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1 set destructive tissue remodeling in chronic fibrotic disease.
2 hibitors of the human P4H enzyme involved in fibrotic disease.
3 l of TGFbeta signaling and the prevention of fibrotic disease.
4 ibutes to severe inflammation and multiorgan fibrotic disease.
5 for therapy in this prototypic multisystemic fibrotic disease.
6  and, more importantly, at risk of pulmonary fibrotic disease.
7 er and stellate cell death in malignancy and fibrotic disease.
8 ant hepatitis in the absence of pre-existent fibrotic disease.
9 or KCP in attenuating the pathology of renal fibrotic disease.
10 syndecan 4 may alleviate scarring in chronic fibrotic disease.
11 to play important roles in wound healing and fibrotic disease.
12 onnective tissue growth factor might play in fibrotic disease.
13 of extracellular matrix protein synthesis in fibrotic disease.
14 ng development and in response to injury and fibrotic disease.
15 novel genetically determined animal model of fibrotic disease.
16 7 was administered during the progression of fibrotic disease.
17 in II blockade alone cannot stop progressive fibrotic disease.
18  be used to treat an established and ongoing fibrotic disease.
19 onary nodule 1-2 cm in diameter, and 20 with fibrotic disease.
20 opathy, which correlates with progression of fibrotic disease.
21 erapeutic target for this difficult-to-treat fibrotic disease.
22 lating MC collagen expression, a hallmark of fibrotic disease.
23  a curative effect on scleroderma, a typical fibrotic disease.
24 1 may have translational effect for treating fibrotic disease.
25 tion is a key process in the pathogenesis of fibrotic disease.
26 flammatory cytokines and are dysregulated in fibrotic disease.
27 ntial therapeutic applications in cancer and fibrotic disease.
28 he pathologic microenvironment of cancer and fibrotic disease.
29 ew role for tumor suppressors in attenuating fibrotic diseases.
30 gy for controlling myofibroblasts in chronic fibrotic diseases.
31 ypertrophic scarring and in the treatment of fibrotic diseases.
32 vide therapeutic opportunities to treat oral fibrotic diseases.
33 l treatment for systemic sclerosis and other fibrotic diseases.
34  the potential to treat mast cell associated fibrotic diseases.
35  therapeutic strategies for the treatment of fibrotic diseases.
36 ynamic, unrelenting process propelling human fibrotic diseases.
37 may prove effective for a variety of chronic fibrotic diseases.
38 erentiation of myofibroblasts, a hallmark of fibrotic diseases.
39 diseases including cancer and autoimmune and fibrotic diseases.
40 argeting hyperactive Smad signaling in renal fibrotic diseases.
41  therapies for both inflammatory and chronic fibrotic diseases.
42 rvention and prevention of keloids and other fibrotic diseases.
43 uction in patients with scleroderma or other fibrotic diseases.
44 -beta1) is thought to play a crucial role in fibrotic diseases.
45 hway could provide a novel treatment in many fibrotic diseases.
46 sts is an effective therapeutic strategy for fibrotic diseases.
47 ase collagen overproduction in SSc and other fibrotic diseases.
48 in the treatment of chronic inflammatory and fibrotic diseases.
49 el therapeutic strategy for the treatment of fibrotic diseases.
50  to the control of hepatic granulomatous and fibrotic diseases.
51 ently no effective therapies for progressive fibrotic diseases.
52 present a novel opportunity to target deadly fibrotic diseases.
53 is a potential therapeutic strategy to treat fibrotic diseases.
54 neficial effects to block the progression of fibrotic diseases.
55 g from cardiovascular and renal disorders to fibrotic diseases.
56 red as a potential therapy for patients with fibrotic diseases.
57 ellular homeostasis in aging and age-related fibrotic diseases.
58 reatment of human cardiac fibrosis and other fibrotic diseases.
59 esponse in aging contributing to age-related fibrotic diseases.
60 cessive deposition of type I collagen causes fibrotic diseases.
61  has potential as a therapeutic approach for fibrotic diseases.
62 e and aid in the prevention and treatment of fibrotic diseases.
63 ng IL-25 and ILC2 for the treatment of human fibrotic diseases.
64 n cancers, atherosclerosis, and a variety of fibrotic diseases.
65  as a novel potential therapeutic target for fibrotic diseases.
66 healing and its persistence is a hallmark of fibrotic diseases.
67  treatment of patients with a broad range of fibrotic diseases.
68 histamine plays an important role in painful fibrotic diseases.
69 tial therapeutic targets in the treatment of fibrotic diseases.
70 tissues might be used to treat patients with fibrotic diseases.
71 cal mechanisms involved in wound healing and fibrotic diseases.
72 rotein response (UPR) in the pathogenesis of fibrotic diseases.
73  flexor tendons and other tissues as well as fibrotic diseases.
74 l therapeutic targets in inflammation-driven fibrotic diseases.
75 l therapeutic approach in treating pulmonary fibrotic diseases.
76 promising new therapeutic approach for human fibrotic diseases.
77 action may be useful in treating a number of fibrotic diseases.
78 on by fibroblasts contributes to scarring in fibrotic diseases.
79  of modifying the deleterious effects of the fibrotic diseases.
80 gnature" that can be used as a biomarker for fibrotic diseases.
81 ent pose an enormous challenge when treating fibrotic diseases.
82 ch with broad applicability in oncologic and fibrotic diseases.
83      Systemic sclerosis (SSc) is a spreading fibrotic disease affecting the skin and internal organs.
84 fferences, it was assumed that the different fibrotic diseases also have different pathomechanisms.
85 ticulum (ER) stress is an emerging factor in fibrotic disease, although precise mechanisms are not cl
86 nical implications for both the treatment of fibrotic disease and cancer.
87 development and wound healing, and occurs in fibrotic disease and carcinoma.
88 a is also the central pathogenic cytokine in fibrotic disease and likely promotes pneumonitis.
89 nse, and is implicated in the progression of fibrotic diseases and cancer.
90  fate of myofibroblasts in various important fibrotic diseases and describe how manipulation of macro
91 iven that TGF-beta has been shown to promote fibrotic diseases and desmoplasia, identifying the fibro
92   TN-C is re-expressed during wound healing, fibrotic diseases and in cancer.
93 d healing, is overexpressed in a majority of fibrotic diseases and in various tumors.
94 tive and novel approach for the treatment of fibrotic diseases and modulation of profibrogenic effect
95 pproaches for improving clinical outcomes in fibrotic diseases and wound healing.
96 en the link between TGF-beta1 expression and fibrotic disease, and demonstrate the potency of TGF-bet
97 icated in several diseases including cancer, fibrotic diseases, and inflammation, among others.
98 chanisms underlying cancer-recruited stroma, fibrotic diseases, and wound-healing responses.
99                                              Fibrotic diseases are a significant global burden for wh
100                                              Fibrotic diseases are not well-understood.
101   The primary goals of this Review series on fibrotic diseases are to discuss some of the major fibro
102                                      Because fibrotic diseases are typically progressive disorders, a
103 d tissue remodeling in IPF and perhaps other fibrotic diseases as well.
104    Interleukin 13 (IL-13) is a key factor in fibrotic disease associated with helminth infection, but
105 being developed for schistosomiasis or other fibrotic diseases associated with a T-helper 2 cell-medi
106 critical driver of collagen accumulation and fibrotic disease but also a vital suppressor of inflamma
107 s a potential therapy for cardiovascular and fibrotic diseases, but its short in vivo half-life is an
108  critical event in the pathogenesis of human fibrotic diseases, but regulatory mechanisms for this ef
109 drome, lung adenocarcinoma, and debilitating fibrotic diseases, but the critical transcription factor
110 aling through one of its receptors, LPA1, in fibrotic diseases, but the mechanisms by which LPA-LPA1
111 lungs and contribute to remodelling in other fibrotic diseases, but their involvement in allergic ast
112 ic target for a number of diseases including fibrotic diseases, cancer, and inflammation, among other
113 thway will be highly effective at preventing fibrotic disease caused by chronic Th2-mediated inflamma
114 ial of gene therapy as a novel treatment for fibrotic diseases caused by TGF-beta1.
115 ay be important in the pathogenesis of human fibrotic diseases characterized by overexpression/activa
116  and more effective therapeutic strategy for fibrotic diseases characterized by persistent myofibrobl
117 SMAD7 has been reported in TGF-beta-mediated fibrotic diseases, characterized by overproduction of co
118 rogression, tumorigenesis, neuropathic pain, fibrotic diseases, cholestatic pruritus, lymphocyte homi
119                                              Fibrotic diseases display mesenchymal cell (MC) activati
120 GF-beta1, a central pathological mediator of fibrotic diseases, enhanced miR-21 expression in primary
121 c approach to treating scleroderma and other fibrotic diseases finds support in animal studies and an
122                     Studies of patients with fibrotic diseases have demonstrated changes in component
123                        Preclinical models of fibrotic diseases have implicated IL-13 activity on mult
124 in increased numbers in a variety of chronic fibrotic diseases; however, their role in the developmen
125 olved in the pathogenesis of a proto-typical fibrotic disease, idiopathic pulmonary fibrosis (IPF).
126  in the design of therapeutic modalities for fibrotic disease in the cornea and other parts of the ey
127 and MSC-like cells in myofibroblast-mediated fibrotic disease in the kidney, lung, heart, liver, skin
128 enchymal transition (EMT) is associated with fibrotic diseases in the lens, such as anterior subcapsu
129 broblast differentiation in inflammatory and fibrotic diseases in the skin.
130 lasminogen activation system on TGF-beta1 in fibrotic diseases in vivo, as well as novel prognostic a
131 n signaling, a pathway implicated in several fibrotic diseases, in RPE cells in proliferative vitreor
132     TGFbeta has been implicated in promoting fibrotic diseases including CR, but is beneficial in the
133 may be a therapeutic target for treatment of fibrotic diseases including IPF.
134 licated in aberrant fibroblast activation in fibrotic diseases including systemic sclerosis (SSc).
135 o be involved in the pathobiology of various fibrotic diseases, including glaucoma.
136     TGF-beta has an established role in many fibrotic diseases, including glomerulosclerosis, where i
137 n of ECM components are dominant features of fibrotic diseases, including hepatic fibrosis.
138      Here, we demonstrate that many endstage fibrotic diseases, including IPF; scleroderma; myelofibr
139 role in the pathogenesis of inflammatory and fibrotic diseases, including radiation-induced fibrosis.
140 extracellular matrix is the hallmark of many fibrotic diseases, including systemic sclerosis and pulm
141 g angiogenesis, autoimmune diseases, cancer, fibrotic diseases, inflammation, neurodegeneration, and
142                                  Progressive fibrotic diseases involving diverse organ systems are as
143 o apoptosis are cardinal features of chronic fibrotic diseases involving diverse organ systems.
144                                              Fibrotic disease is associated with matrix deposition th
145                                A hallmark of fibrotic disease is the excessive accumulation of extrac
146 plasminogen activator inhibitor-1 (PAI-1) in fibrotic diseases is well documented, its role in cardia
147  (CTGF/CCN2), associated with multiple human fibrotic diseases, is overexpressed in the tissue of gin
148         To understand the molecular basis of fibrotic disease, it is essential to appreciate how matr
149 IL-13) in systemic sclerosis (SSc) and other fibrotic diseases, its mechanisms of action are not unde
150 urthermore, these mechanisms are involved in fibrotic disease itself, with some miRs and epigenetic d
151 rocess of fibrosis, a deadly complication of fibrotic diseases like scleroderma (SSc).
152 gments in the plasma of patients with severe fibrotic disease may be a product of CTGF proteolysis th
153 llowing lens injury and were responsible for fibrotic disease of the lens that occurs following catar
154 ulmonary fibrosis is a progressive and fatal fibrotic disease of the lungs with unclear etiology.
155     Idiopathic pulmonary fibrosis (IPF) is a fibrotic disease of unknown etiology that results in sig
156 tractional force is a contributing factor to fibrotic diseases of the eye, such as proliferative vitr
157  diseases including arterial restenosis, and fibrotic diseases of the lung, liver, and kidney.
158  at the various stages in the development of fibrotic diseases of the lungs and other organs.
159 umonias (IIPs) are a collection of pulmonary fibrotic diseases of unknown etiopathogenesis.
160                                 The cause of fibrotic diseases, pathologies characterized by excessiv
161 t protein-1 chemokine receptor, CCR2, to the fibrotic disease process.
162 en FSR correlates with established risks for fibrotic disease progression in NASH, and plasma lumican
163 o monitor the contribution of macrophages to fibrotic disease progression in the bleomycin-induced mu
164 TGF in fibroblasts, and in patients with the fibrotic disease scleroderma.
165 ensing process in complex tissues, including fibrotic disease states with high collagen, is now utili
166 nective tissue growth factor is expressed in fibrotic disease such as scleroderma, where it is believ
167  is a prominent feature of chronic pulmonary fibrotic diseases such as idiopathic interstitial pneumo
168 ta promotes excessive collagen deposition in fibrotic diseases such as idiopathic pulmonary fibrosis
169 plicated in the deposition of ECM protein in fibrotic diseases such as pulmonary fibrosis and atheros
170                                              Fibrotic diseases such as scleroderma, severe chronic as
171  CTGF to be a rational target for therapy in fibrotic diseases such as SSc.
172 a, which might be relevant to the genesis of fibrotic diseases such as SSc.
173 wounds, in the stroma of some tumors, and in fibrotic diseases such as systemic sclerosis (SSc) and r
174 ivo functional studies of candidate genes in fibrotic diseases such as systemic sclerosis.
175  in response to tissue injury contributes to fibrotic diseases, such as idiopathic pulmonary fibrosis
176  in response to tissue injury contributes to fibrotic diseases, such as idiopathic pulmonary fibrosis
177 erapeutics in treating clinically refractory fibrotic diseases, such as IPF.
178 urrent bleak outlook for chronic progressive fibrotic diseases, such as scleroderma, due to lack of e
179 hibitory effects of sST2 in inflammatory and fibrotic diseases, suggesting that IL-33/ST2 is a unique
180               This concept is exemplified by fibrotic diseases that develop as a consequence of tissu
181 ta has emerged as central effector of MD and fibrotic disease, the cell types in diseased muscle that
182                   Leukemic, polycythemic, or fibrotic disease transformation in essential thrombocyth
183 ugh it has not been previously implicated in fibrotic disease, we found that Dril1 was highly express
184 ixed connective tissue disease, two systemic fibrotic diseases, were less able to inhibit fibrocyte d
185 ne the role of PI3K activation in human lung fibrotic disease, which could be amenable to targeted th
186 pulmonary fibrosis is a chronic, progressive fibrotic disease with a poor prognosis.
187 clerosis (scleroderma, SSc) is a devastating fibrotic disease with few treatment options.
188    Systemic sclerosis (SSc) is a multi-organ fibrotic disease with few treatment options.
189 rogressive and irreversible inflammatory and fibrotic disease with no cure.

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