Delirium 发表于 2025-3-26 23:38:06
https://doi.org/10.1007/978-3-540-73001-9algorithms; automata; bioinformatics; biology; calculus; cellular automata; classical computability; compleGEST 发表于 2025-3-27 03:24:45
978-3-540-73000-2Springer-Verlag Berlin Heidelberg 2007中古 发表于 2025-3-27 05:43:56
http://reply.papertrans.cn/24/2321/232049/232049_33.png花束 发表于 2025-3-27 09:30:26
http://reply.papertrans.cn/24/2321/232049/232049_34.pngstrdulate 发表于 2025-3-27 14:04:11
,Stressregulation durch Gesundheitsstärkung,nectivity problem . Most significantly, Reingold solved the longstanding question of the complexity of the .-. connectivity problem in undirected graphs, showing that this is complete for logspace (L) ..This survey talk will focus on some of the remaining open questions dealing with gr变形 发表于 2025-3-27 20:28:22
https://doi.org/10.1007/978-3-658-29680-3ween constructive mathematics and programming by translating specifications in constructive logic into annotated interface code in Objective Caml. The system supports a rich input language allowing descriptions of complex mathematical structures. RZ does not extract code from proofs, but allows any抒情短诗 发表于 2025-3-28 00:33:29
https://doi.org/10.1007/978-3-658-10432-0digm. Two models of producer/consumer systems based on membrane systems are described, and it is shown how to translate these models into equivalent Petri nets with a corresponding semantics. It is then observed a direct correspondence between the Petri nets representation of the proposed models andexhibit 发表于 2025-3-28 04:28:06
http://reply.papertrans.cn/24/2321/232049/232049_38.png注意到 发表于 2025-3-28 07:13:15
https://doi.org/10.1007/978-3-319-96800-1ith constructive Hausdorff dimension dim.(.) and constructive packing dimension dim.(.) is weak truth-table equivalent to a sequence . with ., for arbitrary .> 0. Furthermore, if dim.(.) > 0, then dim.(.) ≥ 1 − .. The reduction thus serves as a . that increases the algorithmic randomness of ., as meBARGE 发表于 2025-3-28 13:03:43
https://doi.org/10.1007/978-3-319-96800-1on Kleene’s second recursion theorem. We show that we can classify viruses as solutions of fixed point equations which are obtained from different versions of Kleene’s second recursion theorem. This lead us to consider four classes of viruses which various polymorphic features. We propose to use vir