Abstract: A wireline assembly enclosure. The wireline assembly enclosure has a first half and a second half which define an interior compartment. The first and second halves are attached via a hinge and move from an open configuration to a closed configuration. The enclosure also has a plurality of apertures. In various embodiments a stuffing box, lubrication tubing, and other materials pass through the apertures into the interior compartment. A sealing material is disposed partially about a perimeter of the first and second halves such that a seal is formed when the two halves are together in the closed configuration. The sealing material is also disposed about a perimeter of the plurality of apertures. An adjustable bar clamp inside the interior compartment of the enclosure clamps hardware in place. The enclosure is secured around a stuffing box and sheave in order to contain overspray from a wireline.

Abstract: A wireline assembly enclosure. The wireline assembly enclosure has a first half and a second half which define an interior compartment. The first and second halves are attached via a hinge and move from an open configuration to a closed configuration. The enclosure also has a plurality of apertures. In various embodiments a stuffing box, lubrication tubing, and other materials pass through the apertures into the interior compartment. A sealing material is disposed partially about a perimeter of the first and second halves such that a seal is formed when the two halves are together in the closed configuration. The sealing material is also disposed about a perimeter of the plurality of apertures. An adjustable bar clamp inside the interior compartment of the enclosure clamps hardware in place. The enclosure is secured around a stuffing box and sheave in order to contain overspray from a wireline.

Abstract: The present disclosure relates to a concentrator for concentrating, purifying or otherwise isolating one or more target analytes in a fluid matrix, and related methods, using self-wicking materials, such as monoliths. The present disclosure can be used as a point-of need sample preparation device. The self-contained device can be used for the extraction and concentration of specific target molecules, such as nucleic acids.

Abstract: The present invention relates to a monolith for processing fluid samples, and methods of making and using the monolith. The monolith can contain certain monomers or combinations of monomers that can be polymerized to give a polymeric monolith that can efficiently self-wick fluid. The self-wicking polymeric monolith can be used as a convenient tool for point of care/on site diagnostics and analytics. The monolith is easily stored and transported, comparatively cost-efficient to make, permits good detection of analyte molecules and is readily functionalizable by impregnation of and/or covalently grafting additional chemical moieties to either the whole monolith or in zones.

Abstract: The present invention relates to a monolith for processing fluid samples, and methods of making and using the monolith. The monolith can contain certain monomers or combinations of monomers that can be polymerized to give a polymeric monolith that can efficiently self-wick fluid. The self-wicking polymeric monolith can be used as a convenient tool for point of care/on site diagnostics and analytics. The monolith is easily stored and transported, comparatively cost-efficient to make, permits good detection of analyte molecules and is readily functionalizable by impregnation of and/or covalently grafting additional chemical moieties to either the whole monolith or in zones.

Abstract: A rugged SPME system and method for up-taking analytes, allowing injection of liquid samples in the field, providing better quantitation and reproducibility, and having higher capacity than other SPME devices that use a fiber, wherein the embodiments include a SPME stainless steel coiled wire sampler that may wick a liquid sample into the coil to thereby deliver a consistent quantity of liquid to an analyzer.

Abstract: The present invention relates to a monolith for processing fluid samples, and methods of making and using the monolith. The monolith can contain certain monomers or combinations of monomers that can be polymerized to give a polymeric monolith that can efficiently self-wick fluid. The self-wicking polymeric monolith can be used as a convenient tool for point of care/on site diagnostics and analytics. The monolith is easily stored and transported, comparatively cost-efficient to make, permits good detection of analyte molecules and is readily functionalizable by impregnation of and/or covalently grafting additional chemical moieties to either the whole monolith or in zones.

Abstract: The present disclosure relates to a concentrator for concentrating, purifying or otherwise isolating one or more target analytes in a fluid matrix, and related methods, using self-wicking materials, such as monoliths. The present disclosure can be used as a point-of need sample preparation device. The self-contained device can be used for the extraction and concentration of specific target molecules, such as nucleic acids.

Abstract: The present disclosure relates to a concentrator for concentrating, purifying or otherwise isolating one or more target analytes in a fluid matrix, and related methods, using self-wicking materials, such as monoliths. The present disclosure can be used as a point-of need sample preparation device. The self-contained device can be used for the extraction and concentration of specific target molecules, such as nucleic acids.

Abstract: The present invention relates to a monolith for processing fluid samples, and methods of making and using the monolith. The monolith can contain certain monomers or combinations of monomers that can be polymerized to give a polymeric monolith that can efficiently self-wick fluid. The self-wicking polymeric monolith can be used as a convenient tool for point of care on site diagnostics and analytics. The monolith is easily stored and transported, comparatively cost-efficient to make, permits good detection of analyte molecules and is readily functionalizable by impregnation of and/or covalently grafting additional chemical moieties to either the whole monolith or in zones.

Abstract: Described herein are monoliths for processing fluid samples, and methods of making and using such monoliths.

Abstract: A cross-flow ion mobility analyzer (CIMA) that includes a component of gas flow that opposes an electric field that is established within a channel, wherein ions are carried through the channel, wherein ions of a specific mobility are trapped by the opposing electric field and flow field within the channel and are detected when the ions reach the end of the channel, wherein a detector at the end of the channel sees a continuous stream of mobility-selected ions, and wherein different ions are selected by modifying the electric field and/or the velocity of the flow field.

Abstract: A virtual ion trap that uses electric focusing fields instead of machined metal electrodes that normally surround the trapping volume, wherein two opposing surfaces include a plurality of uniquely designed and coated electrodes, and wherein the electrodes can be disposed on the two opposing surfaces using plating techniques that enable much higher tolerances to be met than existing machining techniques.

Abstract: A syringe-like device (hereinafter “syringe”) that is operable by a single hand, wherein the syringe includes a plunger for ejecting and then retracting a fiber or filament used for the collection of solids, solids in suspensions and liquids, wherein the syringe includes a microchip embedded in the syringe housing, and wherein the microchip enables electronic chain of custody tracking of a sample from a point of origin through final analysis.

Abstract: A system and method for performing rapid, automated and high peak capacity separations of complex protein mixtures through the combination of fluidic and electrical elements on an integrated circuit, utilizing planar thin-film micromachining for both fluidic and electrical components.

Abstract: A system and method are provided of extracting spectra from data produced by temporally indexed spectral scans from a spectrometer and spectrometer. The method includes the operation of receiving a data matrix from the spectrometer. The noise can then be removed from the data matrix. A further operation is identifying spectra of interest in the data matrix based on information content. In addition, a reduction transformation can be applied to the data matrix based upon the spectra of interest based upon the denizen transformation for the purpose of extracting the spectra of interest from the data matrix.

Abstract: A system and method are provided of extracting spectra from data produced by temporally indexed spectral scans from a spectrometer and spectrometer. The method includes the operation of receiving a data matrix from the spectrometer. The noise can then be removed from the data matrix. A further operation is identifying spectra of interest in the data matrix based on information content. In addition, a reduction transformation can be applied to the data matrix based upon the spectra of interest based upon the denizen transformation for the purpose of extracting the spectra of interest from the data matrix.

Abstract: A virtual ion trap that uses electric focusing fields instead of machined metal electrodes that normally surround the trapping volume, wherein two opposing surfaces include a plurality of uniquely designed and coated electrodes, and wherein the electrodes can be disposed on the two opposing surfaces using plating techniques that enable much higher tolerances to be met than existing machining techniques.

Abstract: A single set of electrodes, wherein different electrical potentials are applied to the single set of electrodes at different times in order to perform both ion mobility-based spectrometry and mass spectrometry (MS) on a sample of ions, wherein the ions are processed by performing ion mobility-based spectrometry and mass spectrometry in any sequence, any number of times, and as isolated or superposed procedures in order to trap, separate, fragment, and/or analyze charged particles and charged particles derived from atoms, molecules, particles, sub-atomic particles and ions.

Abstract: A cross-flow ion mobility analyzer (CIMA) that includes a component of gas flow that opposes an electric field that is established within a channel, wherein ions are carried through the channel, wherein ions of a specific mobility are trapped by the opposing electric field and flow field within the channel and are detected when the ions reach the end of the channel, wherein a detector at the end of the channel sees a continuous stream of mobility-selected ions, and wherein different ions are selected by modifying the electric field and/or the velocity of the flow field.