José González-Alonso

José González-Alonso


Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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2 January 2008 in The Journal of Physiology
Verified
Journal Article
Closed access
JGJosé González-Alonso
José González-Alonso
CCCraig G. Crandall
Craig G. Crandall
JJJohn M. Johnson
John M. Johnson

1 July 2010 in Acta Physiologica
Verified
Journal Article
Closed access
PDF file
CCC. G. Crandall
C. G. Crandall
JGJosé González-Alonso
José González-Alonso

28 March 2012 in Experimental Physiology
Verified
Journal Article
Closed access
JGJosé González-Alonso
José González-Alonso

15 May 2008 in The Journal of Physiology
Verified
Journal Article
Closed access
SMStefan P. Mortensen
Stefan P. Mortensen
RDRasmus Damsgaard
Rasmus Damsgaard
EDEllen Adele Dawson
Ellen Adele Dawson
NSNiels H. Secher
Niels H. Secher
JGJosé González-Alonso
José González-Alonso

1 March 2011 in American Journal of Physiology-Regulatory, Integrative and Comparative Physiology
Verified
Journal Article
Closed access
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JPJames Pearson
James Pearson
David A LowDavid A Low
David A Low
ESEric Stöhr
Eric Stöhr
KKKameljit Kalsi
Kameljit Kalsi
LALeena Ali
Leena Ali
JGJosé González-Alonso
José González-Alonso
Heat stress increases limb blood flow and cardiac output (Q̇) in humans, presumably in sole response to an augmented thermoregulatory demand of the skin circulation. Here we tested the hypothesis that local hyperthermia also increases skeletal muscle blood flow at rest and during exercise. Hemodynamics, blood and tissue oxygenation, and muscle, skin, and core temperatures were measured at rest and during exercise in 11 males across four conditions of progressive whole body heat stress and at rest during isolated leg heat stress. During whole body heat stress, leg blood flow (LBF), Q̇, and leg (LVC) and systemic vascular conductance increased gradually with elevations in muscle temperature both at rest and during exercise ( r2 = 0.86–0.99; P < 0.05). Enhanced LBF and LVC were accompanied by reductions in leg arteriovenous oxygen (a-vO2) difference and increases in deep femoral venous O2 content and quadriceps tissue oxygenation, reflecting elevations in muscle and skin perfusion. The increase in LVC occurred despite an augmented plasma norepinephrine ( P < 0.05) and was associated with elevations in muscle temperature ( r2 = 0.85; P = 0.001) and arterial plasma ATP ( r2 = 0.87; P < 0.001). Isolated leg heat stress accounted for one-half of the increase in LBF with severe whole body heat stress. Our findings suggest that local hyperthermia also induces vasodilatation of the skeletal muscle microvasculature, thereby contributing to heat stress and exercise hyperemia. The increased limb muscle vasodilatation in these conditions of elevated muscle sympathetic vasoconstrictor activity is closely related to the rise in arterial plasma ATP and local tissue temperature.

9 July 2019 in Nutrients
Verified
Journal Article
Open access
PDF file
LBLuke Belval
Luke Belval
YHYuri Hosokawa
Yuri Hosokawa
Douglas CasaDouglas Casa
Douglas Casa
William M. AdamsWilliam M. Adams
William M. Adams
LALawrence E. Armstrong
Lawrence E. Armstrong
JWJonathan Wingo
Jonathan Wingo
Personalized hydration strategies play a key role in optimizing the performance and safety of athletes during sporting activities. Clinicians should be aware of the many physiological, behavioral, logistical and psychological issues that determine both the athlete’s fluid needs during sport and his/her opportunity to address them; these are often specific to the environment, the event and the individual athlete. In this paper we address the major considerations for assessing hydration status in athletes and practical solutions to overcome obstacles of a given sport. Based on these solutions, practitioners can better advise athletes to develop practices that optimize hydration for their sports.