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标题: 数字的奇妙:素数 [打印本页]

作者: clanswer    时间: 2010-4-13 11:41
标题: 数字的奇妙:素数
本帖最后由 clanswer 于 2010-4-13 11:43 编辑 $ u8 C' H9 U6 D& v9 c4 A

4 v9 N3 v% A# ^' {8 }+ o! Q* N% f' R( A以下是目录,如果觉得合你胃口,可以在后面直接下载附件。
Entries A to Z. % W2 q/ q2 `" q  c8 Z
abc conjecture.
' `  f, C  `5 K! z6 U* Labundant number. 4 h$ \6 m% ^* J# p% j" H8 f
AKS algorithm for primality testing. ; y. j8 G; d4 H! [
aliquot sequences (sociable chains).
9 h2 W) g# D2 A- M3 malmost-primes.
4 E8 L* p: j# Y6 kamicable numbers. . a* \/ d9 g1 P! m/ N6 L* r
amicable curiosities. 5 `; P" X% i2 Q) X9 M/ y' s! |* x
Andrica’s conjecture. 1 X5 I+ B! ^0 Z5 W+ \
arithmetic progressions, of primes. . |& Q+ m: g7 L3 R+ f4 m3 L
Aurifeuillian factorization. 8 R: B* b' g9 f, _% d9 b/ X
average prime.
: Z) G- O2 l! G8 Q5 E% G# t$ pBang’s theorem. 3 t9 f2 R% P4 C, p* c+ H
Bateman’s conjecture. # {! {: t3 ]3 r  V5 ?
Beal’s conjecture, and prize.
) T7 I0 \8 C) e$ N0 Q! ^/ JBenford’s law.   d+ s7 q6 {3 P2 x$ I
Bernoulli numbers.
& F0 y5 n, B* P8 J3 t5 ABernoulli number curiosities. % D" H- ]% P( v
Bertrand’s postulate.
) w" _# Y- i" ?; V7 g: g7 nBonse’s inequality.
8 {' c8 k$ F# ?& c1 w: I, u5 m3 BBrier numbers. 1 r3 o0 y0 f2 L) Y# o7 ]
Brocard’s conjecture. $ l% |$ B% C6 H/ _  e- ~9 T, h, i
Brun’s constant.
% I/ ^) V: u8 G. `. g8 U1 A8 MBuss’s function.
! }  ~; t- m( I) M1 cCarmichael numbers. , w( a: ~. ^( ^# U5 M2 i
Catalan’s conjecture.
. h) K& O+ W6 U. q( FCatalan’s Mersenne conjecture.
! K& R1 S0 N5 v/ H# k/ QChampernowne’s constant.
+ \! t1 R) t6 S: I4 |champion numbers. ( ?, N6 k2 a3 X) \* b1 k
Chinese remainder theorem.
% _6 O; ]0 a; J6 vcicadas and prime periods. # K/ m2 u5 h( r7 W
circle, prime.
  o. g* H" [+ n8 p6 G! ~circular prime. 2 Z0 E3 J# C0 m8 @* ~, |& B
Clay prizes, the.
/ Q: R8 o1 Z/ K$ Kcompositorial.
5 [% Y/ q2 G1 f6 oconcatenation of primes. 3 O* N2 f+ }# i% ~: R- R
conjectures.
7 [: i8 u1 v! y8 E3 J: J3 V3 w' Aconsecutive integer sequence. 4 F# @- B1 B: o: n
consecutive numbers. 6 \; `7 E& o* u4 }4 b
consecutive primes, sums of. / @1 ^* C7 O# E- p* v9 U# t0 ~
Conway’s prime-producing machine.
6 P( t4 J* D* I. hcousin primes. ) J6 T1 N. m. e' C4 G
Cullen primes. ! H/ t$ \1 `9 y& k
Cunningham project. 5 B. z" V5 k* h1 b- q  J8 v# _4 v
Cunningham chains. & E$ y' c6 p! Q0 J, X3 j& Q
decimals, recurring (periodic).
( F8 h' d% N" y5 s% M% Othe period of 1/13.
  H: i) _5 r% u5 C# ^cyclic numbers.
, w( O# C/ ^; |1 Z. J* qArtin’s conjecture. ! n4 d8 P' d! |& W. T* U% j
the repunit connection.
7 J; O2 [5 ~2 ]8 Pmagic squares.
, O! ], T, L4 ydeficient number. + x5 o! l7 z- ~
deletable and truncatable primes. / n* H" i2 l% Z7 ]
Demlo numbers.
5 J% Z" _, E: @) F9 a- ndescriptive primes.
' }. _! _1 y2 U; U2 QDickson’s conjecture.
; B- Q# i+ S* C+ xdigit properties.
+ d. c) i- M7 ]! VDiophantus (c. AD 200; d. 284).
3 E& x+ z' C+ j0 HDirichlet’s theorem and primes in arithmetic series.
6 x. z3 i( W: Q$ Cprimes in polynomials. , h  w3 H3 F; Q
distributed computing.
7 c* R' h9 K' Y% d: ^divisibility tests.
: |) N; _" d9 [' ]' D! Tdivisors (factors). & E4 Z; k! p5 j* q1 T1 `
how many divisors? how big is d(n)? , T) k& f2 s; V& `- f! v. V
record number of divisors.
- r3 r6 h4 X* wcuriosities of d(n). 2 o. a$ A- B0 `  S5 q
divisors and congruences.
/ f: D2 ?$ T# Z6 [* Jthe sum of divisors function.
; Y6 ~  [; F7 J- F6 vthe size of σ(n). : I  U, {2 k+ L
a recursive formula. & l- ^4 g  P# N" y! y# }  u" G
divisors and partitions.
1 [# @6 I; u8 M5 B7 m' Scuriosities of σ(n). : p+ p5 x. G) Y. P$ r7 u
prime factors.
9 X' T4 l1 v0 F* [  ndivisor curiosities. 8 t5 f5 _) v' W5 ~( ^& U
economical numbers. , n5 I* H; V% t
Electronic Frontier Foundation.
& S2 L4 A& Z0 Y1 E/ U/ o$ Relliptic curve primality proving. . B) _( M4 @" K5 _
emirp. 3 b2 n8 `: s) ?  e  w! h1 U, L
Eratosthenes of Cyrene, the sieve of.
1 K/ I* i2 I4 mErd?s, Paul (1913–1996). 7 S5 g% N3 }1 L
his collaborators and Erd?s numbers.
; T1 l( F, |4 c: Aerrors.
& S: ?' X: H& ]0 U; d3 }Euclid (c. 330–270 BC).
6 M' C" J+ k3 _8 B- O) G9 A/ Nunique factorization. 2 Z& w: G( W5 O* d. b
&Radic;2 is irrational. 2 S# U$ Z  {) U  ^5 K8 b' e
Euclid and the infinity of primes. 2 m, I* {0 O: d7 m9 U4 W0 \
consecutive composite numbers.
9 ]3 E6 w7 _2 K+ j" ^primes of the form 4n +3.
& ~8 F+ U& Z  Ia recursive sequence. ) F3 l5 \% k* h- |4 Z7 g' a
Euclid and the first perfect number.
- B( F2 M! S' L1 ~Euclidean algorithm.
9 U1 O' U  w/ y1 n" X) uEuler, Leonhard (1707–1783). 8 L) U) ]$ b6 k+ }  L
Euler’s convenient numbers.
$ v* C2 S* [  Jthe Basel problem. / U  U% \* ]' Z4 Q
Euler’s constant.
) [$ j0 T) g* C$ [Euler and the reciprocals of the primes. $ X  R0 @" ~) D/ D* ]; ]
Euler’s totient (phi) function.
/ I# i& k( X' a2 m: tCarmichael’s totient function conjecture.
( j6 }% h: G4 m3 y7 xcuriosities of φ(n).
9 x" }2 \) S( }8 N& ]: M. gEuler’s quadratic. & b! W. W: Y  m% F3 s8 }
the Lucky Numbers of Euler.
, X" P) b* u- L% |' c/ z0 X# \factorial.
7 D. g: `; k0 M) B( }: ~, pfactors of factorials.
+ ~  d( ]" X8 L1 l( V* u+ b/ I1 p( xfactorial primes. . ~+ ~* l! h. J
factorial sums. 6 w/ w: @! C1 D; L! `: x6 e1 C" l
factorials, double, triple . . . .
& O1 O, z* ?* I$ o! J2 ufactorization, methods of. 0 q" C9 X+ F# D, m0 G) T! R0 t
factors of particular forms.
5 u0 G& ~4 g2 RFermat’s algorithm. 2 x% D. {) O. F% q& r7 {2 ?
Legendre’s method.
+ R+ H) d) S3 N8 V: ^9 kcongruences and factorization.
# e1 L& w# d" Q. chow difficult is it to factor large numbers? - t% c3 L; Y7 s% p3 T( @1 f6 K
quantum computation. 3 Q3 T; a, G# K1 y" `" T0 B
Feit-Thompson conjecture. : Y; M1 q: O/ f! B; h; |6 Y
Fermat, Pierre de (1607–1665). ! ]% p2 w  p1 h
Fermat’s Little Theorem. 7 v9 w" L! \! V0 h1 q* ]
Fermat quotient. / J4 m; |9 E1 C; o3 D
Fermat and primes of the form x<sup>2</sup> + y<sup>2</sup>. $ x1 `4 Y5 a! X
Fermat’s conjecture, Fermat numbers, and Fermat primes. 2 c, o' o/ G& k* X3 z' }
Fermat factorization, from F<sub>5</sub> to F<sub>30</sub>.
# o. u; n# e" R& B7 r1 mGeneralized Fermat numbers.
1 q3 R4 J8 |: B7 T) eFermat’s Last Theorem. , O; e8 J" u# \* S+ x
the first case of Fermat’s Last Theorem. " m" H  P7 `2 {$ g
Wall-Sun-Sun primes.
+ }4 L; z& }* N% k8 dFermat-Catalan equation and conjecture. ' B- q8 P$ |" F8 J2 @3 z
Fibonacci numbers. & k/ ~0 m2 Y# V) Y: G
divisibility properties. $ v/ {! m" ^8 w$ M( @. j
Fibonacci curiosities.
3 f4 a# U2 _; u  B6 N" o. aédouard Lucas and the Fibonacci numbers.
1 u# S& B( D: l! C! m3 BFibonacci composite sequences.
# `9 T8 I6 I" F) t4 v& p; m+ U7 h2 Q! Lformulae for primes.
7 o/ p! n" H* u0 \( iFortunate numbers and Fortune’s conjecture. ! l/ g; R- f/ u+ Z; e
gaps between primes and composite runs. 9 k9 H9 ^0 o) c5 T
Gauss, Johann Carl Friedrich (1777–1855).
! I8 b/ u0 k( k2 s+ f- ?Gauss and the distribution of primes.
" F  n1 l  i' ^Gaussian primes.
* K8 d7 K4 n, e7 V( \; [' mGauss’s circle problem. ) J  w( a! b7 i$ X) r  H. W
Gilbreath’s conjecture. 9 E. c9 ?" Q& V7 A" T4 r
GIMPS—Great Internet Mersenne Prime Search.
% B; _8 b- e' ?7 OGiuga’s conjecture.
# `; }- C  B+ W% u- h0 h$ WGiuga numbers.
5 w; D; M* `2 K( i: x% cGoldbach’s conjecture. ' T" E- _& S  n
good primes. ( V1 X$ G. M: s' p
Grimm’s problem.
+ d! J( d! X0 R: u- {. ^Hardy, G. H. (1877–1947). 1 o% V# J7 Q* O3 H6 q$ `+ q9 _
Hardy-Littlewood conjectures. 1 l1 T% D6 n* M* j
heuristic reasoning.
% h; q4 I5 D2 X2 \a heuristic argument by George Pólya. 5 h0 U2 K' c/ W6 b5 }/ _5 }( |
Hilbert’s 23 problems.
# P3 C6 C& l8 W: }4 `% ^home prime. 5 o' _7 @$ n1 t; b! M: {
hypothesis H.
1 F+ e) ~3 z' n8 s7 I+ M/ z. Z/ d  E9 I9 aillegal prime.
6 L/ b1 t4 q* R7 Ninconsummate number.
" f# x6 r6 T' c7 D5 X( a' s. L* Dinduction. / [5 S+ F0 v5 e- z. X: k
jumping champion.
" l$ u! Q6 j6 S$ pk-tuples conjecture, prime. ! P# r( o# X: J( c4 D
knots, prime and composite. 7 E& T$ o0 h) P4 r/ A. l
Landau, Edmund (1877–1938). + L) a4 i/ B$ U6 X
left-truncatable prime. $ H% U. p' F# H0 v' j9 @% I
Legendre, A. M. (1752–1833). & Q2 S4 d7 d. T: M1 V4 k8 ]
Lehmer, Derrick Norman (1867–1938).
0 T9 i4 d. Q6 I1 ^# l, ^/ ]3 jLehmer, Derrick Henry (1905–1991).
0 Z: N7 ]4 g1 Q+ \! s9 W, |; g& aLinnik’s constant. & f5 t8 B5 C" Y0 \. C$ O/ K
Liouville, Joseph (1809–1882). . b# M! A( @* u- x+ J7 [4 [
Littlewood’s theorem.
% {' [# U7 G* y9 B- D2 Ythe prime numbers race. 2 S2 Q( z: g. e+ o+ v
Lucas, édouard (1842–1891). . f1 w( _7 H/ Z1 r8 b; X
the Lucas sequence.
) Z! U! _$ p  k/ a9 x3 q4 @, sprimality testing. ! r+ G1 S( ~2 U! `+ D  V, r
Lucas’s game of calculation.
7 _+ P, f: T6 Y( o8 fthe Lucas-Lehmer test. 9 L: P, |, ]8 J, W  \
lucky numbers.
; d/ Q/ Y4 n7 b$ _+ g7 Ithe number of lucky numbers and primes.
4 _! |! o" t. j6 X' [/ Q0 t0 V“random” primes. 7 A8 p0 Z7 U3 O% n) ]) s4 j& A
magic squares. # W/ h# E* u) {5 V) w& p, ^
Matijasevic and Hilbert’s 10th problem.
6 T5 D$ i9 ]3 }5 f( m; @+ {& @Mersenne numbers and Mersenne primes.
" U. d- ]+ W& B6 \, [Mersenne numbers.
1 |4 G9 n8 _% C5 s1 i* }* chunting for Mersenne primes.
* u/ a4 F" s, a! Q- H/ kthe coming of electronic computers.
- R4 i8 f4 B. {2 RMersenne prime conjectures.
; g9 O+ R1 \+ s$ P5 h* |2 M; I5 Cthe New Mersenne conjecture.
' G  p  W4 V6 F3 C! y6 n* s9 yhow many Mersenne primes? 4 q3 u: t8 h3 o
Eberhart’s conjecture.
; i& v: x" H' t2 }* yfactors of Mersenne numbers. 0 z0 ^! h% ?" D) u2 b
Lucas-Lehmer test for Mersenne primes.
) V7 ?4 d  K' w4 p/ M3 `+ h  H9 pMertens constant.
8 R  P: d/ `8 ?4 XMertens theorem. ( z$ b- e1 G! I; N& s9 U1 w% c
Mills’ theorem.
! b1 a( W4 u$ @& Q. n( r' b+ mWright’s theorem.
7 z- U: O9 ]1 l  ?+ m5 q0 ~mixed bag. 1 a5 Q- K5 z1 N& E3 e
multiplication, fast.
# Z0 C, x9 f0 v7 |5 U: k5 S6 GNiven numbers. , _) h1 o7 T* e6 |
odd numbers as p + 2a<sup>2</sup>. 7 a6 K& |+ h  ^# B' Z
Opperman’s conjecture.
! d% L; D) ?( e: q1 Spalindromic primes.
! O+ |8 ^( \' }1 f* A* u) C; R1 }pandigital primes.
; D. v' k# |. a! E/ [5 [( o5 dPascal’s ** and the binomial coefficients.
( Y1 |- P8 x' \% X7 ?" yPascal’s ** and Sierpinski’s gasket.
! C; L3 G+ {0 G  ^/ u) |7 @Pascal ** curiosities. 3 U( E3 }3 x5 z1 R' O2 k
patents on prime numbers.
+ {% y2 t: h7 e. Y8 t8 T9 y& V  D! wPépin’s test for Fermat numbers. ; h/ [" k) F/ b: V8 ]
perfect numbers.
1 l: }- g. i- G: R$ kodd perfect numbers.
3 h( p% E: P/ d5 [. y* k% Xperfect, multiply.
. ]% [6 x* v6 i" t1 k. Tpermutable primes. / M4 ?# H9 I1 h# S5 E
π, primes in the decimal expansion of. 0 L) E1 u) {8 f, d
Pocklington’s theorem.
. g( _; U# f6 Z+ R- ePolignac’s conjectures. ' K; z6 d# Z  n) G( h
Polignac or obstinate numbers.
! k( C8 O* k! Y' t7 `powerful numbers. / C- O: I, f5 E* v* S4 [
primality testing.
+ {" G' @" _: Z1 tprobabilistic methods. ) f3 f) Y9 u8 D
prime number graph.
  ~2 f8 q; U. |$ E0 v; H# ^prime number theorem and the prime counting function. " D$ i; [& D, y% q, |
history. 2 [' `; h4 _+ h
elementary proof. " G) D, F) e6 M2 _
record calculations.
, l9 _4 O. K0 `+ W+ Yestimating p(n). & o3 p) G' }' F  g# B
calculating p(n).
; K0 r% x  E, f  w  Y* r( P# _a curiosity. 9 I: z* T+ _  \: N# c- K) N9 N
prime pretender. 2 z7 h0 f8 r( y' a9 B
primitive prime factor. % o2 X! ]( C' B( r' H7 A( H
primitive roots.
$ w# D; j! _0 q- M# |# I3 v1 iArtin’s conjecture.
/ ]0 C: }2 `, n0 f& w9 I4 ra curiosity. 1 s* l* N4 H5 J: F* E
primordial.
) f7 c; Y! V4 Y8 bprimorial primes.
* Z3 E# V) |6 z! p% i2 c& a9 |8 q7 H, IProth’s theorem.
- x- r0 k: w* h& r% |. ~pseudoperfect numbers. 1 w( l$ u4 u. a# D
pseudoprimes. 0 z9 q; `( j& {
bases and pseudoprimes. ( c! L* i; U+ I  J! q" s
pseudoprimes, strong. 8 c( o2 \/ g7 I$ h
public key encryption.
& b3 l. V7 n4 ~0 lpyramid, prime.
! H% K6 o# B& N/ q4 F6 F4 APythagorean **s, prime.
  ]3 @0 I- |& r' |quadratic residues.
  ~9 F: E; A* E1 d/ Yresidual curiosities. 4 j# r2 B) z2 q. C6 Z8 I# J- M/ V. d3 k
polynomial congruences.
7 K5 A1 @* e4 H7 Jquadratic reciprocity, law of. 8 K  p: K* J5 ~, b) l9 r5 ]# c* x
Euler’s criterion.
& _' t) U- G8 N7 u/ p: a, pRamanujan, Srinivasa (1887–1920).
- T7 R% C$ s% h" Dhighly composite numbers.
/ Y: m" i9 I9 yrandomness, of primes.
7 v. N1 F( f- }" E# XVon Sternach and a prime random walk. 9 _1 T9 h  w' y% \5 m
record primes.
4 V' |' u( H  B! Wsome records. ! {6 z, V2 A! n2 k& t3 F
repunits, prime.
* ~) Z+ \+ C8 w3 S4 F1 ORhonda numbers.
( }+ ]8 }; h9 T3 V: wRiemann hypothesis. 0 v0 s1 m# J5 }, M
the Farey sequence and the Riemann hypothesis.
5 M1 `1 A: V1 x* y' ~1 T4 Dthe Riemann hypothesis and σ(n), the sum of divisors function.
# S3 O1 P& ?7 H3 hsquarefree and blue and red numbers. 4 `8 Z, X' O. v6 v, y1 ^
the Mertens conjecture. " U) K4 k( |; B0 s" U& ~8 E
Riemann hypothesis curiosities. " v) N- b8 j* H+ [' {
Riesel number.
+ h" f  F. g5 rright-truncatable prime.
9 r7 }( z' h+ S: H3 z) e: m, ~* GRSA algorithm.
: ]6 ?" H( r+ ?  d) `" ~Martin Gardner’s challenge. 7 U$ H+ Y) f4 I
RSA Factoring Challenge, the New.
+ q7 T) g8 l0 z- l9 ~3 MRuth-Aaron numbers. 9 y- N- N; _) \, ]' V
Scherk’s conjecture.
* F1 n- O+ A" W2 ]) psemi-primes.
3 d0 \* p$ i% g**y primes.   y$ f4 w& o! G
Shank’s conjecture. 9 E. L7 B' Z3 n; R0 M' l( }
Siamese primes. 1 d4 y* j; ~7 l( J; }/ V
Sierpinski numbers.
9 z& H1 R$ Y: }1 ]7 X3 iSierpinski strings.
/ H+ Q! W$ P) ^! P' g& |Sierpinski’s quadratic.
& z8 ~3 q+ }) j0 A% T! SSierpinski’s φ(n) conjecture. 1 W/ ?( M9 T6 X% ^' ~5 E, D
Sloane’s On-Line Encyclopedia of Integer Sequences.
# ^/ b( o. U: Q8 ]( O- KSmith numbers.
3 G- F8 V7 P7 t9 I- v. r1 S. u5 M" s$ FSmith brothers. 6 y* ?0 c" U! q" t) O
smooth numbers.
8 u  ]% D  Z: i7 ZSophie Germain primes. ' b$ [* Y: C; t  [
safe primes.
) T) p( g* O! Q& Y( Zsquarefree numbers.
  K; Y- g* M) g$ R; I; M( R- qStern prime.
) v0 V- G: G* ~! k8 _. gstrong law of small numbers.
  U( B" ^- p' o' x/ s6 Otriangular numbers.
1 _7 {7 p$ C/ ~) T, r  v! _6 vtrivia. 6 y7 V9 ^% j  T) S8 ]; ~; Z
twin primes. # z1 z+ S4 I( `$ X5 k! s
twin curiosities.
# S7 J, v3 J& B' h* x. `Ulam spiral.
. q! F8 j2 n- V8 eunitary divisors. 6 i3 t! u& Z) s; C
unitary perfect. + q8 v8 b* ?2 {$ q
untouchable numbers. , G3 F2 I) R# N, Y( ~
weird numbers. , m) }5 Q5 Q+ R) W5 n* y
Wieferich primes.
: |" M' K* E. @& o9 BWilson’s theorem.
# g# Z6 c: W* E# J( Z8 Htwin primes.
8 u5 \5 ~8 h2 M( H5 h+ r, h; s9 JWilson primes. 1 A6 C) J$ q' ?1 o! E
Wolstenholme’s numbers, and theorems. ; C9 ~! b9 K0 {( D- b7 }
more factors of Wolstenholme numbers. 3 N( Y0 f2 J$ f1 P
Woodall primes. 2 C5 A* G& t' m$ @
zeta mysteries: the quantum connection.

0 b& p- c4 W) Z/ k; Z' F0 Z+ H$ G% A% o3 B  j
附件: 素数.rar (1.44 MB, 下载次数: 12)
作者: risiketu    时间: 2010-4-27 18:48
解压密码是什么啊?在哪里能找到解压密码呢?
作者: risiketu    时间: 2010-4-27 18:48
不好意思  我找到了解压密码了  谢谢大家
作者: mightyrock    时间: 2010-5-8 20:12
楼主强大,支持楼主,不过我就不下了吧~~~~~~~~~~~~
作者: clanswer    时间: 2010-5-8 20:18
回复 4# mightyrock
( z; y7 a! z- E" @' n8 V
& E* [0 V' g2 s: N  C1 f
& g: q6 ?& r/ U: q% O    多谢支持
作者: 风痕    时间: 2010-5-14 22:39
似乎看不懂………………………………………………
作者: clanswer    时间: 2010-5-14 22:44
回复 6# 风痕
# W* @7 R9 Y! g; O# ?/ D+ K# ?" \/ D2 C

1 T7 ~- V; M% Z    哦?是吗?呵呵




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