Aichi Entrance Science study plan

Derive and apply the three equations of uniformly accelerated motion to solve at least 15 problems involving free fall and projectile motion

Draw free-body diagrams for 10 situations and write the net-force equation for each before solving

Distinguish clearly between distance and displacement, speed and velocity, and state which quantity each formula yields

Set up a personal formula sheet for mechanics with units and the conditions under which each formula is valid

Apply Newton's three laws to connected-body and friction problems, stating the direction of each force explicitly

Compute work, kinetic energy, gravitational potential energy and power in at least 12 mixed problems

Verify conservation of mechanical energy in 5 problems and identify where energy is lost to friction

Explain the relationship between work and change in kinetic energy in your own words without looking at notes

Apply Ohm's law and series/parallel resistance rules to compute current, voltage and power in at least 12 circuits

Draw circuit diagrams from word descriptions and predict how brightness or current changes when a component is added or removed

State the right-hand rule for current and magnetic field, and describe the force on a current-carrying wire in a magnetic field

Distinguish transverse from longitudinal waves and label wavelength, amplitude, frequency and period on a drawn wave

Classify 30 given substances as pure substances, elements, compounds or mixtures and justify each classification

Choose and sequence separation techniques (filtration, distillation, chromatography, recrystallisation) for 8 described mixtures

Describe the particle model of solids, liquids and gases and use it to explain changes of state, diffusion and gas pressure

Interpret a heating curve and identify melting and boiling points from it

Write and balance at least 20 chemical equations, including combustion and neutralisation, and check atom counts

Predict products of reactions between metals, acids, bases and carbonates using a reactivity series

Explain ion formation and write ionic equations for precipitation and neutralisation reactions

Identify oxidation and reduction in terms of electron transfer and assign oxidation numbers in 10 examples

Distinguish acids from bases using pH, indicators and the Brønsted–Lowry definition

Label the parts of plant and animal cells and state the function of each organelle from memory

Compare mitosis and meiosis on a table covering purpose, number of divisions and chromosome number in daughter cells

Solve monohybrid and dihybrid genetics crosses using Punnett squares, including sex-linked inheritance

Explain natural selection as a four-step process and apply it to a described population change

Distinguish genotype from phenotype and dominant from recessive using worked examples

Trace the path of blood through the heart and lungs and name the function of each major organ system

Describe photosynthesis and respiration as complementary processes, naming inputs, outputs and where each occurs

Construct a food web from a described ecosystem and explain how energy and numbers change across trophic levels

Interpret a weather map and a rock-cycle diagram, naming the processes that link each rock type

Order the geological eras and describe one defining event or fossil group for each

Complete two full-length timed practice papers under exam conditions and record the score for each domain

Re-solve every previously wrong question from weeks 1 to 7 without consulting the answer key first

Rank your domains by accuracy and spend the final sessions only on the two weakest

Memorise units, constants and key definitions through spaced recall until you can state them unprompted