Abstract: A method of controlling the operation of an ion mobility separation device is disclosed. The method comprises displaying to a user via a user interface a pool of modes of operation of the ion mobility separation device, wherein each one of the modes is selectable by the user for inclusion in an experiment, and the modes are displayed in a first area 202 of the user interface. The method comprises receiving, via the user interface, an indication from the user of a selection of one or more instance of each one of a plurality of the modes from the pool to be included in an experiment, and an indication from the user of a set of one or more parameters for controlling the ion mobility separation device in respect of one or more selected instances of a mode. The selected instances of modes are displayed in a sequence in a second area 204 of the user interface. The operation of the ion mobility separation device is controlled in accordance with the received indications.

Abstract: A packet-filtering device may receive packet-filtering rules configured to cause the packet-filtering device to identify packets corresponding to network-threat indicators. The packet-filtering device may receive packets and, for each packet, may determine that the packet corresponds to criteria specified by a packet-filtering rule. The criteria may correspond to one or more of the network-threat indicators. The packet-filtering device may apply an operator specified by the packet-filtering rule. The operator may be configured to cause the packet-filtering device to either prevent the packet from continuing toward its destination or allow the packet to continue toward its destination.

Abstract: A packet-filtering device may receive packet-filtering rules configured to cause the packet-filtering device to identify packets corresponding to network-threat indicators. The packet-filtering device may receive packets and, for each packet, may determine that the packet corresponds to criteria specified by a packet-filtering rule. The criteria may correspond to one or more of the network-threat indicators. The packet-filtering device may apply an operator specified by the packet-filtering rule. The operator may be configured to cause the packet-filtering device to either prevent the packet from continuing toward its destination or allow the packet to continue toward its destination.

Abstract: A computer data file that is operational or accessible in two or more different forms by two or more different common, ubiquitous and/or native programs or applications is presented herein. More specifically, the computer data file can be accessed in a first form when the computer data file has a first filename extension, and the computer file can be accessed in a second form when the computer data file has a second and different filename extension. At least one of the filename extensions is a browser-based filename extension (.HTM, .HTML) such that the composite file is accessed via a web browser in one of the modes.

Abstract: A data acquisition system for a TOF mass spectrometer comprises a processing module and a data collection module. The processing module generates a stream of data comprising, for each respective transient of a first scan, a set of time-intensity related parameter pairs. For each new set of data, the data collection module reads out a previous set of data from a previous memory bank, merges that previous set of data with the new set of data, and writes that latest merged set of data into a memory bank other than the previous memory bank. The data acquisition system provides a convenient way to merge sequential sets of time-intensity related parameter pairs for respective transients as a stream of data for a first scan is generated.

Abstract: A method of separating ions is disclosed comprising: providing an ion separation device comprising a plurality of electrodes; providing a gas flow (5) so as to urge ions in a first direction along the device; applying voltages to said electrodes so that a plurality of travelling potentials (4) urge the ions in a second opposite direction; and varying at least one operational parameter of the travelling potentials (4) as a function of position along the device such that ions of different mobility or mass to charge ratio become trapped at different locations along the device.

Abstract: A packet-filtering device may receive packet-filtering rules configured to cause the packet-filtering device to identify packets corresponding to network-threat indicators. The packet-filtering device may receive packets and, for each packet, may determine that the packet corresponds to criteria specified by a packet-filtering rule. The criteria may correspond to one or more of the network-threat indicators. The packet-filtering device may apply an operator specified by the packet-filtering rule. The operator may be configured to cause the packet-filtering device to either prevent the packet from continuing toward its destination or allow the packet to continue toward its destination.

Abstract: A method of ion mobility spectrometry is disclosed comprising: transmitting a plurality of ions to an ion mobility separator 6; modulating the introduction of the ions into the ion mobility separator 6 at a first modulation frequency; separating the ions that enter the ion mobility separator 6 according to ion mobility; detecting ions that have exited the ion mobility separator with a detector of a time of flight mass analyser 8; varying the first modulation frequency with time; recording the intensity of the ion signal output from the detector to produce recorded data; modulating the recorded data as a function of the time that the data was recorded and at a second modulation frequency, wherein the second modulation frequency is varied as a function of the time that the data was recorded; and determining, from the variation in intensity of the ion signal in the modulated data as a function of the second modulation frequency, the ion mobilities of the ions that have been detected.

Abstract: Display assemblies as disclosed herein are configured for attachment with a vulcanized rubber article and are provided in the form of different material layers. Display assemblies generally comprise one or more display layers of elastomeric material configured to provide a desired display indicia, an intermediate layer formed from an elastomeric material different from that of the one or more display layers, and an adhesive layer wherein the intermediate layer is interposed between the adhesive layer and the one or more display layers. The one more display layers may be configured to act together or separately to provide a desired display indicia to provide a desired visual display or feature on the surface of the vulcanized rubber article, which may be a sidewall surface of a tire.

Abstract: The decorative decal assembly (20) is configured to be secured within a recessed surface (26) of a weight plate (18) and includes an adhesive layer (36), a printable surface (44) of an adjacent ink protective printing layer (42), and one or more print decals (48) secured to the printable surface (44) and between an upper support surface (40) of the adhesive layer (36) and the ink protective layer (42). The recessed surface (26) defines a display area (56) surrounded on all sides by an expansion zone (58) extending between the display area (56) and the shoulders (30, 32) of the weight plate (18) that define the recessed surface (26) to permit limited expansion of perimeter edges (62A, 62B) of the decal assembly (20) into the expansion zone (58) without contacting the shoulders (30, 32) whenever the weight plate (18) experiences a bounce shock.

Abstract: A method of mass spectrometry is disclosed that includes transforming mass spectral data to produce frequency-domain mass spectral data, modifying the frequency-domain mass spectral data to produce modified frequency-domain mass spectral data by attenuating and/or removing one or more ranges of the frequency-domain mass spectral data that relate to noise associated with peaks of interest in the mass spectral data, and transforming the modified frequency-domain mass spectral data to produce modified mass spectral data.

Abstract: A method of mass or mobility spectrometry comprising obtaining one or more sample spectra for a sample. The one or more sample spectra are subjected to pre-processing and then multivariate and/or library based analysis so as to classify the sample. Before the sample spectra are acquired, a library of background spectra, each background spectrum relating to a certain class of sample material, is constructed. The background spectra in this library are used to subtract the background from a sample spectrum during the pre-processing of this sample spectrum.

Abstract: A method of spectrometric analysis comprises obtaining one or more sample spectra for a sample. The one or more sample spectra are subjected to pre-processing and then multivariate and/or library based analysis so as to classify the sample. The pre-processing involves deisotoping the sample spectra.

Abstract: A packet-filtering device may receive packet-filtering rules configured to cause the packet-filtering device to identify packets corresponding to network-threat indicators. The packet-filtering device may receive packets and, for each packet, may determine that the packet corresponds to criteria specified by a packet-filtering rule. The criteria may correspond to one or more of the network-threat indicators. The packet-filtering device may apply an operator specified by the packet-filtering rule. The operator may be configured to cause the packet-filtering device to either prevent the packet from continuing toward its destination or allow the packet to continue toward its destination.

Abstract: A method of mass spectrometry is disclosed wherein one or more relatively abundant or intense species of ions in a first population of ions are selectively attenuated so as to form a second population of ions. The total ion current of the second population of ions is then adjusted so that the ion current corresponding to ions which are onwardly transmitted to a mass analyser comprising an ion detector is within the dynamic range of the ion detector.

Abstract: A feedback apparatus (22) is provided for use with a system (10) that comprises an analyser (16) and a sampling device (12). The feedback apparatus (22) comprises a receiver (20) that receives from the analyser 16 information relating to a sample obtained using the sampling device (12). The feedback apparatus (22) comprises a feedback device that provides an indication based on the information to an operator (14) of the sampling device (2) whilst the sampling device (12) is within the operator's visual field.

Abstract: Display assemblies as disclosed herein are configured for attachment with a vulcanized rubber article and are provided in the form of different material layers. Display assemblies generally comprise one or more display layers of elastomeric material configured to provide a desired display indicia, an intermediate layer formed from an elastomeric material different from that of the one or more display layers, and an adhesive layer wherein the intermediate layer is interposed between the adhesive layer and the one or more display layers. The one more display layers may be configured to act together or separately to provide a desired display indicia to provide a desired visual display or feature on the surface of the vulcanized rubber article, which may be a sidewall surface of a tire.

Abstract: A hardware module which operatively carries out a method of compressing mass spectral data, the method comprising: receiving a first signal output from an ion detector of a mass spectrometer; processing the first signal to a digital signal at an output being data frame types representative of the first signal output; temporarily storing the data frame types in a memory block and reading a data frame from the memory block and determining its data frame type and according to its data frame type compressing the data frame according to one or more compression algorithms to generate a compressed data output stream.

Abstract: The decorative decal assembly (20) is configured to be secured within a recessed surface (26) of a weight plate (18) and includes an adhesive layer (36), a printable surface (44) of an adjacent ink protective printing layer (42), and one or more print decals (48) secured to the printable surface (44) and between an upper support surface (40) of the adhesive layer (36) and the ink protective layer (42). The recessed surface (26) defines a display area (56) surrounded on all sides by an expansion zone (58) extending between the display area (56) and the shoulders (30, 32) of the weight plate (18) that define the recessed surface (26) to permit limited expansion of perimeter edges (62A, 62B) of the decal assembly (20) into the expansion zone (58) without contacting the shoulders (30, 32) whenever the weight plate (18) experiences a bounce shock.

Abstract: A system and method for testing a control system is disclosed. The control system includes a field device located in one area and a controller located in a different area. A mobile application running on a mobile computing device is used by a technician to test the control system. Because both the mobile computing device and the controller are coupled to a cloud computing system, the technician may interface with the controller while located at the field device. This remote access to the controller allows a single technician to test the control system by interfacing with the controller and the field device simultaneously. In addition, the mobile application may retrieve data from the cloud computing system to facilitate testing and may transmit test results to the cloud for storage. Others having access to the stored results may view the progress and results of the testing.