<![CDATA[MKLab - NUMBER THEORY]]> https://mklab.gr/ Wed, 28 Oct 2026 05:50:12 +0000 MyBB <![CDATA[The Great Story of Numbers [Rijke]]]> https://mklab.gr/showthread.php?tid=2170 Fri, 25 Sep 2026 16:51:28 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=2170 Elementary Number Theory is a substantial set of upper-undergraduate lecture notes designed not merely to teach standard number theory, but also to develop proof-writing, structural thinking, and mathematical problem-solving. The notes are associated with Johns Hopkins University’s Math 304 course and are explicitly designed with minimal prerequisites; the 2026 version contains 479 pages and 284 exercises.

The opening chapters establish mathematical foundations through induction, recursion, bijections, counting, the well-ordering principle, and Euclidean division. This is followed by divisibility, greatest common divisors, Euclid’s algorithm, linear Diophantine equations, congruences, and the construction and interpretation of the integers and rationals.
The central theme then becomes the arithmetic structure of integers. Students encounter prime numbers through the Fundamental Theorem of Arithmetic, proofs of the infinitude of primes, Fermat primes, Bertrand’s postulate, and arithmetic functions such as Euler’s totient and the Möbius function. Modular arithmetic becomes a major organizing tool, leading to the Chinese Remainder Theorem, multiplicative orders, Fermat’s Little Theorem, Euler’s theorem, Wilson’s theorem, and Lucas’s theorem. The notes also explore Pythagorean triples, continued fractions, Vieta jumping, infinite descent, and the congruent-number problem, illustrating how apparently elementary equations can lead to sophisticated proof techniques.

A particularly strong feature is the transition from elementary integer arithmetic to more algebraic structures. The notes introduce Gaussian integers $\mathbb{Z}[i]$, polynomial arithmetic, primitive roots, polynomial congruences, Hensel’s lemma, irreducibility, Eisenstein’s criterion, cyclotomic polynomials, and Zsigmondy’s theorem. Fermat’s Two-Squares Theorem is approached through several different methods, including Euler’s infinite descent and a proof based on fixed points of involutions. This multiple-proof philosophy is important pedagogically: rather than presenting theorems as isolated facts, Rijke uses them to demonstrate different ways mathematical ideas can arise and interact. 

The final major section develops quadratic residues and quadratic reciprocity, culminating in Gauss’s lemma and Eisenstein’s proof. The notes therefore progress from very concrete questions about divisibility and integer equations toward increasingly abstract ideas involving algebraic structures, polynomial factorization, and quadratic forms. Historical development is deliberately integrated throughout: the material discusses mathematicians including Fermat, Euler, Gauss, Fibonacci, and ancient Greek and Indian mathematicians. Rijke explicitly emphasizes asking how mathematicians historically thought about problems and why particular structures emerge, making the notes as much a course in mathematical reasoning as a catalogue of number-theoretic results.

Key takeaways
  • Proof comes first: induction, well-ordering, bijections, and proof-writing provide the foundation for later number theory.
  • Euclidean division is fundamental: it leads naturally to divisibility, gcds, Euclid’s algorithm, and Diophantine equations.
  • Prime factorization organizes arithmetic: every integer greater than $1$ has a unique factorization into primes.
  • Congruences turn arithmetic into a structural system: $a\equiv b\pmod n$ becomes the basis for modular arithmetic.
  • The Chinese Remainder Theorem provides a systematic way to combine simultaneous congruences.
  • Fermat, Euler, and Wilson: their theorems reveal deep relationships between primes and modular arithmetic.
  • Pythagorean triples connect Diophantine equations, geometry, rational points, and parametrization.
  • Infinite descent is a powerful method for proving that certain integer solutions cannot exist.
  • Primitive roots and discrete logarithms introduce important ideas that later appear in algebra and cryptography.
  • Gaussian integers demonstrate how extending $\mathbb Z$ to $\mathbb Z[i]$ can make difficult integer problems easier.
  • Quadratic residues study when equations such as $x^2\equiv a\pmod p$ have solutions.
  • Quadratic reciprocity reveals a remarkable symmetry between different primes.
  • Multiple proofs matter: the notes repeatedly show that the same theorem can illuminate different mathematical ideas depending on how it is proved.
  • Historical context is part of the mathematics: the development from Fermat to Euler to Gauss is used to show how mathematical structures and methods evolved.
  • For teaching: the material is particularly valuable for connecting secondary-school topics—divisibility, primes, modular arithmetic, Diophantine equations, induction, and Pythagorean triples—to genuine university-level proof mathematics.

BOOK]]> Elementary Number Theory is a substantial set of upper-undergraduate lecture notes designed not merely to teach standard number theory, but also to develop proof-writing, structural thinking, and mathematical problem-solving. The notes are associated with Johns Hopkins University’s Math 304 course and are explicitly designed with minimal prerequisites; the 2026 version contains 479 pages and 284 exercises.

The opening chapters establish mathematical foundations through induction, recursion, bijections, counting, the well-ordering principle, and Euclidean division. This is followed by divisibility, greatest common divisors, Euclid’s algorithm, linear Diophantine equations, congruences, and the construction and interpretation of the integers and rationals.
The central theme then becomes the arithmetic structure of integers. Students encounter prime numbers through the Fundamental Theorem of Arithmetic, proofs of the infinitude of primes, Fermat primes, Bertrand’s postulate, and arithmetic functions such as Euler’s totient and the Möbius function. Modular arithmetic becomes a major organizing tool, leading to the Chinese Remainder Theorem, multiplicative orders, Fermat’s Little Theorem, Euler’s theorem, Wilson’s theorem, and Lucas’s theorem. The notes also explore Pythagorean triples, continued fractions, Vieta jumping, infinite descent, and the congruent-number problem, illustrating how apparently elementary equations can lead to sophisticated proof techniques.

A particularly strong feature is the transition from elementary integer arithmetic to more algebraic structures. The notes introduce Gaussian integers $\mathbb{Z}[i]$, polynomial arithmetic, primitive roots, polynomial congruences, Hensel’s lemma, irreducibility, Eisenstein’s criterion, cyclotomic polynomials, and Zsigmondy’s theorem. Fermat’s Two-Squares Theorem is approached through several different methods, including Euler’s infinite descent and a proof based on fixed points of involutions. This multiple-proof philosophy is important pedagogically: rather than presenting theorems as isolated facts, Rijke uses them to demonstrate different ways mathematical ideas can arise and interact. 

The final major section develops quadratic residues and quadratic reciprocity, culminating in Gauss’s lemma and Eisenstein’s proof. The notes therefore progress from very concrete questions about divisibility and integer equations toward increasingly abstract ideas involving algebraic structures, polynomial factorization, and quadratic forms. Historical development is deliberately integrated throughout: the material discusses mathematicians including Fermat, Euler, Gauss, Fibonacci, and ancient Greek and Indian mathematicians. Rijke explicitly emphasizes asking how mathematicians historically thought about problems and why particular structures emerge, making the notes as much a course in mathematical reasoning as a catalogue of number-theoretic results.

Key takeaways
  • Proof comes first: induction, well-ordering, bijections, and proof-writing provide the foundation for later number theory.
  • Euclidean division is fundamental: it leads naturally to divisibility, gcds, Euclid’s algorithm, and Diophantine equations.
  • Prime factorization organizes arithmetic: every integer greater than $1$ has a unique factorization into primes.
  • Congruences turn arithmetic into a structural system: $a\equiv b\pmod n$ becomes the basis for modular arithmetic.
  • The Chinese Remainder Theorem provides a systematic way to combine simultaneous congruences.
  • Fermat, Euler, and Wilson: their theorems reveal deep relationships between primes and modular arithmetic.
  • Pythagorean triples connect Diophantine equations, geometry, rational points, and parametrization.
  • Infinite descent is a powerful method for proving that certain integer solutions cannot exist.
  • Primitive roots and discrete logarithms introduce important ideas that later appear in algebra and cryptography.
  • Gaussian integers demonstrate how extending $\mathbb Z$ to $\mathbb Z[i]$ can make difficult integer problems easier.
  • Quadratic residues study when equations such as $x^2\equiv a\pmod p$ have solutions.
  • Quadratic reciprocity reveals a remarkable symmetry between different primes.
  • Multiple proofs matter: the notes repeatedly show that the same theorem can illuminate different mathematical ideas depending on how it is proved.
  • Historical context is part of the mathematics: the development from Fermat to Euler to Gauss is used to show how mathematical structures and methods evolved.
  • For teaching: the material is particularly valuable for connecting secondary-school topics—divisibility, primes, modular arithmetic, Diophantine equations, induction, and Pythagorean triples—to genuine university-level proof mathematics.

BOOK]]> <![CDATA[The prime number theorem: Analytic and elementary proofs]]> https://mklab.gr/showthread.php?tid=1360 Sun, 26 Jul 2026 04:47:41 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=1360 BY  Ciaran O’Rourke

Summary

This master's thesis, The Prime Number Theorem: Analytic and Elementary Proofs by Ciarán O'Rourke (Maynooth University, 2013), presents a clear and comprehensive study of one of the central results in number theory: the Prime Number Theorem (PNT), which states that the number of primes less than or equal to (x) is asymptotically (x/\log x). The thesis develops three distinct proofs of the theorem. 

It begins with Chebyshev's theorem, establishing essential upper and lower bounds for the prime-counting function that lay the groundwork for later arguments. It then presents a classical analytic proof, relying on complex analysis, Cauchy's residue theorem, and the properties of the Riemann zeta function, following the methods of Hadamard and de la Vallée Poussin.

 Next, it explores an elementary proof based entirely on number-theoretic techniques, including Selberg's formulas, Möbius inversion, Dirichlet convolution, and Abel summation, demonstrating that the PNT can be proved without complex analysis. Finally, the thesis concludes with Newman's remarkably short proof, which combines the Laplace transform with analytic continuation to provide a more concise analytic argument. 

Throughout, the author emphasizes the intuition and historical development behind each approach, illustrating how different branches of mathematics converge to explain the asymptotic distribution of prime numbers and highlighting the enduring significance of the Prime Number Theorem in modern mathematics.

THESIS [PDF]]]> BY  Ciaran O’Rourke

Summary

This master's thesis, The Prime Number Theorem: Analytic and Elementary Proofs by Ciarán O'Rourke (Maynooth University, 2013), presents a clear and comprehensive study of one of the central results in number theory: the Prime Number Theorem (PNT), which states that the number of primes less than or equal to (x) is asymptotically (x/\log x). The thesis develops three distinct proofs of the theorem. 

It begins with Chebyshev's theorem, establishing essential upper and lower bounds for the prime-counting function that lay the groundwork for later arguments. It then presents a classical analytic proof, relying on complex analysis, Cauchy's residue theorem, and the properties of the Riemann zeta function, following the methods of Hadamard and de la Vallée Poussin.

 Next, it explores an elementary proof based entirely on number-theoretic techniques, including Selberg's formulas, Möbius inversion, Dirichlet convolution, and Abel summation, demonstrating that the PNT can be proved without complex analysis. Finally, the thesis concludes with Newman's remarkably short proof, which combines the Laplace transform with analytic continuation to provide a more concise analytic argument. 

Throughout, the author emphasizes the intuition and historical development behind each approach, illustrating how different branches of mathematics converge to explain the asymptotic distribution of prime numbers and highlighting the enduring significance of the Prime Number Theorem in modern mathematics.

THESIS [PDF]]]> <![CDATA[Notes on analytic number theory [Kedlaya]]]> https://mklab.gr/showthread.php?tid=997 Thu, 09 Jul 2026 18:53:49 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=997 Notes on analytic number theory 
BY Kiran S. Kedlaya

Summary

Notes on Analytic Number Theory provides a comprehensive introduction to one of the most influential branches of modern mathematics, exploring how analytic techniques can be used to understand the behavior of integers and, above all, the distribution of prime numbers. Beginning with the fundamental relationship between the additive and multiplicative properties of integers, the text develops the essential tools of analytic number theory, including Dirichlet series, Euler products, the Riemann zeta function, and Dirichlet L-functions.

 These concepts are used to establish major results such as the Prime Number Theorem, Dirichlet’s theorem on primes in arithmetic progressions, and increasingly refined estimates for the distribution of primes, while also introducing the role of the Riemann Hypothesis and related conjectures in understanding error terms and the behavior of zeta-function zeroes.

BOOK]]> Notes on analytic number theory 
BY Kiran S. Kedlaya

Summary

Notes on Analytic Number Theory provides a comprehensive introduction to one of the most influential branches of modern mathematics, exploring how analytic techniques can be used to understand the behavior of integers and, above all, the distribution of prime numbers. Beginning with the fundamental relationship between the additive and multiplicative properties of integers, the text develops the essential tools of analytic number theory, including Dirichlet series, Euler products, the Riemann zeta function, and Dirichlet L-functions.

 These concepts are used to establish major results such as the Prime Number Theorem, Dirichlet’s theorem on primes in arithmetic progressions, and increasingly refined estimates for the distribution of primes, while also introducing the role of the Riemann Hypothesis and related conjectures in understanding error terms and the behavior of zeta-function zeroes.

BOOK]]> <![CDATA[Number Theory [Fleron]]]> https://mklab.gr/showthread.php?tid=750 Fri, 26 Jun 2026 18:20:20 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=750 Number Theory 
by Julian F. Fleron

Summary

Discovering the Art of Mathematics: Number Theory reimagines the familiar world of whole numbers as a gateway to creative exploration, shifting away from dry memorization to invite readers into active, hands-on discovery. Designed as an inquiry-based guide, it beautifully traces how patterns like the Fibonacci sequence and the golden ratio bridge abstract numbers with art, music, architecture, and the natural world. 

It walks readers through the mechanics of cyclical numbers—showing how these concepts power modern cryptography and unlock the mysteries of prime numbers—while framing famous historical milestones, like Fermat’s Last Theorem and Goldbach’s conjecture, as living puzzles rather than static facts. Ultimately, it’s a text meant to make complex mathematical theory feel accessible, engaging, and alive, proving that numbers are not just tools for calculation, but a canvas for human curiosity.

BOOK]]> Number Theory 
by Julian F. Fleron

Summary

Discovering the Art of Mathematics: Number Theory reimagines the familiar world of whole numbers as a gateway to creative exploration, shifting away from dry memorization to invite readers into active, hands-on discovery. Designed as an inquiry-based guide, it beautifully traces how patterns like the Fibonacci sequence and the golden ratio bridge abstract numbers with art, music, architecture, and the natural world. 

It walks readers through the mechanics of cyclical numbers—showing how these concepts power modern cryptography and unlock the mysteries of prime numbers—while framing famous historical milestones, like Fermat’s Last Theorem and Goldbach’s conjecture, as living puzzles rather than static facts. Ultimately, it’s a text meant to make complex mathematical theory feel accessible, engaging, and alive, proving that numbers are not just tools for calculation, but a canvas for human curiosity.

BOOK]]> <![CDATA[Lectures notes on number theory [Gerbessiotis]]]> https://mklab.gr/showthread.php?tid=745 Fri, 26 Jun 2026 17:39:47 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=745 Lectures notes on number theory 
by Alexandros V. Gerbessiotis

Summary

This lecture note provides a clear and practical introduction to number theory for computer science students, making fundamental mathematical ideas accessible without assuming extensive prior knowledge. It begins with core concepts such as divisibility, prime numbers, modular arithmetic, and congruences before gradually introducing more advanced topics, including Euler's totient function, the Chinese Remainder Theorem, primitive roots, quadratic residues, and the mathematical foundations of modern cryptography. 

The notes also explain classical primality-testing algorithms like Miller–Rabin and Solovay–Strassen, and conclude with higher-level concepts such as multiplicative functions, the Möbius function, Dirichlet products, and inversion formulas. Designed as both a textbook companion and a self-study resource, the material bridges pure mathematics and real-world computing applications, making it especially valuable for students interested in algorithms, discrete mathematics, cybersecurity, and cryptography. 


NOTES (PDF)]]> Lectures notes on number theory 
by Alexandros V. Gerbessiotis

Summary

This lecture note provides a clear and practical introduction to number theory for computer science students, making fundamental mathematical ideas accessible without assuming extensive prior knowledge. It begins with core concepts such as divisibility, prime numbers, modular arithmetic, and congruences before gradually introducing more advanced topics, including Euler's totient function, the Chinese Remainder Theorem, primitive roots, quadratic residues, and the mathematical foundations of modern cryptography. 

The notes also explain classical primality-testing algorithms like Miller–Rabin and Solovay–Strassen, and conclude with higher-level concepts such as multiplicative functions, the Möbius function, Dirichlet products, and inversion formulas. Designed as both a textbook companion and a self-study resource, the material bridges pure mathematics and real-world computing applications, making it especially valuable for students interested in algorithms, discrete mathematics, cybersecurity, and cryptography. 


NOTES (PDF)]]> <![CDATA[Analytic Number Theory [Strömbergson]]]> https://mklab.gr/showthread.php?tid=142 Mon, 08 Jun 2026 19:15:29 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=142 Analytic Number Theory - Lecture Notes
Andreas Strömbergsson

These notes by Andreas Strömbergsson (Uppsala University) provide a highly detailed, rigorous expansion of Davenport’s classic Multiplicative Number Theory.

BOOK PAGE]]> Analytic Number Theory - Lecture Notes
Andreas Strömbergsson

These notes by Andreas Strömbergsson (Uppsala University) provide a highly detailed, rigorous expansion of Davenport’s classic Multiplicative Number Theory.

BOOK PAGE]]> <![CDATA[Introduction to Analytic Number Theory [Hildebrand]]]> https://mklab.gr/showthread.php?tid=141 Mon, 08 Jun 2026 19:11:13 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=141  Introduction to Analytic Number Theory
A.J. Hildebrand

A.J. Hildebrand’s Introduction to Analytic Number Theory (often used for the University of Illinois' Math 531 course) is a rigorous yet accessible text bridging number theory and calculus. It equips students with the analytic tools to study the distribution of prime numbers and the properties of integers

BOOK PAGE]]>  Introduction to Analytic Number Theory
A.J. Hildebrand

A.J. Hildebrand’s Introduction to Analytic Number Theory (often used for the University of Illinois' Math 531 course) is a rigorous yet accessible text bridging number theory and calculus. It equips students with the analytic tools to study the distribution of prime numbers and the properties of integers

BOOK PAGE]]> <![CDATA[Algebraic Number Theory Course Notes [Baker]]]> https://mklab.gr/showthread.php?tid=140 Mon, 08 Jun 2026 19:08:37 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=140 Algebraic Number Theory Course Notes
Matthew Baker

These are the lecture notes from a graduate-level Algebraic Number Theory course taught at the Georgia Institute of Technology in Fall 2006. The notes are a revised version of those written for an Algebraic Number Theory course taught at the University of Georgia in Fall 2002.

BOOK PAGE]]> Algebraic Number Theory Course Notes
Matthew Baker

These are the lecture notes from a graduate-level Algebraic Number Theory course taught at the Georgia Institute of Technology in Fall 2006. The notes are a revised version of those written for an Algebraic Number Theory course taught at the University of Georgia in Fall 2002.

BOOK PAGE]]> <![CDATA[Algebraic Number Theory [Milne]]]> https://mklab.gr/showthread.php?tid=139 Mon, 08 Jun 2026 19:05:56 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=139 Algebraic Number Theory - 
Author J.S. Milne

Summary :  The lecture notes on Algebraic Number Theory by J.S. Milne provide a rigorous, graduate-level introduction to the arithmetic of number fields. The course covers the transition from unique factorization in \(\mathbb{Z}\) to Dedekind domains, algebraic integers, class groups, the geometry of numbers, and introduces the foundational pillars of class field theory

BOOK PAGE]]> Algebraic Number Theory - 
Author J.S. Milne

Summary :  The lecture notes on Algebraic Number Theory by J.S. Milne provide a rigorous, graduate-level introduction to the arithmetic of number fields. The course covers the transition from unique factorization in \(\mathbb{Z}\) to Dedekind domains, algebraic integers, class groups, the geometry of numbers, and introduces the foundational pillars of class field theory

BOOK PAGE]]> <![CDATA[An Introduction to the Theory of Numbers [Moser]]]> https://mklab.gr/showthread.php?tid=138 Mon, 08 Jun 2026 19:01:29 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=138
An Introduction to the Theory of Numbers
by Leo Moser

Summary :  This book, which presupposes familiarity only with the most elementary concepts of arithmetic (divisibility properties, greatest common divisor, etc.), is an expanded version of a series of lectures for graduate students on elementary number theory. Topics include: Compositions and Partitions; Arithmetic Functions; Distribution of Primes; Irrational Numbers; Congruences; Diophantine Equations; Combinatorial Number Theory; and Geometry of Numbers. Three sections of problems (which include exercises as well as unsolved problems) complete the text.

BOOK PAGE
]]>
An Introduction to the Theory of Numbers
by Leo Moser

Summary :  This book, which presupposes familiarity only with the most elementary concepts of arithmetic (divisibility properties, greatest common divisor, etc.), is an expanded version of a series of lectures for graduate students on elementary number theory. Topics include: Compositions and Partitions; Arithmetic Functions; Distribution of Primes; Irrational Numbers; Congruences; Diophantine Equations; Combinatorial Number Theory; and Geometry of Numbers. Three sections of problems (which include exercises as well as unsolved problems) complete the text.

BOOK PAGE
]]> <![CDATA[Number Theory and Geometry [Lozano-Robledo]]]> https://mklab.gr/showthread.php?tid=116 Sat, 06 Jun 2026 23:46:57 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=116 Summary: 
The book serves as an introduction to number theory and arithmetic geometry, using geometric concepts to motivate and prove fundamental number theory theorems. For example, it uses the geometry of lines and quadratic curves to derive the Fundamental Theorem of Arithmetic, Gauss's law of quadratic reciprocity, and the theory of continued fractions.
Structure & Content
  • The "Three Acts": After introducing Diophantine equations, the text is structured around finding integral and rational solutions for linear, quadratic, and cubic curves.
  • Applications: Includes modern applications like cryptography alongside recent research results in arithmetic geometry.

BOOK PAGE

AND THE PDF IS HERE ---> PDF]]> Summary: 
The book serves as an introduction to number theory and arithmetic geometry, using geometric concepts to motivate and prove fundamental number theory theorems. For example, it uses the geometry of lines and quadratic curves to derive the Fundamental Theorem of Arithmetic, Gauss's law of quadratic reciprocity, and the theory of continued fractions.
Structure & Content
  • The "Three Acts": After introducing Diophantine equations, the text is structured around finding integral and rational solutions for linear, quadratic, and cubic curves.
  • Applications: Includes modern applications like cryptography alongside recent research results in arithmetic geometry.

BOOK PAGE

AND THE PDF IS HERE ---> PDF]]> <![CDATA[ΘΕΩΡΙΑ ΑΡΙΘΜΩΝ [EME]]]> https://mklab.gr/showthread.php?tid=93 Fri, 05 Jun 2026 15:51:03 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=93
ΒΟΟΚ PAGE]]>
ΒΟΟΚ PAGE]]> <![CDATA[Topology of Numbers [Allen Hatcher]]]> https://mklab.gr/showthread.php?tid=67 Mon, 01 Jun 2026 21:41:15 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=67 Title : Topology of Numbers 
Author : Allen Hatcher

This text presents "number theory" through a "geometric" and "topological" viewpoint. It connects integers, modular arithmetic, and divisibility with spatial structures, helping readers visualize patterns and gain intuitive understanding of numbers, making complex arithmetic concepts clear and engaging.


SOURCE]]> Title : Topology of Numbers 
Author : Allen Hatcher

This text presents "number theory" through a "geometric" and "topological" viewpoint. It connects integers, modular arithmetic, and divisibility with spatial structures, helping readers visualize patterns and gain intuitive understanding of numbers, making complex arithmetic concepts clear and engaging.


SOURCE]]> <![CDATA[Introductory Elementary Number Theory [Wissam Raji]]]> https://mklab.gr/showthread.php?tid=66 Mon, 01 Jun 2026 21:37:53 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=66 Title : Introductory Elementary Number Theory

Author :  Wissam Raji

This is an easy-to-follow guide to "number theory". It teaches "prime numbers", divisibility, and "congruences" with clear explanations and exercises, helping students and beginners understand the basic properties of integers and build a strong foundation in mathematics.


SOURCE]]> Title : Introductory Elementary Number Theory

Author :  Wissam Raji

This is an easy-to-follow guide to "number theory". It teaches "prime numbers", divisibility, and "congruences" with clear explanations and exercises, helping students and beginners understand the basic properties of integers and build a strong foundation in mathematics.


SOURCE]]> <![CDATA[A Computational Introduction to Number Theory [Shoup]]]> https://mklab.gr/showthread.php?tid=65 Mon, 01 Jun 2026 21:31:55 +0300 mklabgr]]> https://mklab.gr/showthread.php?tid=65 Title : A Computational Introduction to Number Theory and Algebra
Author :  Victor Shoup

This textbook covers "number theory", "abstract algebra", and "cryptography". The book explains integers, congruences, finite fields, elliptic curves, and discrete logarithms, emphasizing algorithms and practical computation. It provides clear examples and exercises, making advanced concepts accessible for students and computer science professionals.


SOURCE]]> Title : A Computational Introduction to Number Theory and Algebra
Author :  Victor Shoup

This textbook covers "number theory", "abstract algebra", and "cryptography". The book explains integers, congruences, finite fields, elliptic curves, and discrete logarithms, emphasizing algorithms and practical computation. It provides clear examples and exercises, making advanced concepts accessible for students and computer science professionals.


SOURCE]]>