The n+1 Integer Factorization Algorithm
Myeong-Bok Choi, Sang-Un Lee
Abstract
Myeong-Bok Choi, Sang-Un Lee
Abstract
It is very difficult to factorize composite number, to integer factorization, p and q that is almost similar length of digits. Integer factorization algorithms, for the most part, find () that is congruence of squares ( (mod )) with using factoring(factor base, B) and get the result, , with taking the greatest common divisor of Euclid based on the formula . The efficiency of these algorithms hangs on finding () and deciding factor base, B. This paper proposes a efficient algorithm. The proposed algorithm extracts B from integer factorization with 3 digits prime numbers of and decides f, the combination of B. And then it obtains (this is, , ) from integer factorization of and gets , ={1,3,7,9}. Our algorithm is much more effective in comparison with the conventional Fermat algorithm that sequentially finds .
A significance statement is not available in the OpenAlex record.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
It is very difficult to factorize composite number, to integer factorization, p and q that is almost similar length of digits. Integer factorization algorithms, for the most part, find () that is congruence of squares ( (mod )) with using factoring(factor base, B) and get the result, , with taking the greatest common divisor of Euclid based on the formula . The efficiency of these algorithms hangs on finding () and deciding factor base, B. This paper proposes a efficient algorithm. The proposed algorithm extracts B from integer factorization with 3 digits prime numbers of and decides f, the combination of B. And then it obtains (this is, , ) from integer factorization of and gets , ={1,3,7,9}. Our algorithm is much more effective in comparison with the conventional Fermat algorithm that sequentially finds .
Key concepts: Prime factor, Factorization, Integer (computer science), Integer factorization, Mathematics, Greatest common divisor, Dixon's factorization method, Fermat's Last Theorem