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1 s result in gastrointestinal symptoms (e.g., inflammatory bowel disease).
2 atory diseases, such as allergy, asthma, and inflammatory bowel disease.
3 embles ulcerative colitis, one form of human inflammatory bowel disease.
4 se as novel disease-modifying therapeutic of inflammatory bowel disease.
5 treatment with vedolizumab in patients with inflammatory bowel disease.
6 10 receptor (IL10R) develop very early onset inflammatory bowel disease.
7 phages may contribute to the pathogenesis of inflammatory bowel disease.
8 orbidity could affect the natural history of inflammatory bowel disease.
9 al trials as T cell therapy in patients with inflammatory bowel disease.
10 tion (CRD) is suggested as a risk factor for inflammatory bowel disease.
11 elta/Delta)FOXP3(+) mice develop spontaneous inflammatory bowel disease.
12 entified as important therapeutic targets in inflammatory bowel disease.
13 TNF might be more effective in patients with inflammatory bowel disease.
14 , mood, and quality of life in patients with inflammatory bowel disease.
15 lta T cells play a pathogenic role including inflammatory bowel disease.
16 ging tool in the evaluation of patients with inflammatory bowel disease.
17 ded by a locus that has been associated with inflammatory bowel disease.
18 several negative health outcomes, including inflammatory bowel disease.
19 lizumab, is a highly effective treatment for inflammatory bowel disease.
20 immunodeficiencies and rare forms of severe inflammatory bowel disease.
21 diating intestinal inflammatory responses in inflammatory bowel disease.
22 osure is associated with atherosclerosis and inflammatory bowel disease.
23 r detect dysplastic changes in patients with inflammatory bowel disease.
24 thiopurine drugs in paediatric patients with inflammatory bowel disease.
25 eviate chronic inflammatory diseases such as inflammatory bowel disease.
26 to that observed in patients with ileus and inflammatory bowel disease.
27 ffect development of mucosal inflammation or inflammatory bowel disease.
28 ging tool in the evaluation of patients with inflammatory bowel disease.
29 ase models, such as rheumatoid arthritis and inflammatory bowel disease.
30 n may offer a new option in the treatment of inflammatory bowel disease.
31 nded to be associated with increased risk of inflammatory bowel disease.
32 ECs overlapped with susceptibility genes for inflammatory bowel disease.
33 is associated with rheumatoid arthritis and inflammatory bowel disease.
34 ne disorders, such as multiple sclerosis and inflammatory bowel disease.
35 therapeutic approach to treat patients with inflammatory bowel disease.
36 at(+) IL-17-producing Th17 cells, leading to inflammatory bowel disease.
37 g peptide Lipocalin-2 (Lcn2) are observed in inflammatory bowel disease.
38 may represent a novel therapeutic target in inflammatory bowel disease.
39 le in gut homeostasis and mucosal healing in inflammatory bowel disease.
40 colorectal cancers is present in those with inflammatory bowel disease.
41 ss in the colon are the principal factors in inflammatory bowel disease.
42 involved those with rheumatoid arthritis or inflammatory bowel disease.
43 e gut and represents a therapeutic target in inflammatory bowel disease.
44 n a dextran sodium sulfate mediated model of inflammatory bowel disease.
45 ic inflammatory diseases, such as asthma and inflammatory bowel disease.
46 tic disorders such as cholestasis, NASH, and inflammatory bowel disease.
47 disease, chronic heart failure, cancer, and inflammatory bowel disease.
48 scores and quality of life in patients with inflammatory bowel disease.
49 rominent than previously reported cases with inflammatory bowel disease.
50 ovel prevention and treatment strategies for inflammatory bowel disease.
51 ines on the role of TDM in the management of inflammatory bowel disease.
52 target for chemoprevention in patients with inflammatory bowel disease.
53 lammation and contributes to pathogenesis of inflammatory bowel diseases.
54 ment of intestinal fibrosis in patients with inflammatory bowel diseases.
55 eral chronic inflammatory diseases including inflammatory bowel diseases.
56 ne expression patterns associated with human inflammatory bowel diseases.
57 mucosal barrier, and promotes development of inflammatory bowel diseases.
58 lammation and contributes to pathogenesis of inflammatory bowel diseases.
59 be developed as treatments for patients with inflammatory bowel diseases.
60 es of failure to resolve gut inflammation in inflammatory bowel diseases.
61 patic steatosis, cardiovascular disease, and inflammatory bowel diseases.
62 tral pathological feature of colitis and the inflammatory bowel diseases.
63 g of GPBAR1 may offer therapeutic options in inflammatory bowel diseases.
64 , 19.9% were receiving treatment for chronic inflammatory bowel disease, 12.1% of the participants we
65 rheumatoid arthritis, 5 had psoriasis, 6 had inflammatory bowel disease, 2 had systemic lupus erythem
66 that Rag2(R229Q) knock-in mice developed an inflammatory bowel disease affecting both the small bowe
67 olled trials (RCTs) recruiting patients with inflammatory bowel disease aged at least 16 years that c
69 ated with the presence and risk of new-onset inflammatory bowel disease, although the prevalence rema
70 ocyte infiltration in experimental models of inflammatory bowel disease and acute graft-versus-host d
71 optive-transfer models, including autoimmune inflammatory bowel disease and allogeneic graft-versus-h
72 -mediated mouse models, including a model of inflammatory bowel disease and an inflammatory arthritis
74 acteroides fragilis (ETBF) is linked to both inflammatory bowel disease and colorectal cancer and, in
75 oides fragilis (ETBF) has been implicated in inflammatory bowel disease and colorectal cancer; howeve
76 Management involves assessment for comorbid inflammatory bowel disease and exclusion of other associ
77 oversy over how to best manage patients with inflammatory bowel disease and flat low-grade dysplasia
78 cells, CD70(-/-) T cells caused more severe inflammatory bowel disease and graft-versus-host disease
79 ght the need for research into prevention of inflammatory bowel disease and innovations in health-car
82 rbate chronic inflammatory disorders such as inflammatory bowel disease and rheumatoid arthritis.
83 autoimmune diseases such as atherosclerosis, inflammatory bowel disease and systemic lupus erythemato
84 umulated in chronic inflammation of the gut (inflammatory bowel disease) and lung (chronic obstructiv
85 otal, 208 healthy controls, 40 controls with inflammatory bowel disease, and 327 consecutive patients
86 irin-exacerbated respiratory disease (AERD), inflammatory bowel disease, and acute respiratory distre
89 FMTs for Clostridium difficile infection or inflammatory bowel disease, and most (87%) were non-rand
91 mune diseases, such as rheumatoid arthritis, inflammatory bowel disease, and systemic lupus erythemat
92 a variety of autoimmune disorders, including inflammatory bowel disease, and thus are widely consider
93 uding allergy, diabetes, obesity, arthritis, inflammatory bowel diseases, and even neuropsychiatric d
94 ase and ulcerative colitis are heterogeneous inflammatory bowel diseases, and therapeutic requirement
100 for immune-related rheumatoid arthritis and inflammatory bowel disease, as well as neuro-degenerativ
101 nd diagnosis of this serious complication of inflammatory bowel diseases, as well as factors that pre
103 wide association studies have identified 200 inflammatory bowel disease-associated loci, but few have
106 prospective study of 80 pregnant women with inflammatory bowel diseases at tertiary hospitals in Den
107 tal sepsis, pelvic inflammatory disease, and inflammatory bowel diseases-at a concentration range of
108 n, type 1 diabetes mellitus, celiac disease, inflammatory bowel disease, autoimmune thyroid disease,
109 ucocorticoids (GCs) are widely used to treat inflammatory bowel disease but their effect on intestina
110 n the intestinal epithelium of patients with inflammatory bowel disease, but its role in pathogenesis
111 with important roles in human metabolic and inflammatory bowel diseases, but a role in host response
112 therapies and antibiotics for patients with inflammatory bowel diseases, but are these immunotherapi
114 yzing data from women without a diagnosis of inflammatory bowel disease, celiac disease, or liver dis
115 Moreover, DC-LMP1/CD40 chimeras developed inflammatory bowel disease characterized by massive tran
116 targeted genetic association in the Manitoba Inflammatory Bowel Disease Cohort Study was conducted th
117 antagonists reduce many clinical features of inflammatory bowel disease, complete mucosal healing occ
119 ith autoimmune and other diseases, including inflammatory bowel disease, Crohn's disease and rheumato
120 elvic inflammatory disease) and 30ng/mL (for inflammatory bowel diseases) CRP in 1000-fold diluted bl
121 t of rheumatologic conditions, malignancies, inflammatory bowel disease, dermatologic conditions, or
122 incidence or prevalence of paediatric-onset inflammatory bowel disease (diagnosis at age <16 years)
124 ating variants conferring protection against inflammatory bowel disease exploiting knowledge of commo
125 ents undergoing surveillance colonoscopy for inflammatory bowel disease from 1990 to 2015 at the Univ
128 RPRETATION: At the turn of the 21st century, inflammatory bowel disease has become a global disease w
130 n and dysplasia management for patients with inflammatory bowel disease has changed since this first
132 The study of the genetic underpinnings of inflammatory bowel disease has made great progress since
133 BACKGROUND & AIMS: Diarrhea associated with inflammatory bowel diseases has been associated with inc
135 microbial co-occurrence in individuals with inflammatory bowel disease (IBD) and healthy (non-IBD co
139 nform the complex genetic basis of polygenic inflammatory bowel disease (IBD) as well as Mendelian di
141 ur understanding of genetic underpinnings of inflammatory bowel disease (IBD) has undergone a revolut
142 ile infections (CDIs) among individuals with inflammatory bowel disease (IBD) have used data from sin
143 OUND AND AIMS: Immunosuppressive therapy for inflammatory bowel disease (IBD) in pediatric patients i
144 tectin are used in the diagnostic workup for inflammatory bowel disease (IBD) in pediatric patients.
155 rate aberrant intestinal inflammation during inflammatory bowel disease (IBD) is poorly defined.
158 most common question asked by patients with inflammatory bowel disease (IBD) is, "Doctor, what shoul
159 wide association studies have identified 200 inflammatory bowel disease (IBD) loci, but the genetic a
160 sed on genes regulated by variants linked to inflammatory bowel disease (IBD) not only outperform gen
162 as studied in blood samples of patients with inflammatory bowel disease (IBD) receiving anti-TNF ther
163 ctions due to available medical therapies of inflammatory bowel disease (IBD) remains controversial.
167 member 9 (CARD9), a susceptibility gene for inflammatory bowel disease (IBD) that functions in the i
169 therapeutic decision making in patients with inflammatory bowel disease (IBD) who lose response to an
170 is (OA)) or chronic inflammatory conditions (inflammatory bowel disease (IBD)) can be identified.
171 G16L1 is associated with Crohn's disease, an inflammatory bowel disease (IBD), and poor survival in a
172 s disease (CD)-associated colitis or without inflammatory bowel disease (IBD), and whether expression
174 ostasis is associated with disorders such as inflammatory bowel disease (IBD), but the mechanisms of
176 n algorithms on the prevalence of paediatric inflammatory bowel disease (IBD), Crohn's disease (CD) a
178 3/Th17 pathway is essential for the onset of inflammatory bowel disease (IBD), yet the specific mecha
203 Atg16l1 is associated with susceptibility to inflammatory bowel disease (IBD); however, it remains un
204 ssue from typically developing children with inflammatory bowel disease (IBD; i.e. Crohn's disease or
206 ion, studying its effects in mouse models of inflammatory bowel diseases (IBD) and intestinal mucosal
209 n and effector immune responses that mediate inflammatory bowel diseases (IBD) in humans and enteroco
212 cells (IEC) of children newly diagnosed with inflammatory bowel diseases (IBD) to learn more about pa
214 e been tested for therapeutic application in inflammatory bowel diseases (IBD) yet understanding of t
215 ptophan and its metabolites in patients with inflammatory bowel diseases (IBD), and study their assoc
225 The gut microbiome plays a central role in inflammatory bowel diseases (IBDs) pathogenesis and prop
226 f chronic inflammatory conditions, including inflammatory bowel diseases (IBDs), herein we investigat
227 are a key pathogenic factor in patients with inflammatory bowel diseases (IBDs), the molecular pathwa
230 d a well-characterized, spontaneous model of inflammatory bowel disease [ie, SAMP1/YitFc (SAMP) mice]
231 than in the general population, the risk of inflammatory bowel disease in children was 80 times high
232 s reported stable or decreasing incidence of inflammatory bowel disease in North America and Europe.
233 ce of HS, but the data on the concurrence of inflammatory bowel disease in patients with HS are limit
234 fore investigated the prevalence and risk of inflammatory bowel disease in patients with HS compared
236 occur with other diseases, including asthma, inflammatory bowel disease, infections, cerebral palsy,
242 The management of the pregnant patient with inflammatory bowel disease is complicated by multiple pr
248 ro-apoptotic function in the pathogenesis of inflammatory bowel disease, ischemia-reperfusion injury,
250 3p21) were associated with subphenotypes of inflammatory bowel disease, mainly disease location (ess
251 ation has been established between IL-33 and inflammatory bowel disease, mechanistic studies to date,
253 colon anatomies), and disease features (with inflammatory bowel disease, mesenteric vascular diseases
254 lammatory diseases (rheumatoid arthritis and inflammatory bowel disease), metabolic diseases (atheros
256 o test the activity of TR1 cells in a murine inflammatory bowel disease model, a model that resembles
257 have identified 163 susceptibility loci for inflammatory bowel disease, mostly shared between Crohn'
258 data support a continuum of disorders within inflammatory bowel disease, much better explained by thr
259 uals (controls, n = 13-30) and patients with inflammatory bowel diseases (n = 119; 59 with ulcerative
260 olitis (UC, n = 74) or from patients without inflammatory bowel diseases (n = 22), to measure levels
262 testinal endoscopy was performed to rule out inflammatory bowel disease or gastrointestinal neoplasm
263 previously investigated in individuals with inflammatory bowel diseases or solid-organ transplants,
264 mitochondria in a mouse model of colitis and inflammatory bowel disease patients, and this results in
270 ficantly ameliorate rheumatoid arthritis and inflammatory bowel disease provide a path for using elec
271 e primary outcome was quality of life on the Inflammatory Bowel Disease Questionnaire (IBDQ) at 12 mo
272 anges in the bowel component of the modified Inflammatory Bowel Disease Questionnaire (IBDQ) score an
273 nd Crohn's Disease Activity Index (CDAI) and Inflammatory Bowel Disease Questionnaire (IBDQ) scores t
274 fference between groups in the change in the Inflammatory Bowel Disease Questionnaire-Bowel Subset (I
275 he pathogenesis of many disorders, including inflammatory bowel disease, sepsis, and inflammatory art
276 core representing all known risk alleles for inflammatory bowel disease showed strong association wit
277 ion of dysplasia detection and management in inflammatory bowel disease since 1925, the year the firs
278 pplied the Montreal classification system of inflammatory bowel disease subphenotypes to 34,819 patie
281 effective treatment can alter progression of inflammatory bowel diseases, the importance of examining
283 itical barrier function in disorders such as inflammatory bowel disease, there has been long-standing
284 on studies have identified 215 risk loci for inflammatory bowel disease, thereby uncovering fundament
285 egy of reactive TDM (in patients with active inflammatory bowel disease) to guide treatment changes c
286 s had a positive effect in the management of inflammatory bowel disease, treatment effects in early-o
287 ther resolve the genetic architecture of the inflammatory bowel diseases ulcerative colitis and Crohn
288 's disease (CD), ulcerative colitis (UC) and inflammatory bowel disease unclassified (IBDU) is a comp
289 s of Crohn's disease, ulcerative colitis, or inflammatory bowel disease unclassified before the age o
290 with IBD (1646 with CD, 583 with UC, and 116 inflammatory bowel disease unclassified) and 5002 indivi
292 ls and intestinal tissues from patients with inflammatory bowel diseases vs controls, we found that r
293 es of polygenic risk (e.g., genetic risk for inflammatory bowel disease was negatively correlated wit
294 s mostly a protective role in infectious and inflammatory bowel diseases, whereas both beneficial and
295 y cytokines were suppressed in patients with inflammatory bowel disease who were on ARB therapy compa
297 The relative risk of relapse of quiescent inflammatory bowel disease with psychological therapy ve
298 ptimizing clinical management strategies for inflammatory bowel disease with the use of EGCG treatmen
300 nd anti-inflammatory properties in models of inflammatory bowel disease, yet the underlying molecular
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