Literature DB >> 22359581

Th17-related genes and celiac disease susceptibility.

Luz María Medrano1, Manuel García-Magariños, Bárbara Dema, Laura Espino, Carlos Maluenda, Isabel Polanco, M Ángeles Figueredo, Miguel Fernández-Arquero, Concepción Núñez.   

Abstract

Th17 cells are known to be involved in several autoimmune or inflammatory diseases. In celiac disease (CD), recent studies suggest an implication of those cells in disease pathogenesis. We aimed at studying the role of genes relevant for the Th17 immune response in CD susceptibility. A total of 101 single nucleotide polymorphisms (SNPs), mainly selected to cover most of the variability present in 16 Th17-related genes (IL23R, RORC, IL6R, IL17A, IL17F, CCR6, IL6, JAK2, TNFSF15, IL23A, IL22, STAT3, TBX21, SOCS3, IL12RB1 and IL17RA), were genotyped in 735 CD patients and 549 ethnically matched healthy controls. Case-control comparisons for each SNP and for the haplotypes resulting from the SNPs studied in each gene were performed using chi-square tests. Gene-gene interactions were also evaluated following different methodological approaches. No significant results emerged after performing the appropriate statistical corrections. Our results seem to discard a relevant role of Th17 cells on CD risk.

Entities:  

Mesh:

Year:  2012        PMID: 22359581      PMCID: PMC3281077          DOI: 10.1371/journal.pone.0031244

Source DB:  PubMed          Journal:  PLoS One        ISSN: 1932-6203            Impact factor:   3.240


Introduction

Celiac disease (CD) is an immune related disease mainly characterized by intestinal inflammation after gluten ingestion in genetically susceptible individuals. CD has been traditionally considered a Th1-mediated disease. However, accumulating evidence about the relevant role of the novel Th17 immune response in several autoimmune diseases [1] opened the possibility towards an involvement of this immunological pathway in CD pathogenesis. These cells seem to be involved in protective responses against extracellular pathogens but they can contribute to chronic inflammation and autoimmunity when dysregulated. Th17 cells develop from naïve CD161+ CD4+ T cells upon stimulation with particular immunological stimulus, especifically, transforming growth factor beta (TGF-β), interleukin (IL)-23, IL-1β or IL-6 [2]. This induces several transcription factors, mainly the RAR-related orphan receptor C (RORC), which in turn activates IL-17A and IL-17F transcription, the distinctive effector cytokines of this subset of T cells. Production of IL-21, IL-22 and IL-26 also characterizes this specific response, besides the surface markers C-C chemokine receptor type 6 (CCR6) and IL-23 receptor (IL-23R). Studies based on murine models of several autoimmune diseases, as multiple sclerosis (autoimmune encephalomyelitis, EAE), rheumatoid arthritis (collagen-induced arthritis, CIA) and inflammatory bowel disease (experimental colitis), provided the first evidence about a role of Th17 cells in those conditions [3], [4]. This idea was later supported by case-control studies, which associated genetic variants in IL23R with susceptibility to Crohn's disease, psoriasis and ankylosing spondylitis [5], [6], [7]. Nowadays, the Th17 immune response is considered as a relevant player in several autoimmune or inflammatory diseases. IL-17 mRNA or protein have been detected in biological fluids or the specific affected tissue in several autoimmune disorders [8] and genetic studies associated genes coding important Th17 related products with several diseases [9]. In addition, epistasis between IL23R and other Th17 related genes has been reported: with IL2/IL21 in UC [10] and with IL17A and IL17RA in Crohn's disease [11]. In 2008, a putative implication of the Th17 immune response in CD pathogenesis was suggested from two studies following different approaches. Our research group detected a significant association between a genetic polymorphism in the IL23R gene and CD [12] and Harris et al. found higher production of IL-23 after stimulation of human monocytes derived from CD patients with peptic fragments of wheat gliadin [13]. Subsequently, genetic linkage with the IL23R region was observed in Finnish families, although this result was not replicated in Hungarian pedigrees and no association with IL23R polymorphisms was observed in Finnish, Hungarian or Italian CD samples [14]. In addition, increased expression of several Th17-related cytokines or products was detected in patients with active CD [15], [16] and very recently, gluten-specific IL-17A-producing cells have been found in the duodenum of CD patients [17], which supports a role of Th17 cells in CD pathogenesis. Despite these results observed in CD, the role of the Th17 cells on this disease is still not well defined. We aimed at shedding more light upon this issue by performing an extensive genetic study including many genes coding distinctive cytokines, markers or transcription factors involved in the Th17 response. We will evaluate the individual influence of those genes on CD susceptibility and also the possible contribution of gene-gene interactions. Previous genome wide association studies (GWAS) did not find association with CD susceptibility of any Th17-related gene [18], [19], [20] (with exception of the IL2/IL21 locus, also involved in other processes), but we consider that a different scenario could emerge with this study: we cover most of the variability present in the studied genetic regions and we will evaluate the genetic interactions between the included polymorphisms, which has been proved as a valid approach to detect new susceptibility variants 21,22.

Materials and Methods

Ethics Statement

This study was approved by the ethical committee (CEIC) of the Hospital Clínico San Carlos. Samples were obtained after obtaining written informed consent.

Subjects

A total of 735 CD patients and 549 ethnically matched healthy controls were included in the initial study. A second sample set consisting of 294 CD patients and 475 controls was used for additional analysis. All these samples correspond to unrelated Spanish white individuals. CD patients were diagnosed following the European Society for Paediatric Gastroenterology and Nutrition (ESPGAN), 97% are positive for HLA-DQ2 and/or HLA-DQ8. Controls correspond mainly to blood donors and laboratory staff. CD samples were consecutively collected in two centres of the same region (Hospital La Paz and Hospital Clínico San Carlos, Madrid) and controls were collected at the Hospital Clínico San Carlos.

Markers and genotyping

We selected genes with a known functional role in the Th17 immune response. Accordingly, sixteen genes were studied: IL23R, RORC, IL6R, IL17A, IL17F, CCR6, IL6, JAK2, TNFSF15, IL23A, IL22, STAT3, TBX21, SOCS3, IL12RB1 and IL17RA. For all these genes except IL6R, JAK2 and STAT3, single nucleotide polymorphisms (SNPs) were selected following the “aggressive tagging” option present in the Haploview program with genetic data downloaded from the HapMap Project (http://hapmap.ncbi.nlm.nih.gov) (50 kb upstream and downstream of the transcription initiation site). To increase statistical power, only markers with a minor allele frequency (MAF)>10% were included. In addition, SNPs located in those genes which code nonsynonymous changes or were previously associated with some autoimmune disease were also analysed independently of their MAF. In STAT3 and JAK2, only two SNPs previously associated with Crohn's disease, which share some susceptibility factors with CD, were included: rs744166 and rs10758669, respectively; and in IL6R we studied one functional polymorphism, rs8192284. SNPs located in IL6 and IL6R and two SNPs in IL23R, rs11209026 and rs7517847, were analysed in previous works [12], [23], which included most of the samples initially analysed in this study, but their data were used to evaluate genetic interactions with other Th17 related genes. A total of 101 SNPs were initially studied (Table S1). All of them were genotyped by Veracode technology performed at the National Genotyping Center (http://www.cegen.org), except those that failed (rs10494269, rs9395767, rs608137, rs6927645, rs273506 and rs2241044) and those located in the IL6, IL6R and TBX21 genes, which were genotyped with specific TaqMan assays. Two SNPs (rs11209026 and rs7517847, both in the IL23R gene) were genotyped by those two technologies and identical results were obtained. Additional analysis included the study by TaqMan technology of rs12070470, in the IL23R gene.

Statistical analysis

Deviations from Hardy-Weinberg proportions were assessed in all the SNPs studied. A case-control analysis using chi-square tests was performed for each individual SNP and for the haplotypes resulting from the SNPs studied in the same genetic region. Interactions between genes were evaluated following four different approaches: logistic regression, random forests (RF), classification and regression trees (CART) and multifactor dimensionality reduction (MDR).

Results

Three SNPs showed deviation from Hardy-Weinberg proportions and were eliminated from the study: rs2064331 (IL17F), rs10878804 (IL22) and rs9645406 (RORC). The comparison of genotypic frequencies between cases and controls for all the SNPs analysed achieved a nominal significant value in twelve polymorphisms located in eight different genetic regions (Table 1). Although none of them withstand Bonferroni correction, we tried to replicate associations involving SOCS3 and IL23R using a second sample set. These two genes show the lowest case-control p-values in the present analysis and additionally some SNP in those genes showed a nominal significance in previous CD GWAS [20].
Table 1

Genetic polymorphisms which showed a nominal significant value after case-control comparisons (in decreasing significance).

GENESNPGENOTYPEpOR95% CI
SOCS3 rs4969170AA0.00180.590.42–0.84
IL23R rs7528924GG0.00572.111.19–3.74
TNFSF15 rs17219926CC0.01031.431.08–1.89
IL6 rs2069827GT+TT0.0161.511.06–2.14
IL22 rs11611206AA0.0190.390.16–0.93
IL23R rs11209026AG+GG0.0261.421.03–1.97
RORC rs1521186AA+AG0.0271.311.02–1.67
IL22 rs11177131CT+TT0.0340.760.58–0.99
IL17A rs8193036CT+TT0.0340.600.36–0.99
IL6 rs1800795CG+CC0.0371.261.01–1.58
TNFSF15 rs6478108CT+CC0.0430.790.63–1.00
CCR6 rs3798315TT0.0444.170.90–38.84

ORs are referred to the mutant genotype or carrier of the mutant allele (specified below “genotype”).

ORs are referred to the mutant genotype or carrier of the mutant allele (specified below “genotype”). The initial IL23R data analysis also evidenced one haplotype significantly associated with CD susceptibility (rs4655683-rs10889667-rs1569922-rs790632-rs7517847-rs10489629-rs7528924-rs2201841-rs4655530-rs11209026-rs6682033-rs6693831, G-C-C-C-T-A-G-T-A-G-A-C): 9.2% in CD patients vs. 6.3% in controls (p = 0.0067). For replication purposes, the SNP rs12070470, highly correlated with that haplotype (r2 = 1 according to http://hapmap.ncbi.nlm.nih.gov/) was studied in the second sample set instead of the 12 SNPs initially considered. No significant associations involving IL23R were observed in the replication set. Regarding the SNP rs4969170, in the SOCS3 gene, a significant association was observed pooling the original and the replication sets: p = 0.0012 OR = 0.64 95% CI 0.49–0.84 (Table 2). Statistical power limitations probably precluded us to obtain a significant result in the replication set.
Table 2

Genotypic data (N (%)) for rs4969170 in the original and the replication sets.

Original set* Replication set#
CDControlsCDControls
(N = 732)(N = 551)(N = 294)(N = 462)
GG292 (39.9)212 (38.5)124 (42.2)198 (42.9)
AG368 (50.3)253 (45.9)138 (46.9)199 (43.1)
AA72 (9.8)86 (15.6)32 (10.9)65 (14.1)

AA genotype:

*: p = 0.0018 OR = 0.59 95% CI 0.42–0.84;

, p = 0.20 95% CI OR = 0.75 (0.46–1.20).

AA genotype: *: p = 0.0018 OR = 0.59 95% CI 0.42–0.84; , p = 0.20 95% CI OR = 0.75 (0.46–1.20). No consensus exists as to the best methodology to evaluate epistasis. Therefore, we used four different statistical methods to evaluate genetic interactions between all the studied polymorphisms located in different genes. We did not find statistically significant results with any methodological approach.

Discussion

With the development of genome wide association studies (GWAS), the number of discovered genes involved in CD susceptibility has highly increased. However, the percentage of disease heritability explained has not experienced such an increase. Genetic variants not included in GWAS and genetic interactions could be underlying some missing heritability. We bear this in mind when studying the relevance of the Th17 immune response on CD susceptibility. We performed an extensive case-control study including sixteen genes which code relevant factors involved in that immune response. Tag SNPs were selected to cover most of the variability present in each gene, with exception of IL6R, STAT3 and JAK2. SNPs coding nonsynonymous changes or those previously associated with other autoimmune diseases were also included in order to increase the a priori probability of obtaining a significant result. Additionally, we evaluated the possibility that interactions between the studied genes were involved in disease susceptibility. Our results seem to discard a relevant role of Th17 cells on CD risk, since no significantly associated SNP or gene-gene interaction was consistently observed, with the only exception of rs4969170, located in SOCS3, which deserves further research. However, although SOCS3 is later confirmed, its functional role must be elucidated, since it is involved in different functional pathways and it would be expected that more than one Th17 gene was associated with CD susceptibility, as it has been observed with other Th17-mediated diseases. The discovery of the IL-23 cytokine prompted the re-examination of the dominant Th response in many autoimmune diseases, primarily in those considered as skewed towards a Th1 phenotype. Studies based on murine models of multiple sclerosis, rheumatoid arthritis and inflammatory bowel disease related these conditions with a Th17 response. However, a similar conclusion is not drawn from GWAS results [24], [25], [26]. Although several Th17-related genes have been associated with IBD and RA, the list of MS susceptibility genes does not suggest a Th17 related etiology. This intriguing issue is probably far away from being answered. Nowadays it seems clear that Th immune responses are not independent and plasticity exists between Th cell subsets. A shift between Th1 and Th17 can occur during the inflammatory process and it is possible to speculate that the relative contribution and the timing of each subset will determine which genes would be involved in disease risk. Moreover, the cytokine microenvironment can determine the shift towards a specific immune response. From this point of view, genetics could not be so relevant if other compensatory mechanisms exist. This evidence, as previously suggested, that overlap between autoimmune diseases must be observed with caution. Th17 cells seem to mediate several autoimmune diseases but their impact in disease etiology seems to be different. In summary, gene expression studies link CD pathogenesis to Th17 cells, but we evidenced that polymorphisms in Th17-related genes do not seem to be crucial for disease development. This is concordant with observations on MS. Although, in general, genetic data provide clues that ratified by functional studies unravel disease pathogenesis, this time it makes necessary to do somehow the other way around, with the special difficulty of explaining the divergent genetic results observed in different immune mediated diseases. Therefore, much more work is expected in this field. Genes and SNPs studied ordered by chromosome and position. (DOC) Click here for additional data file.
  26 in total

1.  Genome-wide association study meta-analysis identifies seven new rheumatoid arthritis risk loci.

Authors:  Eli A Stahl; Soumya Raychaudhuri; Elaine F Remmers; Gang Xie; Stephen Eyre; Brian P Thomson; Yonghong Li; Fina A S Kurreeman; Alexandra Zhernakova; Anne Hinks; Candace Guiducci; Robert Chen; Lars Alfredsson; Christopher I Amos; Kristin G Ardlie; Anne Barton; John Bowes; Elisabeth Brouwer; Noel P Burtt; Joseph J Catanese; Jonathan Coblyn; Marieke J H Coenen; Karen H Costenbader; Lindsey A Criswell; J Bart A Crusius; Jing Cui; Paul I W de Bakker; Philip L De Jager; Bo Ding; Paul Emery; Edward Flynn; Pille Harrison; Lynne J Hocking; Tom W J Huizinga; Daniel L Kastner; Xiayi Ke; Annette T Lee; Xiangdong Liu; Paul Martin; Ann W Morgan; Leonid Padyukov; Marcel D Posthumus; Timothy R D J Radstake; David M Reid; Mark Seielstad; Michael F Seldin; Nancy A Shadick; Sophia Steer; Paul P Tak; Wendy Thomson; Annette H M van der Helm-van Mil; Irene E van der Horst-Bruinsma; C Ellen van der Schoot; Piet L C M van Riel; Michael E Weinblatt; Anthony G Wilson; Gert Jan Wolbink; B Paul Wordsworth; Cisca Wijmenga; Elizabeth W Karlson; Rene E M Toes; Niek de Vries; Ann B Begovich; Jane Worthington; Katherine A Siminovitch; Peter K Gregersen; Lars Klareskog; Robert M Plenge
Journal:  Nat Genet       Date:  2010-05-09       Impact factor: 38.330

2.  Characterization of gliadin-specific Th17 cells from the mucosa of celiac disease patients.

Authors:  Silvia Fernández; Ignacio J Molina; Pilar Romero; Rafael González; José Peña; Francisco Sánchez; Fernanda R Reynoso; Juan L Pérez-Navero; Orlando Estevez; Consuelo Ortega; Manuel Santamaría
Journal:  Am J Gastroenterol       Date:  2011-01-04       Impact factor: 10.864

3.  IL-23 is essential for T cell-mediated colitis and promotes inflammation via IL-17 and IL-6.

Authors:  David Yen; Jeanne Cheung; Heleen Scheerens; Frédérique Poulet; Terrill McClanahan; Brent McKenzie; Melanie A Kleinschek; Alex Owyang; Jeanine Mattson; Wendy Blumenschein; Erin Murphy; Manjiri Sathe; Daniel J Cua; Robert A Kastelein; Donna Rennick
Journal:  J Clin Invest       Date:  2006-05       Impact factor: 14.808

4.  Interleukin-23 rather than interleukin-12 is the critical cytokine for autoimmune inflammation of the brain.

Authors:  Daniel J Cua; Jonathan Sherlock; Yi Chen; Craig A Murphy; Barbara Joyce; Brian Seymour; Linda Lucian; Wayne To; Sylvia Kwan; Tatyana Churakova; Sandra Zurawski; Maria Wiekowski; Sergio A Lira; Daniel Gorman; Robert A Kastelein; Jonathon D Sedgwick
Journal:  Nature       Date:  2003-02-13       Impact factor: 49.962

Review 5.  New IBD genetics: common pathways with other diseases.

Authors:  C W Lees; J C Barrett; M Parkes; J Satsangi
Journal:  Gut       Date:  2011-02-07       Impact factor: 23.059

6.  Epistasis between Toll-like receptor-9 polymorphisms and variants in NOD2 and IL23R modulates susceptibility to Crohn's disease.

Authors:  Helga P Török; Jürgen Glas; Ilona Endres; Laurian Tonenchi; Molla Y Teshome; Martin Wetzke; Wolfram Klein; Peter Lohse; Thomas Ochsenkühn; Matthias Folwaczny; Burkhard Göke; Christian Folwaczny; Bertram Müller-Myhsok; Stephan Brand
Journal:  Am J Gastroenterol       Date:  2009-05-19       Impact factor: 10.864

7.  Characterization of IL-17A-producing cells in celiac disease mucosa.

Authors:  Ivan Monteleone; Massimiliano Sarra; Giovanna Del Vecchio Blanco; Omero Alessandro Paoluzi; Eleonora Franzè; Daniele Fina; Alessia Fabrizi; Thomas T MacDonald; Francesco Pallone; Giovanni Monteleone
Journal:  J Immunol       Date:  2010-01-08       Impact factor: 5.422

8.  Genome-wide meta-analysis increases to 71 the number of confirmed Crohn's disease susceptibility loci.

Authors:  Andre Franke; Dermot P B McGovern; Jeffrey C Barrett; Kai Wang; Graham L Radford-Smith; Tariq Ahmad; Charlie W Lees; Tobias Balschun; James Lee; Rebecca Roberts; Carl A Anderson; Joshua C Bis; Suzanne Bumpstead; David Ellinghaus; Eleonora M Festen; Michel Georges; Todd Green; Talin Haritunians; Luke Jostins; Anna Latiano; Christopher G Mathew; Grant W Montgomery; Natalie J Prescott; Soumya Raychaudhuri; Jerome I Rotter; Philip Schumm; Yashoda Sharma; Lisa A Simms; Kent D Taylor; David Whiteman; Cisca Wijmenga; Robert N Baldassano; Murray Barclay; Theodore M Bayless; Stephan Brand; Carsten Büning; Albert Cohen; Jean-Frederick Colombel; Mario Cottone; Laura Stronati; Ted Denson; Martine De Vos; Renata D'Inca; Marla Dubinsky; Cathryn Edwards; Tim Florin; Denis Franchimont; Richard Gearry; Jürgen Glas; Andre Van Gossum; Stephen L Guthery; Jonas Halfvarson; Hein W Verspaget; Jean-Pierre Hugot; Amir Karban; Debby Laukens; Ian Lawrance; Marc Lemann; Arie Levine; Cecile Libioulle; Edouard Louis; Craig Mowat; William Newman; Julián Panés; Anne Phillips; Deborah D Proctor; Miguel Regueiro; Richard Russell; Paul Rutgeerts; Jeremy Sanderson; Miquel Sans; Frank Seibold; A Hillary Steinhart; Pieter C F Stokkers; Leif Torkvist; Gerd Kullak-Ublick; David Wilson; Thomas Walters; Stephan R Targan; Steven R Brant; John D Rioux; Mauro D'Amato; Rinse K Weersma; Subra Kugathasan; Anne M Griffiths; John C Mansfield; Severine Vermeire; Richard H Duerr; Mark S Silverberg; Jack Satsangi; Stefan Schreiber; Judy H Cho; Vito Annese; Hakon Hakonarson; Mark J Daly; Miles Parkes
Journal:  Nat Genet       Date:  2010-12       Impact factor: 38.330

9.  A knowledge-driven interaction analysis reveals potential neurodegenerative mechanism of multiple sclerosis susceptibility.

Authors:  W S Bush; J L McCauley; P L DeJager; S M Dudek; D A Hafler; R A Gibson; P M Matthews; L Kappos; Y Naegelin; C H Polman; S L Hauser; J Oksenberg; J L Haines; M D Ritchie
Journal:  Genes Immun       Date:  2011-02-24       Impact factor: 2.676

10.  Genetic risk and a primary role for cell-mediated immune mechanisms in multiple sclerosis.

Authors:  Stephen Sawcer; Garrett Hellenthal; Matti Pirinen; Chris C A Spencer; Nikolaos A Patsopoulos; Loukas Moutsianas; Alexander Dilthey; Zhan Su; Colin Freeman; Sarah E Hunt; Sarah Edkins; Emma Gray; David R Booth; Simon C Potter; An Goris; Gavin Band; Annette Bang Oturai; Amy Strange; Janna Saarela; Céline Bellenguez; Bertrand Fontaine; Matthew Gillman; Bernhard Hemmer; Rhian Gwilliam; Frauke Zipp; Alagurevathi Jayakumar; Roland Martin; Stephen Leslie; Stanley Hawkins; Eleni Giannoulatou; Sandra D'alfonso; Hannah Blackburn; Filippo Martinelli Boneschi; Jennifer Liddle; Hanne F Harbo; Marc L Perez; Anne Spurkland; Matthew J Waller; Marcin P Mycko; Michelle Ricketts; Manuel Comabella; Naomi Hammond; Ingrid Kockum; Owen T McCann; Maria Ban; Pamela Whittaker; Anu Kemppinen; Paul Weston; Clive Hawkins; Sara Widaa; John Zajicek; Serge Dronov; Neil Robertson; Suzannah J Bumpstead; Lisa F Barcellos; Rathi Ravindrarajah; Roby Abraham; Lars Alfredsson; Kristin Ardlie; Cristin Aubin; Amie Baker; Katharine Baker; Sergio E Baranzini; Laura Bergamaschi; Roberto Bergamaschi; Allan Bernstein; Achim Berthele; Mike Boggild; Jonathan P Bradfield; David Brassat; Simon A Broadley; Dorothea Buck; Helmut Butzkueven; Ruggero Capra; William M Carroll; Paola Cavalla; Elisabeth G Celius; Sabine Cepok; Rosetta Chiavacci; Françoise Clerget-Darpoux; Katleen Clysters; Giancarlo Comi; Mark Cossburn; Isabelle Cournu-Rebeix; Mathew B Cox; Wendy Cozen; Bruce A C Cree; Anne H Cross; Daniele Cusi; Mark J Daly; Emma Davis; Paul I W de Bakker; Marc Debouverie; Marie Beatrice D'hooghe; Katherine Dixon; Rita Dobosi; Bénédicte Dubois; David Ellinghaus; Irina Elovaara; Federica Esposito; Claire Fontenille; Simon Foote; Andre Franke; Daniela Galimberti; Angelo Ghezzi; Joseph Glessner; Refujia Gomez; Olivier Gout; Colin Graham; Struan F A Grant; Franca Rosa Guerini; Hakon Hakonarson; Per Hall; Anders Hamsten; Hans-Peter Hartung; Rob N Heard; Simon Heath; Jeremy Hobart; Muna Hoshi; Carmen Infante-Duarte; Gillian Ingram; Wendy Ingram; Talat Islam; Maja Jagodic; Michael Kabesch; Allan G Kermode; Trevor J Kilpatrick; Cecilia Kim; Norman Klopp; Keijo Koivisto; Malin Larsson; Mark Lathrop; Jeannette S Lechner-Scott; Maurizio A Leone; Virpi Leppä; Ulrika Liljedahl; Izaura Lima Bomfim; Robin R Lincoln; Jenny Link; Jianjun Liu; Aslaug R Lorentzen; Sara Lupoli; Fabio Macciardi; Thomas Mack; Mark Marriott; Vittorio Martinelli; Deborah Mason; Jacob L McCauley; Frank Mentch; Inger-Lise Mero; Tania Mihalova; Xavier Montalban; John Mottershead; Kjell-Morten Myhr; Paola Naldi; William Ollier; Alison Page; Aarno Palotie; Jean Pelletier; Laura Piccio; Trevor Pickersgill; Fredrik Piehl; Susan Pobywajlo; Hong L Quach; Patricia P Ramsay; Mauri Reunanen; Richard Reynolds; John D Rioux; Mariaemma Rodegher; Sabine Roesner; Justin P Rubio; Ina-Maria Rückert; Marco Salvetti; Erika Salvi; Adam Santaniello; Catherine A Schaefer; Stefan Schreiber; Christian Schulze; Rodney J Scott; Finn Sellebjerg; Krzysztof W Selmaj; David Sexton; Ling Shen; Brigid Simms-Acuna; Sheila Skidmore; Patrick M A Sleiman; Cathrine Smestad; Per Soelberg Sørensen; Helle Bach Søndergaard; Jim Stankovich; Richard C Strange; Anna-Maija Sulonen; Emilie Sundqvist; Ann-Christine Syvänen; Francesca Taddeo; Bruce Taylor; Jenefer M Blackwell; Pentti Tienari; Elvira Bramon; Ayman Tourbah; Matthew A Brown; Ewa Tronczynska; Juan P Casas; Niall Tubridy; Aiden Corvin; Jane Vickery; Janusz Jankowski; Pablo Villoslada; Hugh S Markus; Kai Wang; Christopher G Mathew; James Wason; Colin N A Palmer; H-Erich Wichmann; Robert Plomin; Ernest Willoughby; Anna Rautanen; Juliane Winkelmann; Michael Wittig; Richard C Trembath; Jacqueline Yaouanq; Ananth C Viswanathan; Haitao Zhang; Nicholas W Wood; Rebecca Zuvich; Panos Deloukas; Cordelia Langford; Audrey Duncanson; Jorge R Oksenberg; Margaret A Pericak-Vance; Jonathan L Haines; Tomas Olsson; Jan Hillert; Adrian J Ivinson; Philip L De Jager; Leena Peltonen; Graeme J Stewart; David A Hafler; Stephen L Hauser; Gil McVean; Peter Donnelly; Alastair Compston
Journal:  Nature       Date:  2011-08-10       Impact factor: 49.962

View more
  6 in total

1.  JAK2 rs10758669 polymorphisms and susceptibility to ulcerative colitis and Crohn's disease: a meta-analysis.

Authors:  Ji-Xiang Zhang; Jia Song; Jun Wang; Wei-Guo Dong
Journal:  Inflammation       Date:  2014-06       Impact factor: 4.092

Review 2.  Inflammatory bowel disease and celiac disease: overlaps and differences.

Authors:  Virginia Pascual; Romina Dieli-Crimi; Natalia López-Palacios; Andrés Bodas; Luz María Medrano; Concepción Núñez
Journal:  World J Gastroenterol       Date:  2014-05-07       Impact factor: 5.742

3.  Variants of Interleukin-22 Gene Confer Predisposition to Autoimmune Thyroid Disease.

Authors:  Rong-Hua Song; Qian Li; Wen Wang; Qiu-Ming Yao; Xiao-Qing Shao; Jin-An Zhang
Journal:  Int J Endocrinol       Date:  2017-08-03       Impact factor: 3.257

4.  Breg Cells in Celiac Disease Isolated or Associated to Hashimoto's Thyroiditis.

Authors:  Maria Giulia Santaguida; Ilenia Gatto; Giorgio Mangino; Camilla Virili; Ilaria Stramazzo; Poupak Fallahi; Alessandro Antonelli; Patrizia Gargiulo; Giovanna Romeo; Marco Centanni
Journal:  Int J Endocrinol       Date:  2018-10-08       Impact factor: 3.257

5.  Prospero-related homeobox 1 (Prox1) functions as a novel modulator of retinoic acid-related orphan receptors α- and γ-mediated transactivation.

Authors:  Yukimasa Takeda; Anton M Jetten
Journal:  Nucleic Acids Res       Date:  2013-05-30       Impact factor: 16.971

6.  The role of soluble tumor necrosis factor like weak inducer of apoptosis and interleukin-17A in the etiopathogenesis of celiac disease: A cross-sectional study.

Authors:  Mahmut Yuksel; Mustafa Kaplan; Ihsan Ates; Zeki Mesut Yaln Kilic; Hasan Kilic; Nuretdin Suna; Hale Ates; Ertugrul Kayacetin
Journal:  Medicine (Baltimore)       Date:  2016-06       Impact factor: 1.889

  6 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.