Hiroshima Entrance Science study plan

Diagnose current ability by completing a timed 30-question mathematics set covering algebra, functions, and geometry, then classify every miss by error type (concept gap, calculation slip, misread).

Rebuild fluency in algebraic manipulation: factor, expand, complete the square, and simplify rational and radical expressions until 20 mixed problems are solved with at least 90% accuracy.

Solve quadratic and simultaneous equations plus inequalities, and sketch the corresponding graphs by hand without a calculator.

Set up a spaced-review notebook with formula sheets for mathematics and schedule the first three review dates.

Apply trigonometric ratios, the sine and cosine rules, and radian measure to solve at least 15 triangle and circle problems.

Compute derivatives and definite integrals of polynomial, trigonometric, exponential, and logarithmic functions, and interpret each result geometrically.

Solve counting, permutation, and probability problems and justify each answer in one written sentence.

Work through 10 multi-step word problems under a 25-minute timer to build pacing for the mathematics section.

State and apply Newton's three laws to free-body diagrams for at least 12 situations including inclines, pulleys, and friction.

Solve kinematics problems in one and two dimensions using equations of motion and projectile analysis.

Calculate work, kinetic and potential energy, momentum, and power, and verify conservation laws in collision problems.

Explain the difference between displacement, velocity, and acceleration in writing, using one worked example each.

Analyze series and parallel circuits using Ohm's law and Kirchhoff's rules, computing equivalent resistance and current in at least 10 circuits.

Describe wave properties (frequency, wavelength, speed, superposition) and solve refraction and lens problems using Snell's law and the thin-lens equation.

Balance chemical equations and perform mole-to-mass and limiting-reagent calculations for at least 15 reactions.

Write net ionic equations for precipitation and neutralization reactions and identify spectator ions.

Apply the ideal gas law and gas stoichiometry to solve volume, pressure, and temperature problems at standard conditions.

Classify acids and bases, compute pH for strong and weak solutions, and describe neutralization quantitatively.

Distinguish oxidation and reduction, assign oxidation states, and balance at least five redox equations.

Explain periodic trends in atomic radius, ionization energy, and electronegativity in terms of electron configuration.

Diagram and explain cell structure and the stages of mitosis and meiosis, comparing the outcomes of each.

Trace the flow of energy and matter through photosynthesis and respiration, writing the overall equations and identifying where each occurs.

Apply Mendelian genetics, including dihybrid crosses and probability, to predict offspring ratios in at least 10 crosses.

Interpret rock cycles, plate tectonics, and weather and climate patterns, and connect one local environmental issue to a scientific principle.

Interpret tables, line graphs, and scatter plots by extracting trends, units, and uncertainty, and by identifying misleading axes.

Design controlled experiments by stating a hypothesis, independent and dependent variables, and at least two controlled variables.

Evaluate claims by distinguishing correlation from causation and by identifying sampling bias in short scenarios.

Practice explaining reasoning in writing for 10 data-response items within a strict time limit.

Complete two full-length timed mock exams under realistic conditions and record section-by-section scores.

Re-review the highest-frequency errors from weeks 1 through 7 and re-solve each missed item from scratch.

Memorize and self-test the final formula and definition sheets for all six domains.

Plan exam-day logistics: section order, time allocation per question, and a strategy for skipping and returning to hard items.