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1 naling events associated with toxin-mediated arterial calcification.
2 ays are causally implicated in toxin-induced arterial calcification.
3 Cardiovascular risk factors were related to arterial calcification.
4 ed, and 50 (83.3%) had mild to severe breast arterial calcification.
5 eritable risk for CAD/MI is mediated through arterial calcification.
6 tients present a more severe, often prenatal arterial calcification.
7 stal deposition underlies the development of arterial calcification.
8 t an additional protective mechanism against arterial calcification.
9 f the osteoclastic V-H+-ATPase, will inhibit arterial calcification.
10 e decoy receptor also crucial for preventing arterial calcification.
11 that estrogen may play a regulatory role in arterial calcification.
12 potential role of osteoregulatory factors in arterial calcification.
13 c studies in three families with symptomatic arterial calcifications.
14 ic PP(i) levels and induces life-threatening arterial calcifications.
15 scular calcification, particularly Abdominal Arterial Calcifications (AAC), holds predictive value fo
16 whether vitamin K1 supplementation inhibits arterial calcification activity in individuals with diab
19 , studies favor a correlation between breast arterial calcification and cardiovascular risk factors o
22 Lower fetuin-A levels are associated with arterial calcification and death in end-stage renal dise
23 mutation as causing SMS and leading to early arterial calcification and dental inflammation and resor
24 on of proteins involved in the inhibition of arterial calcification and has been suggested to reduce
25 rt disease, through the evaluation of breast arterial calcification and identification of opportuniti
26 is review we address potential mechanisms of arterial calcification and, in particular, ways in which
27 e supports the universal reporting of breast arterial calcifications and personalized patient-provide
29 creased fibroblast growth factor 23 (FGF23), arterial calcification, and cardiovascular mortality.
30 rotegerin (OPG) is a marker and regulator of arterial calcification, and it is related to cardiovascu
33 icient in both MGP and OPN had twice as much arterial calcification as MGP(-/-) OPN(+/+) at 2 wk, and
36 fy histological pathologies present, such as arterial calcification (AUROC = 0.93) and identify missi
37 In a murine model, Sort1-deficiency reduced arterial calcification but did not affect bone mineraliz
39 a marker of atherosclerotic inflammation, to arterial calcification detected by contemporaneous CT.
44 neralized arterial calcification of infancy, arterial calcification due to deficiency of CD73, ankylo
49 tery stiffness, which is caused, in part, by arterial calcification in patients with chronic kidney d
50 ) that share the ability to potently inhibit arterial calcification in the rat, the V-H+-ATPase inhib
51 play a prominent role in the pathogenesis of arterial calcification, including duration of dialysis a
52 fferences of two distinct pathomechanisms of arterial calcifications: intimal associated with atheros
57 e process, there is increasing evidence that arterial calcification is actually an active, regulated
59 ried out to further test the hypothesis that arterial calcification is linked to bone resorption by d
62 gility after estrogen loss (osteocalcin) and arterial calcification linked to cardiovascular disease
68 ropathy (CN); however, the links with medial arterial calcification (MAC) seen in people with CN are
69 ning with mammography, measurement of breast arterial calcification may offer a personalized, noninva
70 ealed a common pattern associating meningeal arterial calcifications, necrotic and calcified areas in
72 development in individuals with generalized arterial calcification of infancy (GACI) due to loss-of-
77 m lethal orphan diseases such as generalized arterial calcification of infancy (GACI), to common dise
79 rs, with phenotypic overlap with generalized arterial calcification of infancy and arterial calcifica
80 apping clinical features include generalized arterial calcification of infancy and arterial calcifica
81 decreased bone mineralization in generalized arterial calcification of infancy caused by ENPP1 mutati
83 nosis, pseudoxanthoma elasticum, generalized arterial calcification of infancy, and arterial calcific
84 (asj) mutant mouse as a model of generalized arterial calcification of infancy, and we have now explo
85 ation: pseudoxanthoma elasticum, generalized arterial calcification of infancy, arterial calcificatio
86 for pseudoxanthoma elasticum and generalized arterial calcification of infancy, diseases that current
87 udoxanthoma elasticum and type 2 generalized arterial calcification of infancy, heritable ectopic min
88 m (PXE) as well as some cases of generalized arterial calcification of infancy, which is otherwise ca
93 lished reports on prevalence of intracranial arterial calcifications on computed tomography imaging a
96 , recent developments in the pathogenesis of arterial calcification provide valuable information pert
97 ntrast, Klotho was inversely correlated with arterial calcification (r = - 0.388 [- 0.578 to - 0.159]
101 ude hemostasis, apoptosis, bone development, arterial calcification, signal transduction, and growth
102 , preexisting cardiovascular disease status, arterial calcification status, and concomitant chemother
104 sion, FGF-23 and Klotho were associated with arterial calcification, thickness, and stiffness, clarif
106 alvulopathies, calciphylaxis, and idiopathic arterial calcification, vascular calcification is now re
107 lished that metformin administration reduces arterial calcification via autophagy; however, whether m
110 In contrast, the prevalence of coronary arterial calcification was similar between patients with
112 erm but die within two months as a result of arterial calcification which leads to blood-vessel ruptu