Peer-reviewed publications:
23. Markovitch, Wu & Otto; Angew. Chem. Int. Ed. 63, e202317997 (2024): Binding of Precursors to Replicator Assemblies Can Improve Replication Fidelity and Mediate Error Correction.
Accompanying dataset (Zenodo).
22. Mayer, Lancet & Markovitch; Life 14(3), 288 (2024): The GARD Prebiotic Reproduction Model Described in Order and Complexity.
21. Liu, Wu, Geerts, Markovitch, Pappas, Liu & Otto; Angew. Chem. Int. Ed. 61, e20211760 (2022): Out-of-equilibrium self-replication allows selection for dynamic kinetic stability in a system of competing replicators
20. Yang, Schaeffer, Mattia, Markovitch, Liu, Hussain, Ottelé, Sood & Otto; Angew. Chem. Int. Ed. 60, 11344 (2021): Chemical Fueling Enables Molecular Complexification of Self-Replicators
Death enables complexity in chemical evolution, at EurekAlert!.
For the first time, large self-replicating molecules win evolution, at SciWorthy.
Journy to complexity, at Little Big, Science (in Hebrew).
19. Markovitch, Kramer, Weissing, van Doorn & Otto; Artificial Life, ALIFE 2020, 462 (2020): Competition Dynamics in a Chemical System of Self-replicating Macrocycles
18. Markovitch, Ottelé, Veldman & Otto; Communications Chemistry 3, 180 (2020): Automated device for continuous stirring while sampling in liquid chromatography systems
Nature Research Chemistry Community blog: Using 3D printing to automate experiments involving stirring and liquid chromatography
Spotlight in University of Groningen Library open access blog (link).
Open Hardware podcast (in: Open Science Stories).
Accompanying dataset (Zenodo).
17. Loureiro, Markovitch, Riley, Cleaves, Mogoșanu, Paulino-Lima, Marlow, & Som; Science and Public Policy 47, 890 (2020): Science policy through public engagement.
16. Boursalian, Nijboer, Dorel, Pfeifer, Markovitch, Blokhuis & Feringa; Journal of the American Chemical Society 142, 16868(2020): All-photochemical Unidirectional Rotation of Phosphorus-based Molecular Motors
15. Maity, Ottelé, Monreal Santiago, Frederix, Kroon, Markovitch, Stuart, Marrink, Otto & Roos; Journal of the American Chemical Society 142, 13709 (2020): Caught in the Act: Mechanistic Insight into Supramolecular Polymerization-Driven Self-Replication from Real-Time Visualization
14. Lancet, Zidovetzki & Markovitch; J. R. Soc. Interface 15, 20180159 (2018): Systems protobiology: origin of life in lipid catalytic networks.
13. Markovitch & Krasnogor; PLoS ONE 13, e0192871 (2018): Predicting species emergence in simulated complex pre-biotic networks.
Accompanying dataset (Zenodo).
12. Fellermann, Markovitch, Madsen, Gilfellon & Phillips; ACS Synthetic Biology 5, 793 (2016): Toward Programmable Biology (editorial).
11. Gross, Fouxon, Lancet & Markovitch; BMC Evolutionary Biology 14, 265 (2014): Quasispecies in population of compositional assemblies.
10. Markovitch & Lancet; Journal of Theoretical Biology 357, 26 (2014): Multispecies population dynamics of prebiotic compositional assemblies.
9. Markovitch, Sorek, Lui, Lancet & Krasnogor; Origins of Life and Evolution of Biospheres 42, 469 (2012): Is there an optimal level of open-endedness in prebiotic evolution?.
8. Markovitch & Lancet; Artificial Life 18, 243 (2012): Excess Mutual Catalysis Is Required for Effective Evolvability.
Commentary on NASA Astrobiology focus group.
7. Armstrong, Markovitch, Zidovetzki & Lancet; Physical Biology 8, 066001 (2011): Replication of Simulated Prebiotic Amphphile Vesicles Controlled by Experimental Lipid Physiochemical Properties.
6. Markovitch & Lancet; Proceedings of the Eleventh European Conference on the Synthesis and Simulation of Living Systems, 496 (2011). Eds: Lenaerts T., Giacobini M., Bersini H., Bourgine P., Dorigo M., and Doursat R., MIT Press. Evolutionary Attributes of Simulated Prebiotic Metabolic Networks.
5. Kafri, Markovitch & Lancet; Biology Direct 5, 38 (2010): Spontaneous Symmetry Breaking in Early Molecular Networks.
4. Markovitch & Agmon; Molecular Physics 106, 485 (2008): The Distribution of Acceptor and Donor Hydrogen-Bonds in Bulk Liquid Water.
3. Markovitch & Agmon; Journal of Chemical Physics 129, 084505 (2008): Reversible Geminate Recombination of Hydrogen-Bonded Water Molecule Pair.
2. Markovitch, Chen, Izvekov, Paesani, Voth & Agmon; Journal of Physical Chemstry B 112, 9456 (2008): Special Pair Dance and Partner Selection: Elementary Steps in Proton Transport in Liquid Water.
1. Markovitch & Agmon; Journal of Physical Chemistry A 111, 2253 (2007): Structure and Energetics of the Hydronium Hydration Shells.
Additional publications:
i. Markovitch, Inger, Shenhav & Lancet; Origins of Life and Evolution of Biospheres 40, 484 (2010): Replication and Darwinian selection define life's origin (in workshop: OQOL 2009).
ii. Markovitch & Lancet; Comment on Dynamic Kinetic Stability (by Pross; Origins of Life and Evolution of Biospheres 42, 433 (2012)).
iii. Markovitch, Witkowski & Virgo; arXiv 1802, 08024 (2018): Chemical Heredity as Group Selection at the Molecular Level.
Accompanying dataset (Zenodo).
iv. Lancet, Zidovetzki, Shenhav & Markovitch; Proceedings of the XVIIIth International Conference on the Origin of Life, 4061 (2017): Metabolic GARD: Replicating Catalytic Network of Lipid-Anchored Metabolites.
v. Camprubi, Markovitch, Muchowskad, Otto & ten Kate. New Frontiers in Astrobiology (2022). Eds: Thombre R., and Vaishampayan P., Elsevier. Chapter 2: Prebiotic chemistry: From dust to molecules and beyond. ISBN 9780128241622.
*Far less detailed profiles on: ORCID, ResearchGate, Scopus, Clarivate WOS, SciProfiles, LOOP.