Nastassia Navasiolava
Overview
Explore the profile of Nastassia Navasiolava including associated specialties, affiliations and a list of published articles.
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28
Citations
207
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Recent Articles
11.
Greaves D, Guillon L, Besnard S, Navasiolava N, Arbeille P
NPJ Microgravity
. 2021 Nov;
7(1):43.
PMID: 34728651
The objectives of this study were to determine whether 4 days of dry immersion (DI) induced similar arterial aging as spaceflight and to test the impact of thigh cuffs. Eighteen...
12.
Veiga-Lopez A, Sethuraman V, Navasiolava N, Makela B, Olomu I, Long R, et al.
Front Cell Dev Biol
. 2020 Dec;
8:573727.
PMID: 33363139
Epidemiological studies indicate that elevated alkaline phosphatase activity is associated with increased cardiovascular disease risk. Other epidemiological data demonstrate that mothers giving multiple childbirths (multipara) are also at increased risk...
13.
Omarjee L, Mention P, Janin A, Kauffenstein G, Le Pabic E, Meilhac O, et al.
J Clin Med
. 2020 Oct;
9(11).
PMID: 33120982
Background: Pseudoxanthoma elasticum (PXE) is an inherited metabolic disease characterized by elastic fiber fragmentation and ectopic calcification. There is growing evidence that vascular calcification is associated with inflammatory status and...
14.
Navasiolava N, Yuan M, Murphy R, Robin A, Coupe M, Wang L, et al.
Front Physiol
. 2020 Sep;
11:952.
PMID: 32973543
Weightlessness and physical inactivity have deleterious cardiovascular effects. The space environment and its ground-based models offer conditions to study the cardiovascular effects of physical inactivity in the absence of other...
15.
Guinet P, MacNamara J, Berry M, Larcher F, Bareille M, Custaud M, et al.
Front Physiol
. 2020 Aug;
11:812.
PMID: 32765296
Current inflight countermeasures do not completely prevent bone and cardiovascular changes induced by microgravity. High load Resistance Exercise combined with whole body Vibration (RVE) demonstrated benefits on bone and cardiovascular...
16.
Rusanov V, Pastushkova L, Larina I, Chernikova A, Goncharova A, Nosovsky A, et al.
Front Physiol
. 2020 Aug;
11:692.
PMID: 32754043
The purpose of the study was to investigate the regulatory and metabolic changes in the circulatory system when simulating microgravity conditions in a five-day dry immersion. These changes reflect the...
17.
Navasiolava N, Degryse B, Custaud M, Moyna N, Murphy R
J Cardiovasc Pharmacol
. 2020 Jun;
76(2):125-127.
PMID: 32569014
No abstract available.
18.
Amirova L, Navasiolava N, Rukavishvikov I, Gauquelin-Koch G, Gharib C, Kozlovskaya I, et al.
Front Physiol
. 2020 Jun;
11:395.
PMID: 32508663
Background: The most applicable human models of weightlessness are -6° head-down bed rest (HDBR) and head-out dry immersion (DI). A detailed experimental comparison of cardiovascular responses in both models has...
19.
Treffel L, Navasiolava N, Mkhitaryan K, Jouan E, Zuj K, Gauquelin-Koch G, et al.
Int J Mol Sci
. 2020 May;
21(11).
PMID: 32466473
Most astronauts experience back pain after spaceflight, primarily located in the lumbar region. Intervertebral disc herniations have been observed after real and simulated microgravity. Spinal deconditioning after exposure to microgravity...
20.
Robin A, Auvinet A, Degryse B, Murphy R, Bareille M, Beck A, et al.
Front Physiol
. 2020 May;
11:383.
PMID: 32431622
Venoconstrictive thigh cuffs are used by cosmonauts to ameliorate symptoms associated with cephalad fluid shift. A ground simulation of microgravity, using the dry immersion (DI) model, was performed to assess...