mhurhangee/ep-ind-claims huggingface dataset:
A process for the manufacture of one or more ethyleneamines by a transamination reaction, comprising: providing a first mixture comprising ethylenediamine and at least one additional ethyleneamine chosen from diethylenetriamine, triethylenetetramine, tetraethylenepentamine, piperazine, aminoethylethanolamine, aminoethylpiperazine, piperazinoethylethylenediamine, heavy polyamine; and reacting the first mixture in the presence of a transamination catalyst to provide a second mixture via a transamination reaction, wherein the second mixture comprises ammonia as a byproduct of the transamination reaction, and comprises ethyleneamines, wherein at least two ethyleneamines are each present in a first amount in the first mixture, wherein the at least two ethyleneamines are each present in a second amount in the second mixture, and wherein the first amount is different to the second amount for each corresponding ethyleneamine of the at least two ethyleneamines. providing a first mixture comprising ethylenediamine and at least one additional ethyleneamine chosen from diethylenetriamine, triethylenetetramine, tetraethylenepentamine, piperazine, aminoethylethanolamine, aminoethylpiperazine, piperazinoethylethylenediamine, heavy polyamine; and reacting the first mixture in the presence of a transamination catalyst to provide a second mixture via a transamination reaction, wherein the second mixture comprises ammonia as a byproduct of the transamination reaction, and comprises ethyleneamines, wherein at least two ethyleneamines are each present in a first amount in the first mixture, wherein the at least two ethyleneamines are each present in a second amount in the second mixture, and wherein the first amount is different to the second amount for each corresponding ethyleneamine of the at least two ethyleneamines.
An inkjet printing apparatus comprising: a print head configured to perform print operation, the print head having an ejection opening surface on which a plurality of ejection openings for ejecting ink are being arrayed along a first direction (y); and a moving unit configured to move the print head between a printing position in which the print operation is performed and a standby position in which the print operation is not performed, characterized in that the printing position is a position inclined with respect to a horizontal plane (x-y) that includes the first direction (y); the moving unit moves the print head between the printing position and the standby position by simultaneously performing rotational movement and vertical linear movement of the print head, wherein the rotational movement is a rotation of the print head around a rotation axis parallel to the first direction, and the vertical linear movement is a movement of the print head along a second direction (z) perpendicular to the horizontal plane. a print head configured to perform print operation, the print head having an ejection opening surface on which a plurality of ejection openings for ejecting ink are being arrayed along a first direction (y); and a moving unit configured to move the print head between a printing position in which the print operation is performed and a standby position in which the print operation is not performed, characterized in that the printing position is a position inclined with respect to a horizontal plane (x-y) that includes the first direction (y); the moving unit moves the print head between the printing position and the standby position by simultaneously performing rotational movement and vertical linear movement of the print head, wherein the rotational movement is a rotation of the print head around a rotation axis parallel to the first direction, and the vertical linear movement is a movement of the print head along a second direction (z) perpendicular to the horizontal plane.
Method for producing an electrical system comprising at least one device that comprises a support carrying, on a first face, at least one electronic component provided with at least one electrical connector (21, 22), the method comprising: - a step of placing a cover over the component, said cover comprising at least one passage (61, 62) according to a dimension in thickness of the cover so as to form an access to the at least one electrical connector (21, 22), - a step of forming a sealing seam such that the component is at least partially located inside a cavity delimited by the first face of the support, the first face of the cover and the sealing seam, said forming step being configured so that the sealing seam comprises a first seam at the at least one electrical connector (21, 22), the first seam extending around the at least one passage (61, 62) in the form of a closed contour forming a continuous and solid wall laterally delimiting a through-space opening onto the at least one passage (61, 62); the method comprising a step of filling, after the forming step, with an electrically conductive material, the through-space opening by means of the at least one passage (61, 62) of the cover so as to establish electrical continuity between the electrically conductive material and the at least one electrical connector (21, 22), forming a tapping (81, 82), the sealing seam being dielectric. - a step of placing a cover over the component, said cover comprising at least one passage (61, 62) according to a dimension in thickness of the cover so as to form an access to the at least one electrical connector (21, 22), - a step of forming a sealing seam such that the component is at least partially located inside a cavity delimited by the first face of the support, the first face of the cover and the sealing seam, said forming step being configured so that the sealing seam comprises a first seam at the at least one electrical connector (21, 22), the first seam extending around the at least one passage (61, 62) in the form of a closed contour forming a continuous and solid wall laterally delimiting a through-space opening onto the at least one passage (61, 62);
Method for controlling a power supply circuit (102, 104) of an electric motor, the power supply circuit (102, 104) comprising a power converter, referred to as an inverter, which is configured to supply at least one AC voltage from a DC voltage source and a superconducting power supply link, which is configured to supply said electric motor with power, the superconducting power supply link being connected between an output of the inverter and the electric motor, said method being executed in a power supply circuit controller comprising a control output (CTRL) configured to control said inverter, at least one first input (Vi) configured to receive at least one first signal representative of a voltage measured across the terminals of said superconducting power supply link, and a second input (θ), referred to as a synchronization input, configured to receive at least one second signal representative of the position of a rotor of said electric motor, said method being characterized in that it comprises: - i) multiplying said first signal and a sinusoidal signal synchronized with said second signal to obtain a third signal that is representative of the resistive component of said voltage measured across the terminals of said superconducting power supply link, and then, - ii) if said third signal exceeds a predetermined threshold value, inhibiting said control output (CTRL), and if not, repeating steps i) and ii). - i) multiplying said first signal and a sinusoidal signal synchronized with said second signal to obtain a third signal that is representative of the resistive component of said voltage measured across the terminals of said superconducting power supply link, and then, - ii) if said third signal exceeds a predetermined threshold value, inhibiting said control output (CTRL), and if not, repeating steps i) and ii).
Composition in the form of an inverse latex comprising: a) from 50 % by weight to 80 % of at least one linear, branched or crosslinked organic polymer, b) from 5 % by weight to 10 % of a water-in-oil (W/O) type emulsifying system (S 1), c) from 5 % by weight to 45 % by weight of at least one oil, and d) from 0 % to 5 % of water, and characterised in that from 0.01 % to 10 % in molar proportions of the monomer units that said polymer P comprises is at least one neutral monomer of formula (I'): CH 2 =CH-C(=O)-O-(CH 2 -CH 2 -O) n -R' 4 (I') the radical R' 4 representing an aliphatic radical selected from among the radicals octyl, decyl, dodecyl, tetradecyl, hexadecyl, octadecyl, eicosyl, docosyl, tetracosyl, and n' represents a number between 4 and 25; or a monomer of formula (I"): CH 2 =C(CH 3)-C(=O)-O-(CH 2 -CH 2 -O)n"-R" 4 (I") the radical R"4 representing an aliphatic radical selected from among the radicals octyl, dodecyl, tetradecyl, hexadecyl, octadecyl, eicosyl, docosyl, tetracosyl and n" represents a number between 4 and 25. a) from 50 % by weight to 80 % of at least one linear, branched or crosslinked organic polymer, b) from 5 % by weight to 10 % of a water-in-oil (W/O) type emulsifying system (S 1), c) from 5 % by weight to 45 % by weight of at least one oil, and d) from 0 % to 5 % of water,
A Reed having multiple strips that extend in an extension direction between a top end and an opposite bottom end and that are arranged at a distance to one another in a transverse direction orientated orthogonal to the extension direction, wherein the top end of each strip is attached to a top holding shaft and wherein the bottom end of each strip is attached to a bottom holding shaft, wherein each holding shaft (23, 24) comprises two plate parts (32, 43) extending in transverse direction that are arranged opposite each other in a longitudinal direction and that are connected with the assigned ends (21, 22) of the strips by means of an adhesive bond produced by an adhesive, wherein the longitudinal direction is orientated orthogonal to the transverse direction and orthogonal to the extension direction, wherein all of the plate parts (32, 43) consist of a fiber-reinforced composite material. having multiple strips that extend in an extension direction between a top end and an opposite bottom end and that are arranged at a distance to one another in a transverse direction orientated orthogonal to the extension direction, wherein the top end of each strip is attached to a top holding shaft and wherein the bottom end of each strip is attached to a bottom holding shaft, wherein each holding shaft (23, 24) comprises two plate parts (32, 43) extending in transverse direction that are arranged opposite each other in a longitudinal direction and that are connected with the assigned ends (21, 22) of the strips by means of an adhesive bond produced by an adhesive, wherein the longitudinal direction is orientated orthogonal to the transverse direction and orthogonal to the extension direction, wherein all of the plate parts (32, 43) consist of a fiber-reinforced composite material.
An antenna device for a mobile terminal, the antenna device comprising: an antenna module for radiating electric waves; and a case comprising: an internal case made of a first metal material, in which a first slot is formed and an external case made of a second metal material, in which a second slot is formed, characterized in that the external case is separable from the mobile terminal, and the internal case is housed inside the external case, wherein the second slot is formed at a position corresponding to the first slot, and wherein the internal case is electrically connected to each of the antenna module and the ground of the mobile terminal to radiate electric waves through the first slot and the external case is electrically connected to each of the antenna module and a ground of the mobile terminal to radiate electric waves through the second slot. an antenna module for radiating electric waves; and a case comprising: an internal case made of a first metal material, in which a first slot is formed and an external case made of a second metal material, in which a second slot is formed, characterized in that the external case is separable from the mobile terminal, and the internal case is housed inside the external case, wherein the second slot is formed at a position corresponding to the first slot, and wherein the internal case is electrically connected to each of the antenna module and the ground of the mobile terminal to radiate electric waves through the first slot and the external case is electrically connected to each of the antenna module and a ground of the mobile terminal to radiate electric waves through the second slot. an internal case made of a first metal material, in which a first slot is formed and an external case made of a second metal material, in which a second slot is formed, characterized in that the external case is separable from the mobile terminal, and the internal case is housed inside the external case, wherein the second slot is formed at a position corresponding to the first slot, and wherein the internal case is electrically connected to each of the antenna module and the ground of the mobile terminal to radiate electric waves through the first slot and the external case is electrically connected to each of the antenna module and a ground of the mobile terminal to radiate electric waves through the second slot.
A humidified gas delivery system comprising: (a) an inspiratory conduit for transferring a humidified gas from a humidified gas reservoir to a patient; (b) means for heating the inspiratory conduit; (c) an expiratory conduit for transferring expired gas from a patient to a gas outlet; and (d) means for heating the expiratory conduit; wherein the respective heating means are each arranged to heat the humidified gas and the expired gas to different temperatures; and wherein the respective heating means are each an electrically conductive resistor wherein, in use, each conduit defines a lumen and the electrically conductive resistor is positioned within the lumen of the conduit; wherein the electrically conductive resistor comprises a wire, wherein at least part of the wire is arranged to extend circumferentially within at least a portion of the lumen and at least part of the wire is arranged to extend across a transverse cross-section of the lumen; characterised in that the wire is formed from a series of at least two segments, wherein each segment has a serpentine form, wherein each segment has first portion having distal and proximal ends, a middle portion having distal and proximal ends, a second portion having distal and proximal ends, and a connector having distal and proximal ends; and wherein the first portion is substantially curvilinear in form, the proximal end of which first portion is connected to the distal end of the middle portion, which middle portion is substantially linear in form; and the proximal end of the middle portion is connected to the distal end of the second portion, which second portion is substantially curvilinear in form; and wherein the connector is substantially linear in form and extends between the distal end of a first portion of a first segment of the wire and the proximal end of a second portion of an adjacent segment of the wire. (a) an inspiratory conduit for transferring a humidified gas from a humidified gas reservoir to a patient; (b) means for heating the inspiratory conduit; (c) an expiratory conduit for transferring expired gas from a patient to a gas outlet; and (d) means for heating the expiratory conduit;
A method of operating a system comprising a chromatograph operable to separate sample solutions into fractions, an ion source operable to ionize components of the fractions and a mass spectrometer operable to analyze and detect the ions, the method comprising: (a) providing an abundance threshold value and a list comprising respective entries for each of two or more precursor ion species of interest comprising respective precursor-ion m / z ratios; (b) transmitting a first portion of a sample fraction comprising a plurality of sample-fraction ion species through an ion mobility spectrometer to the mass spectrometer, wherein the ion mobility spectrometer is operated in a non-dispersive mode; (c) detecting a respective ion abundance at each of a plurality of sample-fraction ratios using the mass spectrometer; and (d) upon detection of an above-threshold ion abundance at a sample-fraction m / z- ratio corresponding to a first one of the precursor ion species of interest: inletting a second portion of the sample fraction into the ion mobility spectrometer, wherein the ion mobility spectrometer is operated in dispersive mode such that ions of the first precursor-ion species are preferentially transmitted through the ion mobility spectrometer to the mass spectrometer; fragmenting the preferentially-transmitted ions so as to generate a first set of product ion species; and detecting the first set of product ion species using the mass spectrometer. (a) providing an abundance threshold value and a list comprising respective entries for each of two or more precursor ion species of interest comprising respective precursor-ion m / z ratios; (b) transmitting a first portion of a sample fraction comprising a plurality of sample-fraction ion species through an ion mobility spectrometer to the mass spectrometer, wherein the ion mobility spectrometer is operated in a non-dispersive mode; (c) detecting a respective ion abundance at each of a plurality of sample-fraction ratios using the mass spectrometer; and (d) upon detection of an above-threshold ion abundance at a sample-fraction m / z- ratio corresponding to a first one of the precursor ion species of interest: inletting a second portion of the sample fraction into the ion mobility spectrometer, wherein the ion mobility spectrometer is operated in dispersive mode such that ions of the first precursor-ion species are preferentially transmitted through the ion mobility spectrometer to the mass spectrometer; fragmenting the preferentially-transmitted ions so as to generate a first set of product ion species; and detecting the first set of product ion species using the mass spectrometer. inletting a second portion of the sample fraction into the ion mobility spectrometer, wherein the ion mobility spectrometer is operated in dispersive mode such that ions of the first precursor-ion species are preferentially transmitted through the ion mobility spectrometer to the mass spectrometer; fragmenting the preferentially-transmitted ions so as to generate a first set of product ion species; and detecting the first set of product ion species using the mass spectrometer.
A network element comprising a mobility management entity, MME, or a serving general packet radio service support node, SGSN, for monitoring events associated with a user equipment, UE, configured to provide machine type communications, MTC, in a cellular network, the network element comprising: a memory device; a processor operatively coupled to the memory device and configured to: receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message. a memory device; a processor operatively coupled to the memory device and configured to: receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message. receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message.
Use of chemokine CCL3 as a biomarker for the identification of whether or not a test subject is at increased risk of a future acute cardiovascular syndrome or event.
A tactile control arrangement for at least one electronic device (W, P) including a touch control interface based on a capacitive sensor array matrix and electronic processing means associated with said sensor matrix and arranged to receive therefrom a plurality of electrical signals indicative of the touch or the pressure by an external body on at least one sensor of the matrix and to process consequent commands to be transmitted towards said at least one electronic device (W, P), wherein the sensor matrix comprises a plurality of active sensor electrodes and a corresponding plurality of conductive tracks for the connection of the active electrodes with the processing means, wherein the sensor matrix is formed by a plurality of flexible functional layers including a first layer of conductive elastomeric material forming said active electrodes, and a second layer of conductive elastomeric material forming said tracks on a plane parallel to the layer of active electrodes, which first and second layers (32, 42) of conductive elastomeric material are separated by a flexible layer of insulating material comprising a non-conductive fabric bearing a plurality of vials at the active electrodes of the first layer and the corresponding conductive tracks of the second layer, wherein said layers (32, 42) of active electrodes and conductive tracks are deformed so as to directly contact through the vias of the non-conductive fabric layer.