Cambridge IAS-Level Physics (9702) Past Papers

The Cambridge International AS Level Physics (9702) Summer 2026 series (covering Paper 11 Multiple Choice, Paper 21 Structured Questions, and Paper 31 Practical Skills) presents a well-balanced assessment across mechanics, waves, electricity, and particle physics. Paper 21 features substantial multi-step calculations in dynamics (rocket thrust and kinetic energy) and practical-oriented analytical questions in electricity (resistivity temperature coefficient). Paper 31 maintains the standard rigorous format demanding precision in circuit analysis and oscillation uncertainties.

The May/June 2026 AS Level Physics suite (Papers 12, 22, and 32) presents a balanced assessment combining core conceptual knowledge, multi-step mechanical and electrical calculations, graphical interpretations, and rigorous experimental data evaluation. Candidates face standard routine questions alongside challenging graph-sketching tasks and algebraic derivations.

The May/June 2026 Cambridge AS Physics examination series (Components 13, 23, and 33) presents a well-balanced assessment across mechanics, materials, wave phenomena, electricity, and particle physics. Structured Paper 23 placed heavy analytical emphasis on elastic collisions with kinematic graphs, variable stress in extended hanging threads, wave superposition mechanics, internal resistance with LDR sensing, and continuous beta-plus decay spectra. Paper 13 offered comprehensive conceptual probing across the syllabus, while Paper 33 evaluated precision timing in coupled pendulum systems and center-of-gravity stability in toppling wooden blocks.

The May/June 2026 AS Physics series presented a well-balanced assessment across Paper 1 (Multiple Choice), Paper 2 (Structured Questions), and Paper 3 (Practical Skills). Conceptual mechanics, non-linear circuit analysis involving semiconductor diodes, and experimental uncertainty propagation formed key discriminating areas, while standard definitions and routine kinematics calculations provided accessible foundation marks.

A comprehensive examination assessing core AS Level Physics concepts across multiple-choice, structured, and practical papers. Wave phenomena, DC circuits, kinematics, and particle physics are heavily featured, emphasizing exact quantitative evaluations and conceptual justifications.

This analysis covers the May/June 2025 series of Cambridge International AS Level Physics (9702), encompassing Paper 12 (Multiple Choice), Paper 22 (Structured Questions), and Paper 32 (Practical Skills). The assessments test fundamental mechanics, wave phenomena, DC circuits, deformation of solids, and basic particle physics. The structured and practical components emphasize algebraic derivations, graphical interpretations, and a systematic treatment of uncertainties.

The May/June 2025 Physics AS Level papers (Components 13, 23, and 33) represent a well-balanced assessment. Paper 13 offered standard multiple-choice challenges, while Paper 23 featured a strong focus on wave polarisation (Malus's Law) and potentiometer circuits. Paper 33 emphasized systematic practical circuit calibration and mechanical oscillation analysis.

An demanding and comprehensive AS Level assessment series (May/June 2025) emphasizing precise calculations, vector mechanics, wave superposition, and systematic experimental methodologies across Papers 1, 2, and 3.

The October/November 2025 Physics 9702 AS Level papers present a balanced test of mechanical principles, wave superposition, and basic DC circuits. Paper 11 tested conceptual agility, Paper 21 demanded robust algebraic derivations and base unit conversions, and Paper 31 evaluated precision in spring oscillations and paper cylinder deformation.

A balanced and highly representative Cambridge International AS Level Physics paper set, featuring standard mechanics derivations, wave interference, potential divider networks, and fundamental particle calculations with a focus on uncertainty analysis and systematic problem-solving.

The October/November 2025 Physics (9702) papers present a balanced combination of direct theory recall, demanding graphic analysis, and systematic practical circuit implementation. Standard kinematics and particle physics remain highly accessible, while superposition sketches and circuit explanations require deep conceptual understanding.

A highly balanced Cambridge AS-level physics paper emphasizing core mechanics, wave superposition, and uncertainties, balanced by a rigorous practical on force equilibrium and rolling sphere kinematics.

A highly balanced Cambridge AS Physics examination featuring standard structured questions, a rigorous multiple-choice paper, and a practical assessment requiring high plotting precision. Core areas like Dynamics, DC Circuits, and Wave Superposition dominated the weighting.

The Summer 2024 AS Physics written papers (Papers 12 and 22) offered a balanced and highly representative assessment. While the calculation components were largely straightforward and formula-driven, the narrative and conceptual explanation questions—particularly regarding non-uniform kinematics and potential dividers—acted as strong discriminators between grade bands.

This analysis covers the May/June 2024 Cambridge International AS & A Level Physics (9702) examination papers 13, 23, and 33. The papers balance fundamental mechanics, wave superposition, DC circuits, and basic particle physics. Practical paper 33 focuses on static equilibrium and the physical properties of stretching a rubber band.

A comprehensive and balanced assessment suite testing fundamental physics principles across multiple dimensions. Paper 11 focuses heavily on conceptual mechanics and circuit configurations. Paper 21 demands high algebraic precision and physical reasoning, particularly in waves and resistivity derivations, while Paper 31 prioritizes careful measurement recording and graphical linear analysis.

An elegant and balanced AS examination consisting of a diverse Paper 1 Multiple Choice and a deeply rigorous Paper 2 Structured Questions. Core concepts in 2D momentum conservation, mechanics, stationary waves, and DC circuit network analysis were tested with high precision, demanding solid algebraic competence and conceptual clarity.

The October/November 2024 series of AS Level Physics (9702) represents a highly balanced set of papers. Paper 13 demanded rapid mathematical reasoning, while Paper 23 introduced demanding application tasks combining mechanical equilibrium with hydrostatic upthrust. Paper 33 maintained standard rigorous requirements for experimental precision and uncertainty analysis.

A comprehensive analysis of the Cambridge International AS Level Physics series (9702) for the May/June 2023 series, covering Paper 11 (Multiple Choice), Paper 21 (AS Level Structured Questions), and Paper 31 (Advanced Practical Skills 1). The analysis dissects student performance, standard pitfalls, and topic weightings based directly on examiner findings.

Analysis of Cambridge International AS Level Physics (9702) May/June 2023 components (Paper 12, 22, and 32), examining student performance, typical misconceptions in kinematics, potential dividers, wave polarization, and practical measurement techniques.

An analysis of the May/June 2023 Physics (9702) AS Level Papers 13, 23, and 33, highlighting critical mechanics, wave phenomena, practical graphs, and common calculation pitfalls.

This analysis covers the October/November 2023 AS Level Physics papers (Paper 11, 21, and 31). It highlights core marks in D.C. circuits, kinematics, and fluid forces, while evaluating practical skills and examiner-reported pitfalls.

This analysis covers the October/November 2023 Physics (9702) Paper 12 (Multiple Choice) and Paper 22 (AS Level Structured Questions). Key focus areas include mechanics, wave superposition, diffraction, D.C. circuits, and fundamental particle properties.

A comprehensive analysis of the Cambridge International AS Level Physics (9702) October/November 2023 papers (Paper 13, Paper 23, and Paper 33). This set of papers balance classical mechanics, waves, electricity, and basic nuclear physics, emphasizing precise uncertainty calculations and logical explanations.