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A list of all the posts and pages found on the site. For you robots out there is an XML version available for digesting as well.
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About me
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Panelist on how to survive in graduate school
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Recruiting students of color for the Washington University St. Louis graduate school
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Bi-annual update on YSP programs and evaluation with advisory board feedback
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Career Service workshop where I talk about how to prepare for a data analysis/scientist role. This workshop achieved a 95% satisfaction rating of students rating a 4 or 5.
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Published in Rice University, Rice Institute of Biosciences and Bioengineering, 2009
Published in Rice University, Rice Undergraduate Research Symposium, 2010
Published in Emory University, Mellon Mays Undergraduate Fellowship Southeastern Regional Conference, 2010
Published in Rice University, Rice Undergraduate Research Symposium, 2011
Published in The University of Oklahoma, Evolution Conference, 2011
Published in University of Missouri in St. Louis, Consilience Conference, 2012
Published in Ottawa Convention Center, Evolution Conference, 2012
Published in Washington University in St. Louis, Alan Templeton Symposium, 2013
Published in St. Louis Ecology, Evolution and Conservation Retreat, 2013
Published in Washington University in St. Louis, Center for Genome Sciences Seminar, 2014
Published in Washington University in St. Louis, Evolution, Ecology and Population Biology Seminar, 2015
Published in Gordon Conference - Microbial Population Biology, 2015
Published in St. Louis Ecology, Evolution and Conseration Retreat, 2015
Published in Washington University in St. Louis, Bioforum, 2015
Published in Yale, Annual Yale Bouchet Conference on Diversity and Graduate Education, 2016
Published in UCLA, Lake Arrowhead Microbial Genomics Meeting, 2016
Published in Washington University in St. Louis, Computational Genomics Seminar, 2016
Published in Washington University in St. Louis, Evolution, Ecology and Population Biology Seminar, 2016
Published in Innovations in Crop Science, 2019
Published in Biology Letters, 2012
One condition for the evolution of altruism is genetic relatedness between altruist and beneficiary, often achieved through active kin recognition. Here, we investigate the power of a passive process resulting from genetic drift during population growth in the social amoeba Dictyostelium discoideum.
Recommended citation: Neil Buttery, Chandra N. Jack, Boahemaa Adu-Oppong, Kate Snyder, Chris Thompson, David C. Queller, Joan E. Strassmann(2012). "Structured growth and genetic drift raise relatedness in the social amoeba D. discoideum. " Biology Letters 8(5). http://abenaa07.github.io/files/2012_Structured_Growth_and_genetic_drift.pdf
Published in Dictyostelium discoideum Protocols, 2013
Dictyostelium discoideum is a commonly used model organism for the study of biological processes such as chemotaxis, cell communication, and development. While these studies primarily focus on a single clone, recent work has revealed a host of questions that can only be answered from studies of multiple genetically distinct clones.
Recommended citation: Tracy E. Douglas, Debra A. Brock, Boahemaa Adu-Oppong, David C. Queller, Joan E. Strassmann(2013). "Collection and cultivation of Dictyostelids from the wild." Dictyostelium discoideum Protocols. http://abenaa07.github.io/files/2013_Collection_Cultivation_of_Dictyostelids_from_the_Wild.pdf
Published in Evolutionary Ecology Research, 2015
Do the defensive bacteria that farmers carry also protect farmers from nematodes? Is this protection specific to nematodes that reside with D. discoideum?
Recommended citation: Boahemaa Adu-Oppong, Joan E. Strassmann, David C. Queller (2015). "Is there specificity in a defensive mutualism against soil versus lab nematodes, Dictyostelium discoideum farmers and their bacteria?." Evolutionary Ecology Research. 16. http://abenaa07.github.io/files/Is-there-specificity-in-a-defensive-mutualism-against-soil-versus.pdf
Published in Peer J, 2015
Interaction conditions can change the balance of cooperation and conflict in multicellular groups. After aggregating together, cells of the social amoeba Dictyostelium discoideum may migrate as a group (known as a slug) to a new location. We consider this migration stage as an arena for social competition and conflict because the cells in the slug may not be from a genetically homogeneous population.
Recommended citation: Chandra N. Jack, Neil J. Buttery, Boahemaa Adu-Oppong, Michael Powers, Joan E. Strassmann and David C. Queller (2015). "Migration in the social stage of Dictyostelium discoideum amoebae impacts competition." Peer J. 1(2). http://abenaa07.github.io/files/2015_Migration_in_the_social_stage_of_dicty.pdf
Published in Annals of the New York Academy of Sciences , 2016
Microbial communities contain diverse bacteria that play important roles in every environment. Advances in sequencing and computational methodologies over the past decades have illuminated the phylogenetic and functional diversity of microbial communities from diverse habitats.
Recommended citation: B Adu‐Oppong, AJ Gasparrini, G Dantas. (2017). "Genomic and functional techniques to mine the microbiome for novel antimicrobials and antimicrobial resistance genes." Annals of the New York Academy of Sciences. 1388. http://abenaa07.github.io/files/2016_Adu-Oppong_Gasparrini_GenomicFunctionalMiningAbxResProd_REVIEW_AnnalsNYAS.pdf
Published in Frontiers in Marine Science, 2018
Mesophotic reef-building coral communities (~30–120 m depth) remain largely unexplored, despite representing roughly three-quarters of the overall depth range at which tropical coral reef ecosystems occur. Although many coral species are restricted to shallow depths, several species occur across large depth ranges, including lower mesophotic depths. Yet, it remains unclear how such species can persist under extreme low-light conditions and how the different symbiotic partners associated with these corals contribute to facilitate such broad depth ranges.
Recommended citation: Gonzalez-Zapata FL, Bongaerts P, Ramírez-Portilla C, Adu-Oppong B, Walljasper G, Reyes A and Sanchez JA (2018) Holobiont Diversity in a Reef-Building Coral over Its Entire Depth Range in the Mesophotic Zone. Frontiers in Marine Science http://abenaa07.github.io/files/2018_holobiont_diverse_in_a_reef_building_coral.pdf
Published in Scientific Reports, 2018
Microbiome disruptions triggering disease outbreaks are increasingly threatening corals worldwide. In the Tropical Eastern Pacific, a necrotic-patch disease affecting gorgonian corals (sea fans, Pacifigorgia spp.) has been observed in recent years. However, the composition of the microbiome and its disease-related disruptions remain unknown in these gorgonian corals.
Recommended citation: Quintanilla E, Ramírez-Portilla C, Adu-Oppong B, et al. (2018) "Local confinement of disease-related microbiome facilitates recovery of gorgonian sea fans from necrotic-patch disease." Scientific Reports http://abenaa07.github.io/files/2018_Local_confinement_gorgonian_sea_farms.pdf
Published in Frontiers in Marine Science, 2019
The increase in antibiotic resistant bacteria has raised global concern regarding the future effectiveness of antibiotics. Human activities that influence microbial communities and environmental resistomes can generate additional risks to human health. In this work, we characterized aquatic microbial communities and their resistomes in samples collected at three sites along the Bogotá River and from wastewaters at three city hospitals, and investigated community profiles and antibiotic resistance genes (ARGs) as a function of anthropogenic contamination.
Recommended citation: Posada-Perlaza, C.E., Ramírez-Rojas, A., Porras, P., Adu-Oppong, B et al. (2019) Bogotá River anthropogenic contamination alters microbial communities and promotes spread of antibiotic resistance genes. Scientific Reports http://abenaa07.github.io/files/2019_bogota_river_anthropogenic_contamination.pdf
Published in PLOS ONE, 2020
Plant-soil feedback studies attempt to understand the interplay between composition of plant and soil microbial communities. A growing body of literature suggests that plant species can coexist when they interact with a subset of the soil microbial community that impacts plant performance. Most studies focus on the microbial community in the soil rhizosphere; therefore, the degree to which the bacterial community within plant roots (root-endophytic compartment) influences plant-microbe interactions remains relatively unknown. To determine if there is an interaction between conspecific vs heterospecific soil microbes and plant performance, we sequenced root-endophytic bacterial communities of five tallgrass-prairie plant species, each reciprocally grown with soil microbes from each hosts’ soil rhizosphere. We found evidence of plant-soil feedbacks for some pairs of plant hosts; however, the strength and direction of feedbacks varied substantially across plant species pairs–from positive to negative feedbacks. Additionally, each plant species harbored a unique subset of root-endophytic bacteria. Conspecifics that hosted similar bacterial communities were more similar in biomass than individuals that hosted different bacterial communities, suggesting an important functional link between root-endophytic bacterial community composition and plant fitness. Our findings suggest a connection between an understudied component of the root-endophytic microbiome and plant performance, which may have important implications in understanding plant community composition and coexistence.
Recommended citation: Adu-Oppong B, Mangan SA, Stein C, Catano CP, Myers JA, et al. (2020) Prairie plants harbor distinct and beneficial root-endophytic bacterial communities. http://abenaa07.github.io/files/2020_AduOppong_Prairie_plants_harbor_distinct_and_beneficial_bacterial_communities.pdf
Published in Science Advances, 2020
In the honey bee, genetically related colony members innately develop colony-specific cuticular hydrocarbon profiles, which serve as pheromonal nestmate recognition cues. Yet, despite high intracolony relatedness, the innate development of colony-specific chemical signatures by individual colony members is largely determined by the colony environment, rather than solely relying on genetic variants shared by nestmates. Therefore, it is puzzling how a nongenic factor could drive the innate development of a quantitative trait that is shared by members of the same colony. Here, we provide one solution to this conundrum by showing that nestmate recognition cues in honey bees are defined, at least in part, by shared characteristics of the gut microbiome across individual colony members. These results illustrate the importance of host-microbiome interactions as a source of variation in animal behavioral traits.
Recommended citation: Vernier, Cassondra L., Chin, Iris M., Adu-Oppong, Boahemaa, et al.(2020) The gut microbiome defines social group membership in honey bee colonies. http://abenaa07.github.io/files/2020_Vernier_The_Gut_Microbiome_Defines_Social_Group.pdf
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