Pathway B

Advanced Mathematical Thinking™

Move beyond grade level through algebra, geometry, functions, number theory, modeling, proof, abstraction, and mathematical discovery.

Algebraic Structure

Moving beyond solving equations to understanding algebraic structure — groups, rings, and fields begin as patterns you already know.

Functions & Abstraction

Function families as objects to compose, invert, and transform — the bridge from arithmetic to higher mathematics.

Number Theory

Divisibility, primes, modular arithmetic, and the structure of the integers — the foundation of rigorous proof.
Definition

Mathematical Proof

P ⇒ Q ≡ ¬Q ⇒ ¬P (contrapositive)

A proof is a finite sequence of logical inferences, each following from axioms, definitions, or previously established results, that establishes the truth of a statement.

A proof is not persuasion — it is a chain of unavoidable conclusions.

Theorem

Fundamental Theorem of Arithmetic

If (hypothesis)
n is an integer greater than 1.
Then (statement)
n can be written uniquely (up to order) as a product of primes.
Proof sketch
Prove existence by strong induction and uniqueness by showing any two factorizations share the same prime multiset via Euclid's lemma.
AMC 10

Competition connection

Modular arithmetic — Remainder reasoning underpins cyclic counting problems, last-digit problems, and divisibility arguments throughout AMC 10.

What is the remainder when 7¹⁰⁰ is divided by 25?

Where this leads next

Linear equations→Vector spaces

Once you treat solution sets as objects with structure, linear equations become the entry point to linear algebra.

Advanced challenges

AdvancedChallenging

The Two-Color Grid

How many rectangles on a 4×4 grid can be tiled by 1×2 dominoes? Generalize to an m×n grid and find when tiling is impossible.
CountingParity
AdvancedApproachable

The Function Family

Describe every transformation that maps f(x) = x² to g(x) = −(x−3)² + 4, then find all x where f(x) ≥ g(x).
FunctionsTransformations
AdvancedOlympiad

Prime Gap Conjecture

Prove there are arbitrarily long sequences of consecutive composite integers. What does this say about prime gaps?
Number theoryProof