYDAY LIFE | Drug classification (pharmacological and chemical); Drug–target interactions; Therapeutic actions (antacids, analgesics, antimicrobials, antifertility agents); Food chemicals; Cleansing agents; Detergents |
HALOALKANES AND HALOARENES | Nomenclature; Preparation; Physical properties; Reactions (nucleophilic substitution, elimination); Environmental impact of polyhalogen compounds |
ORGANIC COMPOUNDS CONTAINING C, H AND O | Alcohols, phenols, ethers—nomenclature, preparation, reactions (oxidation, dehydration, electrophilic substitution); Aldehydes, ketones, carboxylic acids—structure, nomenclature, preparation, properties, reactions, uses |
ORGANIC COMPOUNDS CONTAINING NITROGEN | Amines—classification, preparation, reactions, synthesis; Diazonium salts, cyanides, isocyanides—preparation, properties, synthetic applications |
| Units | Topics Covered |
|---|---|
Surface Chemistry | Adsorption vs absorption; adsorption mechanisms and isotherms; applications; catalysis (catalysts, promoters, poisons, homogeneous and heterogeneous catalysis, adsorption theory, selectivity, shape-selective catalysis, enzyme catalysis, industrial catalysts); colloids (classification, Tyndall effect, Brownian movement, electrophoresis, coagulation, applications). |
General Principles of Metallurgy | Occurrence of metals; ore concentration methods (levigation, flotation); extraction: conversion to oxides, reduction to metal; thermodynamic principles including Ellingham diagrams; electrochemical metallurgy; refining methods (distillation, liquation, poling, electrolysis, zone, and vapour-phase refining); uses of Al, Cu, Zn, and Fe. |
p‑Block Elements (Groups 15–18) | Group 15: N & P – electronic configuration, radii, ionization enthalpy, electronegativity, properties; dinitrogen, ammonia, nitrogen oxides, nitric acid, phosphorus (allotropes), phosphine, phosphorus halides, oxoacids. Group 16: O & S – properties, preparation and uses; oxides; ozone; sulfur (allotropes, dioxide, oxoacids), sulfuric acid. Group 17: halogens – electronic configuration, properties, chlorine, HCl, oxoacids, interhalogen compounds. Group 18: noble gases – properties; xenon compounds (XeF₂, XeF₄, XeF₆, XeO₃, XeOF₄): preparation, structure, uses. |
d‑ and f‑Block Elements & Coordination Compounds | d and f block: periodic position; electronic configurations; transition element properties (size, ionization, oxidation states, electrode potential trends, colored ions, magnetism, complex formation, catalysis, alloys); important compounds (oxides, permanganate, chromate structures); lanthanoids and actinoids properties and applications. Coordination compounds: Werner’s theory; IUPAC nomenclature; isomerism (stereoisomerism, structural); bonding theories (VBT & CFT), crystal field splitting, color, limitations, metal carbonyls, stability, applications. |
Polymers | Polymer classification (source, structure, polymerization type); addition (chain growth) polymerization – mechanisms, examples (polythene, Teflon, PAN); condensation (step growth) polymerization – Nylon‑6,6, Nylon‑6, Terylene, Bakelite, melamine–formaldehyde; copolymerization; rubber (natural, vulcanization, synthetic – neoprene, Buna‑N); molecular mass (number-average, weight-average), polydispersity index; biodegradable polymers (PHBV, Nylon‑2‑Nylon‑6); commercially important polymers (polypropylene, polystyrene, PVC, urea‑formaldehyde resin, glyptal, Bakelite). |
Biomolecules – Carbohydrates, Proteins, Vitamins, Enzymes, Nucleic Acids, Hormones | Carbohydrates: classification, glucose (structure, D/L, optical activity), fructose, sucrose, maltose, lactose, starch, cellulose, glycogen. Amino acids: classification, structures, zwitterions. Proteins: fibrous vs globular; primary–quaternary structure; denaturation. Enzymes: mechanism of action. Vitamins: names, classification, sources, deficiency diseases. Nucleic acids: composition, structure, functions, DNA fingerprinting. Hormones: types, production, activity, disorders. |
Chemistry in Everyday Life | Drugs: classification by pharmacological effect, action, structure, molecular targets; drug–target interactions (enzyme and receptor targeting); therapeutic categories (antacids, antihistamines, tranquilizers, analgesics, antimicrobials, antifertility drugs); food chemicals (artificial sweeteners, preservatives, antioxidants); cleansing agents (soaps, synthetic detergents). |
Haloalkanes and Haloarenes | Classification and nomenclature; C–X bond nature; preparation methods (free radical halogenation, electrophilic substitution, diazonium replacement, addition to alkenes, Finkelstein reaction); physical properties; chemical reactions (SN2, SN1 – stereochemistry, elimination, metal reactions) for haloalkanes; haloarenes – nucleophilic and electrophilic substitutions, metal reactions; polyhalogen compounds (e.g. dichloromethane, chloroform, iodoform, carbon tetrachloride, freons, DDT) – uses and environmental effects. |
Organic Compounds Containing C, H and O | Alcohols, Phenols, Ethers: classification, nomenclature, structure; preparation methods (from alkenes, carbonyls, haloarenes, etc.); physical and chemical properties; reactions (acidic behavior, esterification, dehydration, oxidation, electrophilic substitution, Kolbe’s and Reimer–Tiemann reactions). Aldehydes & Ketones: nomenclature, structure; preparation (oxidation of alcohols, acyl chlorides, nitriles, esters); properties; reactions (addition, oxidation, reduction, α‑hydrogen reactions, Cannizzaro, electrophilic substitutions); uses. Carboxylic Acids: nomenclature, structure; preparation (from alcohols, benzene, nitriles, Grignards, acyl derivatives); properties; reactions (acidity, esterification, decarboxylation, halogenation); uses. |
Organic Compounds Containing Nitrogen | Amines: classification, nomenclature, preparation methods (reduction of nitro compounds, ammonolysis, reduction of nitriles, amides; Gabriel and Hoffmann syntheses); physical and chemical properties (basicity, alkylation, acylation, Carbylamine reaction, diazotization, reactions with sulfonyl chlorides, electrophilic substitution of aniline). |
Get expert advice on college selection, admission chances, and career path in a personalized counselling session.
Below are the important topics and weightage that will be asked in the AP EAMCET 2026 exam. The AP EAMCET Chemistry weightage is provided based on last year’s paper.
| Chapter Name | % Weightage |
|---|---|
Basic Concepts of Chemistry | 12.50% |
States of Matter & Thermodynamics | 8.33% |
Physical & Chemical Equilibrium | 10.00% |
Chemical Kinetics & Electrochemistry | 8.33% |
5. Organic Chemistry – Fundamentals | 10.00% |
6. Hydrocarbons & Functional Groups | 20.83% |
7. Biomolecules, Polymers & Daily-Life Chemistry | 6.67% |
8. Inorganic Periodicity & s-p-d-f Blocks | 17.50% |
9. Coordination Compounds & Metallurgy | 5.83% |
Frequently Asked Questions (FAQs)
The Chemistry section consists of 25% weightage of the whole paper.
There are a total of 40 questions from the Chemistry syllabus.
On Question asked by student community
Hello Student,
You can access AP EAPCET chapter-wise questions and important topics from the link given below. These resources can help you practise questions chapter-wise and prepare effectively for the exam.
https://engineering.careers360.com/articles/ap-eamcet-chapter-wise-weightage-and-important-topics
Hey there,
Please use the college predictor tool for a more accurate identification of your admission chances - https://www.careers360.com/college-predictor .
With an AP EAPCET rank of 19,359, you have a good chance of getting a seat in private colleges and may also have a chance in some government colleges, depending
A cutoff of 163 in the BC category gives you a reasonable chance in later rounds for some branches at Saveetha Engineering College and Rajalakshmi Engineering College, but it depends on your preferred branch and the year's cutoffs.
Hey there,
With a TNEA cutoff of 163 in the BC category, getting Rajalakshmi Engineering College is unlikely, especially for popular branches. However, you may have a chance at Saveetha Engineering College in lower-demand branches or in later counselling rounds, depending on seat availability. Participate in all rounds.
Thanks and
Hello Dear Student,
No, getting a BVSc & AH seat through VCI counselling at a rank of 1,72,000 is unlikely, because VCI only handles 15% All India Quota seats for recognized colleges where closing ranks typically stay well under 80,000 even in stray vacancy rounds.
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