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Microbial enzymes induce colitis by reactivating triclosan in the mouse gastrointestinal tract 期刊论文
Nature Communications, 2022
作者:  Zhang, Jianan;  Walker, Morgan E.;  Sanidad, Katherine Z.;  Zhang, Hongna;  Liang, Yanshan;  Zhao, Ermin;  Chacon-Vargas, Katherine;  Yeliseyev, Vladimir;  Parsonnet, Julie;  Haggerty, Thomas D.;  Wang, Guangqiang;  Simpson, Joshua B.;  Jariwala, Parth B.;  Beaty, Violet V.;  Yang, Jun;  Yang, Haixia;  Panigrahy, Anand;  Minter, Lisa M.;  Kim, Daeyoung;  Gibbons, John G.;  Liu, LinShu;  Li, Zhengze;  Xiao, Hang;  Borlandelli, Valentina;  Overkleeft, Hermen S.;  Cloer, Erica W.;  Major, Michael B.;  Goldfarb, Dennis;  Cai, Zongwei;  Redinbo, Matthew R.;  Zhang, Guodong
收藏  |  浏览/下载:17/0  |  提交时间:2022/01/29
Peta–electron volt gamma-ray emission from the Crab Nebula 期刊论文
Science, 2021
作者:  The LHAASO Collaboration*†;  Zhen Cao;  F. Aharonian;  Q. An;  Axikegu;  L. X. Bai;  Y. X. Bai;  Y. W. Bao;  D. Bastieri;  X. J. Bi;  Y. J. Bi;  H. Cai;  J. T. Cai;  Zhe Cao;  J. Chang;  J. F. Chang;  B. M. Chen;  E. S. Chen;  J. Chen;  Liang Chen;  Liang Chen;  Long Chen;  M. J. Chen;  M. L. Chen;  Q. H. Chen;  S. H. Chen;  S. Z. Chen;  T. L. Chen;  X. L. Chen;  Y. Chen;  N. Cheng;  Y. D. Cheng;  S. W. Cui;  X. H. Cui;  Y. D. Cui;  B. D’Ettorre Piazzoli;  B. Z. Dai;  H. L. Dai;  Z. G. Dai;  Danzengluobu;  D. della Volpe;  X. J. Dong;  K. K. Duan;  J. H. Fan;  Y. Z. Fan;  Z. X. Fan;  J. Fang;  K. Fang;  C. F. Feng;  L. Feng;  S. H. Feng;  Y. L. Feng;  B. Gao;  C. D. Gao;  L. Q. Gao;  Q. Gao;  W. Gao;  M. M. Ge;  L. S. Geng;  G. H. Gong;  Q. B. Gou;  M. H. Gu;  F. L. Guo;  J. G. Guo;  X. L. Guo;  Y. Q. Guo;  Y. Y. Guo;  Y. A. Han;  H. H. He;  H. N. He;  J. C. He;  S. L. He;  X. B. He;  Y. He;  M. Heller;  Y. K. Hor;  C. Hou;  X. Hou;  H. B. Hu;  S. Hu;  S. C. Hu;  X. J. Hu;  D. H. Huang;  Q. L. Huang;  W. H. Huang;  X. T. Huang;  X. Y. Huang;  Z. C. Huang;  F. Ji;  X. L. Ji;  H. Y. Jia;  K. Jiang;  Z. J. Jiang;  C. Jin;  T. Ke;  D. Kuleshov;  K. Levochkin;  B. B. Li;  Cheng Li;  Cong Li;  F. Li;  H. B. Li;  H. C. Li;  H. Y. Li;  Jian Li;  Jie Li;  K. Li;  W. L. Li;  X. R. Li;  Xin Li;  Xin Li;  Y. Li;  Y. Z. Li;  Zhe Li;  Zhuo Li;  E. W. Liang;  Y. F. Liang;  S. J. Lin;  B. Liu;  C. Liu;  D. Liu;  H. Liu;  H. D. Liu;  J. Liu;  J. L. Liu;  J. S. Liu;  J. Y. Liu;  M. Y. Liu;  R. Y. Liu;  S. M. Liu;  W. Liu;  Y. Liu;  Y. N. Liu;  Z. X. Liu;  W. J. Long;  R. Lu;  H. K. Lv;  B. Q. Ma;  L. L. Ma;  X. H. Ma;  J. R. Mao;  A. Masood;  Z. Min;  W. Mitthumsiri;  T. Montaruli;  Y. C. Nan;  B. Y. Pang;  P. Pattarakijwanich;  Z. Y. Pei;  M. Y. Qi;  Y. Q. Qi;  B. Q. Qiao;  J. J. Qin;  D. Ruffolo;  V. Rulev;  A. Saiz;  L. Shao;  O. Shchegolev;  X. D. Sheng;  J. Y. Shi;  H. C. Song;  Yu. V. Stenkin;  V. Stepanov;  Y. Su;  Q. N. Sun;  X. N. Sun;  Z. B. Sun;  P. H. T. Tam;  Z. B. Tang;  W. W. Tian;  B. D. Wang;  C. Wang;  H. Wang;  H. G. Wang;  J. C. Wang;  J. S. Wang;  L. P. Wang;  L. Y. Wang;  R. N. Wang;  Wei Wang;  Wei Wang;  X. G. Wang;  X. J. Wang;  X. Y. Wang;  Y. Wang;  Y. D. Wang;  Y. J. Wang;  Y. P. Wang;  Z. H. Wang;  Z. X. Wang;  Zhen Wang;  Zheng Wang;  D. M. Wei;  J. J. Wei;  Y. J. Wei;  T. Wen;  C. Y. Wu;  H. R. Wu;  S. Wu;  W. X. Wu;  X. F. Wu;  S. Q. Xi;  J. Xia;  J. J. Xia;  G. M. Xiang;  D. X. Xiao;  G. Xiao;  H. B. Xiao;  G. G. Xin;  Y. L. Xin;  Y. Xing;  D. L. Xu;  R. X. Xu;  L. Xue;  D. H. Yan;  J. Z. Yan;  C. W. Yang;  F. F. Yang;  J. Y. Yang;  L. L. Yang;  M. J. Yang;  R. Z. Yang;  S. B. Yang;  Y. H. Yao;  Z. G. Yao;  Y. M. Ye;  L. Q. Yin;  N. Yin;  X. H. You;  Z. Y. You;  Y. H. Yu;  Q. Yuan;  H. D. Zeng;  T. X. Zeng;  W. Zeng;  Z. K. Zeng;  M. Zha;  X. X. Zhai;  B. B. Zhang;  H. M. Zhang;  H. Y. Zhang;  J. L. Zhang;  J. W. Zhang;  L. X. Zhang;  Li Zhang;  Lu Zhang;  P. F. Zhang;  P. P. Zhang;  R. Zhang;  S. R. Zhang;  S. S. Zhang;  X. Zhang;  X. P. Zhang;  Y. F. Zhang;  Y. L. Zhang;  Yi Zhang;  Yong Zhang;  B. Zhao;  J. Zhao;  L. Zhao;  L. Z. Zhao;  S. P. Zhao;  F. Zheng;  Y. Zheng;  B. Zhou;  H. Zhou;  J. N. Zhou;  P. Zhou;  R. Zhou;  X. X. Zhou;  C. G. Zhu;  F. R. Zhu;  H. Zhu;  K. J. Zhu;  X. Zuo
收藏  |  浏览/下载:14/0  |  提交时间:2021/07/27
An ultrapotent synthetic nanobody neutralizes SARS-CoV-2 by stabilizing inactive Spike 期刊论文
Science, 2020
作者:  Michael Schoof;  Bryan Faust;  Reuben A. Saunders;  Smriti Sangwan;  Veronica Rezelj;  Nick Hoppe;  Morgane Boone;  Christian B. Billesbølle;  Cristina Puchades;  Caleigh M. Azumaya;  Huong T. Kratochvil;  Marcell Zimanyi;  Ishan Deshpande;  Jiahao Liang;  Sasha Dickinson;  Henry C. Nguyen;  Cynthia M. Chio;  Gregory E. Merz;  Michael C. Thompson;  Devan Diwanji;  Kaitlin Schaefer;  Aditya A. Anand;  Niv Dobzinski;  Beth Shoshana Zha;  Camille R. Simoneau;  Kristoffer Leon;  Kris M. White;  Un Seng Chio;  Meghna Gupta;  Mingliang Jin;  Fei Li;  Yanxin Liu;  Kaihua Zhang;  David Bulkley;  Ming Sun;  Amber M. Smith;  Alexandrea N. Rizo;  Frank Moss;  Axel F. Brilot;  Sergei Pourmal;  Raphael Trenker;  Thomas Pospiech;  Sayan Gupta;  Benjamin Barsi-Rhyne;  Vladislav Belyy;  Andrew W. Barile-Hill;  Silke Nock;  Yuwei Liu;  Nevan J. Krogan;  Corie Y. Ralston;  Danielle L. Swaney;  Adolfo García-Sastre;  Melanie Ott;  Marco Vignuzzi;  QCRG Structural Biology Consortium4‡;  Peter Walter;  Aashish Manglik
收藏  |  浏览/下载:14/0  |  提交时间:2020/12/22
COSORE: A community database for continuous soil respiration and other soil‐atmosphere greenhouse gas flux data 期刊论文
Global Change Biology, 2020
作者:  Ben Bond‐;  Lamberty;  Danielle S. Christianson;  Avni Malhotra;  Stephanie C. Pennington;  Debjani Sihi;  Amir AghaKouchak;  Hassan Anjileli;  M. Altaf Arain;  Juan J. Armesto;  Samaneh Ashraf;  Mioko Ataka;  Dennis Baldocchi;  Thomas Andrew Black;  Nina Buchmann;  Mariah S. Carbone;  Shih‐;  Chieh Chang;  Patrick Crill;  Peter S. Curtis;  Eric A. Davidson;  Ankur R. Desai;  John E. Drake;  Tarek S. El‐;  Madany;  Michael Gavazzi;  Carolyn‐;  Monika Gö;  rres;  Christopher M. Gough;  Michael Goulden;  Jillian Gregg;  Omar Gutié;  rrez del Arroyo;  Jin‐;  Sheng He;  Takashi Hirano;  Anya Hopple;  Holly Hughes;  ;  rvi Jä;  rveoja;  Rachhpal Jassal;  Jinshi Jian;  Haiming Kan;  Jason Kaye;  Yuji Kominami;  Naishen Liang;  David Lipson;  Catriona A. Macdonald;  Kadmiel Maseyk;  Kayla Mathes;  Marguerite Mauritz;  Melanie A. Mayes;  Steve McNulty;  Guofang Miao;  Mirco Migliavacca;  Scott Miller;  Chelcy F. Miniat;  Jennifer G. Nietz;  Mats B. Nilsson;  Asko Noormets;  Hamidreza Norouzi;  Christine S. O’;  Connell;  Bruce Osborne;  Cecilio Oyonarte;  Zhuo Pang;  Matthias Peichl;  Elise Pendall;  Jorge F. Perez‐;  Quezada;  Claire L. Phillips;  Richard P. Phillips;  James W. Raich;  Alexandre A. Renchon;  Nadine K. Ruehr;  Enrique P. Sá;  nchez‐;  Cañ;  ete;  Matthew Saunders;  Kathleen E. Savage;  Marion Schrumpf;  Russell L. Scott;  Ulli Seibt;  Whendee L. Silver;  Wu Sun;  Daphne Szutu;  Kentaro Takagi;  Masahiro Takagi;  Munemasa Teramoto;  Mark G. Tjoelker;  Susan Trumbore;  Masahito Ueyama;  Rodrigo Vargas;  Ruth K. Varner;  Joseph Verfaillie;  Christoph Vogel;  Jinsong Wang;  Greg Winston;  Tana E. Wood;  Juying Wu;  Thomas Wutzler;  Jiye Zeng;  Tianshan Zha;  Quan Zhang;  Junliang Zou
收藏  |  浏览/下载:14/0  |  提交时间:2020/10/12
Mapping carbon accumulation potential from global natural forest regrowth 期刊论文
Nature, 2020
作者:  Susan C. Cook-Patton;  Sara M. Leavitt;  David Gibbs;  Nancy L. Harris;  Kristine Lister;  Kristina J. Anderson-Teixeira;  Russell D. Briggs;  Robin L. Chazdon;  Thomas W. Crowther;  Peter W. Ellis;  Heather P. Griscom;  Valentine Herrmann;  Karen D. Holl;  Richard A. Houghton;  Cecilia Larrosa;  Guy Lomax;  Richard Lucas;  Palle Madsen;  Yadvinder Malhi;  Alain Paquette;  John D. Parker;  Keryn Paul;  Devin Routh;  Stephen Roxburgh;  Sassan Saatchi;  Johan van den Hoogen;  Wayne S. Walker;  Charlotte E. Wheeler;  Stephen A. Wood;  Liang Xu;  Bronson W. Griscom
收藏  |  浏览/下载:11/0  |  提交时间:2020/09/30
Deep high-temperature hydrothermal circulation in a detachment faulting system on the ultra-slow spreading ridge 期刊论文
NATURE COMMUNICATIONS, 2020, 11 (1)
作者:  Tao, Chunhui;  Seyfried, W. E., Jr.;  Lowell, R. P.;  Liu, Yunlong;  Liang, Jin;  Guo, Zhikui;  Ding, Kang;  Zhang, Huatian;  Liu, Jia;  Qiu, Lei;  Egorov, Igor;  Liao, Shili;  Zhao, Minghui;  Zhou, Jianping;  Deng, Xianming;  Li, Huaiming;  Wang, Hanchuang;  Cai, Wei;  Zhang, Guoyin;  Zhou, Hongwei;  Lin, Jian;  Li, Wei
收藏  |  浏览/下载:19/0  |  提交时间:2020/05/13
A conserved dendritic-cell regulatory program limits antitumour immunity 期刊论文
NATURE, 2020, 580 (7802) : 257-+
作者:  Perry, Rachel J.;  Zhang, Dongyan;  Guerra, Mateus T.;  Brill, Allison L.;  Goedeke, Leigh;  Nasiri, Ali R.;  Rabin-Court, Aviva;  Wang, Yongliang;  Peng, Liang;  Dufour, Sylvie;  Zhang, Ye;  Zhang, Xian-Man;  Butrico, Gina M.;  Toussaint, Keshia;  Nozaki, Yuichi;  Cline, Gary W.;  Petersen, Kitt Falk;  Nathanson, Michael H.;  Ehrlich, Barbara E.;  Shulman, Gerald I.
收藏  |  浏览/下载:26/0  |  提交时间:2020/07/03

After taking up tumour-associated antigens, dendritic cells in mouse and human tumours upregulate a regulatory gene program that limits dendritic cell immunostimulatory function, and modulating this program can rescue antitumor immunity in mice.


Checkpoint blockade therapies have improved cancer treatment, but such immunotherapy regimens fail in a large subset of patients. Conventional type 1 dendritic cells (DC1s) control the response to checkpoint blockade in preclinical models and are associated with better overall survival in patients with cancer, reflecting the specialized ability of these cells to prime the responses of CD8(+) T cells(1-3). Paradoxically, however, DC1s can be found in tumours that resist checkpoint blockade, suggesting that the functions of these cells may be altered in some lesions. Here, using single-cell RNA sequencing in human and mouse non-small-cell lung cancers, we identify a cluster of dendritic cells (DCs) that we name '  mature DCs enriched in immunoregulatory molecules'  (mregDCs), owing to their coexpression of immunoregulatory genes (Cd274, Pdcd1lg2 and Cd200) and maturation genes (Cd40, Ccr7 and Il12b). We find that the mregDC program is expressed by canonical DC1s and DC2s upon uptake of tumour antigens. We further find that upregulation of the programmed death ligand 1 protein-a key checkpoint molecule-in mregDCs is induced by the receptor tyrosine kinase AXL, while upregulation of interleukin (IL)-12 depends strictly on interferon-gamma and is controlled negatively by IL-4 signalling. Blocking IL-4 enhances IL-12 production by tumour-antigen-bearing mregDC1s, expands the pool of tumour-infiltrating effector T cells and reduces tumour burden. We have therefore uncovered a regulatory module associated with tumour-antigen uptake that reduces DC1 functionality in human and mouse cancers.


  
A genomic and epigenomic atlas of prostate cancer in Asian populations 期刊论文
NATURE, 2020: 93-+
作者:  Perry, Rachel J.;  Zhang, Dongyan;  Guerra, Mateus T.;  Brill, Allison L.;  Goedeke, Leigh;  Nasiri, Ali R.;  Rabin-Court, Aviva;  Wang, Yongliang;  Peng, Liang;  Dufour, Sylvie;  Zhang, Ye;  Zhang, Xian-Man;  Butrico, Gina M.;  Toussaint, Keshia;  Nozaki, Yuichi;  Cline, Gary W.;  Petersen, Kitt Falk;  Nathanson, Michael H.;  Ehrlich, Barbara E.;  Shulman, Gerald I.
收藏  |  浏览/下载:33/0  |  提交时间:2020/07/03

Prostate cancer is the second most common cancer in men worldwide(1). Over the past decade, large-scale integrative genomics efforts have enhanced our understanding of this disease by characterizing its genetic and epigenetic landscape in thousands of patients(2,3). However, most tumours profiled in these studies were obtained from patients from Western populations. Here we produced and analysed whole-genome, whole-transcriptome and DNA methylation data for 208 pairs of tumour tissue samples and matched healthy control tissue from Chinese patients with primary prostate cancer. Systematic comparison with published data from 2,554 prostate tumours revealed that the genomic alteration signatures in Chinese patients were markedly distinct from those of Western cohorts: specifically, 41% of tumours contained mutations in FOXA1 and 18% each had deletions in ZNF292 and CHD1. Alterations of the genome and epigenome were correlated and were predictive of disease phenotype and progression. Coding and noncoding mutations, as well as epimutations, converged on pathways that are important for prostate cancer, providing insights into this devastating disease. These discoveries underscore the importance of including population context in constructing comprehensive genomic maps for disease.


Genomic, transcriptomic and DNA methylation data from tissue samples from 208 Chinese patients with prostate cancer define the landscape of alterations in this population, and comparison with data from Western cohorts suggests that the disease may stratify into different molecular subtypes.


  
The molecular basis for sugar import in malaria parasites 期刊论文
NATURE, 2020, 578 (7794) : 321-+
作者:  Zhao, Peishen;  Liang, Yi-Lynn;  Belousoff, Matthew J.;  Deganutti, Giuseppe;  Fletcher, Madeleine M.;  Willard, Francis S.;  Bell, Michael G.;  Christe, Michael E.;  Sloop, Kyle W.;  Inoue, Asuka;  Truong, Tin T.;  Clydesdale, Lachlan;  Furness, Sebastian G. B.;  Christopoulos, Arthur;  Wang, Ming-Wei;  Miller, Laurence J.;  Reynolds, Christopher A.;  Danev, Radostin;  Sexton, Patrick M.;  Wootten, Denise
收藏  |  浏览/下载:16/0  |  提交时间:2020/07/03

Elucidating the mechanism of sugar import requires a molecular understanding of how transporters couple sugar binding and gating events. Whereas mammalian glucose transporters (GLUTs) are specialists(1), the hexose transporter from the malaria parasite Plasmodium falciparum PfHT1(2,3) has acquired the ability to transport both glucose and fructose sugars as efficiently as the dedicated glucose (GLUT3) and fructose (GLUT5) transporters. Here, to establish the molecular basis of sugar promiscuity in malaria parasites, we determined the crystal structure of PfHT1 in complex with d-glucose at a resolution of 3.6 angstrom. We found that the sugar-binding site in PfHT1 is very similar to those of the distantly related GLUT3 and GLUT5 structures(4,5). Nevertheless, engineered PfHT1 mutations made to match GLUT sugar-binding sites did not shift sugar preferences. The extracellular substrate-gating helix TM7b in PfHT1 was positioned in a fully occluded conformation, providing a unique glimpse into how sugar binding and gating are coupled. We determined that polar contacts between TM7b and TM1 (located about 15 angstrom from d-glucose) are just as critical for transport as the residues that directly coordinate d-glucose, which demonstrates a strong allosteric coupling between sugar binding and gating. We conclude that PfHT1 has achieved substrate promiscuity not by modifying its sugar-binding site, but instead by evolving substrate-gating dynamics.


Crystal structure of the Plasmodium falciparum hexose transporter PfHT1 reveals the molecular basis of its ability to transport multiple types of sugar as efficiently as the dedicated mammalian glucose and fructose transporters.


  
Processive extrusion of polypeptide loops by a Hsp100 disaggregase 期刊论文
NATURE, 2020, 578 (7794) : 317-+
作者:  Zhao, Peishen;  Liang, Yi-Lynn;  Belousoff, Matthew J.;  Deganutti, Giuseppe;  Fletcher, Madeleine M.;  Willard, Francis S.;  Bell, Michael G.;  Christe, Michael E.;  Sloop, Kyle W.;  Inoue, Asuka;  Truong, Tin T.;  Clydesdale, Lachlan;  Furness, Sebastian G. B.;  Christopoulos, Arthur;  Wang, Ming-Wei;  Miller, Laurence J.;  Reynolds, Christopher A.;  Danev, Radostin;  Sexton, Patrick M.;  Wootten, Denise
收藏  |  浏览/下载:16/0  |  提交时间:2020/07/03

The ability to reverse protein aggregation is vital to cells(1,2). Hsp100 disaggregases such as ClpB and Hsp104 are proposed to catalyse this reaction by translocating polypeptide loops through their central pore(3,4). This model of disaggregation is appealing, as it could explain how polypeptides entangled within aggregates can be extracted and subsequently refolded with the assistance of Hsp70(4,5). However, the model is also controversial, as the necessary motor activity has not been identified(6-8) and recent findings indicate non-processive mechanisms such as entropic pulling or Brownian ratcheting(9,10). How loop formation would be accomplished is also obscure. Indeed, cryo-electron microscopy studies consistently show single polypeptide strands in the Hsp100 pore(11,12). Here, by following individual ClpB-substrate complexes in real time, we unambiguously demonstrate processive translocation of looped polypeptides. We integrate optical tweezers with fluorescent-particle tracking to show that ClpB translocates both arms of the loop simultaneously and switches to single-arm translocation when encountering obstacles. ClpB is notably powerful and rapid  it exerts forces of more than 50 pN at speeds of more than 500 residues per second in bursts of up to 28 residues. Remarkably, substrates refold while exiting the pore, analogous to co-translational folding. Our findings have implications for protein-processing phenomena including ubiquitin-mediated remodelling by Cdc48 (or its mammalian orthologue p97)(13) and degradation by the 26S proteasome(14).


A combination of optical tweezers and fluorescent-particle tracking is used to dissect the dynamics of the Hsp100 disaggregase ClpB, and show that the processive extrusion of polypeptide loops is the mechanistic basis of its activity.