Abstract
Initial fight tests show that the new thermometer, which uses a fine-wire thermocouple for the sensor and lacks a probe housing, has a response time that is significantly faster than thermometers currently in use. An example of heat-flux calculations in a convective boundary layer shows that, compared to measurements using the Rosemount thermometer and NCAR K probes, the turbulent heat flux is greater by about 20% when using measurements from the new thermometer. The new thermometer was designed to inertially separate cloud drops from the air flow, and flights in warm clouds suggest that the thermocouple sensor stays dry except in clouds that contain high concentrations of drizzle-size drops. In small cumulus clouds with approximately 1 g m-3 of liquid water that contained low concentrations (~10 l-1) of drizzle drops, the new thermocouple probe consistently measured warmer temperatures than the reverse-flow and Rosemount thermometers, suggesting that in these clouds the thermocouple probe may not have been affected by errors from sensor wetting. -from Authors
Cite
CITATION STYLE
Lawson, R. P., & Rodi, A. R. (1992). A new airborne thermometer for atmospheric and cloud physics research. Part I: design and preliminary flight tests. Journal of Atmospheric & Oceanic Technology, 9(5), 556–574. https://doi.org/10.1175/1520-0426(1992)009<0556:anatfa>2.0.co;2
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