Kyoto Entrance Mathematics study materials
Kyoto Entrance Mathematics study resources

Kyoto Entrance Mathematics study plan

Kyoto Entrance Mathematics · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Differentiation and Its Applications (limits, derivatives, tangents, maxima/minima) & Integration and Its Applications (indefinite/definite integrals, areas, volumes)

  • Derive the derivative from the limit definition for at least six function families (polynomial, rational, radical, trigonometric, exponential, logarithmic) and write each derivation out from memory

  • Compute tangent lines, normal lines, and rates of change for 15 mixed functions, including composite, product, and quotient forms

  • Solve 10 maxima/minima word problems (volume, area, cost) and justify each answer with a sign chart or second-derivative test

  • Compute 12 indefinite integrals by substitution and by parts, then verify each by differentiating the result

  • Evaluate 8 definite integrals and set up 4 area problems between curves, identifying the correct upper and lower function before integrating

Your checkpoint

A 20-problem self-made calculus set (10 differentiation, 10 integration with 3 area applications) solved closed-book in 90 minutes, scored, with every error reworked and annotated

Week 2

Integration and Its Applications (indefinite/definite integrals, areas, volumes) & Differentiation and Its Applications (limits, derivatives, tangents, maxima/minima)

  • Set up and evaluate volumes of solids of revolution using both disk/washer and cylindrical shell methods for 6 problems, sketching each region first

  • Compute areas involving curves that cross the x-axis, splitting the integral at intersection points

  • Handle integrals of trigonometric functions using identities, and integrate rational functions by partial fractions in 5 problems

  • Solve 5 motion problems (velocity, displacement vs. distance traveled) and 3 optimization problems that require calculus plus algebra

  • State the Fundamental Theorem of Calculus precisely and explain in writing why the two parts are equivalent

Your checkpoint

A one-page formula and method sheet for integration applications (area, volume, motion) plus 8 fully worked problems, checked against a second solution method where possible

Week 3

Sequences and Series (arithmetic/geometric sequences, recurrence relations, mathematical induction) & Vectors in the Plane and in Space

  • Solve 15 sequence problems distinguishing arithmetic, geometric, and mixed/recurrence-defined sequences, including sums of the first n terms and infinite geometric sums with convergence conditions

  • Write complete induction proofs for 6 statements (summation formulas, divisibility, inequalities), stating base case, hypothesis, and step explicitly

  • Perform vector addition, scalar multiplication, dot product, and magnitude calculations in 2D and 3D, and use the dot product to find angles and perpendicularity conditions

  • Use position vectors to solve 6 geometry problems (collinearity, section points, triangle area via cross product magnitude in 3D)

  • Set up 4 recurrence relations from word problems and solve them by finding an explicit closed form

Your checkpoint

A written proof portfolio: 6 induction proofs and 4 recurrence solutions, each written in full sentences with a stated conclusion, self-graded against a checklist

Week 4

Vectors in the Plane and in Space & Complex Numbers and Complex Plane

  • Solve 8 plane-vector geometry problems combining vectors with equations of lines and circles, including the condition for a point to lie on a line segment

  • Represent complex numbers in rectangular, polar, and exponential form and convert fluently among all three for 12 numbers

  • Compute products, quotients, powers, and roots of complex numbers using De Moivre's theorem, and plot all n-th roots on the complex plane

  • Solve 6 equations over the complex numbers (quadratic with negative discriminant, polynomial factorization) and interpret solutions geometrically

  • Use complex numbers to solve 3 locus/rotation problems (rotation about a point, perpendicular bisectors, circles)

Your checkpoint

A single diagram-rich summary sheet mapping complex-number operations to their geometric effects, plus 10 solved problems covering powers, roots, and loci

Week 5

Probability and Statistics (permutations/combinations, probability, expected value, data analysis) & Number Theory and Integers (divisibility, congruences, Euclidean algorithm)

  • Solve 15 counting problems, choosing correctly among permutations, combinations, and cases with repetition or grouping restrictions

  • Compute probabilities for 10 problems using complementary events, conditional probability, and independence, and verify with a sample-space listing for small cases

  • Calculate expected values for 8 random variables, including games and decision problems, and interpret the result in context

  • Apply the Euclidean algorithm to find gcd and lcm of 8 integer pairs, and solve 6 linear Diophantine equations using the extended algorithm

  • Solve 10 congruence problems, including linear congruences and systems solved by the Chinese remainder theorem

Your checkpoint

A timed 60-minute quiz of 12 problems (6 probability/counting, 6 number theory) written by the candidate in advance, scored, with a written error analysis for every miss

Week 6

Numbers and Expressions, Equations and Inequalities, Sets and Logic & Quadratic Functions and Graphs & Trigonometric Functions and Trigonometric Ratios

  • Solve 15 problems on quadratic functions: completing the square, vertex form, discriminant-based condition counting, and max/min with restricted domains

  • Solve 10 quadratic inequalities and 5 problems mixing quadratics with absolute values or parameters

  • Derive and apply all addition, double-angle, and half-angle trigonometric identities in 12 simplification and equation problems

  • Solve 8 trigonometric equations on a specified interval, listing all solutions without missing periodic families

  • Convert freely among sine law, cosine law, and area formulas in 8 triangle problems, including ambiguous cases

Your checkpoint

A 25-problem algebra-and-trigonometry diagnostic (quadratics, identities, equations, triangles) completed in 100 minutes with a topic-by-topic accuracy table

Week 7

Exponential and Logarithmic Functions & Numbers and Expressions, Equations and Inequalities, Sets and Logic

  • Solve 12 exponential and logarithmic equations and inequalities, tracking domain restrictions and extraneous solutions

  • Graph exponential and logarithmic functions with correct asymptotes and transformations, and solve 5 problems on maximum/minimum of log expressions

  • Work 8 problems converting between exponential and logarithmic forms, including applications such as growth/decay and pH-style scales

  • Review sets, logic, and proof language: negate 10 quantified statements correctly and evaluate 8 valid/invalid argument forms

  • Rework every problem missed in weeks 1-6 that touches domains 1-4, and classify each error as conceptual, procedural, or careless

Your checkpoint

An error log covering all missed problems from weeks 1-6, with each entry rewritten correctly and tagged by error type, plus a count of errors per domain

Week 8

Differentiation and Its Applications (limits, derivatives, tangents, maxima/minima) & Integration and Its Applications (indefinite/definite integrals, areas, volumes) & Sequences and Series (arithmetic/geometric sequences, recurrence relations, mathematical induction) & Vectors in the Plane and in Space & Complex Numbers and Complex Plane & Probability and Statistics (permutations/combinations, probability, expected value, data analysis) & Number Theory and Integers (divisibility, congruences, Euclidean algorithm)

  • Complete two full-length timed mock exams under exam conditions, then score them strictly and record time spent per section

  • Re-solve every missed mock problem from scratch without looking at the solution, then compare the two attempts in writing

  • Drill the three weakest domains identified by mock scores with 10 targeted problems each

  • Memorize and self-test a one-page sheet of formulas across all 11 domains, writing it out from memory twice

  • Finalize an exam-day time-allocation plan per section based on measured mock timing

Your checkpoint

Two scored mock exams with a comparison table of section-level accuracy and timing, plus a final one-page formula sheet written from memory and checked for gaps

Milestones

Week 2: Can set up and correctly evaluate an area or volume integral for a new problem in under 8 minutes, and can state the Fundamental Theorem of Calculus from memory

Week 4: Scores at least 70% on a self-made 10-problem set spanning sequences, vectors, and complex numbers, with induction proofs accepted only if all three proof components are present

Week 6: Scores at least 75% on the 25-problem algebra-and-trigonometry diagnostic, with no more than 2 errors attributable to conceptual gaps

Week 8: Both mock exams scored at or above the target passing margin, with no single domain below 50% accuracy and total time within the exam limit