908 Devices Inc.

Flir Detection, Inc.

Harris, Glenn A.

Blank, Cyril P.

Liepert, Anthony G.

Goodwin, Michael

Knopp, Kevin J.

Jobin, Michael

Brown, Christopher D.

Michael Goodwin

Christopher D Brown

Michael Joseph Jobin

Anthony G Liepert

Kevin J Knopp

Evgeny Krylov

Kerin E Gregory

Glenn A Harris

Andrew J Bartfay-Szabo

Cyril P Blank

James Mitchell Wells

The disclosure features mass spectrometry systems and methods that include an ion source, an ion trap, a detector subsystem featuring first and second detector elements, and a controller electrically connected to the ion source, the ion trap, and the detector subsystem and configured so that during operation of the system, the controller: applies an electrical signal to the ion source to generate positively and negatively charged particles from sample particles in the system; applies an electrical signal to the ion trap to eject a plurality of particles from the ion trap through a common aperture of the ion trap, and determines information about the sample particles based on first and second electrical signals generated by the ejected particles.

Mass spectrometry by detecting positively and negatively charged particles

Mass spectrometry systems include a core featuring an ion source, an ion trap, and an ion detector connected along a gas path, a pressure regulation subsystem connected to the gas path and configured to regulate a gas pressure in the gas path, a sample pre-concentrator connected to the gas path, where the sample pre-concentrator includes an adsorbent material, and a controller connected to the sample pre-concentrator, where during operation of the system, the controller is configured to heat sample particles adsorbed on the adsorbent material to desorb the particles from the adsorbent material and introduce the desorbed particles into the gas path, and a pressure difference between a gas pressure in the sample pre-concentrator and a gas pressure in at least one of the ion source, the ion trap, and the ion detector when the desorbed particles are introduced into the gas path is 50 mTorr or less.

Sample collection in compact mass spectrometry systems

Mass separators are provided that can include at least one electrode component having a surface, in one cross section, defining at least two runs associated via at least one rise, the rise being orthogonally related to the runs. Mass selective detectors are provided that can include at least a first pair of opposing electrodes with each of the opposing electrodes having a complimentary surface, in one cross section, defining at least two runs associated via a rise. Methods for optimizing mass separation within a mass selective detector are also provided, including providing mass separation parameters; providing one set electrodes within the separator having a surface operatively aligned within the separator, the surface, in one cross section, defining at least two runs associated via a rise, the rise being orthogonally related to the runs; and modifying one or both of the rise and/or runs to achieve the mass separation parameters.

Mass separators, mass selective detectors, and methods for optimizing mass separation within mass selective detectors

Growing community of inventors

Brookline, MA, United States of America

Michael Goodwin