AQA · GCSE
Fisika
Papers, sampel, dan dokumen kurikulum untuk kursus ini.
Kode kualifikasi: 8463
Soal masa lalu terbaru
20 pasangan soal dan skema nilai
Jelajahi kertas soal dan kunci jawaban →Lembaran kerja, lembar latihan, dan salindia
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Lembar latihan · AQA · GCSE · Physics (48)
- 1.1 Tembok energi dan sistem (4.1.1.1)
- 1.2 Perubahan energi — kinetik, elastis, dan gravitasi (4.1.1.2)
- 1.3 Perubahan energi dalam sistem — kapasitas kalor spesifik (4.1.1.3, RP1)
- 1.4 Daya (4.1.1.4)
- 1.5 Konservasi dan dispersi energi (4.1.2.1, RP2)
- 1.6 Efisiensi (4.1.2.2)
- 1.7 Sumber energi nasional dan global (4.1.3)
- 2.1 Simbol rangkaian, muatan listrik, dan arus (4.2.1.1–4.2.1.2)
- 2.2 Arus, hambatan, dan beda potensial (4.2.1.3, RP3)
- 2.3 Resistor dan karakteristik I–V (4.2.1.4, RP4)
- 2.4 Rangkaian seri dan paralel (4.2.2)
- 2.5 Penggunaan rumah tangga dan keselamatan (4.2.3)
- 2.6 Daya dan perpindahan tenaga dalam peranti (4.2.4.1–4.2.4.2)
- 2.7 Jaringan Elektrik Negara (4.2.4.3)
- 2.8 Elektrik statik — fizik sahaja (4.2.5)
- 3.1 Ketumpatan bahan (4.3.1.1, RP5)
- 3.2 Perubahan keadaan dan tenaga dalaman (4.3.1.2–4.3.2.1)
- 3.3 Kapasiti hab tentu dan perubahan suhu (4.3.2.2)
- 3.4 Hab tersembuh tentu (4.3.2.3)
- 3.5 Gerakan zarah dalam gas (4.3.3.1)
- 3.6 Tekanan dalam gas dan kerja dilakukan ke atas gas — fizik sahaja (4.3.3.2–4.3.3.3)
- 4.1 Struktur atom; nombor jisim dan isotop (4.4.1.1–4.4.1.2)
- 4.2 Pembangunan model atom (4.4.1.3)
- 4.3 Peluruhan radioaktif dan radiasi nuklear (4.4.2.1)
- 4.4 Persamaan nuklear, separuh hayat dan peluruhan rawak (4.4.2.2–4.4.2.3)
- 4.5 Kontaminan radioaktif dan sinaran latar belakang (4.4.2.4–4.4.3.1)
- 4.6 Penggunaan radiasi nuklear; pemilihan separuh hayat (4.4.3.2–4.4.3.3)
- 4.7 Pecahan dan fusi nuklear — fizik sahaja (4.4.4)
- 5.1 Skalar, vektor, jenis daya dan daya hasil tambah (4.5.1.1–4.5.1.4)
- 5.2 Kerja yang dilakukan dan perpindahan tenaga (4.5.2)
- 5.3 Daya dan keanjalan (4.5.3, RP6)
- 5.4 Momen, tuas, dan roda gigi — hanya fisika (4.5.4)
- 5.5 Tekanan dan perbedaan tekanan dalam fluida — hanya fisika (4.5.5)
- 5.6 Mendeskripsikan gerak sepanjang garis (4.5.6.1.1–4.5.6.1.5, RP7)
- 5.7 Gaya, percepatan, dan hukum Newton (4.5.6.2)
- 5.8 Gaya dan pengereman (4.5.6.3)
- 5.9 Momentum — HT saja (4.5.7)
- 6.1 Gelombang transversal dan longitudinal; sifat gelombang (4.6.1.1–4.6.1.2, RP8)
- 6.2 Pantulan, bunyi, dan gelombang untuk deteksi — hanya fisika (4.6.1.3–4.6.1.5)
- 6.3 Gelombang elektromagnetik (4.6.2.1–4.6.2.4)
- 6.4 Lensa dan cahaya tampak — hanya fisika (4.6.2.5–4.6.2.6)
- 6.5 Radiasi benda hitam — hanya fisika (4.6.3, RP9)
- 7.1 Magnetisme permanen dan induksi, medan magnet (4.7.1)
- 7.2 Elektromagnetisme dan efek motor (4.7.2)
- 7.3 Potensial induksi, efek generator, dan transformator — hanya fisika, HT (4.7.3)
- 8.1 Sistem tata surya kita dan siklus hidup bintang (4.8.1.1–4.8.1.2)
- 8.2 Gerak orbit, satelit alami dan buatan (4.8.1.3)
- 8.3 Red-shift — hanya fisika (4.8.2)
Salindia presentasi · AQA · GCSE · Physics (8)
Lembar kerja · Fisika IGCSE (6)
Lembar latihan · Fisika IGCSE (24)
- 1.1 Besaran fisik dan teknik pengukuran
- 1.2 Gerak
- 1.3 Massa dan berat
- 1.4 Kepadatan
- 1.5 Gaya
- 1.6 Momentum
- 1.7 Energi, usaha dan daya
- 1.8 Tekanan
- 2.1 Model kinetik partikel materi
- 2.2 Sifat termal dan suhu
- 2.3 Transfer energi termal
- 3.1 Sifat umum gelombang
- 3.2 Terang
- 3.3 Spektrum elektromagnetik
- 3.4 Suara
- 4.1 Fenomena magnetisme sederhana
- 4.2 Besaran listrik
- 4.3 Rangkaian listrik
- 4.4 Keamanan listrik
- 4.5 Efek elektromagnetik
- 5.1 Model nuklir atom
- 5.2 Radioaktivitas
- 6.1 Bumi dan Sistem Surya
- 6.2 Bintang dan Alam Semesta
Salindia presentasi · Fisika IGCSE (6)
Unit kursus dan tujuan pembelajaran
Pelajaran ini mengajarkan tujuan kursus tertentu. Periksa kesenjangan cakupan yang tersisa; materi ini bukan program persiapan lengkap.
4.1 · Energy
- Energy transferred per unit time.
- Define the system and useful output before calculating efficiency. Doubling speed quadruples kinetic energy at constant mass. Power describes transfer per time, not total energy.
- Measure a lifting height and load, time the lift, and record electrical input with suitable instruments. Repeat trials and account for heating or friction as transfers, not missing energy.
- Energy per mass per temperature rise.
- Temperature relates to particle motion in a model; internal energy includes kinetic and potential contributions. During a change of state, energy can change particle arrangements rather than temperature.
- Measure mass, electrical input and temperature change for an insulated block. Ensure the temperature sensor has good contact, allow time for equilibration, and consider energy transferred to the surroundings.
- kuasa
- Energy transferred per unit time
- efisiensi
- Useful output divided by total input
- specific heat capacity
- Energy per mass per temperature rise
- kalor laten
- Energy associated with a change of state
4.2 · Electricity
- Rate of flow of charge.
- Current is the same through components in series. Potential differences add around the series path. In parallel, branches share the same potential difference, while branch currents sum at a junction.
- Place an ammeter in series and a voltmeter in parallel. For an I-V investigation, change voltage in steps, reverse polarity when appropriate and limit current to reduce heating.
- arus
- Rate of flow of charge
- potential difference
- Energy transferred per unit charge
4.3 · Particle model of matter
- Energy per mass per temperature rise.
- Temperature relates to particle motion in a model; internal energy includes kinetic and potential contributions. During a change of state, energy can change particle arrangements rather than temperature.
- Measure mass, electrical input and temperature change for an insulated block. Ensure the temperature sensor has good contact, allow time for equilibration, and consider energy transferred to the surroundings.
- Temperature on the kelvin scale.
- State which quantities stay fixed. A pressure-volume relation requires consistent units and a fixed temperature. The kelvin-based temperature ratio is an extension only where the course explicitly specifies it.
- Use approved apparatus with a temperature range and pressure limit set by the teacher. Allow thermal equilibrium and record pressure against kelvin temperature. Never heat an improvised sealed vessel.
- specific heat capacity
- Energy per mass per temperature rise
- kalor laten
- Energy associated with a change of state
- absolute temperature
- Temperature on the kelvin scale
- ideal gas
- A gas model with specified simplifying assumptions
4.4 · Atomic structure
- Time for activity or undecayed population to halve.
- Subtract background counts measured over the same time interval. Distinguish irradiation from contamination. Shielding, distance and reduced exposure time can reduce risk under a school-controlled procedure.
- Use teacher-managed sources and the school radiation rules. Record count duration and repeat background measurements. Do not extrapolate a half-life from one nucleus or from uncorrected readings.
- half-life
- Time for activity or undecayed population to halve
- background radiation
- Radiation measured apart from the investigated source
4.5 · Forces
- Mass multiplied by velocity.
- Impulse equals momentum change. Increasing stopping time for the same momentum change reduces average force. Identify external forces before applying momentum conservation.
- Draw a free-body diagram containing only forces on the selected object. For spring measurements, add loads in steps within the elastic range and measure extension from the unloaded position.
- Rate of change of displacement.
- The gradient of a displacement-time graph is velocity. The area under a velocity-time graph gives displacement. A constant-acceleration formula is valid only when its assumption is justified.
- Choose a positive direction and state it. Use a light gate or video with a known scale and frame interval for repeatable motion measurements. Avoid assuming hand timing is exact over very short intervals.
- momentum
- Mass multiplied by velocity
- resultant force
- The vector sum of forces on an object
- velocity
- Rate of change of displacement
- acceleration
- Rate of change of velocity
4.6 · Waves
- Distance between successive points in phase.
- At a boundary, frequency stays fixed by the source. A change of speed changes wavelength. Refraction follows from speed differences; angles are measured from the normal.
- Measure several wavelengths and divide to reduce fractional reading uncertainty. Use a ray box with a normal drawn at the boundary. Keep the beam away from eyes and record incident and refracted angles clearly.
- panjang gelombang
- Distance between successive points in phase
- frekuensi
- Number of oscillations per unit time
4.7 · Magnetism and electromagnetism
- Creation of emf by changing flux linkage.
- Changing field strength, coil area, orientation or relative motion can change flux linkage. Lenz law describes an induced effect opposing the change producing it, consistent with energy conservation.
- Use a coil and sensitive meter to compare magnet motion in each direction. Record that a stationary arrangement gives no induced signal. Use approved low-voltage supplies for motor demonstrations.
- induction
- Creation of emf by changing flux linkage
- transformer
- A device transferring energy between coils through changing flux
4.8 · Space physics (physics only)
- Total emitted power.
- For isotropic emission without absorption, flux follows an inverse-square relationship with distance. Observed brightness alone therefore cannot establish luminosity.
- Compare source observations with the life-cycle model and identify the relevant initial mass. State limitations of evidence rather than treating a model diagram as a direct observation of one star whole lifetime.
- luminositas
- Total emitted power
- flux
- Power received per unit area
Menyiapkan diri untuk kualifikasi ini
- Foundation and Higher route, with physics-only and HT statements retained.
- Paper 1: 4.1–4.4; Paper 2: 4.5–4.8. Each is 100 marks, 1 h 45 min, 50%.
- Use the equation sheet for the actual examination year; do not infer a 2026 aid from a 2024 copy.
- The acquired equations insert is explicitly FOR USE IN JUNE 2027 ONLY. AQA confirms its content is unchanged from 2026, but examinations must use their own dated clean insert, supplied with both papers. Preserve the insert’s HT labels; do not infer future assessment conditions from this copy.
Cakupan pengajaran masih diperlukan
- Full energy stores, insulation, resources and efficiency objectives remain.
- Static electricity (physics only), domestic supply/safety and detailed network calculations remain.
- Use GCSE gas variant; density, changes of state, specific latent heat and physics-only work on gases remain.
- Historical atomic models, decay equations, hazards/uses, fission and fusion remain.
- Moments, pressure, vectors, elasticity, stopping-distance factors and momentum at the appropriate tier remain.
- Full electromagnetic spectrum, lenses, sound/ultrasound and black-body radiation physics-only objectives remain.
- Permanent/induced magnets, motor force HT, generators, microphones, transformers and loudspeakers need complete objectives.
- Full solar-system, orbits, life-cycle and redshift objectives remain.
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