Number Theory for Data Structures & Algorithms

From divisibility and GCD to modular arithmetic, fast transforms, finite fields, and elliptic curves

A progressive 18-part number-theory curriculum for algorithm learners, supported by 2 optional theory extensions, 16 algorithm spotlights, 5 applied projects, and a final capstone. Every topic moves from intuition and concrete examples to formal derivation, implementation, case studies, and tiered exercises.

18Core Parts Planned
16Algorithm Spotlights Planned
2Optional Deep Dives Planned
6Projects & Capstone Planned
Back to Mathematics
0 of 18 Parts Published

Core Learning Path

The required 18-part path begins with integer intuition, divisibility, proofs, GCD, primes, and sieves; develops modular arithmetic, CRT, factorization, arithmetic functions, combinatorics, continued fractions, residues, and discrete logarithms; then advances to recurrences, FFT/NTT, finite fields, fast arithmetic, elliptic curves, and number-theoretic data structures. Each part includes derivations, implementation guidance, applications, case studies, and exercises.

0 of 2 Extensions Published

Optional Theory Extensions

Two advanced, non-blocking detours connect the computational curriculum to algebraic number theory and analytic/probabilistic number theory through concrete computational examples.

0 of 16 Spotlights Published

Algorithm Spotlights

Sixteen focused implementations trace extended Euclid, linear sieving, generalized CRT and Garner reconstruction, deterministic Miller–Rabin, Pollard rho with Brent cycles, Möbius inversion, composite-modulus binomials, continued fractions and Pell equations, modular square roots, discrete logarithms, fast recurrences, NTT convolution, finite-field construction, Montgomery multiplication, elliptic-curve scalar multiplication, and digit DP.

0 of 6 Projects Published

Projects & Capstone

Five progressively larger builds—a reusable number-theory toolkit, range arithmetic query engine, modular combinatorics calculator, recurrence and convolution laboratory, and educational cryptography suite—culminate in a verified computational number-theory engine.