Sentence examples for measures of thermal from inspiring English sources
However, with regards to historical buildings, the measures of thermal performance are not simple and they, in fact, pose a wide range of error.
A powerful indicator of the ability of KU-32 to improve neurodegeneration is whether it could reverse pre-existing deficits in SNCV and MNCV, and psychophysical measures of thermal and mechanical sensitivity.
Core and quadriceps skin temperature (VitalSense, Mini Mitter, Respironics, Herrsching, Germany), heart rate (Polar Electro, Lake Success, New York, USA) and perceptual measures of thermal comfort 24 (scales 1 7), thermal sensation 25 (scales 1 7) and ratings of perceived exertion 26 (RPE; scales 6 20) were recorded at 2.5 min intervals of effective playing time.
Measures of thermal tolerance and stress resistance have robustly been linked to latitudinal/environmental data both within and between species (Parkash and Munjal 1999; Addo-Bediako et al. 2000; Hoffmann et al. 2002; Kellermann et al. 2012a) and are often used as proxies for climate change risk (Deutsch et al. 2008)— that is, 'space for time substitutions' (Merilä and Hendry 2014).
A DSC method that utilizes a very simple accessory designed for measuring thermal conductivity of polymers is described.
The precision of measures on thermal conductivity is ({raise0.7exhbox{${Delta lambda }$} mathord{left// {vphantom {{Delta lambda } lambda }}right.kern-0pt} !lambda.7exhbox{$lambda $}} = 6%).
Observations of kernel dry weights starting shortly after pollination through maturity were regressed onto a measure of thermal time.
The PMV (predicted mean value, a measure of thermal comfort) inside the test room could be controlled between −0.29 and 0.32.
Ptotal is the aggregate power with which eNB station carries out the transmission in the downlink direction, N represents total available RBs, I determines the neighboring cell interference, and N o is a measure of thermal noise.
Figs. 6 and 7 show the temperature profiles of each height position of the thermal probe, where the measures variables make it possible to obtain the quantities of work and storage energy inside the reservoir, being possible, thus obtain the measure of thermal efficiency either the First as Second law of thermodynamics (Fig. 8).
The three variables used were: mean temperature of the coldest month – as a measure of winter cold; annual temperature sum above 5°C – as a measure of thermal energy available during the 'growing season'; and an estimate of the ratio of actual to potential evapotranspiration (Priestley-Taylor α) – as a measure of the extent of annual moisture deficiency.
