Craig Alan Feinstein's Evidence That P ≠ NP: Difference between revisions

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Created page with "Title: Craig Alan Feinstein's Evidence That P ≠ NP Abstract: Craig Alan Feinstein, a researcher in computer science, presented evidence that suggests the class of decision problems that can be solved by deterministic polynomial-time algorithms, P, is not equal to the class of decision problems that can be solved by nondeterministic polynomial-time algorithms, NP. He did this by examining the SUBSET-SUM problem and proposing an algorithm, algorithm A, that solves the p..."
 
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Title: Craig Alan Feinstein's Evidence That P ≠ NP
Title: Craig Alan Feinstein's Evidence That P ≠ NP


Abstract: Craig Alan Feinstein, a researcher in computer science, presented evidence that suggests the class of decision problems that can be solved by deterministic polynomial-time algorithms, P, is not equal to the class of decision problems that can be solved by nondeterministic polynomial-time algorithms, NP. He did this by examining the SUBSET-SUM problem and proposing an algorithm, algorithm A, that solves the problem in O(2n^2) time. Feinstein argued that algorithm A has the best running-time for large N and proved this through induction on n. He also proposed an improved strategy that further reduces the running-time of algorithm A.
Abstract: Craig Alan Feinstein, a researcher in computer science, presented evidence that suggests the class of decision problems that can be solved by deterministic polynomial-time algorithms, P, is not equal to the class of decision problems that can be solved by nondeterministic polynomial-time algorithms, NP. He did this by examining the SUBSET-SUM problem and proposing an algorithm, algorithm A, that can solve it in O(2n^2) time. Feinstein argued that algorithm A has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time. This suggests that P ≠ NP, as the improved algorithm can solve the problem more efficiently than any other known algorithm.


Main Research Question: Is P = NP?
Main Research Question: Is P = NP?


Methodology: Feinstein focused on the SUBSET-SUM problem, a well-known NP problem. He proposed an algorithm, algorithm A, that solves the problem in O(2n^2) time. He then argued and proved that algorithm A has the best running-time for large N, using induction on n.
Methodology: Feinstein focused on the SUBSET-SUM problem, a well-known NP problem. He proposed an algorithm, algorithm A, that can solve the problem in O(2n^2) time. He then argued that algorithm A has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time.


Results: Feinstein proposed an algorithm, algorithm A, that solves the SUBSET-SUM problem in O(2n^2) time. He argued that algorithm A has the best running-time for large N and proved this through induction on n. He also proposed an improved strategy that further reduces the running-time of algorithm A.
Results: Feinstein's algorithm, algorithm A, can solve the SUBSET-SUM problem in O(2n^2) time. He argued that this algorithm has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time.


Implications: Feinstein's work provides evidence that P ≠ NP. His improved strategy for algorithm A could potentially lead to more efficient ways of solving NP problems. However, it's important to note that this is a heuristic argument and not a rigorous proof. Further research is needed to definitively answer the question of whether P = NP.
Implications: Feinstein's evidence suggests that P ≠ NP, as his improved algorithm can solve the SUBSET-SUM problem more efficiently than any other known algorithm. This could have significant implications for the field of computer science, as solving the P = NP problem has been a long-standing challenge in the field.


Link to Article: https://arxiv.org/abs/0310060v1
Link to Article: https://arxiv.org/abs/0310060v2
Authors:  
Authors:  
arXiv ID: 0310060v1
arXiv ID: 0310060v2


[[Category:Computer Science]]
[[Category:Computer Science]]
[[Category:Time]]
[[Category:Algorithm]]
[[Category:Algorithm]]
[[Category:Time]]
[[Category:Can]]
[[Category:Problem]]
[[Category:Np]]
[[Category:Np]]
[[Category:Feinstein]]
[[Category:He]]

Revision as of 14:47, 24 December 2023

Title: Craig Alan Feinstein's Evidence That P ≠ NP

Abstract: Craig Alan Feinstein, a researcher in computer science, presented evidence that suggests the class of decision problems that can be solved by deterministic polynomial-time algorithms, P, is not equal to the class of decision problems that can be solved by nondeterministic polynomial-time algorithms, NP. He did this by examining the SUBSET-SUM problem and proposing an algorithm, algorithm A, that can solve it in O(2n^2) time. Feinstein argued that algorithm A has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time. This suggests that P ≠ NP, as the improved algorithm can solve the problem more efficiently than any other known algorithm.

Main Research Question: Is P = NP?

Methodology: Feinstein focused on the SUBSET-SUM problem, a well-known NP problem. He proposed an algorithm, algorithm A, that can solve the problem in O(2n^2) time. He then argued that algorithm A has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time.

Results: Feinstein's algorithm, algorithm A, can solve the SUBSET-SUM problem in O(2n^2) time. He argued that this algorithm has the best running-time for large N and can be improved further for odd numbers, reducing the running-time to 8 units of time.

Implications: Feinstein's evidence suggests that P ≠ NP, as his improved algorithm can solve the SUBSET-SUM problem more efficiently than any other known algorithm. This could have significant implications for the field of computer science, as solving the P = NP problem has been a long-standing challenge in the field.

Link to Article: https://arxiv.org/abs/0310060v2 Authors: arXiv ID: 0310060v2