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1 The kallikrein-kinin system participates in blood pressure regulation.
2 tissues beyond the classical renal system in blood pressure regulation.
3 tide (BNP), have central roles in sodium and blood pressure regulation.
4 ight suggest potential different pathways of blood pressure regulation.
5 l regulation of the hCYP11B2 gene and affect blood pressure regulation.
6 evidence for the role of DNA methylation in blood pressure regulation.
7 angiotensin peptides play a central role in blood pressure regulation.
8 r smooth muscle cells (VSMCs) is involved in blood pressure regulation.
9 delian hypertension elucidates mechanisms of blood pressure regulation.
10 here it is crucial for Na(+) homeostasis and blood pressure regulation.
11 circulating MPO or elastase with respect to blood pressure regulation.
12 o limit muscle blood flow for the purpose of blood pressure regulation.
13 erminant of vascular tone and contributes to blood pressure regulation.
14 to control vascular tone and participate in blood pressure regulation.
15 at is closely linked to fluid absorption and blood pressure regulation.
16 le of IKK2 in mediating vasoconstriction and blood pressure regulation.
17 of whether collectrin has any direct role in blood pressure regulation.
18 ed in the kidney and plays a crucial role in blood pressure regulation.
19 important role in vessel wall remodeling and blood pressure regulation.
20 d and electrolyte homeostasis is integral to blood pressure regulation.
21 thereby contributing to NaCl homeostasis and blood pressure regulation.
22 vascular tone, endothelial cell function and blood pressure regulation.
23 r in calcium homeostasis and electrolyte and blood pressure regulation.
24 uding touch and pain sensation, hearing, and blood pressure regulation.
25 , epithelial salt transport, volume, pH, and blood pressure regulation.
26 e investigated the potential role of E2F2 in blood pressure regulation.
27 ease in NOS expression in regions modulating blood pressure regulation.
28 n, sensory perception, glycemic control, and blood pressure regulation.
29 local RAS in the SFO has a critical role in blood pressure regulation.
30 s systems make nonredundant contributions to blood pressure regulation.
31 he natriuretic peptide system contributes to blood pressure regulation.
32 g pathways and cell viability in relation to blood pressure regulation.
33 energic receptors (ARs) play a major role in blood pressure regulation.
34 arteries and is required for normal arterial blood pressure regulation.
35 synthase activation, caveolae integrity, and blood pressure regulation.
36 peptide (ANP) receptor, which is involved in blood pressure regulation.
37 have functions ranging from reproduction to blood pressure regulation.
38 , specifically EFNB3 and GRIP1, are involved blood pressure regulation.
39 es affect renal function and, in particular, blood pressure regulation.
40 y our understanding of the role of sodium in blood pressure regulation.
41 are involved in physiological mechanisms of blood pressure regulation.
42 ntial elements of renal salt homeostasis and blood-pressure regulation.
43 tly linked with the physiological control of blood pressure regulation, a detailed biochemistry of th
44 onal evidence that Plekha7 may contribute to blood pressure regulation and cardiovascular function th
45 activated K(+) channel that is important for blood pressure regulation and control of neuronal firing
46 al-ventrolateral medulla, altered baroreflex blood pressure regulation and death from stroke before a
48 blood pressure advances our understanding of blood pressure regulation and highlights potential drug
51 for a role for soluble epoxide hydrolase in blood pressure regulation and identify this enzyme as a
52 LM may play a very important role in central blood pressure regulation and in the pathogenesis of hyp
54 e effects of NO on smooth muscle relaxation, blood pressure regulation and inhibition of platelet agg
55 C-domain is supposed to play a major role in blood pressure regulation and is therefore a promising p
56 e proximal tubule plays an important role in blood pressure regulation and may cause hypertension if
57 nsin and neuromedin U, which are involved in blood pressure regulation and smooth muscle contraction.
58 these genes may uncover novel mechanisms for blood pressure regulation and suggest new therapies and
59 e (pro)renin receptor (P)RR is implicated in blood pressure regulation and the pathophysiology of hea
62 in these and other brain regions involved in blood pressure regulation and water intake following deh
63 l processes such as apoptosis, inflammation, blood pressure regulation, and cancer progression and me
64 asculature is required for blood filtration, blood pressure regulation, and pH maintenance, as well a
68 es in our understanding of the mechanisms of blood pressure regulation arose from studies of monogeni
69 ated in various endocrine responses, such as blood pressure regulation, as well as in higher cognitiv
70 ooxygenases in renal sodium reabsorption and blood pressure regulation, (b) demonstrate that a dysfun
71 n is not only important for inflammation and blood pressure regulation, but also involved in neuromod
72 n suggested to be the critical mechanism for blood pressure regulation by the renin-angiotensin syste
73 mical mediators that play important roles in blood pressure regulation, cell growth, and inflammation
74 ations challenge conventional thinking about blood pressure regulation during pregnancy, showing mark
75 ndings highlight new biological pathways for blood pressure regulation enriched for genes expressed i
76 prospective study of factors that influence blood pressure regulation has identified weight, or body
84 controls these diverse processes, explicitly blood pressure regulation, is the subject of this study.
85 d receptors play a role in vascular tone and blood pressure regulation, might participate in the path
86 f the Na,K-ATPase plays an important role in blood pressure regulation, most likely by responding to
89 system, myeloid cells have diverse roles in blood pressure regulation, ranging from prohypertensive
90 eural responses that directionally challenge blood pressure regulation, reduced central blood volume
91 cular function; however, the role of ACE2 in blood pressure regulation remains unclear because of the
94 bout the physiological involvement of ACE in blood pressure regulation supports the proposition that
95 nsion, are also uncovering novel pathways of blood pressure regulation that augur a new era of novel
96 usly unrecognized role for P2Y2 receptors in blood pressure regulation that is linked to an inhibitor
97 vidence for a critical role for PPARgamma in blood pressure regulation that is not dependent on alter
98 gy of the smaller blood vessels important in blood pressure regulation, the blood pressures of consci
99 gata (RVLM) plays an important role in tonic blood pressure regulation, the control of sympathetic va
100 n make unique, nonredundant contributions to blood pressure regulation; the findings have potentially
101 died primarily in the context of its role in blood pressure regulation, this widely distributed enzym
102 oactive cyclic-peptide hormones important in blood pressure regulation through interaction with natri
103 dopaminergic system plays a crucial role in blood pressure regulation through its actions on renal h
104 of the FGF21 actions on the neurocontrol of blood pressure regulations through baroreflex afferent p
107 endothelial nitric oxide synthase (eNOS) in blood pressure regulation, we have generated mice hetero
108 nce of smooth muscle BK channel activity for blood pressure regulation, we investigated the potential
109 he dominant role of the kidneys in long-term blood pressure regulation, we sought to determine whethe
110 tential of causality to detect alteration in blood pressure regulation with age, thus, a potential cl
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