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Gerhard Paseman
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Edit 2018.08.08 This answer https://mathoverflow.net/a/307881 will be updated to give recent information about S, especially a forthcoming preprint. End Edit 2018.08.08

Edit 2018.08.08 This answer https://mathoverflow.net/a/307881 will be updated to give recent information about S, especially a forthcoming preprint. End Edit 2018.08.08

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Ingredient one: In the MathOverflow Question How Do These Primes Jump?How Do These Primes Jump? I consider a basic algorithm S which is a resource-constrained Sieve of Eratosthenes. Follow the link for the details; the idea is to process the positive numbers greater than 1 in increasing order so that for every prime (uncovered number), one acquires a new stone labelled with that prime, and places the stone (covers) on the next uncovered multiple of that prime (which can be proved to be twice that prime), and so that for every composite (a covered number) one picks up the stone that covers the composite and has label p on it, and move it the least multiple of p distance greater than the composite to a number that is not covered. The question considers trajectories of stones given the constraints that no number ever gets covered by more than one stone, and that the numbers are processed serially in increasing order. One result of this is a mapping from natural numbers n greater than 1 to primes $q_n$ such that $q_n$ divides n. There is an answer which is a partial analysis of the behaviour of the trajectories.

Ingredient one: In the MathOverflow Question How Do These Primes Jump? I consider a basic algorithm S which is a resource-constrained Sieve of Eratosthenes. Follow the link for the details; the idea is to process the positive numbers greater than 1 in increasing order so that for every prime (uncovered number), one acquires a new stone labelled with that prime, and places the stone (covers) on the next uncovered multiple of that prime (which can be proved to be twice that prime), and so that for every composite (a covered number) one picks up the stone that covers the composite and has label p on it, and move it the least multiple of p distance greater than the composite to a number that is not covered. The question considers trajectories of stones given the constraints that no number ever gets covered by more than one stone, and that the numbers are processed serially in increasing order. One result of this is a mapping from natural numbers n greater than 1 to primes $q_n$ such that $q_n$ divides n. There is an answer which is a partial analysis of the behaviour of the trajectories.

Ingredient one: In the MathOverflow Question How Do These Primes Jump? I consider a basic algorithm S which is a resource-constrained Sieve of Eratosthenes. Follow the link for the details; the idea is to process the positive numbers greater than 1 in increasing order so that for every prime (uncovered number), one acquires a new stone labelled with that prime, and places the stone (covers) on the next uncovered multiple of that prime (which can be proved to be twice that prime), and so that for every composite (a covered number) one picks up the stone that covers the composite and has label p on it, and move it the least multiple of p distance greater than the composite to a number that is not covered. The question considers trajectories of stones given the constraints that no number ever gets covered by more than one stone, and that the numbers are processed serially in increasing order. One result of this is a mapping from natural numbers n greater than 1 to primes $q_n$ such that $q_n$ divides n. There is an answer which is a partial analysis of the behaviour of the trajectories.

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Gerhard Paseman
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Gerhard "Matchmaker, Make Me A Match" Paseman, 2016.08.1822

Gerhard "Matchmaker, Make Me A Match" Paseman, 2016.08.18

Gerhard "Matchmaker, Make Me A Match" Paseman, 2016.08.22

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