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The microbiome: human medicine and agriculture in a microbial world
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This one-day conference held by the Royal Society will bring together experts from both agricultural and human microbiome sectors to discuss the barriers to technology translation and common principles across both sectors. Speakers will discuss the challenges in determining microbiota through to the dynamic forces determining colony structures. The meeting will also explore intentional modulation of microbial populations to develop medical therapeutics and improvements in agricultural productivity, covering technical challenges in determining causation and methods to drive the technology forward.
Attending this event
This open event is free to attend and is intended for those with an interest in the life sciences sector, from a variety of backgrounds including academia, industry, government, as well as regulatory, charitable and other scientific bodies.
Contact the Industry team for more information.
About the conference series
This meeting forms part of the Royal Society’s Transforming our Future series. The meetings are unique, high-level events that address scientific and technical challenges of the next decade and bring together leading experts from wider scientific community, industry, government and charities.
Organisers
Schedule
09:15 - 09:20 |
Welcome to the Royal Society
Sir John Skehel FMedSci FRS, Vice-President and Biological Secretary, The Royal Society
Sir John Skehel FMedSci FRS, Vice-President and Biological Secretary, The Royal SocietyJohn Skehel has provided major insights into the molecular basis of how viruses recognise and infect their host cells. John focusses on the virus that causes influenza, of which there are 3–5 million cases a year worldwide, resulting in up to 500,000 deaths. To infect a cell, the influenza virus must bind to a sialic acid-containing receptor on the cell surface, which it achieves through its own haemagglutinin glycoprotein. John was able to isolate, crystallise and subsequently determine the three-dimensional structure of this molecule. He also observed that under conditions of low pH, haemagglutinin changes shape — allowing the virus to fuse with and enter the cell. John has been a leader in virology research for over thirty years. He headed the WHO Collaborating Centre for Reference and Research on Influenza between 1975 and 1993 and was the Director of the National Institute for Medical Research from 1987–2006. His pioneering research was recognised in 1996 when he received a knighthood. |
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09:20 - 09:30 |
Chair Remarks
Professor Richard Flavell CBE FRS
Professor Richard Flavell CBE FRSRichard Flavell is a plant geneticist who has focused much attention on traits important in crop plants. In the last five years he has served as Chief Scientist in two companies in the USA. The first, Indigo, Cambridge, Massachusetts is an agricultural microbiome company. The second, Inari, is an agricultural plant genetics company. He is currently a consultant for companies and public sector organizations committed to plant improvement, including the International Wheat Yield Partnership. After his undergraduate degree in microbiology and his PhD in the John Innes Institute and the University of East Anglia, he spent two years of postdoctoral research in Stanford University, California. He then joined the Plant Breeding Institute in Cambridge (UK) where he built up a large Department of Plant Molecular Genetics between 1969 and 1987. He was then appointed as Director of the John Innes Centre (JIC), Norwich and to a chair at the University of East Anglia and oversaw a large expansion of JIC’s activities and impact. In 1998 he became the Chief Scientific Officer of Ceres, a young plant genomics company in California. This became a public company and was recently bought by a multinational agricultural company. He is a Fellow of the Royal Society and a Commander of the British Empire for services to science. |
Chair
Professor Richard Flavell CBE FRS
Professor Richard Flavell CBE FRS
Richard Flavell is a plant geneticist who has focused much attention on traits important in crop plants. In the last five years he has served as Chief Scientist in two companies in the USA. The first, Indigo, Cambridge, Massachusetts is an agricultural microbiome company. The second, Inari, is an agricultural plant genetics company.
He is currently a consultant for companies and public sector organizations committed to plant improvement, including the International Wheat Yield Partnership.
After his undergraduate degree in microbiology and his PhD in the John Innes Institute and the University of East Anglia, he spent two years of postdoctoral research in Stanford University, California. He then joined the Plant Breeding Institute in Cambridge (UK) where he built up a large Department of Plant Molecular Genetics between 1969 and 1987. He was then appointed as Director of the John Innes Centre (JIC), Norwich and to a chair at the University of East Anglia and oversaw a large expansion of JIC’s activities and impact.
In 1998 he became the Chief Scientific Officer of Ceres, a young plant genomics company in California. This became a public company and was recently bought by a multinational agricultural company.
He is a Fellow of the Royal Society and a Commander of the British Empire for services to science.
09:30 - 10:00 |
Microbiome Progress and Opportunities - Past, Present and Future
Over the last decade, there has been considerable progress in our understanding of microbiomes and their relationship to human health and disease. In addition, there has been a re-invigorated interest in the importance of microbiomes in animal production and environmental sustainability. Microbiome parameters such as diversity, ecology and functionality are important determinants of health-/disease-risk. To understand this complexity, high-throughput sequencing and bioinformatic approaches have been adopted to accurately evaluate perturbations in microbiome communities and to provide high quality, high resolution (strain level) analyses of both healthy and dysbiotic ecosystems. The importance of aligning microbiome composition to community function, has also driven a greater integration of multi-omics technologies. A combination of human intervention and mechanistic animal studies has underpinned our current understanding of how microbiomes impact diverse aspects of human biology. The functional microbiome has driven the rapid growth of the translational microbiome. This industry is supported by significant public and private funding/investment and is focused on discovery and delivery of disruptive microbiome-based interventions, to prevent and treat human diseases. Professor Denise Kelly, Seventure Partners
Professor Denise Kelly, Seventure PartnersProfessor Denise Kelly joined Seventure Partners, a European Leader in Venture Capital, in 2015 as an Investment Advisor to the Life Sciences Team and is focused specifically on Human Microbiome investment opportunities across Europe and the USA. Prior to joining Seventure, Denise was Head of her Research team at the World-renowned Rowett Institute, University of Aberdeen, where she acquired over 20 years experience in gut microbiology and immunology. She was the (former) Founder Director, CEO and CSO of GT Biologics Ltd, one of the first translational spinouts, developing Innovative Microbiome-based Therapies. She is the main inventor on numerous EU and USA patent applications and during her career has collaborated with pharmaceutical and healthcare companies on several translational projects. Denise holds a BSc and PhD from Queen’s University, Belfast and an Emeritus Professorship from the University of Aberdeen. |
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10:00 - 10:30 |
Increasing Agricultural Productivity: The Continuum of Breeding, Biotech and Microbial Products
Over the past century, application of science to agriculture has enabled dramatic increases in productivity across the developed and the developing world. Throughout this period, the science and tools leveraged to improve agricultural productivity have continued to evolve, as has underlying knowledge. In parallel, developments in molecular biology over the past 50 years have ushered in GM crops (most of which incorporate genes from microbes into plants) and their widespread use across broad areas of agricultural production. While several microbial technologies, such as rhizobium, have been important to agriculture for several decades, emerging capabilities are advancing a new wave of microbial inputs into mainstream agricultural production. Today’s microbial products have demonstrated an ability to improve crop performance under a wide range of stresses spanning heat, water, nutrients and pests. Development of these products draws on the solid foundations of agricultural research while increasingly leveraging deep insights spanning microbes, their communities, seed genetics, agronomic practices and growing environments. Dr Ray Riley, Ret. Senior VP Product Development, Indigo
Dr Ray Riley, Ret. Senior VP Product Development, IndigoRay Riley recently retired as Senior VP, Product Development at Indigo – a company focused on “Harnessing nature to help farmers sustainably feed the planet”. Ray started his career at Pioneer Hi-Bred where he served in various roles ranging from Corn Breeder in Iowa to Research Director roles spanning US, Latin America, Africa and Asia. Ray joined Syngenta in 2000 as Global Head of Corn Supply Chain where he focused on improving seed supply chain efficiencies. In the mid-2000’s he oversaw the integration of R&D of several acquired seed companies and established an integrated research team with oversight of Syngenta’s Breeding Strategy and Seed Technology. In 2014 Ray became Head of Computational Biology, integrating Syngenta’s computational biology efforts spanning breeding, trait development (GM and native) and chemistry. In May of 2015 he joined Indigo as Sr VP Product Development. |
Chair
Dr Mike Romanos, CEO Microbiotica
Dr Mike Romanos, CEO Microbiotica
Mike is co-founder and CEO of Microbiotica, which is commercialising leading microbiome science from the Wellcome Sanger Institute. He has 30 years’ experience in the biotech and pharma, previously co-founding Crescendo Biologics which he led as CEO and CSO for six years, building a leading discovery platform and pipeline in antibody fragment-based therapeutics. Prior to that he held senior global roles in GlaxoSmithKline over 10 years, during which time he built trans-national innovative R&D organisations which contributed to the company’s platforms and pipeline across therapeutic areas and across multiple product types, latterly as VP for Genomics/Target Discovery.
Mike is highly experienced in biotech translation and commercialisation, serving as a Trustee on the LifeArc Board, and previously Translator in Residence at Imperial College, Venture Partner for UK Innovation and Science Seed Fund, and member for MRC’s Developmental Pathway Funding Scheme panel.
Mike’s academic work included research in influenza virology (MRC, National Institute for Medical Research) and in yeast genetics and biotechnology (University of Leicester). He holds a degree in Natural Sciences from Cambridge University, a PhD in Molecular Virology from Imperial College, and is a Fellow of the Royal Society of Biology.
11:05 - 11:25 |
Data driven knowledge discovery applied to the human gut microbiome
Metagenomics, the analysis of the sum of genetic material from an environmental sample, has started to shed light on the huge diversity of micro-organisms that occupy environments such as the human body, soil and the World's oceans. During this talk, I will provide an overview of how metagenomics is being used to identify the different microbes, many of which have not previously been observed before. There are, however, limitations to this approach that differ across biomes. Despite this, metagenomic approaches are beginning to unveil the so call ‘microbial dark matter’ – the previously unknown biological repertoire – which when harnessed will provide many applications to the medical and biotechnology industries. Dr Rob Finn, European Bioinformatics Institute
Dr Rob Finn, European Bioinformatics InstituteDr. Robert Finn has been involved in the field of informatics, particularly protein classification for nearly 20 years. Originally trained in microbiology and biochemistry, Dr. Finn has developed into an expert system architect and software engineer. Since joining the EMBL-European Bioinformatics Institute (EMBL-EBI) in 2014, he has spearheaded the running of key EMBL-EBI resource databases including Pfam, InterPro, Rfam, RNAcentral, and the EBI metagenomics platform, MGnify. In January 2018, Dr. Finn was appointed to a dual Service and Research team position. His research focuses on large-scale meta-analysis of metagenomics datasets, focusing on the recovery of genomes. |
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11:30 - 11:50 |
Microbiomes for improving crop production
For decades, the microbial community in soil has been appreciated as very large and diverse, essential for both terrestrial nutrient cycling and plant health, whilst remaining very poorly understood. The recent advances in sequencing technology and bioinformatics have greatly improved our familiarity with soil and plant microbiomes, and the complex relationship between them. Plants encounter bacteria and fungi in soil which, if they are proficient in utilising plant-derived substrates, proliferate in the rhizosphere. They may colonise the rhizoplane and above-ground parts, some becoming endophytes. Not all are beneficial, but the microbiome is reported to inhibit pests and pathogens, modulate plant growth and improve nutrient acquisition. With global pressure to escalate food production whilst minimising fertilizer and agrochemical use, a better understanding of how to maximise the benefits of the plant microbiome becomes increasingly important. Professor Penny R Hirsch, Rothamsted Research
Professor Penny R Hirsch, Rothamsted ResearchUntil her recent retirement, Penny Hirsch led a group at Rothamsted Research working on soil microbiology and molecular ecology in an agricultural context, where she continues in an emeritus position. Over the years, she has worked with fungi and bacteria, on rhizosphere interactions and other microbial activity in soil that supports plant health and productivity, including nitrogen cycling. This is combined with long experience on the extraction, amplification and bioinformatics analysis of DNA and RNA sequences derived from soil and the rhizosphere. Recent research has focused on nutrient cycling in arable systems and the relationship between the soil and crop plant microbiomes, applying metagenomics and metatranscriptomics, in addition to more conventional approaches. The long-term field experiments at Rothamsted have provided valuable resource for applying these techniques to determine agronomic impacts on soil and plant microbiomes. |
11:55 - 12:15 |
Culture-based microbiome analysis in personalised medicine and birth cohort studies
Studies at the Human Microbiota Interactions lab have addressed key bottlenecks in high resolution strain profiling and functional validation of the gut microbiota through the development of reference genome-based analysis approach that vastly increases the precision and efficiency of metagenomic analysis. Our approach is underpinned by mass isolation of bacteria and generation of a large reference genome sequence database. We call this approach “Precision Metagenomics”. Precision metagenomics underpins studies in HMIL and the Wellcome Sanger Institute spinout company Microbiotica, which has industrialised the platform and is using it for biomarker and therapeutic discovery. The platform and its application will be discussed in the context of a major UK Baby Cohort study aiming to find correlates between early life microbiota development and long-term health and disease. Dr Trevor Lawley, Microbiotica
Dr Trevor Lawley, MicrobioticaTrevor Lawley is the Faculty Group Leader of the Host-Microbiota Interactions Lab (HMIL) at the Wellcome Sanger Institute (WSI), where his research uses advanced metagenomic sequencing, state-of-the art microbial culturing and mouse models to investigate the microbial communities contained on and within host organisms that are associated with health and a range of diseases and syndromes. In addition, Trevor was key to establishing a germ-free facility at the WSI and is developing humanised/gnotobiotic mice models at the Sanger Institute to enable both basic and translational science of the human microbiome. Trevor began his research at WTSI in 2007 as a Post-Doctoral Fellow in the Microbial Pathogenesis group, having received a Royal Society Fellowship to start a new research programme in C. difficile epidemiology and pathogenesis. During this time, he has worked with a global consortium from over 25 institutes to assemble a comprehensive C. difficile culture collection, now housed within the Sanger Institute. Prior to joining WTSI, Trevor held a Canadian Institutes of Health Research post-doctoral fellowship, working in the Laboratory of Professor Stanley Falkow and Dr Denise Monack at Stanford University, USA, where he studied the impact of antibiotic treatment on Salmonella disease and transmission. Trevor gained his first degree from Acadia University, Canada and his PhD from the University of Alberta, Canada, where he pioneered the use of genomics to study the origins and spread of antibiotic resistance in infectious diseases. In December 2016, Trevor co-founded Microbiotica, where he is directing the science as Chief Scientific Officer. Microbiotica has been established to commercialise ground-breaking research, conducted in Trevor’s academic lab (Host-Microbiota Interactions Lab) at the Wellcome Sanger Institute, into the role of the human microbiome in health and disease and its application to medicine. Microbiotica is now a leading biotechnology company that discovers, develops, manufacturers and commercialises medicines to treat patients. Microbiotica has received £8M in seed funding from Cambridge Innovation Capital and IP Group and in June 2018, sealed a $534M deal with Genentech. |
12:20 - 12:40 |
Dissecting the role of multi-kingdom microbial consortia on plant health
Roots of healthy plants are inhabited by soil-derived bacteria, fungi, and oomycetes that have evolved independently in distinct kingdoms of life. How these microorganisms interact and to what extent those interactions affect plant health are poorly understood. We examined root-associated microbial communities from three Arabidopsis thaliana populations and detected mostly negative correlations between bacteria and filamentous microbial eukaryotes. We established microbial culture collections for reconstitution experiments using germ-free A. thaliana. In plants inoculated with mono- or multi-kingdom synthetic microbial consortia, we observed a profound impact of the bacterial root microbiota on fungal and oomycetal community structure and diversity. We demonstrate that the bacterial microbiota is essential for plant survival and protection against root-derived filamentous eukaryotes. Deconvolution of 2,862 binary bacterial-fungal interactions ex situ, combined with community perturbation experiments in planta, indicate that biocontrol activity of bacterial root commensals is a redundant trait that maintains microbial inter-kingdom balance for plant health. Dr Stéphane Hacquard, Max Plank Institute for Plant Breeding Research
Dr Stéphane Hacquard, Max Plank Institute for Plant Breeding ResearchStéphane Hacquard did his PhD in the lab of Dr. F. Martin/Dr. S. Duplessis (INRA Nancy, France) on the identification of rust fungal effectors using a combination of omics approaches. In 2011, he went for a 2-year post-doc at the Max Planck Institute for Plant Breeding Research in Cologne, Germany, in the laboratories of Prof P. Schulze-Lefert and Dr. Richard O’Connell, where he characterized fungal transcriptional signatures linked to pathogenic transitions in Arabidopsis leaves. In 2013, he got the opportunity to develop his own research project on the microbiota of Arabidopsis roots in the group of Prof. Schulze-Lefert. Since January 2017, he leads a research team at the Max Planck Institute for Plant Breeding Research in Cologne, where he studies the fundamental mechanisms that underlie the structure and the functions of multi-kingdom microbial consortia colonizing plant roots. S. Hacquard has published ~25 articles in peer-reviewed journals and recently obtained an ERC starting grant to support his research activities. |
12:45 - 13:05 |
AgBiome: Harvesting the Plant Microbiome
AgBiome is a biotechnology company applying advanced knowledge of the plant-associated microbiome to create innovative products for agriculture. Our research platform allows us to efficiently capture and screen the most diverse and unique microbes for agriculturally relevant applications. To drive our discoveries, we use our in-depth knowledge of the crop microbiome and an extensive network of field-sampling partners to build an ever-expanding proprietary strain collection. This collection sources the discovery of new biologicals and trait genes for use in disease and pest control. Unlike many programs which only use metagenomic surveys, the AgBiome platform is focused on isolated microbial strains and their fully sequenced genomes, which gives us unparalleled insight into the detailed genomic composition of crop-associated microbes. Isolate sequences are used to de-replicate the collection and uncover true microbial diversity at an even deeper level than 16S rRNA identity alone. Microbes from our collection are screened in innovative high-throughput assays against a broad range of fungal pathogens, insect pests, and plant-parasitic nematodes. Successful candidates are tested in field trials and confirmed active biologicals proceed through our fermentation and formulation pipeline. As we continue to integrate sequence data with performance data across multiple assays and field trials, the AgBiome team will improve our ability to quickly identify active leads that are attractive product candidates and will begin to correlate the effect of microbe communities on plant health. Dr Tracy Raines, AgBiome
Dr Tracy Raines, AgBiomeTracy Raines is a Research Director of Trait Discovery at AgBiome, helping to discover many insecticidal proteins with novel modes of action against pests of agricultural significance. Tracy has over 18 years of scientific and leadership experience within industry and academic environments. She began her career in agriculture biotech in 1998 as one of the early team members of Paradigm Genetics. There she helped develop and optimize the high-throughput gene discovery pipeline for the company’s GeneFunction Factory. In 2001, Tracy joined Athenix Corporation where she was responsible for the design and implementation of MiDAS, the high-throughput insecticidal gene discovery system, from its beginning stages. During her time at Athenix, the team discovered and assayed over 30 novel insecticidal-like proteins from soil bacteria, several having activity on pests of agricultural significance. Tracy received her undergraduate degree in Biology from Virginia Tech in 1998. She earned her Ph.D. in Biology from the University of North Carolina at Chapel Hill in 2014 where she studied the role of cytokinin signaling in Arabidopsis thaliana. |
Chair
Professor Denise Kelly, Seventure Partners
Professor Denise Kelly, Seventure Partners
Professor Denise Kelly joined Seventure Partners, a European Leader in Venture Capital, in 2015 as an Investment Advisor to the Life Sciences Team and is focused specifically on Human Microbiome investment opportunities across Europe and the USA.
Prior to joining Seventure, Denise was Head of her Research team at the World-renowned Rowett Institute, University of Aberdeen, where she acquired over 20 years experience in gut microbiology and immunology. She was the (former) Founder Director, CEO and CSO of GT Biologics Ltd, one of the first translational spinouts, developing Innovative Microbiome-based Therapies. She is the main inventor on numerous EU and USA patent applications and during her career has collaborated with pharmaceutical and healthcare companies on several translational projects.
Denise holds a BSc and PhD from Queen’s University, Belfast and an Emeritus Professorship from the University of Aberdeen.
14:05 - 14:25 |
Host microbiome interactions in health and disease
The mammalian intestine contains trillions of microbes, a community that is dominated by members of the domain Bacteria but also includes members of Archaea, Eukarya, and viruses. The vast repertoire of this microbiome functions in ways that benefit the host. The mucosal immune system co-evolves with the microbiota beginning at birth, acquiring the capacity to tolerate components of the community while maintaining the capacity to respond to invading pathogens. The gut microbiota is shaped and regulated by multiple factors including our genomic composition, the local intestinal niche and multiple environmental factors including our nutritional repertoire and bio-geographical location. Moreover, it has been recently highlighted that dysregulation of these genetic or environmental factors leads to aberrant host-microbiome interactions, ultimately predisposing to pathologies ranging from chronic inflammation, obesity, the metabolic syndrome and even cancer. We have identified various possible mechanisms participating in the reciprocal regulation between the host and the intestinal microbial ecosystem, and demonstrate that disruption of these factors, in mice and humans, lead to dysbiosis and susceptibility to common multi-factorial disease. Understanding the molecular basis of host-microbiome interactions may lead to development of new microbiome-targeting treatments. Professor Eran Elinav, The Weizmann Institute of Science
Professor Eran Elinav, The Weizmann Institute of ScienceProfessor Eran Elinav, M.D., Ph.D. is a professor at the Department of Immunology, Weizmann Institute of Science. His lab focuses on deciphering the molecular basis of host-microbiome interactions and their effects on health and disease, with a goal of personalizing medicine and nutrition. Dr. Elinav completed his medical doctor’s (MD) degree at the Hebrew University of Jerusalem Hadassah Medical Center summa cum laude, followed by a clinical internship, residency in internal medicine, and a physician-scientist position at the Tel Aviv Medical Center Gastroenterology institute. He received a PhD in immunology from the Weizmann Institute of Science, followed by a postdoctoral fellowship at Yale University School of Medicine. Dr. Elinav has published more than 120 publications in leading peer-reviewed journals, including major recent discoveries related to the effects of host genetics, innate immune function and environmental factors, such as dietary composition and timing, on the intestinal microbiome and its propensity to drive multi-factorial disease. His honors include multiple awards for academic excellence including the Claire and Emmanuel G. Rosenblatt award from the American Physicians for Medicine (2011), the Alon Foundation award (2012), the Rappaport prize for biomedical research (2015), the Lindner award (2016) and the Levinson award for basic science research (2016). Since 2016 he is a senior fellow at the Canadian Institute For Advanced Research (CIFAR), and since 2017 he’s an international scholar at the Howard Hughes Medical Institute (HHMI) and the Bill & Melinda Gates Foundation. |
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14:30 - 14:50 |
Gut reactions: Immune pathways in the intestine in health and disease
The gastrointestinal (GI) tract is home to a large number and vast array of bacteria that play an important role in nutrition, immune system development and host defense. In inflammatory bowel disease (IBD) there is a breakdown in this mutualistic relationship resulting in aberrant inflammatory responses to intestinal bacteria. In this presentation I will discuss microbial products that promote innate and adaptive immune responses in the intestine and how these may be exploited therapeutically. Professor Fiona Powrie FRS, Kennedy Institute of Rheumatology, University of Oxford, UK
Professor Fiona Powrie FRS, Kennedy Institute of Rheumatology, University of Oxford, UKProfessor Dame Fiona Powrie is Director of the Kennedy Institute of Rheumatology, University of Oxford, a Fellow of the Royal Society and the Academy of Medical Sciences and a Governor of the Wellcome Trust. She gained a PhD in immunology at the University of Oxford and then moved to the DNAX Research Institute in Palo Alto, before returning to Oxford in 1996 as a Wellcome Trust Senior Research Fellow. Prior to her appointment to the Kennedy Institute, Fiona Powrie was the Sidney Truelove Professor of Gastroenterology and Head of the Translational Gastroenterology Unit, Oxford (2009- 2014). Her research examines the relationship between the intestinal microbiome and the host immune system and how this mutualistic relationship breaks down in inflammatory bowel disease, arthritis and cancer. Fiona Powrie has received numerous prestigious prizes and awards, including the Louis Jeantet Prize for Medicine in 2012. She was elected an international member of the National Academy of Sciences in 2020 and was appointed Deputy Chair of the Wellcome Board of Governors and Dame Commander of the Most Excellent Order of the British Empire (DBE), for services to Medical Science, in 2022. |
14:55 - 15:15 |
A soil-borne legacy: Disease-induced assemblage of a plant-beneficial bacterial consortium
Disease suppressive soils typically develop after a disease outbreak due to the subsequent assembly of protective microbiota in the rhizosphere. The role of the plant immune system in the assemblage of a protective rhizosphere microbiome is largely unknown. We recently demonstrated that Arabidopsis thaliana specifically promotes three bacterial species in the rhizosphere upon foliar defense activation by the downy mildew pathogen Hyaloperonospora arabidopsidis. The promoted bacteria were isolated and found to interact synergistically in biofilm formation in vitro. Although separately these bacteria did not affect the plant significantly, together they induced systemic resistance against downy mildew and promoted growth of the plant. Moreover, we show that the soil-mediated legacy of a primary population of downy mildew infected plants confers enhanced protection against this pathogen in a second population of plants growing in the same soil. Together our results indicate that plants can adjust their root microbiome upon pathogen infection and specifically recruit a group of disease resistance-inducing and growth-promoting beneficial microbes, therewith potentially maximizing the chance of survival of their offspring that will grow in the same soil. Dr Roeland Berendsen, Utrecht University
Dr Roeland Berendsen, Utrecht UniversityRoeland Berendsen is a senior scientist in the Plant-Microbe Interactions group at Utrecht University. His research is focused on the functioning of the rhizosphere microbiome in maintaining plant health. He aims to find out how plants are able to recruit protective microorganisms, and enhance the microbial activity to suppress pathogens in the rhizosphere. A comprehensive understanding of the mechanisms that govern selection and activity of microbial communities by plant roots will provide new opportunities to increase crop production. |
15:20 - 15:40 |
The bovine ruminal microbiome: structure and function
Ruminants provide human society with high quality food from non-human-edible resources, but their emissions negatively impact the environment via greenhouse gas production. The rumen and its resident microorganisms, principally anaerobic bacteria and fungi, protozoa and archaea, dictate both processes. Recently, a 1000 dairy cow study revealed a global core microbiome present in the rumen whose composition and abundance predicted many of the cows’ production phenotypes, including methane emission. Certain members of the core microbiome are heritable and have strong associations to cardinal rumen metabolites and fermentation products that govern the efficiency of milk production. These heritable core microbes therefore present primary targets for rumen manipulation towards sustainable and environmentally friendly agriculture. Furthermore, complementary metagenomics studies in beef cattle have revealed a subset of microbial genes from which methane emissions and feed efficiency (the efficiency of conversion of feed consumed to weight gain) can be predicted. The ruminal microbiome is predominantly determined by the composition of the feed, but the host animal also has a role in determining its composition and function. Professor John Wallace, University of Aberdeen
Professor John Wallace, University of AberdeenProf John Wallace held a personal chair in the Gut Health group at the Rowett Institute of Nutrition and Health at the University of Aberdeen until 2016, and is now Emeritus Professor at the University. He specializes in the microbiology of animal and human digestive tracts, most recently focussing on how the ruminal microbiome and metagenome determine the amounts of methane emitted by beef and dairy cattle. Prof Wallace was coordinator of three major research consortia funded by the European Commission, named ‘Rumen-up’, ‘REPLACE’ and ‘RuminOmics’, the last of which aimed to understand the relations between the ruminal microbiome, the host genome, and emissions of methane and nitrogen from dairy cows. Prof Wallace was awarded the DSM Nutrition Award in 2007 'in recognition of his pioneering research in animal nutrition.' He has published >200 peer-reviewed papers in international journals. He is a member of the FEEDAP (feed additives) panel of the European Food Safety Authority (EFSA). |
15:45 - 16:05 |
Using the microbiome for immune modulation in inflammatory bowel disease and cancer
This talk will present clinical and preclinical evidence supporting the development of microbiome based drugs consisting of consortia of commensal bacteria. Exploratory clinical studies of fecal transplant have shown a potential therapeutic the role of the microbiome in treating ulcerative colitis. In addition, recent data is now accumulating in solid cancer patients treated with checkpoint inhibitors showing that there is a microbiome correlate of response. This has prompted efforts to evaluate drugs consisting of microbial consortia in these indications. Results of a Phase 1 trial of SER-287 in patients with active mild-to-moderate ulcerative colitis and preclinical results with a SER-401, a candidate for use with checkpoint inhibitor therapy, will be discussed. Dr David N. Cook, Executive Vice President of R&D and Chief Scientific Officer, Seres Therapeutics
Dr David N. Cook, Executive Vice President of R&D and Chief Scientific Officer, Seres TherapeuticsDavid Cook is the Executive Vice President of R&D and Chief Scientific Officer of Seres. He has over 20 years of experience as a scientist and entrepreneur and has held senior operating and management positions in the biotechnology industry throughout his career. Prior to joining Seres, he served as the Chief Operating Officer for the International AIDS Vaccine Initiative (IAVI), a global R&D organization. Prior to IAVI, Dr. Cook was the founding CEO at Anza Therapeutics, a biotechnology startup that focused on developing a microbial vaccine platform to induce cellular immune responses. Before launching Anza, Dr. Cook held positions of increasing responsibility at the biotechnology corporations Cerus and Eligix, overseeing R&D, program management, manufacturing, and clinical and regulatory affairs. He has led teams in the development and commercialization of several biotech products and has been directly responsible for obtaining marketing authorization from the European Union for four medical products. Dr. Cook is also a co-inventor on more than 25 patents. He earned his undergraduate degree from Harvard College and his Ph.D. in chemistry from the University of California, Berkeley. |
Chair
Dr Mike Romanos, CEO Microbiotica
Dr Mike Romanos, CEO Microbiotica
Mike is co-founder and CEO of Microbiotica, which is commercialising leading microbiome science from the Wellcome Sanger Institute. He has 30 years’ experience in the biotech and pharma, previously co-founding Crescendo Biologics which he led as CEO and CSO for six years, building a leading discovery platform and pipeline in antibody fragment-based therapeutics. Prior to that he held senior global roles in GlaxoSmithKline over 10 years, during which time he built trans-national innovative R&D organisations which contributed to the company’s platforms and pipeline across therapeutic areas and across multiple product types, latterly as VP for Genomics/Target Discovery.
Mike is highly experienced in biotech translation and commercialisation, serving as a Trustee on the LifeArc Board, and previously Translator in Residence at Imperial College, Venture Partner for UK Innovation and Science Seed Fund, and member for MRC’s Developmental Pathway Funding Scheme panel.
Mike’s academic work included research in influenza virology (MRC, National Institute for Medical Research) and in yeast genetics and biotechnology (University of Leicester). He holds a degree in Natural Sciences from Cambridge University, a PhD in Molecular Virology from Imperial College, and is a Fellow of the Royal Society of Biology.
Panellists (confirmed)
Professor Ian Charles, Director, Quadram Institute
Professor Ian Charles, Director, Quadram InstituteIan returned to the UK from Australia where he was Director of the ithree institute, University of Technology, Sydney to take up his role as Director of the Quadram Institute Bioscience (formerly Institute of Food Research) and Founding Director of the Quadram Institute in May 2015. Ian has over 30 years’ experience in academic and commercial research. His academic career has included being a founding member of The Wolfson Institute for BioMedical Research at University College London, one the UK’s first institutes of translational medicine. He has worked in the pharmaceutical industry at Glaxo Wellcome, and has founded biotech companies in the area of infectious disease, including Arrow Therapeutics, sold to AstraZeneca in 2007, and Auspherix, a venture capital backed company founded in 2013. He is also a Non-Executive Director for Genus plc. Ian is an internationally recognised scientist and has expertise in infectious diseases, the microbiome, and its impact on health and wellbeing, genomics and metagenomics. Dr David N. Cook, Executive Vice President of R&D and Chief Scientific Officer, Seres Therapeutics
Dr David N. Cook, Executive Vice President of R&D and Chief Scientific Officer, Seres TherapeuticsDavid Cook is the Executive Vice President of R&D and Chief Scientific Officer of Seres. He has over 20 years of experience as a scientist and entrepreneur and has held senior operating and management positions in the biotechnology industry throughout his career. Prior to joining Seres, he served as the Chief Operating Officer for the International AIDS Vaccine Initiative (IAVI), a global R&D organization. Prior to IAVI, Dr. Cook was the founding CEO at Anza Therapeutics, a biotechnology startup that focused on developing a microbial vaccine platform to induce cellular immune responses. Before launching Anza, Dr. Cook held positions of increasing responsibility at the biotechnology corporations Cerus and Eligix, overseeing R&D, program management, manufacturing, and clinical and regulatory affairs. He has led teams in the development and commercialization of several biotech products and has been directly responsible for obtaining marketing authorization from the European Union for four medical products. Dr. Cook is also a co-inventor on more than 25 patents. He earned his undergraduate degree from Harvard College and his Ph.D. in chemistry from the University of California, Berkeley. Dr Ray Riley, Ret. Senior VP Product Development, Indigo
Dr Ray Riley, Ret. Senior VP Product Development, IndigoRay Riley recently retired as Senior VP, Product Development at Indigo – a company focused on “Harnessing nature to help farmers sustainably feed the planet”. Ray started his career at Pioneer Hi-Bred where he served in various roles ranging from Corn Breeder in Iowa to Research Director roles spanning US, Latin America, Africa and Asia. Ray joined Syngenta in 2000 as Global Head of Corn Supply Chain where he focused on improving seed supply chain efficiencies. In the mid-2000’s he oversaw the integration of R&D of several acquired seed companies and established an integrated research team with oversight of Syngenta’s Breeding Strategy and Seed Technology. In 2014 Ray became Head of Computational Biology, integrating Syngenta’s computational biology efforts spanning breeding, trait development (GM and native) and chemistry. In May of 2015 he joined Indigo as Sr VP Product Development. Professor Denise Kelly, Seventure Partners
Professor Denise Kelly, Seventure PartnersProfessor Denise Kelly joined Seventure Partners, a European Leader in Venture Capital, in 2015 as an Investment Advisor to the Life Sciences Team and is focused specifically on Human Microbiome investment opportunities across Europe and the USA. Prior to joining Seventure, Denise was Head of her Research team at the World-renowned Rowett Institute, University of Aberdeen, where she acquired over 20 years experience in gut microbiology and immunology. She was the (former) Founder Director, CEO and CSO of GT Biologics Ltd, one of the first translational spinouts, developing Innovative Microbiome-based Therapies. She is the main inventor on numerous EU and USA patent applications and during her career has collaborated with pharmaceutical and healthcare companies on several translational projects. Denise holds a BSc and PhD from Queen’s University, Belfast and an Emeritus Professorship from the University of Aberdeen. Professor Penny R Hirsch, Rothamsted Research
Professor Penny R Hirsch, Rothamsted ResearchUntil her recent retirement, Penny Hirsch led a group at Rothamsted Research working on soil microbiology and molecular ecology in an agricultural context, where she continues in an emeritus position. Over the years, she has worked with fungi and bacteria, on rhizosphere interactions and other microbial activity in soil that supports plant health and productivity, including nitrogen cycling. This is combined with long experience on the extraction, amplification and bioinformatics analysis of DNA and RNA sequences derived from soil and the rhizosphere. Recent research has focused on nutrient cycling in arable systems and the relationship between the soil and crop plant microbiomes, applying metagenomics and metatranscriptomics, in addition to more conventional approaches. The long-term field experiments at Rothamsted have provided valuable resource for applying these techniques to determine agronomic impacts on soil and plant microbiomes. Professor Philip Poole, University of Oxford, UK
Professor Philip Poole, University of Oxford, UKPhilip Poole was Professor of Microbial Physiology at the University of Reading until he moved to the John Innes Centre in Norwich in 2007. In 2013, he took up a personal chair as Professor of Plant Microbiology at the University of Oxford. His group studies the physiology of bacterial growth and survival in the rhizosphere, colonisation of roots and how bacteria establish symbiotic interactions with plants. A further focus of his research is the physiology and biochemistry of nitrogen fixation in legume nodules. Recently he has developed new methods to study how plants control the plant root microbiome. |
Professor Richard Flavell CBE FRS
Professor Richard Flavell CBE FRSRichard Flavell is a plant geneticist who has focused much attention on traits important in crop plants. In the last five years he has served as Chief Scientist in two companies in the USA. The first, Indigo, Cambridge, Massachusetts is an agricultural microbiome company. The second, Inari, is an agricultural plant genetics company. He is currently a consultant for companies and public sector organizations committed to plant improvement, including the International Wheat Yield Partnership. After his undergraduate degree in microbiology and his PhD in the John Innes Institute and the University of East Anglia, he spent two years of postdoctoral research in Stanford University, California. He then joined the Plant Breeding Institute in Cambridge (UK) where he built up a large Department of Plant Molecular Genetics between 1969 and 1987. He was then appointed as Director of the John Innes Centre (JIC), Norwich and to a chair at the University of East Anglia and oversaw a large expansion of JIC’s activities and impact. In 1998 he became the Chief Scientific Officer of Ceres, a young plant genomics company in California. This became a public company and was recently bought by a multinational agricultural company. He is a Fellow of the Royal Society and a Commander of the British Empire for services to science. |