Age of Aussa

Mathematical Roadmap for Self-Study

Age of Aussa
Mathematical Roadmap for Self-Study

📍 Stage 1: Foundations (Arithmetic → Algebra → Geometry)

Arithmetic

  • Study order: number systems → operations → fractions → decimals → percentages → ratios.

  • Key theorems & rules:

    • Fundamental Theorem of Arithmetic (unique prime factorization).

    • Euclidean Algorithm (greatest common divisor).

    • Basic divisibility rules.

Algebra

  • Study order: variables → linear equations → inequalities → quadratic equations → functions → polynomials.

  • Key theorems:

    • Zero Product Property.

    • Quadratic Formula.

    • Factor Theorem & Remainder Theorem.

    • Fundamental Theorem of Algebra (every nonconstant polynomial has a complex root).

Geometry

  • Study order: points & lines → angles → triangles → circles → congruence → similarity → area & volume.

  • Key theorems:

    • Pythagorean Theorem.

    • Triangle Sum Theorem.

    • Basic Properties of Parallel Lines & Angles.

    • Euclid’s Elements (propositions on congruence, similarity).

📍 Stage 2: Intermediate Core (Linear Algebra → Calculus → Discrete Math)

Linear Algebra

  • Study order: vectors → matrices → systems of equations → determinants → vector spaces → eigenvalues/eigenvectors.

  • Key theorems:

    • Rank-Nullity Theorem.

    • Cayley-Hamilton Theorem.

    • Spectral Theorem.

    • Linear Independence and Basis.

Calculus

  • Study order: limits → derivatives → integrals → series → multivariable calculus → vector calculus.

  • Key theorems:

    • Intermediate Value Theorem.

    • Mean Value Theorem.

    • Fundamental Theorem of Calculus.

    • Green’s, Stokes’, and Divergence Theorems (advanced).

Discrete Mathematics & Number Theory

  • Study order: combinatorics → graph theory → modular arithmetic → prime numbers → Diophantine equations.

  • Key theorems:

    • Fermat’s Little Theorem.

    • Chinese Remainder Theorem.

    • Euler’s Totient Theorem.

    • Pigeonhole Principle.

    • Principle of Inclusion-Exclusion.

📍 Stage 3: Advanced Core (Real/Complex Analysis → Abstract Algebra → Topology)

Real Analysis

  • Study order: sequences → limits → continuity → differentiability → integrability → series convergence.

  • Key theorems:

    • Bolzano-Weierstrass Theorem.

    • Heine-Borel Theorem.

    • Mean Value Theorem (analysis form).

    • Lebesgue Dominated Convergence Theorem (advanced).

Complex Analysis

  • Study order: complex numbers → analytic functions → Cauchy-Riemann equations → contour integration → residues.

  • Key theorems:

    • Cauchy Integral Theorem.

    • Cauchy Integral Formula.

    • Liouville’s Theorem.

    • Residue Theorem.

    • Maximum Modulus Principle.

Abstract Algebra

  • Study order: groups → subgroups → rings → fields → homomorphisms → isomorphisms.

  • Key theorems:

    • Lagrange’s Theorem.

    • Isomorphism Theorems (for groups and rings).

    • Fundamental Theorem of Finite Abelian Groups.

    • Sylow Theorems.

Topology

  • Study order: open/closed sets → continuous maps → compactness → connectedness → metric/topological spaces.

  • Key theorems:

    • Urysohn’s Lemma.

    • Tychonoff’s Theorem.

    • Brouwer Fixed Point Theorem.

    • Fundamental Group and Covering Spaces.

📍 Stage 4: Specialization Tracks (choose based on interest)

Differential Geometry

  • Gauss-Bonnet Theorem.

  • Theorema Egregium.

Algebraic Geometry

  • Hilbert’s Nullstellensatz.

  • Bezout’s Theorem.

Functional Analysis

  • Hahn-Banach Theorem.

  • Banach Fixed Point Theorem.

  • Open Mapping Theorem.

Number Theory (advanced)

  • Dirichlet’s Theorem on Primes.

  • Prime Number Theorem.

Category Theory

  • Yoneda Lemma.

  • Adjunctions.

🔑 Summary of Progression:

  1. Build arithmetic & algebra fluency.

  2. Strengthen geometric and analytic reasoning.

  3. Advance into calculus, linear algebra, and number theory.

  4. Go into rigorous real/complex analysis and abstract algebra.

  5. Choose a specialization for research or application.