Chemistry 12 syllabus

Learning outcomes

Plan the outcomes you want to master, then work through their linked reading, flashcards, MCQs and past-paper questions.

Outcome syllabus

Browse in the same domains used by the curriculum.

Showing 0 outcomes of 0

All Chemistry 12 learning outcomes

Spot bias in scientific reasoning
Use oxidation numbers to spot redox
Describe Group 2 trends
Understand organic stereoisomerism
Separate qualitative and quantitative data
Analyze risks associated with experiments in the lab and suggest strategies to minimize hazards
Weigh the ethics of chemistry
Balance reactions using oxidation numbers
Explain Group 2 reactions
Explain cis-trans isomerism in alkenes
Track uncertainty through calculations
Develop guidelines for lab experiments that incorporate appropriate safety measures.
Take apart a scientific argument
Define the key redox terms
Link Group 2 reactivity to electrons
Picture aromatic molecular shape
Recognize systematic error
Communicate laboratory safety protocols to their peers and colleagues.
Find the reducing agent
Explore Group 2 compounds in daily life
Find a chiral center
Use repeats to reduce random error
Analyze chemical hazards in terms of impact on the environment.
Explain oxidizing and reducing agents
Understand the reactivity series
Compare enantiomer properties
Use graphs to communicate results
(Use the following types of titrations as examples: acid-alkali titration (this could be weak or strong acid and weak or strong alkali), potassium manganate (VIl) titration with hydrogen peroxide, iron((Il) ions, nitrite ions or ethanedioic acid or its salts and sodium thiosulfate and iodine titration)
Understand the metal activity series
Use the reactivity series
Use optical-isomer vocabulary
Read a qualitative sketch graph
Understand how to correctly set up a burette in order to carry out titrations.
Predict whether a redox reaction can happen
Explain how Group 2 substances are extracted
Explain optical rotation
Use a quantitative graph
Identify the importance of carrying out a rough titration before
Measure water pollution with the Winkler method
Understand thermal decomposition
Use chirality in drug design
Read a mass spectrum
Carry out titrations until concordant results are obtained.
Understand electrolysis
Apply thermal decomposition
Explain benzene’s molecular shape
Calculate relative atomic mass from isotopes
Identify and use appropriate indicators in the titration.
Predict electrolysis products
Explain sulfate and hydroxide solubility trends
Understand benzene resonance
Find molecular mass from a mass spectrum
Carry out rate investigation by mixing reagents and recording the time for an observation to occur.
Connect Faraday and Avogadro constants
Compare Groups 1 and 2
Compare benzene with alkenes
Identify fragments in a mass spectrum
Suggest experimental designs to measure the rate of a reaction.
Calculate products made by electrolysis
Understand complex ions
Predict halogen substitution on benzene
Estimate carbon atoms from M+ peaks
Prepare a sample for gravimetric analysis.
Measure Avogadro’s constant electrolytically
Understand basic oxides
Understand benzene nitration
Detect chlorine and bromine by M+ patterns
Perform gravimetric analysis using appropriate techniques (may include precipitation and filtration).
Define electrode potentials
Explain thermal stability trends
Apply Friedel-Crafts reactions
Use the index of hydrogen deficiency
Ensure quality of observation by properly controlling variables, using appropriate equipment, and making accurate and precise measurements (for example heat a solid in a crucible on a pipe- clay triangle and record any mass change).
Understand the standard hydrogen electrode
Explain hydroxide and sulfate solubility energetically
Understand side-chain oxidation
Combine spectroscopy methods
Prepare and set up a sample for a thermometric analysis, including appropriate mixing and stirring techniques.
Use standard cell potentials to predict reactions
Explore the first transition metals
Understand benzene hydrogenation
Identify groups in an IR spectrum
Accurately use and take readings from thermometers.
Compare oxidizing and reducing strength
Define a transition element
Use electrophilic aromatic substitution
Suggest structures from IR data
Set up and Prepare a gas volume experiment, including appropriate apparatus selection and assembly techniques.
Build redox equations from half-equations
Sketch 3d orbitals
Make a halogenoarene
Predict UV-visible absorption
Use a gas syringe, gas burette, or other appropriate equipment to measure gas volume
Use concentration in electrode potentials
Recognize transition-metal properties
Compare halogenoalkanes and halogenoarenes
Predict a complex’s color from UV-visible data
Understand the appropriate methods to be used when carrying out qualitative analysis tests: • to treat all unknown materials with caution • to use an appropriate quantity of the material under test • to add only the specified amount to work safely, • to use a test-tube holder when heating a solid in a hard-glass test tube • to record all observations, even when this is ‘no change' or ‘remains a colourless solution’ • to use excess alkali where a precipitate is produced on addition of NaOH(aq) or NH3 (aq) to determine its solubility or identify a gas whose formation is shown by effervescence.
Explain how a voltaic cell makes electricity
Explain variable oxidation states
Predict a halogenoalkane product
Explain atomic emission and absorption
Perform the following organic analysis tests and functional group present: • the production of an orange/red precipitate with Fehling’s reagent to indicate the presence of the aldehyde functional group the production of a silver mirror/black precipitate with Tollens’ reagent to indicate the presence of the aldehyde functional group • the production of a yellow precipitate with alkaline aqueous iodine to indicate the presence of the CH3CO or CH3CH(OH) group • the change in colour of acidified potassium manganate (VIl) from purple to colourless to indicate the presence of a compound that can be oxidized.
Trace a Cu-Zn galvanic cell
Explain transition-metal catalysis
Work backward through halogenoalkane synthesis
Read carbon environments in 13C NMR
Identify the best way to present collected and transformed data based on the experiment being performed.
Understand the common-ion effect
Explain why complex ions form
Compare SN1 and SN2 substitution
Suggest structures from 13C NMR
Interpret the collected data to draw conclusions based on the experiment being performed.
Use Ka to compare acids
Explain transition-metal ligand reactions
Match mechanism to halogenoalkane type
Count 13C NMR signals
Use Kb to compare bases
Define a ligand
Explain halogenoalkane reactivity
Read proton environments in 1H NMR
Understand buffer solutions
Recognize monodentate ligands
Make an ester from an acyl chloride
Use proton NMR integrations and neighbors
Calculate ions from a slightly soluble salt
Compare bidentate and polydentate ligands
Make phenol from a diazonium salt
Deduce a structure from spectra
Define partition coefficient
Define a complex ion
Use the main reactions of phenol
Predict proton shifts and splitting
Calculate a partition coefficient
Recognize complex geometries
Explain phenol’s acidity
Understand the TMS standard
Explain what controls partitioning
Understand coordination number
Compare water, phenol, and ethanol acidity
Use deuterated NMR solvents
Calculate pH and hydrogen-ion concentration
Write complex-ion formulas
Compare phenol and benzene substitution
Identify exchangeable O-H and N-H protons
Understand the tenfold pH scale
Understand ligand exchange
Use phenol’s directing effect
Learn chromatography vocabulary
Use the ionic product of water
Use E0 values with transition metals
Extend phenol chemistry to related compounds
Use thin-layer chromatography
Sketch acid-base titration curves
Analyze permanganate and oxalate redox
Produce benzoic acid from an alkylbenzene
Read chromatogram values
Analyze permanganate and iron redox
Convert carboxylic acids to acyl chlorides
Choose chromatography phases
Analyze copper and iodide redox
Recognize further oxidation of carboxylic acids
Combine chromatography with mass spectrometry
Calculate other redox systems
Compare carboxylic, phenol, and alcohol acidity
Connect material properties to the structures they help us design.
Explain why transition compounds are colored
Explain substituted-acid acidity
Understand how metals are extracted and improved through alloys.
Understand d-orbital splitting
Make esters from alcohols and acyl chlorides
See how catalysts speed up reactions without being used up.
Link d-electron transitions to color
Prepare acyl chlorides
Think critically about recycling and material toxicity.
Relate ligands to observed color
Predict acyl-chloride reactions
Use therapeutic index and window to think about safe dosing.
Use ligand exchange to explain color change
Understand acyl-chloride addition-elimination
Link the structures, actions, and uses of aspirin and penicillin.
Recognize stereoisomers of complexes
Compare hydrolysis rates
Understand how opiates act through opioid receptors.
Predict complex polarity
Prepare primary and secondary amines
Explain stomach pH control and how medicines are transformed.
Define the stability constant
Make a nitrile
Understand why viral infections are difficult to treat.
Write a Kstab expression
Make a hydroxy nitrile
Explain what fertilizers contain and how they affect soil and crops.
Calculate with stability constants
Hydrolyze a nitrile
Compare pesticide types, actions, benefits, and risks.
Use Kstab to compare complexes
Explain amine basicity
Trace how acid rain changes soil and crop growth.
React phenylamine with bromine water
Explore how genetic engineering can change agriculture.
Make phenol through a diazonium salt
Predict how climate conditions can affect crops and food supply.
Compare amine basicity
Explain why industrial chemistry matters across society.
Understand azo compounds and dyes
Describe polymer-making processes used in industry.
Make an amide
Identify the resources that support industrial chemistry in Pakistan.
Describe amide reactions
Connect industrial chemistry with everyday products and industries.
Explain why amides are weak bases
Apply safety thinking to industrial chemical work.
Understand amino-acid acid-base behavior
Build peptide bonds
Predict amino-acid electrophoresis
Understand PVC and nylon
Make an amide by condensation
Explore Pakistan’s chemical industries
Compare addition and condensation polymers
Identify a polymer from its structure
Find monomers and repeating units
Predict the polymerization type
Understand polymer disposal problems
Explain why poly(alkenes) persist
Recognize light-degradable polymers
Explain biodegradable condensation polymers
Explore polymer artificial organs
Use AI in medicine design
Classify carbohydrates by structure
Connect carbohydrates with health
Understand carbohydrate nutrition
Classify proteins by structure
Understand protein roles and nutrition
Explain enzymes as biocatalysts
Identify factors affecting enzymes
Understand enzyme inhibitors
Classify lipids by structure
Understand why lipids matter
Identify DNA and RNA building blocks
Compare DNA and RNA
Link DNA sequence to information storage
Link RNA sequence to protein production
Find mineral sources
Explain mineral nutrition
Explain energy stores in animals
Recognize lubricating carbohydrates
Describe fibrous proteins
Recognize lipid and amino-acid hormones
Connect insulin with diabetes
Understand mineral structure and function
Connect calcium with clotting
Precipitate milk proteins