Selected Publications ===================== PyAR has been used in a range of chemistry problems beyond pure algorithm development. This page highlights a few representative papers so a student or researcher can see what kinds of questions the workflows have already been used to study. The list is selective rather than exhaustive. Aggregation And Clusters ------------------------ PyAR's aggregation and cluster-building workflows are useful whenever the problem is to grow a low-energy structure from smaller fragments. * [Nandi2017]_ Tabu-guided build-up for molecular aggregates and binary reactions. * [Khatun2019]_ Cluster optimization and global search for nanoclusters. * [Sherpa2026]_ Noncovalent-cluster application of the build-up workflow. Reaction Discovery And Prebiotic Chemistry ------------------------------------------ PyAR's AFIR-based reaction workflow is suitable for exploring products, reaction pathways, and chemically plausible intermediates. * [Nandi2018]_ Automated reaction search for prebiotic HCN tetramerization. * [Panda2024]_ Prebiotic reaction channels in an extraterrestrial atmosphere. Catalyst Formation And Sequential Ligand Addition -------------------------------------------------- The same reaction-search machinery can also follow stepwise ligand addition or catalyst assembly. * [Roy2022]_ Active catalyst formation from dinuclear palladium acetate by sequential ligand addition. Exploration Of Chemical Space ----------------------------- PyAR can also be used as a general build-up engine for exploring clusters and other parts of chemical space. * [Giri2025]_ Chemical-space exploration of noncovalent molecular clusters. Next Steps ---------- If you want to use PyAR for a similar chemistry problem: * start with :doc:`quickstart` to choose the right command * use :doc:`workflows` to see what each workflow writes to disk * use :doc:`usage` for helper commands and analysis tools References ---------- .. [Nandi2017] Surajit Nandi, S. R. McAnanama-Brereton, M. P. Waller, and Anakuthil Anoop, *A tabu-search based strategy for modeling molecular aggregates and binary reactions*, *Computational and Theoretical Chemistry* 1111, 69-81 (2017). https://doi.org/10.1016/j.comptc.2017.03.040 .. [Khatun2019] Maya Khatun, Rajat Shubhro Majumdar, and Anakuthil Anoop, *A Global Optimizer for Nanoclusters*, *Frontiers in Chemistry* 7:644 (2019). https://doi.org/10.3389/fchem.2019.00644 .. [Sherpa2026] Lazumla T. Sherpa, Maya Khatun, Sunanda Panda, and Anakuthil Anoop, *Cooperative many-body interactions and spectroscopic signatures in (HCN)_{n} and (HNC)_{n} clusters up to n = 15*, *Physical Chemistry Chemical Physics* 28, 2227-2238 (2026). https://doi.org/10.1039/D5CP03273C .. [Nandi2018] Surajit Nandi, Debankur Bhattacharyya, and Anakuthil Anoop, *Prebiotic Chemistry of HCN Tetramerization by Automated Reaction Search*, *Chemistry - A European Journal* 24(19), 4885-4894 (2018). https://doi.org/10.1002/chem.201705492 .. [Panda2024] Sunanda Panda and Anakuthil Anoop, *Potential Prebiotic Pathways in Extraterrestrial Atmosphere: A Computational Exploration of HCN and NH_{3} Reactions*, *ACS Earth and Space Chemistry* (2024). https://doi.org/10.1021/acsearthspacechem.3c00321 .. [Roy2022] Saikat Roy and Anakuthil Anoop, *Insights into the Active Catalyst Formation from Dinuclear Palladium Acetate in Pd-Catalyzed Coupling Reactions: A DFT Study*, *The Journal of Physical Chemistry A* 126(46), 8562-8576 (2022). https://doi.org/10.1021/acs.jpca.2c03762 .. [Giri2025] Sandip Giri and Anakuthil Anoop, *Exploring the Chemical Space of Noncovalent Molecular Clusters Using Automated Cluster Building Algorithm and Neural Network Potential*, *Journal of Computational Chemistry* 46(32), e70287 (2025). https://doi.org/10.1002/jcc.70287