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据蒋春暄网站,来源地址:http://sea3000.net/jiangchunxuan/20100302123005.php
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Gaps Among Products of m
Primes
Chun-Xuan Jiang
P. O. Box 3924, Beijing
100854, P. R. China
Jiangchunxuan@vip.sohu.com
Abstract
Using Jiang function we
prove gaps among products of prime:
 infinitely-often,
where denotes
the th prime.
Theorem 1. Let
, gaps among
products of two primes
infinitely-often.
(1)
where represents
the number of distinct prime factors of , ,
, .
Proof
(see[1] p.146 theorem 3.1.154). Prime equations are
(2)
We have Jiang function
,
(3)
where 
We prove that there
exist infinitely many odd integers such that ,
and are
primes.
We have asymptotic formula
,
(4)
where .
From (2) we have
,
,
(5)

From (5) we
prove
infinitely-often.
(6)
We prove that
there exist infinitely many triples of consecutive integers, each being the
products of two distinct primes.
Theorem 2. Let , gaps among
products of primes.
infinitely-often
(7)
Proof (see [1] p.148, theorem 3.1.158). Suppose that and
are three
consecutive integers, each being the products of distinct
primes. Let . We define the
three prime equations
(8)
Using Jiang
function we can
prove that there exist infinitely many integers such that ,
and are
primes.
From (8) we have


(9)
We prove
infinitely-often.
(10)
Theorem 3. Let , gaps among
products of two primes.
infinitely-often.
(11)
Proof [1,2,3].
Prime equations are
(12)
Using Jiang
function [1] we can prove
that there exist infinitely many integers such that ,
and are
primes.
Frome (12) we have

(13)
We prove
infinitely-often.
(14)
Theorem 4. Let , gaps among
products of primes.
infinitely-often.
(15)
Proof [1, 2, 3]. Suppose that and are
three odd integers, each being the products of distinct
primes. Let 
We define three prime equations
, ,
(16)
Using Jiang
function [1] we can prove
that there exist infinitely many integers such that ,
and are
primes.
From (16) we have
,
 ,
 .
(17)
We prove
infinitely-often.
(18)
Theorem 5. Let
, gaps among products of primes.
infinitely-often.
(19)
Proof. From (12) we have prime equations
, ,
, (20)
Using Jiang
function [1] we can prove
there exist infinitely many odd integers such that ,
, and
are primes
From (20) we
have



.
(21)
We prove
infinitely-often.
(22)
Using Jiang
function we can prove that
infinitely-often.
(23)
Theorem 6. Gaps among products of primes.
infintely-often.
(24)
where denotes
the th prime.
Proof. Let . We define the
prime equations
, ,
, ,
.(25)
Using Jiang
function [1] we can prove
that there exist infinitely many odd integers such that ,
, are
primes.
From (25) we have
,
,
,
,
……
.
(26)
From(26)we have
infinitely-often.(27)
Using Jiang
function [1] we can prove
that
infinitely-often.
(28)
Theorem 7. Gaps between
products of two primes.
infinitely-often
(29)
Proof. We define prime equations
.
(30)
Using Jiang
function we can prove that there exist infinitely many integers such
that , and
are primes.
From (30)we
have
(31)
From (31)we
prove
infinitely-often.
(32)
Theorem 8. Gaps between
products of primes.
infinitely-often
(33)
Proof. Suppose that and are
two integers, each being the products of distinct
primes.
Let . We define
prime equations
(34)
Using Jiang
function we can prove that there exist infinitely many integers such
that , and
are primes.
From (34)we
have
(35)
From (35)we
prove
infinitely-often.
(36)
Theorem 9. Gaps between
products of two primes.
infinitely-often
(37)
Proof. We define prime equations
.
(38)
Using Jiang
function we can prove that there exist infinitely many integers such
that , and
are primes.
From (38)we
have
(39)
From (39)we
prove
infinitely-often.
(40)
Theorem 10. Gaps between
products of primes.
infinitely-often
(41)
Proof. Suppose that and are
two integers, each being the products of distinct
primes. Let . We define
prime equations
(42)
Using Jiang
function we can prove that there exist infinitely many integers such
that , and
are primes.
From (42)we have
(43)
From(43)we prove
infinitely-often.
(44)
Theorem 11. Gaps
between products of two primes.
infinitely-often
(45)
Proof. Suppose .
We define prime equations
.
(46)
Using Jiang
function we can prove that there exist infinitely many integers such
that and
are primes.
From (46)we have
(47)
From (47)we
prove that
infinitely-often.
(48)
Using Jiang function we can prove that
infinitely-often
(49)
Theorem 12. Gaps
between products of two primes.
We study general solutions of
infinitely-often
(50)
Proof. We define a
prime equation
.
(51)
Using Jiang
function we can
prove that there exist infinitely many prime such that is
a prime.
From (51)suppose . We
define prime equations
(52)
Using Jiang
function we can prove
that there exist infinitely many integers such that and
are primes.
From (52)we
have
(53)
We prove that
infinitely-often.
(54)
Theorem 13. Gaps
between products of two primes.
infinitely-often
(55)
Using we define
prime equations,
(56)
From (56)we have
(57)
We redefine prime equations
(58)
From(58)we
have
(59)
Theorem 14. Gaps
between products of two primes.
infinitely-often
(60)
Using we define
prime equations,
(61)
From (61)we have
(62)
We redefine prime equations
(63)
From(63)we
have
(64)
Theorem 15. Gaps
between products of two primes.
infinitely-often
(65)
Using we define
prime equations,
(66)
From (66)we have
(67)
We redefine prime equations
(68)
From(68)we
have
(69)
Theorem 16. Gaps
between products of two primes.
infinitely-often
(70)
Using we define
prime equations,
(71)
From (71)we have
(72)
We redefine prime equations
(73)
From(73)we
have
(74)
Goldston et. al
proved only
infinitely-often
[4-5].
(75)
References
[1] Chun-Xuan Jiang, Foundations of Santilli’s isonumber theory with
applicatio applications to new cryptograms, Fernat’s theorem and Goldbach’s
conjecture. Inter. Acad. Press, 2002, MR2004c:11001, (http://www.i-b-r.org/docs/jiang.pdf) (http://www.wbabin.net/math/xuan13. pdf).
[2] Chun-Xuan Jiang, on the consecutive integers ,
(http:// www. wbabin.net /math/xuan40.pdf).
[3] Chun-Xuan Jiang, Jiang’s funciton in
prime distribution. (http:// www. wbabin. net/ math/ xuan2. pdf).
[4] D. A. Goldston, S. W. Graham, J. Pintz and C. Y.
Yildirim, Small gaps between products of two primes, Proc. London Math. Soc, 98
(2009) 741-774.
[5] D. A. Goldston, S. W. Graham, J. Pintz and C. Y.
Yildirim, Small gaps between prime or almost primes, Trans. Am. Math.
Soc.,361(2009)5285-5330.
美国匈牙利土耳其数学家正在研究 和 两个数。有无限多个 使得 和 两个数每个都是两个素数相乘[4]。例如 , , , ,这就是当代国际数学最高水平, 受到当代数学界的关注。他们并没有证明这个问题, 它比哥德巴赫猜想难一万倍。蒋春暄看到[4] 以后, 国外就这么点水平吹到天上去, 决定写本文, 在国内外散发。蒋春暄2002年结果[1]。从定理一得出 , , ,有无限多个 使得 , , 三个数每个数都是两个素数相乘。从定理二得出, , , ,有无限多个 使得每个数都是 个素数相乘。定理六, , , , , 有 个数,有无限多个 使得每个数都是 个素数相乘,这样成果在过去没有数学家想象过,这是素数分布一个重要规律。将来一定会有广泛的应用。这是数学美!这是人类数学中最伟大成就, 在中国被评为最大伪科学, 中国不承认蒋春暄成就。It was therefore a great surprise for Erdos (and pobably for other
number theorists as well) when C.Spiro proved in 1981 that d(x)=d(x + 5040)
infinitely-often. It is theorem 11.There cannot modern prime theory without
Jiang function.
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