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Non-model Yeasts and Filamentous Fungi: Established and Novel Methods in Genetics and Molecular Biology

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Dr. Ioannis A. Papaioannou

Dr. Ioannis A. Papaioannou

Center for Molecular Biology of Heidelberg University (ZMBH), Germany

Dr. Ioannis A. Papaioannou is a geneticist at the Center for Molecular Biology of Heidelberg University (ZMBH), in Germany. He studied Biology (BSc) at the National and Kapodistrian University of Athens, in Greece (NKUA), and he earned his MSc degree in Microbial Biotechnology (NKUA) in 2010. He completed his PhD in Biology at the Department of Genetics and Biotechnology (Faculty of Biology, NKUA) in 2015, where his research focused on the genetics of the parasexual cycle and vegetative incompatibility mechanisms in plant-pathogenic fungi. Following one year of post-doctoral research in the same lab working on a metagenomic study of soil microorganisms with biotechnological relevance, he moved to the ZMBH, as a post-doctoral research fellow. His current research interests lie primarily in the fields of microbial genetics and evolution. He combines tools and approaches of molecular genetics, genomics-bioinformatics, and cell biology to: i. study the mechanisms and impact of sexual and parasexual recombination on genome evolution, ii. characterize fungal genome stability and dynamics under varying environmental conditions, and iii. analyze the function of important fungal genes in cell communication and other important biological processes.

Collection Overview

Fungi play vital ecological roles in nature as major nutrient recyclers, establish mutualistic relationships with other organisms, and cause devastating diseases of plants and animals, including humans. They are instrumental in the production of food and key medicinal products, among many other biotechnological and industrial applications. The experimental tractability of a few fungi (e.g. the yeast Saccharomyces cerevisiae and the filamentous fungi Neurospora crassa and Aspergillus nidulans) attracted the attention of biologists in the classical genetics era, and they have served ever since as premier model organisms in eukaryotic genetics, molecular and cellular biology, and evolution. Nevertheless, classical model systems are not necessarily the most suitable organisms for addressing many questions in biology. The more recent advances in next-generation sequencing and genetic engineering now render the study of a much wider range of fungi feasible.

This Methods Collection aims to bring together a wide range of either established and extensively optimized or novel species-specific techniques for the genetic and molecular study of non-model fungi (e.g. methods for the extraction and analysis of nucleic acids and proteins, genetic transformation techniques, plasmid-mediated applications, gene knock-out and tagging, analysis of gene function in relevant biological processes, etc.). The methods may be relevant to either emerging model systems with already established research communities (e.g. species of Candida, methylotrophic yeasts, Eremothecium, Fusarium, Magnaporthe, Verticillium, Trichoderma, Metarhizium, Zymoseptoria, and Ustilago among others) or fungi that have attracted less attention so far.

Articles

Genetic Screen for Identification of Multicopy Suppressors in <em>Schizosaccharomyces pombe</em>
13:22

Genetic Screen for Identification of Multicopy Suppressors in Schizosaccharomyces pombe

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Cited by 1

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2022

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Abstracts

Quantifying the antifungal activity of compounds against Candida albicans

Amy Karlsson*1

1University of Maryland