戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (１語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 vasation into the interstitium to reduce the vascular volume.
2 in regulation of arterial blood pressure and vascular volume.
3  control of epithelial surface hydration and vascular volume.
4 ns of vasculature to assess intraparenchymal vascular volumes.
5 h a novel Evans blue dye assay that measured vascular volumes.
6 re able to observe a significant increase in vascular volume 1 week after FGFR1 activation.
7 hange that contributed to the restoration of vascular volume after ischemia.
8 a hypoxia-response element markedly promotes vascular volume and blood flow, increased proliferation
9 aintaining sodium balance and, hence, normal vascular volume and blood pressure.
10 sel formation, increasing parameters such as vascular volume and connectivity while decreasing degree
11 ium transporters in response to the expanded vascular volume and hypertension.
12 ontractility, adrenergic responsiveness, and vascular volume and increased peripheral vascular resist
13                                              Vascular volume and oxygenation were assessed across eig
14 the STZ model of type 1 diabetes, changes in vascular volume and permeability associated with early s
15                        These tumors had high vascular volume and permeability surface area, as determ
16 time, that pericyte depletion causes loss of vascular volume and spiral ganglion neurons (SGNs) and a
17 wed that MCF-7/Twist tumors exhibited higher vascular volume and vascular permeability in vivo than t
18 hips between CT metrics of emphysema, venous vascular volume, and sarcopenia with the LV epicardial v
19 r intensitometry was used to assess relative vascular volume, and the renal arteriovenous transit tim
20 ent with the possibility that regions of low vascular volumes are hypoxic, which induces increased ex
21 s no statistically significant difference in vascular volume between patients with SSc and HC (mean o
22 predominantly associated with an increase in vascular volume contributed by the medium-size (96 to 14
23                                          The vascular volumes differ significantly between both cohor
24 icrovascular dysfunction, and alterations in vascular volume, flow, and permeability have been report
25 a-to-tissue transport rate (k(1)), and local vascular volume fraction (beta) for head and neck cancer
26 ctively determine the feasibility of imaging vascular volume fraction (VVF) and its therapeutic inhib
27                     Network features such as vascular volume fraction, branch point density, vessel d
28 tissue to access features such as cell size, vascular volume fraction, intra- and extracellular volum
29  for perfused and nonperfused vessels (e.g., vascular volume fraction, vessel length and number, numb
30 4, grow significantly faster and have higher vascular volume fractions than control tumours.
31 rval (CI), 0.96-0.99]; P = 0.001), increased vascular volume (HR, 1.30 [95% CI, 1.12-1.51]; P = 0.001
32 he major contributor (188%) to the change in vascular volume in response to ischemia.
33 e and the histologically derived fraction of vascular volume in the capillaries.
34                                          The vascular volume in the nailfold capillaries were compute
35 workflow to determine the development of the vascular volume in zebrafish.
36    These studies showed a large reduction in vascular volume, induction of extensive necrosis in tumo
37                                              Vascular volume is of fundamental significance to the fu
38 uned from histology data, including relative vascular volume, mean vessel diameter, and distance from
39              We sought to determine if small vascular volumes measured on computed tomography scans w
40 ibody bevacizumab decreases tumor perfusion, vascular volume, microvascular density, interstitial flu
41 l radius, and our novel metric named Macular Vascular Volume (MVV), were extracted to assess consiste
42 etic resonance imaging showed an increase in vascular volume of TRAMP tumors grown in VDR KO mice com
43 tissue to cancer-relevant parameters such as vascular volume, oxygenation, extracellular matrix exten
44    The transport parameters derived included vascular volume, permeability surface area product, macr
45 ed more easily, were characterized by higher vascular volume, permeability, and total choline and a m
46               In some patients, the ratio of vascular volume to total tumor volume increased signific
47                                              Vascular volume was highest in VEGF120 and control tumor
48                 MRI measurements showed that vascular volume was significantly lower in fluorescing r
49                                       Whilst vascular volume was similar between groups, digital arte
50 els (48 to 160 microm) comprising 85% of the vascular volume were the major contributor (188%) to the
51                          Specifically, tumor vascular volumes were diminished and vessels were fewer