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Chemistry · common notesQuick study package · 30 pages

Quick study package · prep review

Chemistry · quick study package

30 content pages · 45–75s per stem · flip or print

Notes hub
Page 01 / 30Package← → / Space · content review (not directions-only)

Study package

Chemistry · quick study package

Depth-upgraded prep review · 45–75s templates · join-aware

  • Advanced Chemistry now integrates topics: thermo↔equilibrium, ionic↔electrochemistry, GOC↔mechanisms, coordination↔bonding logic. Train joins, not isolated chapters.
  • Physical is a numerical machine; Inorganic is configuration-plus-exception logic grounded in NCERT facts; Organic is a mechanism machine. Keep styles separate, then practise deliberate joins.
  • First 15 seconds name the family and every chapter the stem touches; the next 30–60 seconds only execute known templates. Write one-line reasons for every MC/MATCH statement.
  • Open chapter topic pages for full methods, samples, and families — this hub is the routing layer.
  • This deck pulls live hub banks — re-print after notes depth updates.
  • Physical = equation machine; Inorganic = config+exception; Organic = mechanism machine.

Full package (30 pages). Use Print package for a desk handout.

01 / 30 · Package

Study package

Chemistry · quick study package

Depth-upgraded prep review · 45–75s templates · join-aware

  • Advanced Chemistry now integrates topics: thermo↔equilibrium, ionic↔electrochemistry, GOC↔mechanisms, coordination↔bonding logic. Train joins, not isolated chapters.
  • Physical is a numerical machine; Inorganic is configuration-plus-exception logic grounded in NCERT facts; Organic is a mechanism machine. Keep styles separate, then practise deliberate joins.
  • First 15 seconds name the family and every chapter the stem touches; the next 30–60 seconds only execute known templates. Write one-line reasons for every MC/MATCH statement.
  • Open chapter topic pages for full methods, samples, and families — this hub is the routing layer.
  • This deck pulls live hub banks — re-print after notes depth updates.
  • Physical = equation machine; Inorganic = config+exception; Organic = mechanism machine.

02 / 30 · Package

How to use

How to use this package (30–60 min)

  • Physical bank day OR Inorganic+Organic logic day — do not mix styles mid-deck.
  • Every NUM: units (R, F, n) before plug-in.
  • Mark ion tables / GOC traps that fade — closed-book tomorrow.
  • Finish with 2 timed stems; then open one topic page only if needed.

03 / 30 · Subject

Protocol

Chem · master 45–75s protocol

  • 0–15s: name family + every chapter the stem touches.
  • Write governing equations / config only — no story.
  • Compute carefully; MC = independent T/F.
  • Never invent NCERT exceptions under pressure.

04 / 30 · Physical

Hub review

Physical Chemistry · hub overview

Bank ~45–50 /100 Chem (~full Physical share) · ~50% of Chemistry tags (2020–2026)

  • Physical full marks = classify the numerical family in ≤15s, run a fixed equation set, and recognise multi-concept joins so most stems finish in 45–75 seconds.
  • Physical in Advanced is Mole/Gaseous, Thermo, Equilibrium, Electrochem, Kinetics, Solutions/Colligative, Solid/Surface, Atomic. Recent papers fuse chapters (thermo↔K, ionic↔conductance/Nernst). 100% means you never start from blank memory — you start from a named template, then check for a second-chapter join. Physical full marks are correct model choice under the clock.

05 / 30 · Physical

Protocol

Physical Chemistry · timed protocol

  • 0–12s: Name the family: Mole-Gas / Thermo / Eqm / Electro / Kinetics / Solutions / Solid-Surface / Atomic. Circle units and what is asked (ΔU, K, E_cell, t½, Π, …).
  • 12–25s: Write the governing equation(s) only — no story. State assumptions (ideal gas, reversible?, T fixed?, order).
  • 25–60s: Plug numbers carefully (R, F, n, concentrations). For MC: compute once, then check each option as T/F against that value/relation.
  • 60–75s: Unit/sign sanity (ΔG sign, E vs spontaneity, rate units, i≥1). Bubble and leave — do not re-derive.

06 / 30 · Physical

Methods

Physical Chemistry · methods

Path before formula · Q vs K first

Path before formula

  • Applies: Thermodynamics work/heat/ΔU/ΔH
  • Move: Label path: isochoric / isobaric / isothermal / adiabatic / irreversible. Then pick w and q rules for THAT path only.
  • Why: Stops using reversible work on irreversible stems.

Q vs K first

  • Applies: Chemical & ionic equilibrium
  • Move: Write reaction, expression for K (Kp or Kc), then Q. Predict shift or solve ICE only after.
  • Why: Most eqm MC die at Q vs K without full algebra.

07 / 30 · Physical

Methods

Physical Chemistry · methods

Cell reaction → n → Nernst · Order from data, not memory

Cell reaction → n → Nernst

  • Applies: Electrochemistry
  • Move: Write balanced cell reaction, count n (electrons), then E = E° − (RT/nF)ln Q (or 0.059/n at 25°C).
  • Why: Wrong n is the #1 electrochem time sink.

Order from data, not memory

  • Applies: Kinetics
  • Move: From table/halving: decide order → pick integrated law → find k or t½. Arrhenius only after rate constant behaviour is clear.
  • Why: Avoids mixing zero/first formulae.

08 / 30 · Physical

Methods

Physical Chemistry · methods

One concentration basis · Independent T/F on relations

One concentration basis

  • Applies: Mole, solutions, colligative
  • Move: Convert everything to one basis (molality or mole fraction) before mixing/ΔTb/Π.
  • Why: Prevents unit chaos mid-solution.

Independent T/F on relations

  • Applies: Multi-correct Physical + MATCH
  • Move: Each statement is a separate check against your governing equation — never force consistency with another option.
  • Why: Protects partial marks; matching stays clean.

09 / 30 · Physical

Mental bank

Physical Chemistry · mental bank

  • Ideal gas: PV=nRT; remember R in the unit you need
  • First law: ΔU = q + w (use the paper’s sign convention consistently)
  • Isothermal reversible ideal gas: w = −nRT ln(V₂/V₁)
  • ΔG° = −RT ln K; spontaneity ↔ ΔG (not ΔG° alone for non-standard)
  • Nernst (25°C): E = E° − (0.059/n) log Q
  • First order: t½ = ln2 / k; zero order: t½ = [A]₀/(2k)
  • π = iCRT (osmotic); ΔTb = i Kb m; ΔTf = i Kf m
  • Kohlrausch: Λ°m = ν₊λ°₊ + ν₋λ°₋
  • Write the model (mole / K / cell / rate) in one line first
  • ΔG° = −RT ln K links thermo to equilibrium
  • Nernst needs reaction as written (electrons included)

10 / 30 · Physical

Topic cards

Physical Chemistry · topic cards

Mole concept · Gaseous state · Chemical thermodynamics

Mole concept · Gaseous state (Base numerical)

  • Trigger: See stoichiometry/P-V-T/mixture → mole table + gas law.
  • Step: Balance / find limiting reagent if reaction.
  • Step: Convert to moles; apply PV=nRT or Dalton as needed.
  • Step: Watch units of R and pressure.
  • Step: MC: check each claim with the same mole table.
  • Automate: Limiting reagent in ≤20s
  • Automate: Mole fraction ↔ partial pressure
  • Automate: rms / most probable relations with T when asked
  • Trap: Using wrong R units
  • Trap: Forgetting limiting reagent in multi-reactant stems
  • Drill: Daily: 1 stoichiometry NUM + 1 gas NUM

Chemical thermodynamics (High every-year)

  • Trigger: See w, q, ΔU, ΔH, ΔG, Hess → path label first.
  • Step: Identify state functions vs path functions.
  • Step: Label the path; write correct w and q.
  • Step: Use Hess / cycle if formation data given.
  • Step: For spontaneity: compute/interpret ΔG with the right standard vs non-standard.
  • Automate: Irreversible vs reversible work
  • Automate: ΔH = ΔU + Δngas RT (ideal, const T) when applicable
  • Automate: Hess cycles without expanding everything
  • Trap: Sign convention flips mid-solution
  • Trap: Using ΔG° to judge a non-standard mixture
  • Drill: Daily: 1 work/ΔU NUM + 1 ΔG/K relation

11 / 30 · Physical

Topic cards

Physical Chemistry · topic cards

Chemical & ionic equilibrium · Electrochemistry · Kinetics

Chemical & ionic equilibrium (High)

  • Trigger: See K, buffer, Ksp, hydrolysis → write K expression / ICE.
  • Step: Write balanced reaction and Kp or Kc.
  • Step: Compare Q and K if shift asked.
  • Step: ICE only with clear initial amounts; watch dilution.
  • Step: Buffers: Henderson with correct acid/base pair.
  • Automate: Kp–Kc relation
  • Automate: Common ion effect on solubility
  • Automate: Buffer pH estimate
  • Trap: Wrong solids/liquids in K expression
  • Trap: Using Ka for the wrong species in buffer
  • Drill: Daily: 1 Kp/Kc + 1 buffer/Ksp

Electrochemistry · Kinetics (High)

  • Trigger: See cell/E/Λ or rate/half-life → n-count or order first.
  • Step: Electro: cell reaction → n → Nernst / Faraday as asked.
  • Step: Conductance: relate κ, G, Λm; Kohlrausch for weak electrolytes.
  • Step: Kinetics: determine order from data → integrated law.
  • Step: Arrhenius: ln k vs 1/T only after k values are consistent.
  • Automate: 0.059/n log form at 25°C
  • Automate: Faraday mass/volume relations
  • Automate: Zero vs first order signatures
  • Trap: Wrong n in Nernst
  • Trap: Calling a reaction first order from one half-life without check
  • Drill: Alt days: electro NUM / kinetics NUM

12 / 30 · Physical

Topic cards

Physical Chemistry · topic cards

Solutions · Solid state · Surface

Solutions · Solid state · Surface (Medium–High)

  • Trigger: See colligative/packing/adsorption → i-factor or lattice count.
  • Step: Colligative: identify i; use molality correctly.
  • Step: Vapour: Raoult/Henry as applicable.
  • Step: Solid: Z_eff for fcc/bcc/hcp; packing fraction.
  • Step: Surface: physisorption vs chemisorption definitions; Freundlich form if numerical.
  • Automate: i for electrolytes (ideal)
  • Automate: fcc Z=4, bcc Z=2 packing fractions
  • Automate: Relation between a and r for cubic lattices
  • Trap: Using molarity where molality is required
  • Trap: Wrong Z for lattice type
  • Drill: Weekly: 2 colligative + 1 packing

13 / 30 · Inorganic

Hub review

Inorganic Chemistry · hub overview

Bank ~23–28 /100 Chem (~full Inorganic share) · ~24% of Chemistry tags (2020–2026) — stable; coordination/metallurgy heavy

  • Inorganic full marks = write configuration and oxidation state first, apply bonding/trend logic (not only recall), then audit exceptions and test every statement independently.
  • Inorganic in Advanced still needs NCERT facts, but stems increasingly ask why trends and bonding exceptions occur. Cover periodicity, s/p/d/f-block, coordination, metallurgy, qualitative analysis and environment with configuration/OS first, then Werner–CFT, Ellingham, group-reagent Ksp logic, and explicit exception checks. Inorganic scores when trends and bonding joins stay explicit.

14 / 30 · Inorganic

Protocol

Inorganic Chemistry · timed protocol

  • 0–12s: Classify the stem: periodic/p-block fact, d/f configuration, coordination, metallurgy, qualitative, or environment. Mark every species, charge, reagent, and condition.
  • 12–25s: Write configuration and oxidation state first. For complexes also write coordination number, d-count, ligand strength, and probable geometry.
  • 25–60s: Run the fixed method: Werner/CFT/isomer count, Ellingham feasibility, group-reagent precipitation logic, or group-wise reaction table.
  • 60–75s: Perform an exception audit and evaluate every MC/MATCH statement independently. Check charge, colour, magnetism, condition, and syllabus scope.

15 / 30 · Inorganic

Methods

Inorganic Chemistry · methods

Configuration and OS first · Werner → geometry → CFT → isomers

Configuration and OS first

  • Applies: d/f-block, coordination, magnetism, colour and redox
  • Move: Find oxidation state, remove ns electrons before (n−1)d, and write the exact d-count before judging stability, spin, colour or magnetic moment.
  • Why: One correct d-count resolves several statements without separate recall.

Werner → geometry → CFT → isomers

  • Applies: Coordination compounds
  • Move: Identify ionisable and coordinated species, coordination number and geometry; fill CFT orbitals, then count only geometrically distinct allowed isomers.
  • Why: Prevents random isomer drawing and links charge, spin and magnetism in one pass.

16 / 30 · Inorganic

Methods

Inorganic Chemistry · methods

Ellingham feasibility scan · Group-reagent logic

Ellingham feasibility scan

  • Applies: Metallurgy and oxide reduction
  • Move: Compare ΔG° lines at the stated temperature; the lower oxide-formation line identifies the stronger oxygen affinity, then check phase and process conditions.
  • Why: Replaces memorised extraction guesses with one thermodynamic comparison.

Group-reagent logic

  • Applies: Qualitative cation and anion analysis
  • Move: Write the group reagent and controlled ion concentration first; use Ksp/common-ion, amphoterism and confirmatory reactions to accept or reject ions.
  • Why: Turns salt analysis into a decision tree instead of an unstructured colour list.

17 / 30 · Inorganic

Methods

Inorganic Chemistry · methods

Exception audit · Independent T/F

Exception audit

  • Applies: Periodicity, s-block, p-block and d/f trends
  • Move: State the normal trend, then explicitly test first-member anomaly, inert-pair effect, diagonal relation, half/full-filled stability, hydrolysis and disproportionation.
  • Why: Most close options differ only by one standard exception.

Independent T/F

  • Applies: Multi-correct and matching Inorganic
  • Move: Give each statement its own one-line proof using configuration, structure, reaction condition or table fact; never infer one option from another.
  • Why: Stops one recalled exception from causing a cascade of wrong choices.

18 / 30 · Inorganic

Mental bank

Inorganic Chemistry · mental bank

  • For transition-metal ions remove ns electrons before (n−1)d; always write OS and dⁿ.
  • Spin-only magnetic moment: μ = √[n(n+2)] BM, where n is unpaired electrons.
  • Strong-field ligands increase Δ; geometry and d-count decide whether pairing is relevant.
  • Coordination isomer counting starts only after fixing coordination number and geometry.
  • Ellingham: the lower ΔG° oxide-formation line has greater oxygen affinity at that temperature.
  • Qualitative groups are controlled precipitation: group reagent + ion concentration + Ksp/common ion.
  • Across a period radius generally falls and IE/EN rise; audit anomalies before finalising.
  • Inert-pair effect stabilises lower oxidation states increasingly down heavier p-block groups.
  • First members B, C, N, O and F often differ because of small size, high EN and unavailable d orbitals.
  • Trend → exception → reason (always in that order)
  • Coordination: denticity + oxidation state before CFSE
  • p-block anomalies named, not vaguely ‘due to size’

19 / 30 · Inorganic

Topic cards

Inorganic Chemistry · topic cards

Periodicity · Hydrogen · s-Block · p-Block · Groups 13–18

Periodicity · Hydrogen · s-Block (Medium — trend and exception bank)

  • Trigger: See radius/IE/EA/EN, hydride, H₂O₂, Li/Be, Na/Ca → state trend, then audit exceptions.
  • Step: Locate period/group and write valence configuration.
  • Step: Apply effective nuclear charge, size and shielding logic.
  • Step: Audit first-member, diagonal and anomalous behaviour.
  • Step: For compounds, recall preparation–property–use with conditions.
  • Automate: Radius, IE, EA and EN trend logic
  • Automate: Li/Be anomalies and diagonal relationships
  • Automate: H₂O₂, hydrides and listed Na/Ca compounds
  • Trap: Treating every periodic trend as monotonic
  • Trap: Recalling a compound reaction without its condition
  • Drill: Daily: 5 trend/exception T/F + 1 s-block reaction chain

p-Block · Groups 13–18 (High factual density)

  • Trigger: See a group compound or oxidation-state claim → group sheet plus exception audit.
  • Step: Write group valence configuration and likely oxidation states.
  • Step: Apply inert-pair, size, electronegativity and bond-strength logic.
  • Step: Recall the listed preparation/reaction only with reagent and condition.
  • Step: Check first-member anomaly, hydrolysis and disproportionation separately.
  • Automate: Anomalies of B, C, N, O and F
  • Automate: Important compounds and reactions for Groups 13–18
  • Automate: Oxidation-state stability and inert-pair trends
  • Trap: Extending second-period behaviour down the group
  • Trap: Ignoring reaction medium or temperature
  • Trap: Inventing facts outside the syllabus list
  • Drill: Rotate one group daily: rebuild prep–properties–uses on one page

20 / 30 · Inorganic

Topic cards

Inorganic Chemistry · topic cards

d/f-Block · Coordination Compounds · Metallurgy · Qualitative Analysis

d/f-Block · Coordination Compounds (Highest Inorganic yield)

  • Trigger: See complex/colour/magnetism/isomer count → OS, dⁿ, CN and geometry first.
  • Step: Find oxidation state, d-count and coordination number.
  • Step: Use Werner/VBT to establish ionisation and geometry.
  • Step: Apply ligand strength and CFT filling; count unpaired electrons.
  • Step: Enumerate only allowed geometrical/ionisation isomers, removing duplicates.
  • Automate: Transition-ion configuration and common oxidation states
  • Automate: Spectrochemical series, CFSE direction and spin-only moment
  • Automate: Werner formulation, nomenclature and ionisation
  • Trap: Removing d electrons before ns electrons
  • Trap: Counting drawings rather than distinct isomers
  • Trap: Calling every tetrahedral complex high-spin without checking the actual claim
  • Drill: Daily: 2 d-count/magnetism + 2 coordination/isomer stems

Metallurgy · Qualitative Analysis (High — recurring process logic)

  • Trigger: See reduction/extraction or salt test → Ellingham line or group reagent first.
  • Step: Metallurgy: identify ore/oxide, temperature and candidate reducing agent.
  • Step: Compare Ellingham feasibility, then verify process and refining conditions.
  • Step: Qualitative: write group reagent and ions permitted by the syllabus.
  • Step: Use Ksp/common-ion, amphoterism, colour and confirmatory tests independently.
  • Automate: Fe, Cu, Zn and Al extraction routes
  • Automate: Ellingham reduction comparisons
  • Automate: Cation Groups I–V reagents and precipitates
  • Trap: Reading an Ellingham comparison without the stated temperature
  • Trap: Using colour alone as a confirmatory test
  • Trap: Mixing group precipitation with confirmatory reagents
  • Drill: Alternate days: 2 Ellingham/extraction + one qualitative decision tree

21 / 30 · Inorganic

Topic cards

Inorganic Chemistry · topic cards

Environmental · Green Chemistry

Environmental · Green Chemistry (Low frequency — quick conversion)

  • Trigger: See pollutant, ozone, greenhouse, smog or green-process claim → definition–cause–effect–control.
  • Step: Identify pollutant/process and its source.
  • Step: State the chemical transformation or environmental effect.
  • Step: Separate primary/secondary pollutant and local/global effect.
  • Step: Check the proposed control against prevention and green-chemistry principles.
  • Automate: Ozone depletion, greenhouse effect and smog distinctions
  • Automate: Major air/water pollutants and control ideas
  • Automate: Green chemistry: waste prevention, safer reagents and atom economy
  • Trap: Confusing stratospheric ozone depletion with greenhouse warming
  • Trap: Accepting a treatment method that merely transfers the pollutant
  • Drill: Twice weekly: 10-minute environmental and green-chemistry T/F flash

22 / 30 · Organic

Hub review

Organic Chemistry · hub overview

Bank ~25–30 /100 Chem (~full Organic share) · ~27% of Chemistry tags (2020–2026) — rising & accuracy-sensitive

  • Organic full marks = GOC/mechanism gate first, then reaction map, then independent T/F on every option — including multi-step synthesis and rising biomolecules/polymers weight.
  • Organic in Advanced is GOC, hydrocarbons/arenes, functional groups (halo, alcohol, carbonyl, amine, phenol), biomolecules/polymers, practical and everyday chemistry. Recent papers reward mechanism literacy and multi-step pathways over named-reaction recall. 100% means: classify effect → intermediate → mechanism family → product/options, then independent T/F on every statement. Organic Advanced is GOC + mechanism family, not reagent trivia.

23 / 30 · Organic

Protocol

Organic Chemistry · timed protocol

  • 0–12s: Spot the functional group(s) and the ask (product / reagent / which statements / matching code). Mark acidic-H, conjugations, directing groups.
  • 12–25s: Apply GOC gate: Inductive / Resonance / Hyperconjugation / Steric → predict intermediate (C+, C−, radical) stability if mechanism matters.
  • 25–60s: Run the reaction family template (EAS / Nu substitution / addition / carbonyl Nu / diazonium…). For MC/MATCH: each option independent T/F.
  • 60–75s: Respect syllabus exclusions (e.g. no over-focus on R,S/E,Z naming; haloarene NAS exclusions). Quick stereochem/only-if-needed check. Bubble.

24 / 30 · Organic

Methods

Organic Chemistry · methods

GOC gate before reagent · Directing map for EAS

GOC gate before reagent

  • Applies: All Organic, especially GOC + mechanism stems
  • Move: Decide electronic effect and intermediate stability before recalling a named reaction.
  • Why: Cuts wrong-product options in under 20s.

Directing map for EAS

  • Applies: Benzene / phenol / substituted arenes
  • Move: Mark o/p vs m directors; then apply halogenation/nitration/sulfonation/FC logic.
  • Why: Most arene MC are decided by directing only.

25 / 30 · Organic

Methods

Organic Chemistry · methods

Carbonyl Nu checklist · Amine–diazonium sequence

Carbonyl Nu checklist

  • Applies: Aldehyde/ketone/acid derivatives
  • Move: Ask: addition / substitution at carbonyl / enolate (aldol) / oxidation-reduction? Then pick the named path.
  • Why: Stops mixing aldol with Cannizzaro conditions.

Amine–diazonium sequence

  • Applies: Amines, Sandmeyer, azo, Hinsberg
  • Move: Classify 1°/2°/3° aromatic/aliphatic → choose HNO₂ / Hinsberg / diazonium path.
  • Why: Matching and MC become flowchart checks.

26 / 30 · Organic

Methods

Organic Chemistry · methods

Independent T/F · Practical test table

Independent T/F

  • Applies: Multi-correct + Matching Organic
  • Move: Never force a full code. Prove/reject each list item or option with one line (reagent → product logic).
  • Why: Saves clusters of marks; avoids cascade errors.

Practical test table

  • Applies: Qualitative organic / detection
  • Move: Map functional group → standard test (Brady’s, FeCl₃, NaHCO₃, Hinsberg, etc.) from your one-page table.
  • Why: Practical stems become 30-second lookups.

27 / 30 · Organic

Mental bank

Organic Chemistry · mental bank

  • Acidity trends: effects that stabilize conjugate base win
  • EAS: −OH, −OR, −NH₂ o/p activate; −NO₂, −CN, −COOH m deactivate
  • Aldol needs α-H; Cannizzaro typically no α-H (with strong base)
  • SN1 vs SN2: substrate + nucleophile + solvent cues
  • Diazonium: Sandmeyer (CuX), azo coupling (phenol/aniline)
  • Hinsberg: 1° soluble in alkali after, 2° insoluble, 3° no reaction (classic)
  • Glucose open-chain ↔ cyclic; peptide bond; nylon/bakelite type
  • GOC gate before reagents
  • Name the mechanism family first
  • R,S / E,Z naming is not an Advanced scoring bank here

28 / 30 · Organic

Topic cards

Organic Chemistry · topic cards

GOC · intermediates · isomerism · Hydrocarbons · Benzene · Haloarenes

GOC · intermediates · isomerism (Foundation for 100%)

  • Trigger: See acidity/basicity/stability/isomer → effects + intermediate.
  • Step: Identify the property asked (acid/base/stability/reactophore).
  • Step: List relevant effects (I, R, H) on the key atom.
  • Step: Compare intermediates if mechanism-based.
  • Step: Isomerism: stay within syllabus limits (up to two asymmetric centres; R,S/E,Z naming excluded).
  • Automate: Carbocation / carbanion / radical stability order patterns
  • Automate: Resonance vs inductive dominance intuition
  • Automate: Aromaticity quick checks
  • Trap: Overusing steric when electronic decides
  • Trap: Spending time on excluded stereo naming
  • Drill: Daily: 5 GOC T/F stems timed

Hydrocarbons · Benzene · Haloarenes (High)

  • Trigger: See addition/EAS/NAS → mark alkene vs arene path.
  • Step: Alkene/alkyne: electrophilic addition orientation (incl. peroxide effect when relevant).
  • Step: Benzene: EAS + directing.
  • Step: Haloarene: NAS only as syllabus allows (no benzyne/cine focus).
  • Step: MC: verify each product claim separately.
  • Automate: Markownikov / peroxide effect
  • Automate: FC alkylation vs acylation caveats
  • Automate: o/p vs m product prediction
  • Trap: Applying aliphatic SN blindly to haloarenes
  • Trap: Ignoring directing group in poly-substitution
  • Drill: Daily: 1 EAS + 1 addition stem

29 / 30 · Organic

Topic cards

Organic Chemistry · topic cards

Halo · Alcohol · Carbonyl · Acid · Amine · Phenol · Biomolecules · Polymers · Practical

Halo · Alcohol · Carbonyl · Acid · Amine · Phenol (Highest Organic load)

  • Trigger: See FG conversion → classify reaction family in one word.
  • Step: Name the FG and the transformation type.
  • Step: Pick template (SN, elimination, Nu addition, acyl sub, diazonium…).
  • Step: Apply named reaction only after conditions match.
  • Step: Check side products / tests if options mention them.
  • Automate: Aldol / Cannizzaro / haloform recognition
  • Automate: Grignard addition vs acyl substitution
  • Automate: Hoffmann / Gabriel / Hinsberg cues
  • Trap: Aldol on molecule with no α-H
  • Trap: Wrong amine class in Hinsberg interpretation
  • Drill: Daily: 2 FG conversion MC + 1 NUM/count if any

Biomolecules · Polymers · Practical (Medium — easy marks if tabled)

  • Trigger: See glucose/peptide/polymer/test → recall sheet, don’t invent.
  • Step: Biomolecule: classification + key reaction (osazone, peptide, DNA/RNA composition).
  • Step: Polymer: addition vs condensation; monomer identification.
  • Step: Practical: map test → FG.
  • Step: MATCH: independent one-line verdicts.
  • Automate: Glucose open ↔ hemiacetal idea
  • Automate: Nylon / bakelite / PVC / rubber type
  • Automate: Standard qualitative tests list
  • Trap: Confusing fibrous vs globular protein cues
  • Trap: Mixing addition/condensation polymer examples
  • Drill: 3×/week: 10-min flash of practical + polymer table

30 / 30 · Close

Checklist

Chem package · close checklist

  • I can spot thermo↔K and ionic↔electro joins.
  • Config before colour / μ on coordination.
  • Electrophile/nucleophile before reaction name.
  • Tomorrow: one NCERT exception sheet + one Physical NUM set.

After this package: open Chem notes notes only for weak marked pages, or drill /mixed. Directions without content pages do not move marks.