BSEB Intermediate Chemistry study plan
BSEB Intermediate Chemistry · Give each week a clear focus.
8 weeks · About 6 hours per week
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
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
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
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
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
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
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
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