BSEH SS Chemistry study plan

Write electron configurations for 3d and 4d series ions and predict stable oxidation states for Mn, Cr, Fe, Cu, and their common compounds.

Calculate spin-only magnetic moments and crystal-field stabilization energies for octahedral, tetrahedral, and square-planar complexes, showing the d-orbital splitting diagram.

Name and formula-write 25 coordination compounds using IUPAC rules, including bridging ligands, anionic complex ions, and oxidation-state notation.

Construct examples that distinguish ionization, hydrate, linkage, and coordination isomerism, then count the isomers possible for three given formulas.

Explain lanthanoid contraction and compare atomic and ionic radius trends across the 4f and 5d series using shielding and effective nuclear charge.

Predict SN1, SN2, E1, and E2 outcomes for given haloalkanes by ranking substrate structure, nucleophile strength, solvent polarity, and leaving-group ability.

Draw curly-arrow mechanisms for Williamson ether synthesis, the Lucas test, and acid-catalyzed alcohol dehydration, labeling every intermediate.

Distinguish primary, secondary, and tertiary alcohols and phenols using Lucas, Victor Meyer, and neutral ferric chloride tests, recording expected observations.

Compare acidities of substituted phenols and explain how resonance, induction, and steric effects shift pKa values.

Convert 12 supplied alcohols, alkyl halides, and ethers into one another by selecting named reagents and writing balanced equations.

Write nucleophilic addition mechanisms for aldehydes and ketones with hydrogen cyanide, Grignard reagents, and sodium bisulfite, showing tetrahedral intermediates.

Predict products of aldol condensation, Cannizzaro reaction, haloform reaction, Clemmensen reduction, and oxidation of aldehydes versus ketones.

Differentiate aldehydes from ketones using Tollens, Fehling, Schiff, and iodoform tests, and write the equation or observation for each positive result.

Rank carboxylic acid strength with electron-withdrawing and electron-donating substituents, and explain amine basicity in aqueous versus gas phase.

Convert 15 compounds using amines, diazonium salts, acid chlorides, and anhydrides, naming each reagent and product class.

Predict products and periodic trends for Group 15 to 18 hydrides, oxides, and oxoacids, assigning formal charges and oxidation states.

Explain the inert-pair effect, catenation, and the anomalous behavior of nitrogen, oxygen, and fluorine compared with their heavier congeners.

Write balanced equations for laboratory preparation and characteristic reactions of chlorine, hydrogen chloride, nitric acid, sulfuric acid, and phosphorus oxoacids.

Draw VSEPR structures for xenon difluoride, xenon tetrafluoride, xenon hexafluoride, and the oxoacids of sulfur and phosphorus.

Identify interhalogen and pseudohalide species and predict relative bond strength and acid strength from structure.

Classify carbohydrates, proteins, enzymes, vitamins, and nucleic acids by structural features and biological function.

Write hydrolysis equations for sucrose, starch, and proteins and distinguish reducing from non-reducing sugars using structural evidence.

Differentiate addition from condensation polymerization and name the monomers for eight common polymers.

Match drug classes, antiseptics, and food additives to their uses and one safety or regulatory fact for each.

Explain the cleansing action of soaps and detergents and compare their biodegradability and environmental impact.

Calculate unit-cell dimensions, density, packing efficiency, and Bragg angles for simple cubic, body-centered cubic, and face-centered cubic solids.

Compute molarity, molality, Raoult's law vapor-pressure lowering, and all four colligative properties, including the van't Hoff factor for association and dissociation.

Distinguish Schottky and Frenkel defects and classify solids by band gap and electrical conductivity.

Balance redox equations in acidic and basic media and calculate standard cell potential, Gibbs free energy, and equilibrium constant for galvanic cells.

Apply the Nernst equation to concentration cells and calculate electrolysis products and masses using Faraday's laws.

Derive rate law and reaction order from initial-rate and concentration-time data for zero-, first-, and second-order reactions.

Calculate half-life, activation energy, and rate constants using integrated rate laws and the Arrhenius equation.

Compare physisorption and chemisorption and fit Freundlich and Langmuir isotherms to supplied adsorption data.

Classify catalysts, promoters, and poisons and explain the steps of heterogeneous catalysis, including surface-area effects.

Describe colloidal properties and apply the Hardy-Schulze rule and coagulation methods to given sols.

Apply Ellingham diagrams to select suitable reducing agents for the oxides of iron, copper, zinc, and aluminum.

Outline extraction flowsheets for iron, copper, aluminum, and zinc, naming roasting, calcination, smelting, and refining steps at each stage.

Explain froth flotation, leaching, and zone refining by stating the principle and one industrial example for each.

Re-solve every missed item from the weekly error logs and mark each as mastered or still weak.

Complete a full-length timed mock covering all 10 domains under exam timing and review every incorrect answer before scoring.