Get better air temperature accuracy with this new method
The accuracy of air temperature measurement in microclimate monitoring is crucial because the quality of so many other measurements depend on it. But accurate air temperature is more complicated than it looks, and higher accuracy costs money. Until now.
About the Speaker
Dr. Douglas Cobos is a senior research scientist and the director of environmental research at METER Group, Inc. USA (formerly Decagon Devices). He also holds an adjunct appointment in the Department of Crop and Soil Sciences at Washington State University where he teaches Environmental Biophysics. Dr. Cobos was the lead engineer for the Thermal and Electrical Conductivity Probe (TECP) that was designed by Decagon and flew to Mars aboard NASA’s 2008 Phoenix Scout Lander. His current research is focused on instrumentation development for use in soil and plant research.
Most people know if you expose an air temperature sensor to the sun, the resulting radiative heating will introduce large errors. So how can the economical ATMOS 41’s new, non-radiation-shielded air temperature sensor technology be more accurate than typical radiation-shielded sensors?
We performed a series of tests to see how the ATMOS 41’s air temperature measurement compared to other sensors, and the results were surprising, even to us. Learn the results of our experiments and the new science behind the extraordinary accuracy of the ATMOS 41’s breakthrough air temperature sensor technology.
In this brief 30-minute webinar, find out:
- Why you should care about air temperature accuracy
- Where errors in air temperature measurement originate
- The first principles energy balance equation and why it matters
- Results of experiments comparing shielded sensor accuracy against the ATMOS 41
- The science behind the ATMOS 41 and why its unshielded measurement actually works