University of Melbourne · S1 2026 · FACULTY OF CHEMISTRY

CHEM10007 · Fundamentals Of Chemistry

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The Complete Exam Bible · S1 2026

Fundamentals of Chemistry

— one subject, every concept, every calculation, every mark

CHEM10007 Fundamentals of Chemistry at the University of Melbourne takes you from zero chemistry knowledge through atoms, bonding, the mole and stoichiometry, gases and energy, equilibrium, acids/bases and redox, to organic structure across 11 weeks. The whole subject is examined in one closed-book exam worth 60% — Section A multiple choice (60 marks) plus Section B extended written answers (60 marks), 2 hours of writing plus 15 minutes reading time — with an official appendices booklet (constants, formula sheet, Periodic Table) supplied, so marks come from choosing the right relationship and substituting correctly with significant figures, not from memorising formulae. Note the hurdle: you must satisfactorily complete the practical work and attend a minimum of 4 of the 6 lab classes to pass the subject.

CHEM10007 · University of Melbourne
Contents · the whole subject, one map

What CHEM10007 covers

The whole subject → one exam-ready map. Each topic links to its free chapter guide.

01Atoms, the Periodic Table & Electronic StructureMatter, isotopes, atomic mass, the Bohr & quantum-mechanical models, electron configuration and periodic trends (Wks 1-2)02Chemical Bonding, Lewis Structures & ShapeIonic, covalent and metallic bonding; common ions; naming; drawing Lewis structures and molecular shape (Wk 2)03Intermolecular Forces, Chemical Reactions & the MolePolarity & IMF, balancing equations, precipitation/net-ionic reactions, the mole concept, molar mass and empirical formula (Wks 3-4)04Stoichiometry, Solutions & GasesMass-mass stoichiometry, limiting reagents, percentage yield, significant figures, molarity, the gas laws and ideal-gas calculations (Wks 4-5)05Thermochemistry, Calorimetry & Hess's LawEnergy, heat and work; enthalpy; calorimetry (q = mcDeltaT) and Hess's Law (Wks 5-6)06Redox & ElectrochemistryOxidation numbers, balancing redox half-equations, galvanic cells and EMF, and electrolysis (Wks 6-7)07Reaction KineticsReaction rate, factors affecting rate, activation energy and catalysts (Wk 7)08Chemical EquilibriumDynamic equilibrium, Kc, the reaction quotient Q and Le Chatelier's Principle (Wk 8)09Acids, Bases & Aqueous EquilibriaBronsted-Lowry acids/bases, pH/pOH, weak-acid equilibria with ICE tables, buffers and solubility (Ksp) (Wks 8-9)10Organic Chemistry I: Alkanes, Isomerism & StereochemistryAlkane structure and IUPAC naming, structural isomers, Newman conformations, chirality and R/S, and the functional-group map (Wk 10)11Organic Chemistry II: Alkenes, Alkynes & AromaticsCycloalkanes, cis-trans and E/Z isomerism, alkenes and alkynes, polyenes and benzene (Wk 11)
Assessment

How CHEM10007 is assessed

ComponentWeightFormat
Online Feedback Quizzes (FBQ-1 to FBQ-5)10%5 quizzes (2% each), 30-min online MCQ, open across the relevant weeks
Sustainability Independent Learning Task (ILT)5%Online interactive quiz on sustainability (content not covered in lectures), due Week 12
Practical work (laboratory) · hurdle20%6 experiments F1–F6; 6 lab worksheets/reports; report cannot be submitted without doing the experiment
Pre-Laboratory Quizzes5%5 online quizzes, each completed before its practical class (no quiz = no lab entry)
Exam60%On-campus, closed-book, 2 h writing + 15 min reading; Section A MCQ (60 marks) + Section B extended written (60 marks); appendices booklet provided
Worked example · free

Section B archetype — Redox titration: percentage of iron in an ore

Q [6 marks]. A 0.450 g iron-ore sample is dissolved in acid and the Fe2+ is titrated against 0.0200 M KMnO4, requiring 24.00 mL to reach the endpoint. (a) Identify the reductant. (b) Calculate n(MnO4), then n(Fe2+) given the 5 : 1 mole ratio. (c) Calculate the mass of iron and the percentage of iron in the sample. (M(Fe) = 55.85 g mol−1)
  • 1 mark — correct reductant identifiedFe2+ is oxidised to Fe3+ (loses an electron), so Fe2+ is the reductant; MnO4 is reduced and is the oxidant.
  • 1 mark — n = cV with volume in litresn(MnO4) = cV = 0.0200 mol L−1 × 0.02400 L = 4.80 × 10−4 mol.
  • 1 mark — applies the 5:1 ratioMole ratio Fe2+ : MnO4 = 5 : 1, so n(Fe2+) = 5 × 4.80 × 10−4 = 2.40 × 10−3 mol.
  • 1 mark — mass of iron via m = nMm(Fe) = n × M = 2.40 × 10−3 mol × 55.85 g mol−1 = 0.134 g.
  • 1 mark — correct percentage%Fe = (mass of Fe ÷ mass of sample) × 100 = (0.134 ÷ 0.450) × 100 = 29.8 %.
  • 1 mark — significant figures + sanity checkReport to 3 significant figures: the inputs (0.0200 M, 24.00 mL, 0.450 g) carry 3 sig figs, so the answer is 29.8 % Fe — a sensible value for an iron ore.
Reductant = Fe2+; n(MnO4) = 4.80 × 10−4 mol; n(Fe2+) = 2.40 × 10−3 mol; m(Fe) = 0.134 g; the sample is 29.8 % iron.
Sia tip — The exam is closed-book WITH the formula sheet, so examiners reward method, not recall: lay out set up → substitute → significant figures → sanity-check, and always convert volumes to litres before using n = cV.
Glossary

Key terms

Mole (n)
The amount of substance containing Avogadro's number (6.0221 × 1023) of particles. Linked to mass by n = m/M and to solution concentration by n = cV — the hinge of every stoichiometry calculation.
Limiting reagent
The reactant that runs out first and so caps the amount of product. Found by dividing each reactant's moles by its balancing coefficient; the smallest value is limiting.
Enthalpy change (ΔH)
The heat exchanged at constant pressure. ΔH < 0 is exothermic (heat released); ΔH > 0 is endothermic. Measured by calorimetry via q = mcΔT and combined with Hess's Law.
Standard cell potential (E°cell)
The voltage of a galvanic cell under standard conditions, E°cell = E°reduction + E°oxidation. A positive E°cell means the redox reaction is spontaneous.
pH
A measure of acidity, pH = −log10[H3O+]. With pH + pOH = 14.0 at 25 °C, it links to pOH, Kw and (for weak acids) Ka.
Significant figures
The reliable digits in a measurement. For × and ÷ the answer takes the fewest sig figs of the inputs; for + and − it takes the fewest decimal places. Explicitly marked in Section B.
FAQ

CHEM10007 FAQ

Is the CHEM10007 exam open or closed book?

Closed-book. You may not bring cheat sheets, notes or textbooks, but an appendices booklet (physical constants, a chemical-relationships formula sheet, selected Ka/Kb/Ksp and standard reduction potentials, and a Periodic Table) is supplied. An FX82 calculator and an unassembled molecular model kit are allowed.

How long is the exam and how is it structured?

It is a 2-hour written exam with 15 minutes of reading time (no writing during reading). Section A is multiple choice (60 marks, write the capital letter in the box) and Section B is extended written answers (60 marks). The Subject Overview table lists 2.5 hours; the dedicated Exam Information page states 2 hours writing + 15 minutes reading — check the official timetable for your offering.

Do I have to pass the labs to pass the subject?

Yes. Practical work is a hurdle: you must attend a minimum of 4 of the 6 practical classes and satisfactorily complete (pass) the practical reports overall. A lab report cannot be submitted without doing the experiment, and a pre-lab quiz must be completed before each class to gain entry.

Do I need prior chemistry to take CHEM10007?

No. The welcome page states the subject requires no prior knowledge of chemistry — it starts from the nature of matter and builds the full first-year toolkit over 11 weeks of dual-delivery (online plus on-campus) teaching.

What textbook does CHEM10007 use?

Chemistry: Core Concepts, 3rd Edition (Blackman, Southam, Lawrie, Williamson & Thompson, Wiley). All weekly readings reference 3rd-edition section numbers; earlier editions are not referenced.

Study strategy

How to study for the exam

Treat the appendices booklet as a working tool, not a crutch: print the formula sheet early and practise choosing the right relationship for each question type, because the marks live in method and significant figures, not recall. Build fluency in the high-yield Section B archetypes first — limiting reagent / % yield, redox titration, weak-acid pH via an ICE table, calorimetry (q = mcΔT linked to moles and ΔH), and gas-law plus pV = nRT manipulation — since these recur across the mock and practice exams. Use the 5 Feedback Quizzes as low-stakes diagnostics across the semester rather than cramming them, and protect the lab hurdle by completing every pre-lab quiz and attending well above the 4-class minimum. In the final fortnight, rehearse the set up → substitute → sig figs → sanity-check rhythm on past-style questions, and keep T in kelvin and volumes in litres as automatic reflexes.

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