Free State
Physical Sciences Grade 12 2024 P1 (Free State)
Grade 12 • Term 1
South Africa CAPS
CAPS-aligned question papers and memorandums for Grade 12 Physical Sciences (2024) covering all nine South African provinces.
2024
Free State
Grade 12 • Term 1
2024
Eastern Cape
Grade 12 • Term 2
Eastern Cape
Grade 12 • Term 2
Free State
Grade 12 • Term 2
Free State
Grade 12 • Term 2
Gauteng
Grade 12 • Term 2
Gauteng
Grade 12 • Term 2
National/DBE
Grade 12 • Term 2
National/DBE
Grade 12 • Term 2
2024
Free State
Grade 12 • Term 3
Gauteng
Grade 12 • Term 3
Gauteng
Grade 12 • Term 3
Mpumalanga
Grade 12 • Term 3
North West
Grade 12 • Term 3
North West
Grade 12 • Term 3
Western Cape
Grade 12 • Term 3
2024
National/DBE
Grade 12 • Term 4
National/DBE
Grade 12 • Term 4
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Open the full past-paper archiveCAPS Curriculum · NSC Physical Sciences Paper 1
NSC Physical Sciences Paper 1 assesses mechanics, waves, electricity, and magnetism under the CAPS curriculum. The four topics below — Vertical Projectile Motion, Newton's Laws, Work-Energy Theorem, and Electrodynamics — account for the majority of Paper 1 marks and appear in every NSC examination. The 2024 past papers above are the best primary resource — use these topic summaries as a revision companion.
Vertical Projectile Motion is consistently one of the most heavily weighted topics in NSC Physical Sciences Paper 1. Under the CAPS curriculum, Grade 12 learners analyse objects in free fall near Earth's surface where air resistance is neglected and gravitational acceleration g = 9,8 m·s⁻² acts vertically downward.
A critical CAPS examination skill is drawing and interpreting velocity-time graphs for projectile motion — the constant gradient of the line represents g, while the area under the graph gives displacement. The three equations of motion (v = u + at, Δx = ut + ½at², and v² = u² + 2aΔx) are applied to multi-stage scenarios such as a ball thrown upward from a cliff and caught below the launch point.
NSC Paper 1 examinees must correctly identify the maximum-height position where v = 0, calculate total time of flight, and work with signed displacements consistent with a chosen positive direction — a common source of dropped marks in CAPS assessments.
Newton's Laws of Motion are the backbone of Grade 12 CAPS mechanics. NSC Paper 1 regularly presents complex systems — two masses connected by a string over a frictionless pulley, blocks on inclined planes, or stacked objects — that demand precise free-body diagrams before any equation is written.
Learners must correctly identify all forces (normal force, weight, applied force, static and kinetic friction, tension), resolve components parallel and perpendicular to the surface, and apply Newton's Second Law (Fnet = ma) to each body in the system individually. CAPS examiners test the distinction between static and kinetic friction coefficients in realistic, multi-step context problems drawn from everyday South African scenarios.
The Work-Energy Theorem states that the net work done on an object equals its change in kinetic energy: Wnet = ΔKE. This principle is central to NSC Physical Sciences Paper 1 and connects directly to the CAPS law of conservation of mechanical energy.
NSC Paper 1 examiners frequently combine the Work-Energy Theorem with friction scenarios — asking learners to determine the work done against friction, the speed at a specific point on a curved ramp, or the height reached by a projectile. Understanding when mechanical energy is conserved (no non-conservative forces) versus dissipated (friction or air resistance present) is a fundamental CAPS examination competency for Grade 12 Physical Sciences.
Electrodynamics covers the generation and conversion of electrical energy at Grade 12 CAPS level. Learners must clearly distinguish between AC generators (which use slip rings to produce alternating current) and DC generators (which use a split-ring commutator to produce direct current). Both devices operate on electromagnetic induction — a conductor rotating in a magnetic field generates an EMF proportional to the rate of change of magnetic flux (Faraday's Law).
The motor effect — a current-carrying conductor placed in a magnetic field experiences a force — underpins all electric motors. Back-EMF in DC motors is a higher-order CAPS concept regularly examined in NSC Paper 1: learners must explain why the current drawn by a motor decreases as the motor accelerates toward its operating speed, and calculate terminal velocity conditions.
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Get Help with Paper 1 TopicsCAPS Curriculum · NSC Physical Sciences Paper 2 (Chemistry)
NSC Physical Sciences Paper 2 (Chemistry) covers Organic Chemistry, Chemical Equilibrium, Acids & Bases, and Electrochemistry under the CAPS curriculum. The three topics below — IUPAC Nomenclature & Intermolecular Forces, Le Chatelier's Principle, and Galvanic & Electrolytic Cells — account for the majority of Paper 2 marks and appear in every NSC examination. Pair these notes with the 2024 past papers above for targeted exam preparation.
Organic Chemistry is one of the most content-rich sections of NSC Physical Sciences Paper 2. Under the CAPS curriculum, Grade 12 learners must master IUPAC Nomenclature for naming and drawing all major functional groups: alkanes, alkenes, alkynes, haloalkanes, alcohols, aldehydes, ketones, carboxylic acids, and esters. Correct naming — including chain length, substituent position, and functional-group suffix — carries significant mark allocation in NSC Paper 2.
Isomers — chain, positional, and functional isomers — are tested annually. Learners must identify structural isomers from a molecular formula and draw every valid isomer for small organic molecules. A common CAPS examination task is to draw all alcohols or haloalkanes with the formula C₄H₉OH and name each using IUPAC rules.
The physical properties of organic compounds — particularly boiling points and melting points — are directly determined by Intermolecular Forces. Stronger IMFs (hydrogen bonding > dipole-dipole > London dispersion forces) produce higher boiling points. CAPS examiners regularly ask learners to compare boiling points across a homologous series, between structural isomers, or between compounds with different functional groups — making this one of the highest-yield topics in Paper 2.
Chemical Equilibrium is one of the most conceptually demanding topics in Grade 12 CAPS Chemistry. At equilibrium, the forward and reverse reaction rates are equal and macroscopic concentrations remain constant — but the system is dynamic, not static. The equilibrium constant Kc is defined as the ratio of molar product concentrations to molar reactant concentrations, each raised to the power of its stoichiometric coefficient. Writing the correct Kc expression — and calculating its value from equilibrium concentrations — is a core NSC Paper 2 skill.
Le Chatelier's Principle governs how a system at equilibrium responds to disturbance: changes in concentration, temperature, or pressure (for gaseous reactions) cause the equilibrium position to shift in the direction that minimises the disturbance. CAPS Paper 2 examiners test learners' ability to predict the direction of shift, explain the effect on reactant and product concentrations, and critically — to identify whether Kc itself changes. Only a temperature change alters the value of Kc; changes in concentration or pressure shift the position of equilibrium without changing Kc.
Electrochemical Cells is a high-value section of NSC Chemistry Paper 2. A Galvanic (voltaic) cell converts chemical energy to electrical energy through a spontaneous redox reaction. Learners must correctly identify the anode (where oxidation occurs) and cathode (where reduction occurs), write balanced half-reactions, and calculate the standard cell potential using the CAPS Standard Electrode Potential table: E°cell = E°cathode − E°anode. A positive E°cell indicates a spontaneous reaction.
Electrolytic cells, by contrast, use an external electrical energy source to drive a non-spontaneous reaction. CAPS learners must clearly distinguish between the two cell types, predict the products at each electrode, and explain industrial applications such as electroplating and the chloralkali process. A common NSC Paper 2 question asks learners to identify which species is oxidised and which is reduced using the Standard Electrode Potential table provided in the NSC data booklet — and to justify the spontaneity of the overall reaction.
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Our qualified tutors offer focused Grade 12 sessions on IUPAC Nomenclature, Intermolecular Forces, Le Chatelier's Principle, and Galvanic Cells — fully aligned to the CAPS curriculum and NSC Paper 2 examination standards.
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