Kyoto Entrance Mathematics study plan
Kyoto Entrance Mathematics · Give each week a clear focus.
8 weeks · About 7 hours per week
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
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
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
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
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
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
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
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