BSEB Intermediate Chemistry study materials
BSEB Intermediate Chemistry study resources

BSEB Intermediate Chemistry study plan

BSEB Intermediate Chemistry · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Practical Chemistry & Solutions

  • Set up a practical-chemistry logbook and record the apparatus, procedure, and observation format for titration, salt analysis, and functional-group tests

  • Define molarity, molality, mole fraction, and normality from memory and convert between any two for a given aqueous solution

  • Solve Raoult's law and relative-lowering problems for non-volatile solutes, including two-component ideal mixtures

  • State and apply Henry's law to solubility of gases, and explain the effect of temperature on gas solubility in water

  • Perform the cation and anion identification sequence for any two unknown salts in a written dry-run drill, writing equations for each confirmatory test

Your checkpoint

A 15-page practical logbook section with titration calculation worked examples plus a one-page normality/molarity conversion sheet

Week 2

Electrochemistry & Chemical Kinetics

  • Write and balance half-cell reactions and combine them into full cell reactions for galvanic cells

  • Calculate EMF using standard electrode potentials and apply the Nernst equation to non-standard concentrations

  • Relate standard free energy change, equilibrium constant, and cell potential numerically

  • Determine reaction order and rate constant from integrated rate equations for zero-, first-, and second-order reactions

  • Apply the Arrhenius equation to compute activation energy from two rate constants at two temperatures

Your checkpoint

A solved problem set of 20 numericals (10 electrochemistry, 10 kinetics) with all unit conversions shown

Week 3

Chemical Kinetics & Coordination Compounds

  • Derive and interpret half-life expressions for zero- and first-order reactions and apply them to decay problems

  • Explain collision theory, temperature dependence, and the role of a catalyst in terms of activation energy

  • Name coordination compounds using IUPAC rules, including oxidation state and ligand ordering

  • Predict the geometry and hybridization of the central metal from coordination number and ligand type

  • Apply crystal field theory to explain colour and magnetic behaviour of octahedral complexes, distinguishing high-spin and low-spin cases

Your checkpoint

A one-page summary card of IUPAC naming rules plus a 10-complex table listing geometry, hybridization, magnetic moment, and colour rationale

Week 4

The d- and f-Block Elements & p-Block Elements

  • Write the electronic configurations of 3d and 4f series elements and explain the anomalies in Cr and Cu

  • Explain the trends in atomic radius, ionization enthalpy, and oxidation states across the d-block with reasons

  • Describe the preparation and key reactions of potassium permanganate and potassium dichromate

  • Compare the acidic and oxidizing behaviour of oxoacids of chlorine and sulphur

  • Explain the anomalous behaviour of the first member of each p-block group and the inert-pair effect

Your checkpoint

A comparative chart of d-block and p-block trends with at least 12 reasoned entries and a 20-question self-test scored and corrected

Week 5

Haloalkanes and Haloarenes & Alcohols, Phenols and Ethers

  • Classify haloalkanes as primary, secondary, or tertiary and predict SN1 versus SN2 pathways with reasoning

  • Write substitution and elimination reaction mechanisms for haloalkanes, including stereochemical outcomes

  • Explain the relative reactivity of haloarenes toward nucleophilic substitution

  • Distinguish alcohols, phenols, and ethers by their reactions with sodium, Lucas reagent, and neutral ferric chloride

  • Write the mechanisms for Reimer-Tiemann, Kolbe, and Williamson ether synthesis reactions

Your checkpoint

A reaction-flowchart sheet covering 15 named conversions from haloalkanes, alcohols, phenols, and ethers, each with reagents and conditions

Week 6

Aldehydes, Ketones and Carboxylic Acids & Amines

  • Write mechanisms for nucleophilic addition to carbonyls and explain the reactivity order of aldehydes versus ketones

  • Identify tests that distinguish aldehydes from ketones, including Tollens', Fehling's, and iodoform tests

  • Write the mechanism for aldol condensation and Cannizzaro reaction with conditions

  • Classify amines as primary, secondary, or tertiary and predict basicity trends in aqueous solution

  • Describe the Hinsberg test and carbylamine test with the expected observations for each amine class

Your checkpoint

A 25-item identification and conversion worksheet with full equations, self-marked to at least 85 percent accuracy

Week 7

Biomolecules & Practical Chemistry

  • Classify carbohydrates as mono-, di-, and polysaccharides and explain the structure of glucose and fructose

  • Describe the structure and function of proteins, enzymes, and nucleic acids at the level of their monomer units and linkages

  • Perform the full qualitative analysis reasoning for an unknown salt, from preliminary tests to confirmatory tests

  • Write the observations and inferences for the tests for hydroxyl, carbonyl, carboxyl, and amino groups

  • Explain the principles of chromatography and distillation used in the practical syllabus

Your checkpoint

A completed mock practical report on an unknown salt and an unknown organic compound with every observation, inference, and equation written out

Week 8

Solutions & Electrochemistry & Chemical Kinetics & The d- and f-Block Elements & Coordination Compounds & Haloalkanes and Haloarenes & Alcohols, Phenols and Ethers & Aldehydes, Ketones and Carboxylic Acids & Amines & Biomolecules & p-Block Elements & Practical Chemistry

  • Re-solve the five most frequently missed numericals from each of weeks 1 to 3 without notes

  • Recall all named reactions from weeks 5 and 6 with reagents and conditions within a timed drill

  • Complete two full-length timed mock papers and log every error by domain

  • Revise the practical logbook and naming card for a final 30-minute recall session

Your checkpoint

A two-mock-paper error log with domain-wise scores and a final one-page revision sheet of the 30 highest-yield facts

Milestones

Week 2: Score at least 70 percent on a 20-question mixed electrochemistry and kinetics quiz, showing full working for every numerical

Week 4: Score at least 75 percent on the d-block and p-block self-test and correctly write the electronic configuration of any 10 given transition-metal ions

Week 6: Score at least 85 percent on the 25-item identification and conversion worksheet with equations fully correct

Week 7: Produce a complete mock practical report where every observation and inference is consistent and at least 90 percent of confirmatory equations are correct

Week 8: Achieve at least 60 percent on each full-length mock paper and reduce repeated errors in any single domain to no more than two