Concorde is a computer code for the symmetric traveling salesman problem (TSP) and some related network optimization problems. The code is written in the ANSI C programming language and it is available for academic research use; for other uses, contact William Cook for licensing options. Concorde’s TSP solver has been used to obtain the optimal solutions to 106 of the 110 TSPLIB instances; the largest having 85,900 cities. The Concorde callable library includes over 700 functions permitting users to create specialized codes for TSP-like problems. All Concorde functions are thread-safe for programming in shared-memory parallel environments; the main TSP solver includes code for running over networks of UNIX workstations.

References in zbMATH (referenced in 184 articles , 1 standard article )

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  1. Dokka, Trivikram; Mourtos, Ioannis; Spieksma, Frits C.R.: Fast separation for the three-index assignment problem (2017)
  2. Gleixner, Ambros M.; Berthold, Timo; Müller, Benjamin; Weltge, Stefan: Three enhancements for optimization-based bound tightening (2017)
  3. Mohan, Usha; Ramani, Sivaramakrishnan; Mishra, Sounaka: Constant factor approximation algorithm for TSP satisfying a biased triangle inequality (2017)
  4. Pferschy, Ulrich; Staněk, Rostislav: Generating subtour elimination constraints for the TSP from pure integer solutions (2017)
  5. Pichon, Gregoire; Faverge, Mathieu; Ramet, Pierre; Roman, Jean: Reordering strategy for blocking optimization in sparse linear solvers (2017)
  6. Sundar, Kaarthik; Rathinam, Sivakumar: Multiple depot ring star problem: a polyhedral study and an exact algorithm (2017)
  7. Vanneschi, Leonardo: An introduction to geometric semantic genetic programming (2017)
  8. Bartal, Yair; Gottlieb, Lee-Ad; Krauthgamer, Robert: The traveling salesman problem: low-dimensionality implies a polynomial time approximation scheme (2016)
  9. Braun, Gábor; Pokutta, Sebastian: A polyhedral characterization of border bases (2016)
  10. Coutinho, Walton Pereira; do Nascimento, Roberto Quirino; Pessoa, Artur Alves; Subramanian, Anand: A branch-and-bound algorithm for the close-enough traveling salesman problem (2016)
  11. Doppstadt, C.; Koberstein, A.; Vigo, D.: The hybrid electric vehicle-traveling salesman problem (2016)
  12. Fages, Jean-Guillaume; Lorca, Xavier; Rousseau, Louis-Martin: The salesman and the tree: the importance of search in CP (2016)
  13. Fischer, Anja: A polyhedral study of the quadratic traveling salesman problem (2016)
  14. Klaučo, Martin; Blažek, Slavomír; Kvasnica, Michal: An optimal path planning problem for heterogeneous multi-vehicle systems (2016)
  15. Lei, Hongtao; Wang, Rui; Laporte, Gilbert: Solving a multi-objective dynamic stochastic districting and routing problem with a co-evolutionary algorithm (2016)
  16. Megow, Nicole; Skutella, Martin; Verschae, José; Wiese, Andreas: The power of recourse for online MST and TSP (2016)
  17. Rendl, F.: Semidefinite relaxations for partitioning, assignment and ordering problems (2016)
  18. Roldán, Raúl F.; Basagoiti, Rosa; Coelho, Leandro C.: Robustness of inventory replenishment and customer selection policies for the dynamic and stochastic inventory-routing problem (2016)
  19. Seth, Anupam; Klabjan, Diego; Ferreira, Placid M.: A new novel local search integer-programming-based heuristic for PCB assembly on collect-and-place machines (2016)
  20. Subramanyam, Anirudh; Gounaris, Chrysanthos E.: A branch-and-cut framework for the consistent traveling salesman problem (2016)

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