Lysine crotonylation: A challenging new player in the epigenetic regulation of plants DOI
Perla A. Contreras-de la Rosa,

Centeotl Aragón-Rodríguez,

Jaime Abelardo Ceja-López

et al.

Journal of Proteomics, Journal Year: 2022, Volume and Issue: 255, P. 104488 - 104488

Published: Jan. 20, 2022

Language: Английский

Post-translational protein lactylation modification in health and diseases: a double-edged sword DOI Creative Commons
Hang Gong, Zhong Huang, Long Cheng

et al.

Journal of Translational Medicine, Journal Year: 2024, Volume and Issue: 22(1)

Published: Jan. 10, 2024

As more is learned about lactate, it acts as both a product and substrate functions shuttle system between different cell populations to provide the energy for sustaining tumor growth proliferation. Recent discoveries of protein lactylation modification mediated by lactate play an increasingly significant role in human health (e.g., neural osteogenic differentiation maturation) diseases tumors, fibrosis inflammation, etc.). These views are critically first described detail this review. Hence, here, we focused on new target, lactylation, which may be "double-edged sword" diseases. The main purpose review was describe how multiple physiological pathological processes their potential mechanisms through in-depth summary preclinical vitro vivo studies. Our work aims ideas treating accelerate translation from bench bedside.

Language: Английский

Citations

20

A family of bacterial Josephin-like deubiquitinases with an irreversible cleavage mode DOI Creative Commons
Thomas Hermanns, Susanne Kolek, Matthias Uthoff

et al.

Molecular Cell, Journal Year: 2025, Volume and Issue: unknown

Published: March 1, 2025

Language: Английский

Citations

2

Rickettsia -Host-Tick Interactions: Knowledge Advances and Gaps DOI Creative Commons
Hwan Keun Kim

Infection and Immunity, Journal Year: 2022, Volume and Issue: 90(9)

Published: Aug. 22, 2022

Ticks are hematophagous ectoparasites capable of transmitting multiple human pathogens. Environmental changes have supported the expansion ticks into new geographical areas that become epicenters tick-borne diseases (TBDs).

Language: Английский

Citations

40

Adaptations of intracellular bacteria to vacuolar or cytosolic niches DOI Creative Commons
Thomas J.P. Petit, Alice Lebreton

Trends in Microbiology, Journal Year: 2022, Volume and Issue: 30(8), P. 736 - 748

Published: Feb. 12, 2022

Language: Английский

Citations

33

Distinct gene clusters drive formation of ferrosome organelles in bacteria DOI
Carly Grant, Matthieu Amor,

Héctor Trujillo

et al.

Nature, Journal Year: 2022, Volume and Issue: 606(7912), P. 160 - 164

Published: May 18, 2022

Language: Английский

Citations

31

A patatin-like phospholipase mediates Rickettsia parkeri escape from host membranes DOI Creative Commons
Gina M. Borgo, Thomas Burke, Cuong J. Tran

et al.

Nature Communications, Journal Year: 2022, Volume and Issue: 13(1)

Published: June 27, 2022

Abstract Rickettsia species of the spotted fever group are arthropod-borne obligate intracellular bacteria that can cause mild to severe human disease. These invade host cells, replicate in cell cytosol, and spread from cell. To access cytosol avoid immune detection, they escape membrane-bound vacuoles by expressing factors disrupt membranes. Here, we show a patatin-like phospholipase A2 enzyme (Pat1) facilitates parkeri infection promoting membranes cell-cell spread. Pat1 is important for mouse model and, at cellular level, crucial efficiently escaping single double into avoiding galectins mark damaged also polyubiquitin, preventing recruitment autophagy receptor p62, actin-based motility

Language: Английский

Citations

31

Pathogenic Rickettsia spp. as emerging models for bacterial biology DOI Creative Commons
Brandon Sit, Rebecca L. Lamason

Journal of Bacteriology, Journal Year: 2024, Volume and Issue: 206(2)

Published: Feb. 5, 2024

Our understanding of free-living bacterial models like

Language: Английский

Citations

8

The ubiquitin ligation machinery in the defense against bacterial pathogens DOI Creative Commons

Ishita Tripathi‐Giesgen,

Christian Behrends, Arno F. Alpi

et al.

EMBO Reports, Journal Year: 2021, Volume and Issue: 22(11)

Published: Sept. 13, 2021

Review13 September 2021Open Access The ubiquitin ligation machinery in the defense against bacterial pathogens Ishita Tripathi-Giesgen Department of Molecular Machines and Signaling, Max Planck Institute Biochemistry, Martinsried, Germany Search for more papers by this author Christian Behrends Corresponding Author [email protected] orcid.org/0000-0002-9184-7607 Munich Cluster Systems Neurology (SyNergy), Medical Faculty, Ludwig-Maximilians-University München, Arno F Alpi orcid.org/0000-0002-9572-7266 Information Tripathi-Giesgen1, *,2 *,1 1Department 2Munich *Corresponding author. Tel: +49(0)89440046509; E-mail: +49(0)8985782480; EMBO Reports (2021)22:e52864https://doi.org/10.15252/embr.202152864 See Glossary abbreviations used article. PDFDownload PDF article text main figures. ToolsAdd to favoritesDownload CitationsTrack CitationsPermissions ShareFacebookTwitterLinked InMendeleyWechatReddit Figures & Info Abstract system is an important part host cellular program during infection. This particular evident a number bacteria including Salmonella Typhimurium Mycobacterium tuberculosis which—inventively as their invasion strategy or accidentally upon rupture seized endomembranes—become exposed cytosol. Ubiquitylation involved detection clearance these well activation innate immune inflammatory signaling. Remarkably, all responses seem emanate from dense layer which coats invading pathogens. In review, we focus on diverse group cell E3 ligases that help tailor coat. particular, address how divergent conjugation mechanisms contribute complexity anti-bacterial coating recruitment different ubiquitin-binding effectors. We also discuss coordination strategies evolved evade activities system. ARIH1 ARIadne 1 homolog ATG Autophagy-related BMDM Bone marrow-derived macrophages BMP morphogenic protein CALCOCO Calcium-binding coiled-coil domain-containing CC1 Coiled-coil CRL Cullin RING ligase DUB Deubiquitinating enzyme GAS Group A streptococcus GIR Galectin interacting region GWAS Genomewide association study HECT Homologous E6AP carboxyl terminus HHAR1 Homologues human HOIL-IL Heme-oxidized IRP2 Ub 1L HOIP HOIL-1-interacting IBR between IKK IκB kinase LAP LC3-associated phagocytosis LDD Linear Ub-determining domain LIR LC3-interacting LPS Lipopolysaccharide LRR leucine-rich repeat LRSAM1 Leucine-rich sterile alpha motif-containing LUBAC assembly complex MAP1LC3B Microtubule-associated proteins 1A/1B light-chain 3B NBR1 Neighbor BRCA1 NDP52 Nuclear dot 52 NEL Novel NEMO NF-kB essential modifier factor kappa-B NOD1 Nucleotide-binding oligomerization OMP Outer membrane OPTN Optineurin OTULIN OTU with LINear linkage specificity PAMP Pathogen-associated molecular pattern PE Phosphatidylethanolamine PINK1 PTEN-induced RBR RING-between-RING Really interesting new gene RNF213 Ring finger 213 SAM Sterile SCV Salmonella-containing vacuole SHARPIN Shank-associated RH SIM Structured illumination microscopy SLO Streptolysin O Smurf1 SMAD regulator SQSTM1 Sequestosome-1 TAK1 Transforming growth factor-β-activated TBK1 TANK-binding TGF-β transforming beta TLR Toll-like receptor TRAF2 TNF receptor-associated 2 TRIM21 Tripartite 21 TXN Thioredoxin Ubiquitin UBA Ubiquitin-associated UBL Ubiquitin-like UPD Unique Parkin UVRAG UV radiation resistance associated ZF Zinc Introduction Most mammalian types have capacity defend protect themselves pathogens, thereby contributing cell-autonomous immunity. Over last two decades, macroautophagy has emerged critical immunity pathway detects variety cytosolic initiates disposal. Originally, been described catabolic process sequesters unwanted intracellular components, misfolded dysfunctional organelles, eliminates them through lysosomal degradation (Fig. 1A). hallmark de novo formation double-membrane vesicle called autophagosome (Nakatogawa, 2020). Autophagosome biogenesis proceeds isolated crescent-shaped structure (called phagophore isolation membrane) derived preexisting endomembranes ER grows around, ultimately encloses components. To complete macroautophagy, fuses lysosome, forming autolysosome allow disintegration inner sequestered material hydrolases, such lipases, proteases, glycosylases, nucleases (Glick et al, 2010; Rubinsztein 2012). date, increasing autophagy-related (ATG) identified are its fusion lysosome. Their details mechanistic interactions worked out over description, however, would exceed scope review interested reader referred some excellent recent reviews (Noda Inagaki, 2015; Nakatogawa, Figure 1. Selective (A) Key steps selective macroautophagy. (1) initiated membranes vesicles gradually expand mature phagophores decorated membrane-anchored LC3 GABARAPs (orange hexagons). (2) These act binding site autophagy cargo receptors (brown) allowing direct delivery accumulation cargo. Finally, closes double-membraned (3), subsequently lysosome (4), where content degraded enzymes. (B) Xenophagy, Salmonella. enters cells (SCV) protects it surveillance serves replicative niche. SCVs can access proteins. (3) glycans, normally present outer side membrane, serve danger signals recognized galectins (purple triangles). Besides, detected generate coat, consistent linkage-type chains (red orange circles), around (4) Both, recruit mediate capture LC3-conjugated autophagosomes (5) targeted (6). Download figure PowerPoint Macroautophagy comes flavors, depending targets sequestered. During bulk engulfs randomly cytoplasmic components close by. form active at basal level nutrient-rich conditions, but be upregulated response several stress starvation, playing integral recycling nutrients maintaining energy homeostasis. By contrast, certain molecules, structures, organelles via eat-me target-specific named receptors, turn stepwise initiate scaffold exclusively distinct (Reggiori 2012; Stolz 2014; Zaffagnini Martens, 2016). classified according cargo, mitophagy (mitochondria), ribophagy (ribosomes), ER-phagy (ER), lipophagy (lipid droplets), lysophagy (lysosomes), pexophagy (peroxisomes) (Gatica 2018). However, utilize not only clear recycle own material, eliminate invaded commonly known antimicrobial xenophagy—from Greek 'foreign/strange' 'eating' (Hu Non-canonical forms do involve (LAP) (Sanjuan 2007; Mehta Heckmann 2017; Martinez, will our current understanding xenophagy advances role (Ub) targeting pathogenic developed ways fend off survival even hijack benefit. Mechanism ubiquitin-mediated Intracellular Shigella flexneri (S. flexneri), (M. tuberculosis), enterica serovar Typhimurium), Listeria monocytogenes (L. monocytogenes), able reside reproduce inside responsible many severe diseases. Besides passive engulfment neutrophils phagocytosis, actively invade endothelial epithelial (Cossart Sansonetti, 2004). Following entry, either membranous compartments (vacuoles) escape Nevertheless, target restrict replication. Since S. one best-studied examples eliminated (Herhaus Dikic, 2018), use model substrate describe key features 1B). After internalization, resides acidic compartment (SCV). permissive niche (LaRock 2015). Numerous genes, effector SifA, required extension surface accommodate replicating bacteria. early phase infection (usually within first hour), subset damaged specific signature molecules become wall luminal SCV. Specifically, β-galactosides—which modify extracellular plasma endosomes—are fast β-galactoside-binding lectin, galectin-8 acts damage and/or pattern-recognition directly associates (also CALCOCO2) galectin-interacting (GIR) motif (Thurston β-galactosides/galectin-8-initiated autophagy, activate trigger coat dressing whole (Perrin Ubiquitylation, covalent attachment proteins, requires orchestrated action least three enzymes working relay, Ub-activating (E1), Ub-conjugating (E2), (E3) (Hershko 2000; Buetow Huang, E3s play central into families presence characteristic domains mechanism transfer usually lysine residues proteins: really (RING) catalyze allosteric E2˜Ub conjugate (˜ indicating thioester bond) E2 substrate, whereas homologous (HECT) Ring-Between-Ring (RBR) catalytic cysteine transient E3˜Ub before mediating onto substrates (Zheng Shabek, 2017). Substrates modified single multiple lysins (mono- multi-monoubiquitylation) polyubiquitin (polyubiquitylation) formed linking seven (K6, K11, K27, K29, K33, K48, K63) N-terminal methionine (M1). structurally come variations, homotypic (single type) heterotypic (multiple, mixed types) branched chains, resulting code (Komander Rape, Identity origin ubiquitylation were assessed quantitative proteomics Typhimurium-infected revealed sites membrane-associated (Fiskin Moreover, chain M1- linear chains), K48-, K63-polyubiquitin linkages, suggesting signaling platform (van Wijk Manzanillo 2013). like Smurf1, Parkin, ARIH1, LRSAM1, RNF213, LUBAC, ubiquitylate than type bacteria, cases, simultaneously ligases. For instance, colocalize promote formation. There RNF166 (Heath 2016), MARCH8 (Jin 2017), (Hos 2020), TRIM22 (Lou TRIM16 (Chauhan 2016) recognize pathogen itself other aspects glycans Similar Galectin-8, functions xenophagic signal (Birmingham 2006) triggers p62 (alias SQSTM1), CALCOCO2), optineurin (OPTN) 2009; Wild 2011; Thurston multifunctional harboring (UBD) inherent specificities toward types, protein–protein interaction motifs induce elongation proximal (Kirkin Rogov, 2019). modular nature best understood case employs Ub-binding zinc (ZF) associate SKICH promoting ULK1 kinases respective adaptors FIP200 SINBAD/NAP1 (LIR) guide nascent LC3C (von Muhlinen Ravenhill While NDP52's seems promiscuously bind mono- (Xie 2015), UBAN specifically recognizes K63-linked (Wild 2011). TBK1-mediated phosphorylation fosters LC3, supporting phagosome/autophagosome restriction Notably, actions limited xenophagy, shared among processes aggrephagy (Turco 2019; Vargas Shi 2020; Yamano special tuberculosis, M. Rv1468c leading LC3-mediated lysosomes (Chai Hence, plays sensor highlighting importance xenophagy. nonmotile ΔactA mutant L. was Perrin colleagues 2004 seminal discovery extensive research efforts past decades identify Ub-targeting cytosol Ub-mediated responses. chapter, historic order identification xenophagy-associated knowledge E3-typical context (i) sensing/recognition (ii) (iii) modification. 2011, ligase, (LRSAM1), functionally linked synthesis (Ng shown endosomal sorting (Amit 2004; McDonald Martin-Serrano, 2008), belongs RING-type share 2). Canonical comprise conserved cysteines histidines coordinate ions stabilizing overall globular three-dimensional (Deshaies Joazeiro, 2009). lack activity, charged architecture closed conformation allosterically activates nucleophilic attack suitable placed isopeptide bond (Dou 2012, 2013; Plechanovova Pruneda Branigan Apart C-terminal domain, contains (LRR) N terminus, (SAM domain), (CC1 CC2), regulate activity self-associated oligomers (Bian 2. showing repeats dotted box) PAMPs mediates binding, (CC) domains, (SAM) containing C activity. LRSAM1-mediated Salmonella, preferentially K6- K27-linked leads machinery. LRRs typically pathogen-associated patterns (PAMPs) making suitably designed recognizing ubiquitylating LRR-mediated recognition already proposed time when observed colocalizes xenophagy-susceptible Typhimurium, EGD-e, flexneri, invasive Escherichia coli, colocalization mediated (Huett characterized yet dispensable association; bacteria-associated preference vitro. Whether bacteria-bound autoubiquitylated entirely clear. peaking 40 min post-infection coinciding galectin-8/NDP52 colocalization. mark spatially subdomains recruited independently follows occurring hour thought foster necessary functional control Depletion promotes Typhimurium. Lymphoblasts Charcot–Marie–Tooth disease patients, expression due frameshift truncates entire less efficient controlling replication virulent strain (i.e. NTCC12023; 2012)). Conversely, bactericide Biochanin A, plant isoflavone derivate, enhance killing infected HeLa reinforced LRSAM1/NDP52 (Zhao underlying A's bactericidal known, though. E3, may step establishment initial Typhimurium; became further re-modeled create PARKIN studies (GWAS) genetic polymorphism parkin (PRKN) increased susceptibility leprae, potential connection mitochondrial homeostasis (Mira Ali 2006). primarily well-established got much attention frequently mutated autosomal recessive juvenile Parkinsonism, neurological disorder progressive loss dopaminergic neurons. family defined common organization (reviewed (Cotton Lechtenberg, 2020)). module consists zinc-binding motifs: RING1 canonical fold followed In-Between-RING (IBR) finally Rcat RING2) 3A). Specific Ub-like (UBL) shares structural similar additional zinc-coordinating unique (UPD) RING0) (Trempe regulating Parkin's apo-form adopts multilayered autoinhibited conformation, whereby repressor element (REP) occlude RING1, masks 431 (C431) preventing intermediate (Chaugule Trempe Wauer Komander, Several elegant striking mitophagy. depends kinase, accumulates activated mitochondria (Matsuda Narendra Vives-Bauza Kondapalli phosphorylates serine 65 (pS65-Ub) increases Ub's affinity site—a pS65-Ub-binding pocket—in Parkin. Once bound, pS65-Ub induces conformational change release inhibitory module, destabilizing autoinhibitory accessible transthiolation. Subsequently, freed becomes pS65-UBL open, (Ordureau Kazlauskaite Kumar Sauve Aguirre Gladkova 3. RBR-type Diagram (UPD), (REP), regulatory comprising terminus. remains addressed infection, decorates (predominantly K63 chains) recruits triggering Domain subunits LUBAC: HOIP, HOIL-IL, SHARPIN. interact (solid lines), contribution double NZF (dNZF) (dotted line). dNZF boxes) two-phase mechanism: phase, binds second enhanced M1-linked binding. M1-Ub adapter pro-inflammatory response, respectively. CYLD counterbalance (C) Schematic view acidic/glycine region, UBA-like (UBAL), Ariadne K48-Ub chains. activation, downstream ARIH1-mediated understood. PINK1/Parkin tightly mitochondria, rather surprising, vacuolar phagosomal after entering cell. Due mycobacterial ESX-1 secretion system, permeable Ub-xenophagy (Watson murine bone (BMDMs), predominantly surrounding phagosomes. contrasts findings Ordureau al (2014) does exhibit (Manzanillo 2014). Parkin-mediated UBZ respectively, facilitate mycobacteria (Ichimura 2008; Watson vivo data support range infections. Park2−/− mice extreme D. melanogaster C. elegans strains deficient Parc2 homologues highly susceptible monocytogenes, marinum, conserv

Language: Английский

Citations

40

The enigmatic biology of rickettsiae: recent advances, open questions and outlook DOI Creative Commons
Jon McGinn, Rebecca L. Lamason

Pathogens and Disease, Journal Year: 2021, Volume and Issue: 79(4)

Published: March 26, 2021

ABSTRACT Rickettsiae are obligate intracellular bacteria that can cause life-threatening illnesses and among the oldest known vector-borne pathogens. Members of this genus extraordinarily diverse exhibit a broad host range. To establish infection, Rickettsia species undergo complex, multistep life cycles encoded by heavily streamlined genomes. As result reductive genome evolution, rickettsiae exquisitely tailored to their cell environment but cannot survive extracellularly. This host-cell dependence makes for compelling system uncover novel host–pathogen biology, it has also hindered experimental progress. Consequently, molecular details rickettsial biology pathogenesis remain poorly understood. With recent advances in genetics, field is poised start unraveling mechanisms these interactions. Here, we review discoveries have shed light on key aspects biology. These studies revealed subvert cells using distinct from other better-studied pathogens, underscoring great potential revealing We highlight several open questions as promising areas future study discuss path toward solving fundamental mysteries neglected emerging human pathogen.

Language: Английский

Citations

34

Pathogenicity and virulence of Rickettsia DOI Creative Commons

Luke Helminiak,

Smruti Mishra, Hwan Keun Kim

et al.

Virulence, Journal Year: 2022, Volume and Issue: 13(1), P. 1752 - 1771

Published: Oct. 8, 2022

Rickettsiae include diverse Gram-negative microbial species that exhibit obligatory intracellular lifecycles between mammalian hosts and arthropod vectors. Human infections with arthropod-borne Rickettsia continue to cause significant morbidity mortality as recent environmental changes foster the proliferation of vectors increased exposure humans. However, technical difficulties in working have delayed our progress understanding molecular mechanisms involved rickettsial pathogenesis disease transmission. Recent advances developing genetic tools for enabled investigators identify virulence genes, uncover functions, characterize host responses determinants. Therefore, continued efforts determine genes their biological functions will help us understand underlying associated rickettsioses.

Language: Английский

Citations

28