Literature DB >> 30377756

Stressing out or stressing in: intracellular pathways for SAPK activation.

Jongmin Lee1, Li Liu1, David E Levin2,3.   

Abstract

Stress-activated MAP kinases (SAPKs) respond to a wide variety of stressors. In most cases, the pathways through which specific stress signals are transmitted to the SAPKs are not known. Our recent findings have begun to address two important and related questions. First, do various stresses activate a SAPK through common pathways initiated at the cell surface, or through alternative, intracellular inputs? Second, how does an activated SAPK mount a specific response appropriate to the particular stress experienced? Our work has uncovered the mechanisms by which two stresses, arsenite treatment and DNA damage, stimulate the yeast SAPKs Hog1 and Mpk1, respectively. We found that these stresses activate the SAPKs through intracellular inputs that modulate their basal phosphorylation, rather than by activation of the protein kinase cascades known to stimulate them. Both stresses act through targeting, in different ways, the tyrosine-specific or dual-specificity protein phosphatases that normally maintain the SAPKs in a low-activity state. Previous work has demonstrated that basal signal flux through SAPK pathways is important for the sensitivity and dynamic response to external signals. Our work reveals that basal activity of SAPKs is additionally important to allow SAPK activation by intracellular inputs that modulate that activity. Additionally, because different stressors may activate SAPKs by modulation of basal signal through inputs at distinct nodes along the canonical activation pathway, stress-specific SAPK outputs may be controlled, in part, by the specific intracellular mechanisms of their activation. Thus, understanding the intracellular pathways through which various stressors activate SAPKs is likely to provide insight into how they elicit physiologically coherent responses to the specific stress experienced.

Entities:  

Keywords:  Arsenite; Basal signal; Dual-specificity phosphatase; Genotoxic stress; Hog1; Mpk1; Protein tyrosine phosphatase

Mesh:

Substances:

Year:  2018        PMID: 30377756      PMCID: PMC6447071          DOI: 10.1007/s00294-018-0898-5

Source DB:  PubMed          Journal:  Curr Genet        ISSN: 0172-8083            Impact factor:   3.886


  25 in total

1.  Dynamic signaling in the Hog1 MAPK pathway relies on high basal signal transduction.

Authors:  Javier Macia; Sergi Regot; Tom Peeters; Núria Conde; Ricard Solé; Francesc Posas
Journal:  Sci Signal       Date:  2009-03-24       Impact factor: 8.192

2.  The HOG MAP kinase pathway is required for the induction of methylglyoxal-responsive genes and determines methylglyoxal resistance in Saccharomyces cerevisiae.

Authors:  Jaime Aguilera; Sonia Rodríguez-Vargas; Jose A Prieto
Journal:  Mol Microbiol       Date:  2005-04       Impact factor: 3.501

3.  The MAPK Hog1p modulates Fps1p-dependent arsenite uptake and tolerance in yeast.

Authors:  Michael Thorsen; Yujun Di; Carolina Tängemo; Montserrat Morillas; Doryaneh Ahmadpour; Charlotte Van der Does; Annemarie Wagner; Erik Johansson; Johan Boman; Francesc Posas; Robert Wysocki; Markus J Tamás
Journal:  Mol Biol Cell       Date:  2006-08-02       Impact factor: 4.138

Review 4.  Cell wall assembly in Saccharomyces cerevisiae.

Authors:  Guillaume Lesage; Howard Bussey
Journal:  Microbiol Mol Biol Rev       Date:  2006-06       Impact factor: 11.056

5.  Mitogen-activated protein kinase Hog1 is essential for the response to arsenite in Saccharomyces cerevisiae.

Authors:  Jael Sotelo; Miguel A Rodríguez-Gabriel
Journal:  Eukaryot Cell       Date:  2006-08-18

6.  Hog1p mitogen-activated protein kinase determines acetic acid resistance in Saccharomyces cerevisiae.

Authors:  Mehdi Mollapour; Peter W Piper
Journal:  FEMS Yeast Res       Date:  2006-12       Impact factor: 2.796

7.  A MAP kinase targeted by endotoxin and hyperosmolarity in mammalian cells.

Authors:  J Han; J D Lee; L Bibbs; R J Ulevitch
Journal:  Science       Date:  1994-08-05       Impact factor: 47.728

8.  Mitogen-activated protein kinase Hog1 is activated in response to curcumin exposure in the budding yeast Saccharomyces cerevisiae.

Authors:  Gajendra Kumar Azad; Vikash Singh; Mayur Jankiram Thakare; Shivani Baranwal; Raghuvir Singh Tomar
Journal:  BMC Microbiol       Date:  2014-12-19       Impact factor: 3.605

9.  Intracellular mechanism by which genotoxic stress activates yeast SAPK Mpk1.

Authors:  Li Liu; David E Levin
Journal:  Mol Biol Cell       Date:  2018-09-19       Impact factor: 4.138

10.  MAPK Hog1 closes the S. cerevisiae glycerol channel Fps1 by phosphorylating and displacing its positive regulators.

Authors:  Jongmin Lee; Wolfgang Reiter; Ilse Dohnal; Christa Gregori; Sara Beese-Sims; Karl Kuchler; Gustav Ammerer; David E Levin
Journal:  Genes Dev       Date:  2013-12-01       Impact factor: 11.361

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  11 in total

1.  Crosstalk and spatiotemporal regulation between stress-induced MAP kinase pathways and pheromone signaling in budding yeast.

Authors:  Frank Van Drogen; Nicolas Dard; Serge Pelet; Sung Sik Lee; Ranjan Mishra; Nevena Srejić; Matthias Peter
Journal:  Cell Cycle       Date:  2020-06-18       Impact factor: 4.534

2.  Crosstalk between Saccharomycescerevisiae SAPKs Hog1 and Mpk1 is mediated by glycerol accumulation.

Authors:  Ekaterina V Laz; Jongmin Lee; David E Levin
Journal:  Fungal Biol       Date:  2019-10-16

3.  TOR complex 2 is a master regulator of plasma membrane homeostasis.

Authors:  Jeremy Thorner
Journal:  Biochem J       Date:  2022-09-30       Impact factor: 3.766

4.  The Third International Symposium on Fungal Stress - ISFUS.

Authors:  Alene Alder-Rangel; Alexander Idnurm; Alexandra C Brand; Alistair J P Brown; Anna Gorbushina; Christina M Kelliher; Claudia B Campos; David E Levin; Deborah Bell-Pedersen; Ekaterina Dadachova; Florian F Bauer; Geoffrey M Gadd; Gerhard H Braus; Gilberto U L Braga; Guilherme T P Brancini; Graeme M Walker; Irina Druzhinina; István Pócsi; Jan Dijksterhuis; Jesús Aguirre; John E Hallsworth; Julia Schumacher; Koon Ho Wong; Laura Selbmann; Luis M Corrochano; Martin Kupiec; Michelle Momany; Mikael Molin; Natalia Requena; Oded Yarden; Radamés J B Cordero; Reinhard Fischer; Renata C Pascon; Rocco L Mancinelli; Tamas Emri; Thiago O Basso; Drauzio E N Rangel
Journal:  Fungal Biol       Date:  2020-02-24

Review 5.  Role of DNA Damage Response in Suppressing Malignant Progression of Chronic Myeloid Leukemia and Polycythemia Vera: Impact of Different Oncogenes.

Authors:  Jan Stetka; Jan Gursky; Julie Liñan Velasquez; Renata Mojzikova; Pavla Vyhlidalova; Lucia Vrablova; Jiri Bartek; Vladimir Divoky
Journal:  Cancers (Basel)       Date:  2020-04-07       Impact factor: 6.639

6.  Addiction to DUSP1 protects JAK2V617F-driven polycythemia vera progenitors against inflammatory stress and DNA damage, allowing chronic proliferation.

Authors:  J Stetka; P Vyhlidalova; L Lanikova; P Koralkova; J Gursky; A Hlusi; P Flodr; S Hubackova; J Bartek; Z Hodny; V Divoky
Journal:  Oncogene       Date:  2019-04-09       Impact factor: 9.867

7.  Methylated metabolite of arsenite blocks glycerol production in yeast by inhibition of glycerol-3-phosphate dehydrogenase.

Authors:  Jongmin Lee; David E Levin
Journal:  Mol Biol Cell       Date:  2019-05-29       Impact factor: 4.138

8.  Regulation of Pkc1 Hyper-Phosphorylation by Genotoxic Stress.

Authors:  Li Liu; Jiri Veis; Wolfgang Reiter; Edwin Motari; Catherine E Costello; John C Samuelson; Gustav Ammerer; David E Levin
Journal:  J Fungi (Basel)       Date:  2021-10-17

Review 9.  Control of Gene Expression via the Yeast CWI Pathway.

Authors:  Ana Belén Sanz; Raúl García; Mónica Pavón-Vergés; José Manuel Rodríguez-Peña; Javier Arroyo
Journal:  Int J Mol Sci       Date:  2022-02-04       Impact factor: 5.923

10.  Differential metabolism of arsenicals regulates Fps1-mediated arsenite transport.

Authors:  Jongmin Lee; David E Levin
Journal:  J Cell Biol       Date:  2022-02-09       Impact factor: 8.077

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