The scientific instruments that we produce can be used in a wide variety of applications. These applications include academic research topics as well as routine environmental monitoring
Particulate matter in the atmosphere impedes visibility, contributes to global climate change and adversely affects human health. Aerodyne produces scientific instruments that measure various aspects of atmospheric aerosols.
Trace gases in the atmosphere are primary causes of photochemical smog, global climate change, ozone depletion and acid rain. To quantify, understand and control these problems, highly sensitive trace gas monitors are need. Aerodyne produces several instruments to measure trace gases whether on the ground or in the air.
Global climate change is driven by the accumulation of greenhouse gases (primarily CO2, CH4 and N2O) in the atmosphere. To understand the rate of accumulation and to predict and measure the effectiveness of various control proposals, measurements of the fluxes of these gases to and from the atmosphere are required. Our fast response, high sensitivity trace gas instruments enable this capability.
The sources and sinks of various atmospheric constituents are important to quantify but difficult to measure. One approach to addressing this challenge is based on the measurement of the isotopic composition of atmospheric species. Because different sources tend to have distinct isotopic signatures, the measurement of concentrations or fluxes with isotopic resolution can highly constrain the potential sources and sinks. Aerodyne produces several instruments with isotopic measurement capability.
There is a rich spectral content in the reflection, scattering, and absorption of light in the UV, Visible, and Infrared by solid surfaces, particulates, gases, and liquids. Aerodyne develops and applies validated physics-based software to model spectral radiation transfer and imaging processes.
The new Vocus-PTR instrument delivers ultra-low limits of detection with the highest available PTR-MS mass resolving power in a field-proven API-TOF platform.