Flame ionization detectors are used most often for organic compounds.

The first flame ionization detector was developed in 1957 in Australia.

Cost: Flame ionization detectors are relatively inexpensive to acquire and operate.

Hence the current use of flame ionization detectors.

Flame ionization detectors cannot differentiate between different organic substances.

Flame ionization detectors are used very widely in gas chromatography because of a number of advantages.

The design of the flame ionization detector varies from manufacturer to manufacturer, but the principles are the same.

In a flame ionization detectors, the separated sample from the column is directed into a flame.

Flame ionization detector.

The temperatures of the injector and the flame ionization detector were 220 C and 250 C, respectively.

It maintains a laboratory equipped with sophisticated instruments like gas chromatographs, infrared emission pyrometers and flame ionization detectors.

A flame ionization detector (FID) is a scientific instrument that measures the concentration of organic species in a gas stream.

Flame ionization detectors can be used to measure methane levels as well as total VOC levels.

Instantaneous monitoring consists of walking over the surface of the landfill, while carrying a flame ionization detector (FID).

Flame Ionization Detectors (shortened FID) is a common type detector used in gas chromatography.

The most common type of detector, the flame ionization detector, is sensitive to compounds containing C-H bonds, but not very sensitive to things like water.

The retention time of the probe molecule is then measured by traditional GC detectors (i.e. flame ionization detector or thermal conductivity detector).

The most commonly used detectors are the flame ionization detector (FID) and the thermal conductivity detector (TCD).

The separated gases are detected by thermal conductivity detector for atmospheric gases, by flame ionization detector for hydrocarbons and oxides of carbon.

The GC is coupled with either a mass spectrometer detector (MSD) or a flame ionization detector (FID).

Detection of gas concentrations usually involves the use of a flame ionization detector (FID) and a thermal conductivity detector (TCD).

Since the TCD is less sensitive than the flame ionization detector and has a larger dead volume it will not provide as good resolution as the FID.

The molecules are typically extracted in a solvent, then separated in a gas chromatograph, and finally determined with a suitable detector, such as a flame ionization detector or a mass spectrometer.

The PDD in helium photoionization mode is an excellent replacement for flame ionization detectors in petrochemical or refinery environments, where the flame and use of hydrogen can be problematic.

Method 8015D may be used to determine the concentrations of various nonhalogenated volatile organic compounds and semivolatile organic compounds, including fuel oxygenate compounds, by gas chromatography using a flame ionization detector (FID).