, January 28, 2026
Regulation of extracellular vesicles for protein secretion in <i>Aspergillus nidulans</i>

Regulation of extracellular vesicles for protein secretion in Aspergillus nidulans

Rebekkah E. Pope1, Patrick Ballmann2, Lisa Whitworth3 and Rolf A. Prade1,*

This study reveals that Aspergillus nidulans boosts extracellular vesicle production when ER-trafficked enzymes are induced, uncovering how fungi remodel their secretome through vesicle-mediated secretion to adapt to changing environments and biofilm formation.

January 23, 2026
Transcriptomic response to different heme sources in <i>Trypanosoma cruzi</i> epimastigotes

Transcriptomic response to different heme sources in Trypanosoma cruzi epimastigotes

Evelyn Tevere1,a, María G. Mediavilla1,a, Cecilia B. Di Capua1, Marcelo L. Merli1, Carlos Robello2,3, Luisa Berná2,4 and Julia A. Cricco

This study uncovers how the Chagas disease parasite adapts to changes in heme, an essential molecule for its survival, providing transcriptional clues to heme metabolism and identifying a previously unreported heme-binding protein in T. cruzi.

, January 21, 2026

Sir2 regulates selective autophagy in stationary-phase yeast cells

Ji-In Ryua, Juhye Junga, and Jeong-Yoon Kim

This study establishes Sir2 as a previously unrecognized regulator of selective autophagy during the stationary phase and highlight how cells dynamically control organelle degradation.

, December 18, 2015

Global translational impacts of the loss of the tRNA modification t6A in yeast

Patrick C. Thiaville1,2,3,4, Rachel Legendre4, Diego Rojas-Benítez5, Agnès Baudin-Baillieu4, Isabelle Hatin4, Guilhem Chalancon6, Alvaro Glavic5, Olivier Namy4, Valérie de Crécy-Lagard1,3

The universal tRNA modification t6A is found at position 37 of nearly all tRNAs decoding ANN codons. Analysis of codon occupancy rates suggests that one of the major roles of t6A is to homogenize the process of elongation by slowing the elongation rate at codons decoded by high abundance tRNAs and I34:C3 pairs while increasing the elongation rate of rare tRNAs and G34:U3 pairs. This work reveals that the consequences of t6A absence are complex and multilayered and has set the stage to elucidate the molecular basis of the observed phenotypes.

, December 11, 2015

Ergosterone-coupled Triazol molecules trigger mitochondrial dysfunction, oxidative stress, and acidocalcisomal Ca2+ release in Leishmania mexicana promastigotes

Figarella K1, Marsiccobetre S1, Arocha I1, Colina W2, Hasegawa M2,†, Rodriguez M2, Rodriguez-Acosta A3, Duszenko M4, Benaim G5, Uzcategui NL3

The protozoan parasite Leishmania causes a variety of sicknesses with different clinical manifestations known as leishmaniasis. Investigations looking for new targets or new active molecules focus mainly on the disruption of parasite specific pathways. In this sense, ergosterol biosynthesis is one of the most attractive because it does not occur in mammals. Our results indicate that ergosterone-triazol coupled molecules induce a regulated cell death process in the parasite and may represent starting point molecules in the search of new chemotherapeutic agents to combat leishmaniasis.

November 13, 2015

INO1 transcriptional memory leads to DNA zip code-dependent interchromosomal clustering

Donna Garvey Brickner, Robert Coukos and Jason H. Brickner

Many genes localize at the nuclear periphery through physical interaction with the nuclear pore complex (NPC). We have found that the yeast INO1 gene is targeted to the NPC both upon activation and for several generations after repression, a phenomenon called epigenetic transcriptional memory. Targeting of INO1 to the NPC requires distinct cis-acting promoter DNA zip codes under activating conditions and under memory conditions. When at the nuclear periphery, active INO1 clusters with itself and with other genes that share the GRS I zip code. Here, we show that during memory, the two alleles of INO1 cluster in diploids and endogenous INO1 clusters with an ectopic INO1 in haploids. After repression, INO1 does not cluster with GRS I – containing genes. Furthermore, clustering during memory requires Nup100 and two sets of DNA zip codes…

November 11, 2015

A central role for TOR signalling in a yeast model for juvenile CLN3 disease

Michael E. Bond1, Rachel Brown1, Charalampos Rallis3,4, Jürg Bähler3,4 and Sara E. Mole1,2,3

Yeasts provide an excellent genetically tractable eukaryotic system for investigating the function of genes in their biological context, and are especially relevant for those conserved genes that cause disease. Bond et al. study the role of btn1, the orthologue of a human gene that underlies an early onset neurodegenerative disease (juvenile CLN3 disease, neuronal ceroid lipofuscinosis (NCLs) or Batten disease) in the fission yeast Schizosaccharomyces pombe.

October 23, 2015

Micafungin induced apoptosis in Candida parapsilosis independent of its susceptibility to micafungin

Fazal Shirazi1, Russel E. Lewis1,2, Dimitrios P. Kontoyiannis1

Shirazi et al. studied the effects of the cell wall inhibitor micafungin (MICA) on apoptosis in both MICA-susceptible (MICA-S) and MICA–non-susceptible (MICA-NS) Candida parapsilosis.

October 22, 2015

Oxygen availability strongly affects chronological lifespan and thermotolerance in batch cultures of Saccharomyces cerevisiae

Markus M.M. Bisschops1,3,#, Tim Vos1,#, Rubén Martínez-Moreno2,4, Pilar de la Torre Cortés1, Jack T. Pronk1, Pascale Daran-Lapujade1

Stationary-phase (SP) batch cultures of Saccharomyces cerevisiae, in which growth has been arrested by carbon-source depletion, are widely applied to study chronological lifespan, quiescence and SP-associated robustness. Based on this type of experiments, typically performed under aerobic conditions, several roles of oxygen in aging have been proposed. However, SP in anaerobic yeast cultures has not been investigated in detail. Here, we use the unique capability of S. cerevisiae to grow in the complete absence of oxygen to directly compare SP in aerobic and anaerobic bioreactor cultures. This comparison revealed strong positive effects of oxygen availability on adenylate energy charge, longevity and thermotolerance during SP. A low thermotolerance of…

September 21, 2015

DNA damage checkpoint adaptation genes are required for division of cells harbouring eroded telomeres

Sofiane Y. Mersaoui, Serge Gravel, Victor Karpov, and Raymund J. Wellinger

In budding yeast, telomerase and the Cdc13p protein are two key players acting to ensure telomere stability. This article shows that while the capping process can be flexible, it takes a very specific genetic setup to allow a change from canonical capping to alternative capping.

September 6, 2015

The MAPKKKs Ste11 and Bck1 jointly transduce the high oxidative stress signal through the cell wall integrity MAP kinase pathway

Chunyan Jin#, Stephen K. Kim, Stephen D. Willis and Katrina F. Cooper

Oxidative stress stimulates the Rho1 GTPase, which in turn induces the cell wall integrity (CWI) MAP kinase cascade. CWI activation promotes stress-responsive gene expression through activation of transcription factors (Rlm1, SBF) and nuclear release and subsequent destruction of the repressor cyclin C. This study reports that, in response to high hydrogen peroxide exposure, or in the presence of constitutively active Rho1, cyclin C still translocates to the cytoplasm and is degraded in cells lacking Bck1, the MAPKKK of the CWI pathway.

September 6, 2015

Formyl-methionine as a degradation signal at the N-termini of bacterial proteins

Konstantin I. Piatkov1,3,#, Tri T. M. Vu1,#, Cheol-Sang Hwang2 and Alexander Varshavsky1

Varshavsky and colleagues solve a long-standing mystery in proteolysis! In bacteria, all nascent proteins bear the pretranslationally formed N-terminal formyl-methionine (fMet) residue. The fMet residue is cotranslationally deformylated by a ribosome-associated deformylase. The formylation of N-terminal Met in bacterial proteins is not strictly essential for either translation or cell viability. Moreover, protein synthesis by the cytosolic ribosomes of eukaryotes does not involve the formylation of N-terminal Met. What, then, is the main biological function of this metabolically costly, transient, and not strictly essential modification of N‑terminal Met, and why has Met formylation not been eliminated during bacterial evolution? One possibility is that the similarity of the formyl and acetyl groups, their identical locations in…

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, April 11, 2018

A novel mechanism for regulation of the type I IFN response by herpesvirus deconjugases

Soham Gupta1, Päivi Ylä-Anttila1, Maria G. Masucci1

In this article, the authors comment on the study “Herpesvirus deconjugases inhibit the IFN response by promoting TRIM25 autoubiquitination and functional inactivation of the RIG-I signalosome” by Gupta et al. (PLoS Pathog, 2018), discussing the finding of a novel mechanism for regulation of the type I IFN response by herpesvirus deconjugases.

, April 4, 2018

Metabolic disharmony and sibling conflict mediated by T6SS

Vera Troselj1 and Daniel Wall1

In this article, the authors comment on the study “Physiological Heterogeneity Triggers Sibling Conflict Mediated by the Type VI Secretion System in an Aggregative Multicellular Bacterium” by Troselj et al. (MBio, 2018) discussing that M. xanthus uses T6SS to eliminate less fit cells from their population and identified toxic effector and cognate immunity protein (TsxEI) that mediates this sibling antagonism.

, March 22, 2018

Helicobacter hepaticus polysaccharide induces an anti-inflammatory response in intestinal macrophages

Camille Danne1 and Fiona Powrie1

In this article, the authors comment on the study “A Large Polysaccharide Produced by Helicobacter hepaticus Induces an Anti-inflammatory Gene Signature in Macrophages. ” by Danne et al, (Cell Host Microbe 2017), discussing the interactions between H. hepaticus and intestinal macrophages that promote mutualism.

, March 21, 2018

Endolysosomal pathway activity protects cells from neurotoxic TDP-43

Christine Leibiger1,#, Jana Deisel1,#, Andreas Aufschnaiter2, Stefanie Ambros1, Maria Tereshchenko1, Bert M. Verheijen3,4, Sabrina Büttner2,5, and Ralf J. Braun1

In this article, the authors comment on the study “TDP-43 controls lysosomal pathways thereby determining its own clearance and cytotoxicity” by Leibiger et al. (Hum Mol Genet, 2018), proposing that ameliorating endolysosomal pathway activity enhances cell survival in TDP‑43-associated diseases.

, February 18, 2018

Two distinct penicillin binding proteins promote cell division in different Salmonella lifestyles

Sónia Castanheira1, Juan J. Cestero1, Francisco García-del Portillo1, M. Graciela Pucciarelli1,2,3

In this article, the authors comment on the study “A Specialized Peptidoglycan Synthase Promotes Salmonella Cell Division inside Host Cells” by Castanheira et al. (mBio, 2017), discussing insights in two distinct penicillin binding proteins that promote cell division in different Salmonella lifestyles.

, January 16, 2018

New perspectives from South-Y-East, not all about death

A report of the 12th lnternational Meeting on Yeast Apoptosis in Bari, Italy, May 14th-18th, 2017

Nicoletta Guaragnella1,#, Mariarita Stirpe2,#, William Burhans3, Manuela Côrte-Real4, Campbell Gourlay5, Paula Ludovico6,7, Frank Madeo8,9, Dina Petranovic10, Joris Winderickx11, Cristina Mazzoni2 and Sergio Giannattasio1

In this article Guaragnella et al. report on the 12th International Meeting on Yeast Apoptosis (IMYA12), which was held in Bari, Italy from May 14th to 18th, 2017, where more than 100 participants, among which senior and young scientists from Europe, USA, North Africa and Japan, had an intense and open exchange of achievements and ideas in the field of yeast regulated cell death (RCD).

, January 12, 2018

pH homeostasis links the nutrient sensing PKA/TORC1/Sch9 ménage-à-trois to stress tolerance and longevity

Marie-Anne Deprez1,°, Elja Eskes1,°, Tobias Wilms1, Paula Ludovico2, Joris Winderickx1

In this article, Deprez et al. discuss accumulating evidence indicates that pH homeostasis plays a prominent role in the determination of ageing and longevity, thereby providing new perspectives and avenues to explore the underlying molecular mechanisms.

, January 1, 2018

Guidelines and recommendations on yeast cell death nomenclature

Didac Carmona-Gutierrez1,‡,*, Maria Anna Bauer1,‡, Andreas Zimmermann1, Andrés Aguilera2, Nicanor Austriaco3, Kathryn Ayscough4, Rena Balzan5, Shoshana Bar-Nun6, Antonio Barrientos7,8, Peter Belenky9, Marc Blondel10, Ralf J. Braun11, Michael Breitenbach12, William C. Burhans13, Sabrina Büttner1,14, Duccio Cavalieri15, Michael Chang16, Katrina F. Cooper17, Manuela Côrte-Real18, Vítor Costa19–21, Christophe Cullin22, Ian Dawes23, Jörn Dengjel24, Martin B. Dickman25, Tobias Eisenberg1,26, Birthe Fahrenkrog27, Nicolas Fasel28, Kai-Uwe Fröhlich1, Ali Gargouri29, Sergio Giannattasio30, Paola Goffrini31, Campbell W. Gourlay32, Chris M. Grant33, Michael T. Greenwood34, Nicoletta Guaragnella30, Thomas Heger35, Jürgen Heinisch36, Eva Herker37, Johannes M. Herrmann38, Sebastian Hofer1, Antonio Jiménez-Ruiz39, Helmut Jungwirth1, Katharina Kainz1, Dimitrios P. Kontoyiannis40, Paula Ludovico41,42, Stéphen Manon43, Enzo Martegani44, Cristina Mazzoni45, Lynn A. Megeney46–48, Chris Meisinger49, Jens Nielsen50–52, Thomas Nyström53, Heinz D. Osiewacz54, Tiago F. Outeiro55–58, Hay-Oak Park59, Tobias Pendl1, Dina Petranovic50,51, Stephane Picot60,61, Peter Polčic62, Ted Powers63, Mark Ramsdale64, Mark Rinnerthaler65, Patrick Rockenfeller1,32, Christoph Ruckenstuhl1, Raffael Schaffrath66, Maria Segovia67, Fedor F. Severin68, Amir Sharon69, Stephan J. Sigrist70, Cornelia Sommer-Ruck1, Maria João Sousa18, Johan M. Thevelein71,72, Karin Thevissen73, Vladimir Titorenko74, Michel B. Toledano75, Mick Tuite32, F.-Nora Vögtle49, Benedikt Westermann11, Joris Winderickx76, Silke Wissing77, Stefan Wölfl78, Zhaojie J. Zhang79, Richard Y. Zhao80, Bing Zhou81, Lorenzo Galluzzi82–84,*, Guido Kroemer84–90,*, Frank Madeo1,26,*

In this review, we propose unified criteria for the definition of accidental, regulated, and programmed forms of cell death in yeast based on a series of morphological and biochemical criteria. Specifically, we provide consensus guidelines on the differential definition of terms including apoptosis, regulated necrosis, and autophagic cell death, as we refer to additional cell death routines that are relevant for the biology of yeast.

, December 31, 2017

Burkholderia gladioli strain NGJ1 deploys a prophage tail-like protein for mycophagy

Rahul Kumar1, Sunil Kumar Yadav1, Durga Madhab Swain1 and Gopaljee Jha1

In this article, the authors comment on the study “A prophage tail-like protein is deployed by Burkholderia bacteria to feed on fungi” by Swain et al. (Nature Communications, 2017), discussing that a prophage tail-like protein (Bg_9562) is essential for mycophagy. The protein may help the bacteria to survive in certain ecological niches and, considering its broad-spectrum antifungal activity, may be potentially useful in biotechnological applications to control fungal diseases.

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, February 21, 2025

It takes four to tango: the cooperative adventure of scientific publishing

Didac Carmona-Gutierrez1,2, Katharina Kainz1 and Frank Madeo1-3

This Editorial is the 500th article published in Microbial Cell, a journey that started in 2014 and has seen the journal grow steadily and maintain itself as a respected community platform. The foundation that has allowed for and driven this development – as for any responsible journal – is composed of four essential pillars: the readers, the authors, the editors and the referees.

, August 20, 2024
Patterns of protein synthesis in the budding yeast cell cycle: variable or constant?

Patterns of protein synthesis in the budding yeast cell cycle: variable or constant?

Eun-Gyu No, Heidi M Blank and Michael Polymenis

Proteins are the principal macromolecular constituent of proliferating cells, and protein synthesis is viewed as a primary metric of cell growth. While there are celebrated examples of proteins whose levels are periodic in the cell cycle (e.g., cyclins), the concentration of most proteins was not thought to change in the cell cycle, but some recent results challenge this notion. The ‘bulk’ protein is the focus of this article, specifically the rate of its synthesis, in the budding yeast Saccharomyces cerevisiae.

, June 1, 2023

Ribose 5-phosphate: the key metabolite bridging the metabolisms of nucleotides and amino acids during stringent response in Escherichia coli?

Paulina Katarzyna Grucela1, Tobias Fuhrer2, Uwe Sauer2, Yanjie Chao3 and Yong Everett Zhang1

Here we propose the metabolite ribose 5’-phosphate as the key link between nucleotide and amino acid metabolisms and a working model integrating both the transcriptional and metabolic effects of (p)ppGpp on E. coli physiological adaptation during the stringent response.

August 24, 2022

Flagellated bacterial porter for in situ tumor vaccine

Haiheng Xu1, Yiqiao Hu1, 2 and Jinhui Wu1, 2, 3

Cancer immunotherapy, which use the own immune system to attack tumors, are increasingly popular treatments. But, due to the tumor immunosuppressive microenvironment, the antigen presentation in the tumor is limited. Recently, a growing number of people use bacteria to stimulate the body’s immunity for tumor treatment due to bacteria themselves have a variety of elements that activate Toll-like receptors. Here, we discuss the use of motility of flagellate bacteria to transport antigens to the tumor periphery to activate peritumoral dendritic cells to enhance the effect of in situ tumor vaccines.

August 1, 2022

The rise of Candida auris: from unique traits to co-infection potential

Nadine B. Egger1,§, Katharina Kainz1,§, Adina Schulze1, Maria A. Bauer1, Frank Madeo1-3 and Didac Carmona-Gutierrez1

Candida auris is a multidrug resistant (MDR) fungal pathogen with a crude mortality rate of 30-60%. First identified in 2009, C. auris has been rapidly rising to become a global risk in clinical settings and was declared an urgent health threat by the Centers for Disease Control and Prevention (CDC). A concerted global action is thus needed to successfully tackle the challenges created by this emerging fungal pathogen. In this brief article, we underline the importance of unique virulence traits, including its easy transformation, its persistence outside the host and its resilience against multiple cellular stresses, as well as of environmental factors that have mainly contributed to the rise of this superbug.

April 4, 2022

A hundred spotlights on microbiology: how microorganisms shape our lives

Didac Carmona-Gutierrez1, Katharina Kainz1, Andreas Zimmermann1, Sebastian J. Hofer1, Maria A. Bauer1, Christoph Ruckenstuhl1, Guido Kroemer2-4 and Frank Madeo1,5,6

Viral, bacterial, fungal and protozoal biology is of cardinal importance for the evolutionary history of life, ecology, biotechnology and infectious diseases. Various microbiological model systems have fundamentally contributed to the understanding of molecular and cellular processes, including the cell cycle, cell death, mitochondrial biogenesis, vesicular fusion and autophagy, among many others. Microbial interactions within the environment have profound effects on many fields of biology, from ecological diversity to the highly complex and multifaceted impact of the microbiome on human health. Also, biotechnological innovation and corresponding industrial operations strongly depend on microbial engineering. With this wide range of impact in mind, the peer-reviewed (…)

March 21, 2022

Yeast goes viral: probing SARS-CoV-2 biology using S. cerevisiae

Brandon Ho1, Raphael Loll-Krippleber1 and Grant W. Brown1

The budding yeast Saccharomyces cerevisiae has long been an outstanding platform for understanding the biology of eukaryotic cells. Robust genetics, cell biology, molecular biology, and biochemistry complement deep and detailed genome annotation, a multitude of genome-scale strain collections for functional genomics, and substantial gene conservation with Metazoa to comprise a powerful model for modern biological research. Recently, the yeast model has demonstrated its utility in a perhaps unexpected area, that of eukaryotic virology. Here we discuss three innovative applications of the yeast model system to reveal functions and investigate variants of proteins encoded by the SARS-CoV-2 virus.

, December 6, 2021

Murals meet microbes: at the crossroads of microbiology and cultural heritage

Maria A. Bauer1, Katharina Kainz1, Christoph Ruckenstuhl1, Frank Madeo1-3 and Didac Carmona-Gutierrez1

This article comments on the duality of microorganisms in the conservation and restoration of cultural heritage, which encompasses the negative impact of damaging microorganisms and recent advances in using specific microorganisms and microbial-based technologies for cultural heritage preservation.

, September 21, 2021

Urm1, not quite a ubiquitin-like modifier?

Lars Kaduhr1, Cindy Brachmann1, Keerthiraju Ethiraju Ravichandran2,3, James D. West4, Sebastian Glatt2 and Raffael Schaffrath1

This article comments on work published by Brachmann et al. (Redox Biol, 2020), which studied urmylation of the yeast 2-Cys peroxiredoxin Ahp1, uncovering that promiscuous lysine target sites and specific redox requirements determine the Urm1 acceptor activity of the peroxiredoxin.

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Microbial Cell

is an open-access, peer-reviewed journal that publishes exceptionally relevant research works that implement the use of unicellular organisms (and multicellular microorganisms) to understand cellular responses to internal and external stimuli and/or human diseases.

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Whether you’re preparing a manuscript, reviewing a paper, or just exploring the journal, this FAQ answers the essentials—from scope and founders to impact and how to submit. Prefer a tailored path? Pick For authors or For reviewers below.

Peer-reviewed, open-access research using unicellular organisms (and multicellular microorganisms) to understand cellular responses and human disease.

The journal (founded in 2014) is led by its Editors-in-Chief Frank Madeo, Didac Carmona-Gutierrez, and Guido Kroemer

Microbial Cell has been publishing original scientific literature since 2014, and from the very beginning has been managed by active scientists through an independent Publishing House (Shared science Publishers). The journal was conceived as a platform to acknowledge the importance of unicellular organisms, both as model systems as well as in the biological context of human health and disease.

Ever since, Microbial Cell has very positively developed and strongly grown into a respected journal in the unicellular research community and even beyond. This scientific impact is reflected in the yearly number of citations obtained by articles published in Microbial Cell, as recorded by the Web of Science (Clarivate, formerly Thomson/Reuters):

The scientific impact of Microbial Cell is also mirrored in a series of milestones:

2015: Microbial Cell is included in the Emerging Sources Citation Index (ESCI), a selection of developing journals drafted by Clarivate Analytics based on the candidate’s publishing standards, quality, editorial content, and citation data. Note: As an ESCI-selected journal, Microbial Cell is currently being evaluated in a rigorous and long process to determine an inclusion in the Science Citation Index Expanded (SCIE), which allows the official calculation of Clarivate Analytics’ impact factor.

2016: Microbial Cell is awarded the so-called DOAJ Seal by the selective Directory of Open Access Journals (DOAJ). The DOAJ Seal is an exclusive mark of certification for open access journals granted by DOAJ to journals that adhere to outstanding best practice and achieve an extra high and clear commitment to open access and high publishing standards.

2017: Microbial Cell is included in Pubmed Central (PMC), allowing the archiving of all the journal’s articles in PMC and PubMed.

2019: Microbial Cell is indexed in the prestigious abstract and citation database Scopus after a thorough selection process. This also means that Microbial Cell obtains, for the first time, an official Scopus CiteScore as well as an official journal ranking in the Scimago Journal and Country Ranking.

2022: Microbial Cell’s CiteScore reaches a value of 7.2 for the year 2021, positioning Microbial Cell among the top microbiology journals (previously available CiteScores: 2019: 5.4; 2020: 5.1).

2022: Microbial Cell is indexed in the highly selective Science Citation Index Expanded™, which covers approx. 9,500 of the world’s most impactful journals across 178 scientific disciplines. In their journal selection and curation process, Clarivate´s editors apply 24 ‘quality’ criteria and four ‘impact’ criteria to select the most influential journals in their respective fields. This selection is also a pre-requisite for inclusion in the JCR, which features the impact factor.

2022: Microbial Cell is listed in the Journal Citation Reports™ (JCR), and obtains its first official Journal Impact Factor™ (JIF) for the year 2021: 5.316.

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