Dr. Christina Warinner
The human body contains tens of trillions cells, of which more than half are microbial. Yet we know surprisingly little about the origins and evolution of these underexplored and mostly nameless microorganisms, collectively known as the human microbiome.
The Microbiome Sciences group studies the ecology, diversity, and evolution of human-associated microorganisms by combining investigations of archaeological and contemporary samples and using methods in based in genomics, proteomics, and metabolomics. Core research areas include the evolution of the hominid oral microbiome, recent ecological changes in the human gut microbiome, and the discovery and characterization of heirloom microbes in traditional fermented foods.
Dairying and Dietary Adaptive Evolution in Prehistory
Origins of Dairying in Ancient Central Africa Project
Origins of Dairying in Ancient Central Asia Project
Origins of Dairying in Ancient Europe Project
Uncovering Dietary Practices through the Proteomic Analysis of Ceramics
Evolution and Ecology of the Human Gut Microbiome
Evolution and Ecology of the Human Oral Microbiome
Ancient Nepal Population Genetics
Dr. Kirsten Bos
Improved techniques in ancient DNA retrieval allow us to sequence sufficient DNA from preserved archaeological tissues to computationally reconstruct ancient pathogen genomes.
From this the molecular palaeopathology group tackles historical questions relating to the changing landscape of infectious disease over time, host-pathogen coevolution, and the biological consequences of European and New World contact. Currently our work focuses on historical Yersinia pestis pandemics and ancient tuberculosis.
Dr. Wolfgang Haak
The Molecular Anthropology group works at the interface of human genetics, medical sciences, archaeology, anthropology, and linguistics.
Our main aim is to investigate and evaluate ancient human genome-wide data in the light of data from neighboring disciplines to generate a detailed and comprehensive portrait of human prehistory over the last 20,000 years. Our portfolio ranges from global outlooks on population affinities, migrations and past demography to intra-group relationships, and also encompasses the interaction with and response to changing environmental factors, such as climate, diet and disease.
Dr. Alexander Herbig
The focus of our research is on the development and application of computational tools in the field of pathogenomics.
The reconstruction of genomes of ancient bacterial pathogens is the basis for studying their evolution. This involves phylogenetic analyses for the elucidation of a pathogen's ancestry, and for the identification of functional variants potentially causing phenotypic differences. In this context we work on various human pathogens such as Yersinia pestis, Mycobacterium leprae or Mycobacterium tuberculosis in order to gain insights into the evolution of mechanisms of pathogenicity and host adaptation. In addition, studying coevolution of bacteria and humans is of major interest in particular with respect to microbes that evolved together with their human host for millennia, such as the stomach populating bacterium Helicobacter pylori.
Population Genetics & MHAAM
Dr. Choongwon Jeong
Our group investigates temporal changes of human population structure using ancient and modern genomes and links them to archaeological contexts, with a strong emphasis on the Mediterranean.
The primary goal of our group is to characterize the genetic structure of human populations in multiple time layers and to understand causes that form the structure and that drive its change over time. Previous archaeogenetic studies have shown that climatic shifts such as the last glacial maximum as well as the cultural ones such as the introductions of agriculture and metallurgy are associated with dynamic changes of the genetic structure of human populations. We produce population-scale ancient genome data and apply state-of-the-arts population genetic analysis tools to achieve this goal in the Mediterranean and in the Inner Eurasia.
Dr. Adam Powell
Our group works on the interactions between human genetic and cultural evolutionary systems, integrating methods and data from population genetics, anthropology, archaeology, historical linguistics and quantitative history.
Gene-culture coevolution is the comprehensive study of human evolutionary history, drawing from a range of disciplines to infer the uniquely human processes underlying the distribution of modern or ancient genetic variation. We develop simulation and statistical inference methods, including geographic and palaeoenvironmental modeling, to create a unified framework for human demographic inference.
Dr. Stephan Schiffels
Our group analyses genetic data from ancient and modern populations to advance our understanding of human history.
Examples include the inference of historical population size changes within the last 200,000 years, exploring world-wide diversification of populations after the migration out of Africa within the last 50,000 years, and studying particularly recent migration events, such as the Anglo-Saxon migration period into England 1500 years ago. Particular focus is put on the development of mathematical models and new methods to push the limits of genetic inference towards the more recent past.