The phrase "atmosphere sensor" is correct and usable in written English.
It can be used when referring to a device or instrument that detects and measures various atmospheric conditions, such as temperature, pressure, humidity, or gas concentrations.
Example: "The new atmosphere sensor installed on the weather balloon provided accurate readings of the upper atmosphere."
Alternatives: "environmental sensor" or "air quality sensor".
The onesie also comes complete with cold plasma tech, which can enable interactive communication, and an atmosphere tracking sensor, GPS, and Wi-Fi.
Therefore, to avoid poisoning in the lab atmosphere the sensors are best stored in a sealed pack filled with carbon dioxide.
The atmosphere affects differently sensor bands depending on the waveband, thus affecting the relationships obtained from top-of-atmosphere reflectance.
Two new approaches, the so-called "box method" and "Ray Carlo method", are implemented to provide robust and accurate simulations of LiDAR waveforms for any landscape, atmosphere and LiDAR sensor configuration (view direction, footprint size, pulse characteristics, etc).
First, the raw DN images are converted to top-of-atmosphere radiance images using sensor offset and gain values provided by the satellite data source (e.g. USGS for Landsat).
In contrast to the potentiometric lambda sensor, no reference atmosphere is needed.
We have also considered adding a dehumidifier to prevent any damage that can be incurred from prolonged exposure to a damp atmosphere and can consequently increase sensor life.
In different gas varies and concentrations atmosphere, the chemical type gas sensor can detect the modifications of the electronic properties in the active layer, such as carbon nanotubes (CNTs) [2 4], porous silicon [5], and metal oxides [6].
A sophisticated radiative transfer model (JACOSPAR) is used to calculate synthetic radiance spectra that would be measured by a UV/visible sensor observing the atmosphere over Tokyo (35.7°N, 139.7°E) from GEO orbit at 120°E longitude.
In certain atmosphere systems both the interior sensors (such as thermostats) and the exterior weather sensors feed data to a computer that adjusts the system for minimal energy expenditure.
