ABSTRACT SUBMISSION FORM WILL OPEN ON 15 NOVEMBER 2024
Welcome to the abstract submission page for the AMI Microbial Solutions for a Changing World Conference! We are excited to provide you with the opportunity to showcase your innovative research and contribute to important conversations about the role of microbes in addressing the pressing challenges of climate change.
- Closing date for abstract submissions: 15 July 2025
- Successful abstract submissions notified by: 15 August 2025
- Abstract submissions requesting registration waivers must be received by: 15 June 2025
This conference is structured around three primary themes: Greenhouse Gas Cycling & Mitigation, Health Impacts & Pathogen Control, and Environmental Impacts & Ecosystem Restoration. Below, you will find a list of example topics for each theme to guide your abstract submissions. Whether your expertise is in microbial processes affecting carbon cycling, the management of climate-driven diseases, or the restoration of ecosystems, there’s a topic that aligns with your research.
By participating, you'll have the opportunity to engage with peers, leading experts, and potential collaborators, influencing the future of sustainable microbiology. We encourage you to review the example topics under each theme to find the best fit for your oral presentations and posters. We are excited to see your innovative contributions and to incorporate the diverse perspectives you will bring to our discussions.
Theme 1: Greenhouse gas cycling and mitigation
As part of our thematic focus on the critical role of microbiology in addressing climate change, we have outlined several specific research areas under the theme of Greenhouse Gas Cycling and Mitigation. Below is a detailed list of potential topics for your abstract submissions. These topics are selected to showcase innovative research and practical applications in microbial solutions:
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Microbial Carbon Cycling:
- Investigating how microbes contribute to carbon capture, sequestration, and release.
- Studying methanotrophs and methanogens involved in methane cycling.
- Exploring microbial pathways for carbon dioxide fixation.
- Developing bioengineering approaches for enhanced carbon sequestration.
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Nitrogen and Sulfur Cycling:
- Understanding microbial roles in nitrogen and sulfur cycles, particularly under climate change conditions.
- Examining denitrifying bacteria for nitrous oxide emission reduction.
- Analyzing sulfate-reducing bacteria's role in climate change mitigation.
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Microbial Consortia for Bioenergy:
- Utilizing microbes in anaerobic digestion for biogas production.
- Innovating microbial systems for biofuel generation from organic waste.
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Synthetic Biology and Microbial Engineering:
- Enhancing microbial efficiency in greenhouse gas recycling through genetic modifications.
- Engineering synthetic microbial consortia for carbon capture and recycling.
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Soil and Agricultural Microbiology:
- Evaluating soil microbial communities’ impact on carbon storage.
- Assessing the influence of agricultural practices on microbial-driven greenhouse gas emissions.
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Marine Microbial Communities:
- Studying oceanic microbes in carbon cycling and sequestration.
- Investigating the role of phytoplankton and marine bacteria in mitigating greenhouse gases.
Theme 2: Health impacts & pathogen control
Under the theme of Health Impacts & Pathogen Control, we delve into how climate change affects disease dynamics and pathogen behavior. The following list outlines specific areas of focus that are critical for understanding and managing the health-related consequences of a warming planet. We encourage participants to consider these topics for their abstract submissions, aiming to foster discussions on innovative strategies and research that address these pressing health issues:
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Climate-Driven Changes in Disease Dynamics:
- Microbial evolution and adaptation to warmer temperatures.
- The impact of climate change on the spread of vector-borne diseases (e.g., malaria, dengue).
- Climate effects on water-borne pathogens and foodborne diseases.
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Zoonotic Disease Emergence:
- How climate change impacts microbial ecosystems that drive zoonotic disease emergence.
- The role of microbes in cross-species transmission of emerging diseases.
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Antimicrobial Resistance (AMR):
- The relationship between climate stress and the spread of antimicrobial resistance.
- Environmental factors accelerating AMR development in microbial communities.
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One Health Approaches:
- Intersections of human, animal, and environmental microbiomes in the context of climate change.
- Microbial shifts in urban versus rural environments and their health impacts.
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Human Microbiome Responses to Environmental Changes:
- How climate change affects the human gut microbiome and its implications for health.
- The impact of environmental pollutants on microbial diversity in the human microbiome.
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Pathogen Adaptation to New Ecosystems:
- How changing environmental conditions create new habitats for existing pathogens.
- Microbial species migration and adaptation in response to climate change.
Theme 3: Environmental Impacts and Ecosystem Restoration
In the theme of Environmental Impacts and Ecosystem Restoration, we explore how microbiological techniques and knowledge can be pivotal in restoring and maintaining healthy ecosystems in the face of climate change. Below, we provide a list of specific topics that attendees are encouraged to focus their research on for abstract submissions. These topics are aimed at highlighting both the innovative approaches and practical applications of microbiology in various ecological settings:
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Coral Reef Microbiomes:
- Examining symbiotic relationships between corals and microbes as climate changes.
- Developing microbial solutions to mitigate coral bleaching and enhance coral resilience.
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Soil Microbiome and Regenerative Agriculture:
- Understanding the role of soil microbes in ecosystem restoration and regenerative agriculture practices.
- Leveraging microbes for soil health improvement and biodiversity enhancement.
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Aquatic Ecosystem Microbiology:
- Investigating microbial functions in freshwater and marine ecosystems affected by climate change.
- Utilizing microbial solutions for the restoration of aquatic environments to improve water quality.
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Bioremediation:
- Employing microbial degradation of pollutants and contaminants in the environment.
- Using microbes to restore habitats impacted by industrial activities or climate-related disasters.
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Forest and Grassland Microbial Ecology:
- Exploring the role of microbes in nutrient cycling and decomposition within forest and grassland restoration.
- Supporting rewilding efforts with microbial inoculations to restore ecosystem functions.
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Microbial Responses to Ecosystem Disturbances:
- Studying how microbial communities respond to natural disasters (e.g., wildfires, floods) and their role in ecosystem recovery.
- Comparing microbial shifts in disturbed versus undisturbed ecosystems.
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Phytoremediation and Plant-Microbe Interactions:
- Utilizing plant-microbe partnerships to restore degraded landscapes.
- Investigating the role of mycorrhizal fungi and nitrogen-fixing bacteria in ecosystem recovery.
Additional Broad Topics Across Themes
To complement our focused thematic discussions, we also invite abstract submissions on broader topics that intersect multiple areas of microbial research related to climate change. These cross-disciplinary topics emphasize the expansive role of microbiology in understanding and mitigating environmental challenges. Here is a list of broad topics that offer additional avenues for exploration and innovation:
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Microbial Genomics and Metagenomics:
- Applying genomics to explore microbial diversity and functions in response to climate change.
- Conducting metagenomic studies to map microbial shifts across various environments.
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Microbial Innovations in Sustainability:
- Developing new technologies and innovations using microbes for sustainability efforts, including wastewater treatment, energy production, and pollution control.
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Microbial Modeling in Climate Predictions:
- Utilizing microbial data to enhance climate models and improve predictions of ecosystem responses.