De Souza, D.; Urbanowicz, C.; Ng, W. H.; Baert, N.; Fersch, A. A.; Smith, M. L.; McArt, S. H.: Acute toxicity of the fungicide captan to honey bees and mixed evidence for synergism with the insecticide thiamethoxam. Scientific Reports 14 (1), 15709 (2024)
Marting, P. R.; Bailey, C. S.; Smith, M. L.: Within-cavity nest preferences: honey bees favour the entrance rather than the ceiling when initiating their nest. Animal Behaviour 218, S. 255 - 261 (2024)
Smith, M. L.; Marting, P. R.; Bailey, C. S.; Chuttong, B.; Maul, E. R.; Molinari, R.; Prathibha, P.; Rowe, E. B.; Spott, M. R.; Koger, B.: Form, function, and evolutionary origins of architectural symmetry in honey bee nests. Current Biology (2024)
Bailey, C. S.; Marting, P. R.; Smith, M. L.: Honey bees perform fine-scale detailing that continuously reduces comb area after nest expansion. Insectes Sociaux 70 (4), S. 405 - 412 (2023)
Marting, P. R.; Koger, B.; Smith, M. L.: Manipulating nest architecture reveals three-dimensional building strategies and colony resilience in honeybees. Proceedings of the Royal Society of London. Series B: Biological Sciences (London) 290 (1998), 20222565 (2023)
Smith, M. L.; Peck, D. T.: Dynamics of honey bee colony death and its implications for Varroa destructor mite transmission using observation hives. Apidologie 54 (1), 13 (2023)
Smith, M. L.; Davidson, J. D.; Wild, B.; Dormagen, D. M.; Landgraf, T.; Couzin, I. D.: Behavioral variation across the days and lives of honey bees. iScience 25 (9), 104842 (2022)
Davidson, J. D.; Vishwakarma, M.; Smith, M. L.: Hierarchical approach for comparing collective behavior across scales: Cellular systems to honey bee colonies. Frontiers in Ecology and Evolution 9, 581222 (2021)
Smith, M. L.; Napp, N.; Petersen, K. H.: Imperfect comb construction reveals the architectural abilities of honeybees. Proceedings of the National Academy of Sciences of the United States of America 118 (31), e2103605118 (2021)
Wild, B.; Dormagen, D. M.; Zachariae, A.; Smith, M. L.; Traynor, K. S.; Brockmann, D.; Couzin, I. D.; Landgraf, T.: Social networks predict the life and death of honey bees. Nature Communications 12, 1110 (2021)
Koenig, P. A.; Smith, M. L.; Horowitz, L. H.; Palmer, D. M.; Petersen, K. H.: Artificial shaking signals in honey bee colonies elicit natural responses. Scientific Reports 10 (1), 3746 (2020)
Smith, M. L.; Kingwell, C. J.; Boroczky, K.; Kessler, A.: Colony-level chemical profiles do not provide reliable information about colony size in the honey bee. Ecological Entomology 45 (3), S. 679 - 687 (2020)
Wood, S.; Henning, J. A.; Chen, L. Y.; McKibben, T.; Smith, M. L.; Weber, M.; Zemenick, A.; Ballen, C. J.: A scientist like me: demographic analysis of biology textbooks reveals both progress and long-term lags. Proceedings of the Royal Society B: Biological Sciences 287, 20200877 (2020)
Smith, M. L.: Queenless honey bees build infrastructure for direct reproduction until their new queen proves her worth. Evolution: International journal of organic evolution 72 (12), S. 2810 - 2817 (2018)
Smith, M. L.; Chen, P.-C.: Larger but not louder: Bigger honey bee colonies have quieter combs. Behavioral Ecology and Sociobiology 71 (11), 169 (2017)
Smith, M. L.; Koenig, P. A.; Peters, J. M.: The cues of colony size: How honey bees sense that their colony is large enough to begin to invest in reproduction. The Journal of Experimental Biology 220 (9), S. 1597 - 1605 (2017)
Loftus, J. C.; Smith, M. L.; Seeley, T. D.: How honey bee colonies survive in the wild: Testing the importance of small nests and frequent swarming. PLoS One 11 (3), e0150362 (2016)
Ostwald, M. M.; Smith, M. L.; Seeley, T. D.: The behavioral regulation of thirst, water collection and water storage in honey bee colonies. The Journal of Experimental Biology 219 (14), S. 2156 - 2165 (2016)
Peck, D. T.; Smith, M. L.; Seeley, T. D.: Varroa destructor mites can nimbly climb from flowers onto foraging honey bees. PLoS One 11 (12), e0167798 (2016)
Smith, M. L.; Loope, K. J.: Caught in an evolutionary trap: Worker honey bees that have drifted into foreign colonies do not invest in ovary activation. Insectes Sociaux 63 (1), S. 61 - 65 (2016)
Smith, M. L.; Ostwald, M. M.; Seeley, T. D.: Honey bee sociometry: Tracking honey bee colonies and their nest contents from colony founding until death. Insectes Sociaux 63 (4), S. 553 - 563 (2016)
Seeley, T. D.; Smith, M. L.: Crowding honeybee colonies in apiaries can increase their vulnerability to the deadly ectoparasite Varroa destructor. Apidologie 46, 716 (2015)
Smith, M. L.; Ostwald, M. M.; Seeley, T. D.: Adaptive tuning of an extended phenotype: Honeybees seasonally shift their honey storage to optimize male production. Animal Behaviour 103, S. 29 - 33 (2015)
Smith, M. L.; Ostwald, M. M.; Loftus, J. C.; Seeley, T. D.: A critical number of workers in a honeybee colony triggers investment in reproduction. Die Naturwissenschaften 101 (10), S. 783 - 790 (2014)
Smith, M. L.; Mattila, H. R.; Kern Reeve, H.: Partial ovary development is widespread in honey bees and comparable to other eusocial bees and wasps. Communicative & integrative biology 6 (5), e25004 (2013)
Griffin, S. R.; Smith, M. L.; Seeley, T. D.: Do honeybees use the directional information in round dances to find nearby food sources? Animal Behaviour 83 (6), S. 1319 - 1324 (2012)
Eine Studie im Wissenschaftsjournal Science zeigt: Klassische Modelle von kollektivem Verhalten können die Verhaltensmechanismen von Heuschreckenschwärmen nicht erklären
Mit ICARUS 2.0 startet das weltraumgestützte Tierbeobachtungssystem neue Pläne für eine dedizierte Flotte von fünf CubeSats in einer erdnahen Umlaufbahn
Einer der einflussreichsten Forscher unserer Zeit: Konstanzer Pionier in der Erforschung von kollektivem Verhalten zum sechsten Mal als “Highly Cited Researcher” ausgezeichnet