mhurhangee/ep-ind-claims huggingface dataset:
A method for facilitating a change from a first communication channel to a second communication channel for an interaction within a contact center system for a first party after the interaction has been initiated and the first party is in queue for the first communication channel, comprising: a. providing, through a user interface (105, 110, 205, 300, 510) interoperably connected to the contact center system through a web browser, the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels; c. processing the first selection by a service associated with the first communication channel, and routing the interaction into a queue associated with the first communication channel; d. informing, through the user interface (105, 110, 205, 300, 510) while the first party is waiting in the queue for the first communication channel, the first party of estimated queue wait times associated with each of the plurality of communication channels; e. providing, through the user interface (105, 110, 205, 300, 510) while the first party is waiting in the queue for the first communication channel, the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels; f. receiving a selection from the first party of the second communication channel; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel. a. providing, through a user interface (105, 110, 205, 300, 510) interoperably connected to the contact center system through a web browser, the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels; c. processing the first selection by a service associated with the first communication channel, and routing the interaction into a queue associated with the first communication channel; d. informing, through the user interface (105, 110, 205, 300, 510) while the first party is waiting in the queue for the first communication channel, the first party of estimated queue wait times associated with each of the plurality of communication channels; e. providing, through the user interface (105, 110, 205, 300, 510) while the first party is waiting in the queue for the first communication channel, the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels; f. receiving a selection from the first party of the second communication channel; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel.
A MEMS sensor device (100, 300, 400), comprising: a support substrate (104, 304, 404); a proof mass (110, 310, 410) movably connected to the support substrate; a first drive comb (120, 320, 332, 420, 432) fixedly connected to the support substrate in a first orientation and adjacent to the proof mass; a second drive comb (130, 322, 330, 422, 430) fixedly connected to the support substrate in a second orientation and adjacent to the proof mass, the second orientation opposite of the first orientation such that the first and second drive combs face toward each other; and a parallel plate sense electrode (140, 340, 344, 440, 444, 450, 454) located under the proof mass on the support substrate; wherein the first and second drive combs, and the parallel plate sense electrode, are each electrically charged and configured with respect to the proof mass such that a combination of a levitation force and a parallel plate force produces a force substantially independent of displacement along a z-axis for out-of-plane actuation for the MEMS sensor device that depends only on an applied voltage, thereby producing a vibration reduction of the MEMS sensor device. a support substrate (104, 304, 404); a proof mass (110, 310, 410) movably connected to the support substrate; a first drive comb (120, 320, 332, 420, 432) fixedly connected to the support substrate in a first orientation and adjacent to the proof mass; a second drive comb (130, 322, 330, 422, 430) fixedly connected to the support substrate in a second orientation and adjacent to the proof mass, the second orientation opposite of the first orientation such that the first and second drive combs face toward each other; and a parallel plate sense electrode (140, 340, 344, 440, 444, 450, 454) located under the proof mass on the support substrate; wherein the first and second drive combs, and the parallel plate sense electrode, are each electrically charged and configured with respect to the proof mass such that a combination of a levitation force and a parallel plate force produces a force substantially independent of displacement along a z-axis for out-of-plane actuation for the MEMS sensor device that depends only on an applied voltage, thereby producing a vibration reduction of the MEMS sensor device.
Precharge circuit for a DC link capacitor of an electrical drive system having a power supply from overhead lines (11, 12), wherein the precharge circuit has at least one resistor, at least two switching elements (5, 6) and two voltage measuring devices (13, 14), wherein the first voltage measuring device is arranged between the switching elements (5, 6) and current collectors (1, 2) for the overhead lines (11, 12), and the second voltage measuring device is arranged in parallel with the DC link capacitor, wherein the resistor is able to be switched on or bypassed by way of at least one switching element (5, 7, 21, 22), wherein the switching element (5, 7, 21, 22) is assigned at least one control unit, characterized in that the control unit is locally assigned to the switching element (5, 7, 21, 22) and is in the form of hardware logic without software, which hardware logic receives only the two voltages (U 1, U 2) of the two voltage measuring devices (13, 14) as input variables, wherein the control unit is designed in such a way that the at least one resistor is switched on or the bypass thereof is switched off automatically if the voltage (U 1) of the first voltage measuring device is below a first threshold value (U X), wherein the at least one resistor is switched off or the bypass thereof is switched on automatically if the voltage (U 1) of the first voltage measuring device is above the first threshold value (U X) and the voltage (U 2) of the second voltage measuring device is above a second threshold value (U Y).
An immunosuppressive trans-activator of transcription (Tat) derivative polypeptide, the Tat derivative polypeptide comprising an amino acid sequence comprising the following domains in the indicated order: a transcription factor domain, a cysteine-rich domain, and a C-terminal domain, wherein the amino acid sequence comprises SEQ ID NO: 9.
A flush-mounted box including a fitting body, comprising: a) a housing including a receiving chamber for the fitting body, the housing having at least one detent area, the fitting body being at least partially arranged in the receiving chamber; b) a fastening frame for fastening the flush-mounted box to a support, the fastening frame including at least one spring element which can engage in the at least one detent area of the housing for fastening the fastening frame to the housing; and c) at least one clip for securing the at least one spring element to the at least one detent area of the housing. a) a housing including a receiving chamber for the fitting body, the housing having at least one detent area, the fitting body being at least partially arranged in the receiving chamber; b) a fastening frame for fastening the flush-mounted box to a support, the fastening frame including at least one spring element which can engage in the at least one detent area of the housing for fastening the fastening frame to the housing; and c) at least one clip for securing the at least one spring element to the at least one detent area of the housing.
A crush can assembly adapted to couple a bumper beam assembly to a side rail of a vehicle, the crush can assembly comprising: a box structure comprising a front portion and a rear portion, wherein the rear portion of the box structure is adapted to be coupled to the side rail; and a mounting bracket comprising one or more flanges that each protrude around an edge of the front portion of the box structure and that are each welded to the respective edge of the front portion of the box structure, wherein the mounting bracket is adapted to be coupled to the bumper beam assembly. a box structure comprising a front portion and a rear portion, wherein the rear portion of the box structure is adapted to be coupled to the side rail; and a mounting bracket comprising one or more flanges that each protrude around an edge of the front portion of the box structure and that are each welded to the respective edge of the front portion of the box structure, wherein the mounting bracket is adapted to be coupled to the bumper beam assembly.
Apparatus for insufflating a cavity of a human or animal subject and for removing an undesirable gas from the cavity resulting from a procedure being carried out in the cavity with an instrument therein, the apparatus comprising a delivery means (14,16) for delivering an insufflating fluid to the cavity, a pressure monitoring means configured to monitor a pressure of the insufflating fluid indicative of the pressure of the insufflating fluid in the cavity, a flow control means responsive to the pressure monitoring means for maintaining the pressure of the insufflating fluid in the cavity at a substantially constant predefined working pressure, and a discharge control means (32,52) for controlling the flow of insufflating fluid from the cavity, the discharge control means (32,52) being responsive to an externally generated control signal for increasing discharge of insufflating fluid from the cavity, the externally generated control signal comprising one of a manually generated signal, a signal generated in response to operation of an instrument in the cavity, and a signal derived from a control system operating the instrument in the cavity indicative of one of the operation and commencement of operation of the instrument, characterised in that the flow control means is responsive solely to the monitored pressure in the cavity to maintain the pressure of the insufflating fluid in the cavity substantially constant at the predefined working pressure while the discharge control means (32,52) is operating to increase the rate at which the insufflating fluid is being discharged from the cavity to increase the flow rate of insufflating fluid to the cavity, for in turn increasing the flow rate of the insufflating fluid through the cavity for removing the undesirable gas.
A composition, comprising a peptide antigen and a veterinarily acceptable delivery vehicle or adjuvant, wherein the peptide antigen is selected from the group consisting of a GP5.3 B cell epitope cluster peptide from the Porcine Reproductive and Respiratory Syndrome Virus selected from: a) a GP5.3 B cell epitope cluster peptide antigen selected from the group consisting of SEQ ID NOs: 9 as depicted in Table 4, 14, 16, 31, 32, and 33; b) the GP5.3 B cell epitope cluster peptide antigen of (a) covalently linked, with or without a spacer, to an artificial combinatorial T helper epitope represented by SEQ ID NO: 35; c) the GP5.3 B cell epitope cluster peptide antigen of (a) covalently linked through a spacer comprising an epsilon lysine residue to a T helper epitope; and d) any combination of (a) to (c). a) a GP5.3 B cell epitope cluster peptide antigen selected from the group consisting of SEQ ID NOs: 9 as depicted in Table 4, 14, 16, 31, 32, and 33; b) the GP5.3 B cell epitope cluster peptide antigen of (a) covalently linked, with or without a spacer, to an artificial combinatorial T helper epitope represented by SEQ ID NO: 35; c) the GP5.3 B cell epitope cluster peptide antigen of (a) covalently linked through a spacer comprising an epsilon lysine residue to a T helper epitope; and d) any combination of (a) to (c).
A computer-implemented method comprising: controlling input of at least a portion of a first training data set into a first machine learning algorithm, the first training data set including: data quantifying damage to a first compressor; and data quantifying a first operating parameter of the first compressor; receiving data quantifying the first operating parameter as an output of the first machine learning algorithm; and training the first machine learning algorithm using: the received data output from the first machine learning algorithm; and data quantifying the first operating parameter of the first compressor, the trained first machine learning algorithm being configured to enable determination of operability of a second compressor of a gas turbine engine. controlling input of at least a portion of a first training data set into a first machine learning algorithm, the first training data set including: data quantifying damage to a first compressor; and data quantifying a first operating parameter of the first compressor; receiving data quantifying the first operating parameter as an output of the first machine learning algorithm; and training the first machine learning algorithm using: the received data output from the first machine learning algorithm; and data quantifying the first operating parameter of the first compressor, the trained first machine learning algorithm being configured to enable determination of operability of a second compressor of a gas turbine engine.
A device for non-destructive testing of a part by moving a sensor over a portion to be scanned, the device comprising a probe containing such a sensor, the probe being hinge-mounted at the end of a handle, a guide presenting a reference surface, and means for adjusting the position of said guide in a direction parallel to an axis of said handle, wherein said guide is generally in the form of a sleeve that is coaxial with said handle from which said probe emerges, one end of the sleeve presenting an annular front face constituting said reference surface.
A computer-implemented method for speaker identification when executed on data processing hardware (103, 113) causes the data processing hardware (103, 113) to perform operations comprising: receiving audio data corresponding to an utterance captured by a user device; said method being characterised by causing the data processing hardware to perform operations further comprising: processing, using a speaker identification model, the audio data to generate an evaluation attentive d-vector, ad-vector, representing voice characteristics of the utterance, the evaluation ad-vector comprising n e component classes each comprising a respective value vector concatenated with a corresponding routing vector, wherein each routing vector conveys environmental, channel and/or contextual information associated with the audio data; generating, using a self-attention mechanism, at least one multi-condition attention score that indicates a likelihood that the evaluation ad-vector matches a respective reference ad-vector associated with a respective user, the reference ad-vector comprising n r component classes each comprising a respective value vector concatenated with a corresponding routing vector; and identifying the speaker of the utterance as the respective user associated with the respective reference ad-vector based on the multi-condition attention score. processing, using a speaker identification model, the audio data to generate an evaluation attentive d-vector, ad-vector, representing voice characteristics of the utterance, the evaluation ad-vector comprising n e component classes each comprising a respective value vector concatenated with a corresponding routing vector, wherein each routing vector conveys environmental, channel and/or contextual information associated with the audio data; generating, using a self-attention mechanism, at least one multi-condition attention score that indicates a likelihood that the evaluation ad-vector matches a respective reference ad-vector associated with a respective user, the reference ad-vector comprising n r component classes each comprising a respective value vector concatenated with a corresponding routing vector; and identifying the speaker of the utterance as the respective user associated with the respective reference ad-vector based on the multi-condition attention score.
A ring-traveler device with no liquid lubrication for a ring type spinning machine comprising: a ring; and a traveler slidable along the ring; characterized in that a plurality of first recesses being circular dimples and a plurality of second recesses being micro-cracks are formed in at least one of a sliding surface of the ring and a sliding surface of the traveler, wherein each circular dimple has a diameter between 10 and 100 μm and is formed by an opening edge and an inner surface, wherein a width of each micro-crack is smaller than the diameter of each circular dimple, and wherein at least one of the micro-cracks extends across at least one of the opening edges and the inner surfaces of the circular dimples. a ring; and a traveler slidable along the ring; characterized in that a plurality of first recesses being circular dimples and a plurality of second recesses being micro-cracks are formed in at least one of a sliding surface of the ring and a sliding surface of the traveler, wherein each circular dimple has a diameter between 10 and 100 μm and is formed by an opening edge and an inner surface, wherein a width of each micro-crack is smaller than the diameter of each circular dimple, and wherein at least one of the micro-cracks extends across at least one of the opening edges and the inner surfaces of the circular dimples.
An ethylene homopolymer having: a melt index determined in accordance with ASTM D1238 at 190°C with a 2160 gram weight greater than or equal to 50 g/10 min; a density of less than or equal to 0.970 g/cm 3; a Mn in a range from 5,000 to 20,000 g/mol; and a ratio of Mw/Mn of less than or equal to 4. a melt index determined in accordance with ASTM D1238 at 190°C with a 2160 gram weight greater than or equal to 50 g/10 min; a density of less than or equal to 0.970 g/cm 3; a Mn in a range from 5,000 to 20,000 g/mol; and a ratio of Mw/Mn of less than or equal to 4.
A plate-type heat exchanger comprising: - a plurality of heat transfer plates stacked on top of each other; - a flow passage, formed by each space between the plurality of heat transfer plates, through which a fluid flows in a first direction; and - an inner fin (4, 5) disposed in the flow passage; characterised in that the plate-type heat exchanger further comprises: - a first projecting portion provided on an inflow side of each of the heat transfer plates and configured to prevent the fluid from flowing into gaps between both ends of the inner fin (4, 5) in a second direction and both ends of the heat transfer plate in the second direction; and - a second projecting portion formed on an outflow side of each of the heat transfer plates and configured to perform positioning in placing the inner fin (4, 5) into the heat transfer plate, - the first direction being a direction of flow of the fluid through the flow passage, - the second direction being a direction orthogonal to the first direction, and - the inner fin (4, 5) being disposed between the first projecting portion and the second projecting portion. - a plurality of heat transfer plates stacked on top of each other; - a flow passage, formed by each space between the plurality of heat transfer plates, through which a fluid flows in a first direction; and - an inner fin (4, 5) disposed in the flow passage; - a first projecting portion provided on an inflow side of each of the heat transfer plates and configured to prevent the fluid from flowing into gaps between both ends of the inner fin (4, 5) in a second direction and both ends of the heat transfer plate in the second direction; and - a second projecting portion formed on an outflow side of each of the heat transfer plates and configured to perform positioning in placing the inner fin (4, 5) into the heat transfer plate, - the first direction being a direction of flow of the fluid through the flow passage, - the second direction being a direction orthogonal to the first direction, and - the inner fin (4, 5) being disposed between the first projecting portion and the second projecting portion. - the inner fin (4, 5) being disposed between the first projecting portion and the second projecting portion.
A method for fabricating an antenna device of a mobile communication terminal, the method comprising: selecting antenna patterns according to a usable frequency band; selecting and fabricating magneto dielectric modules for controlling resonance frequencies of the selected antenna patterns; selecting and fabricating dielectric modules for controlling the resonance frequencies of the selected antenna patterns; selecting and fabricating a antenna pattern having a number of resonance frequencies required for the terminal from among the selected antenna patterns (15,16,17); and selecting and installing at least one of the magneto dielectric modules and/or at least one of the dielectric modules applied to the antenna pattern to tune the resonance frequencies of the antenna pattern according to the resonance frequencies for the terminal; selecting antenna patterns according to a usable frequency band; selecting and fabricating magneto dielectric modules for controlling resonance frequencies of the selected antenna patterns; selecting and fabricating dielectric modules for controlling the resonance frequencies of the selected antenna patterns; selecting and fabricating a antenna pattern having a number of resonance frequencies required for the terminal from among the selected antenna patterns (15,16,17); and selecting and installing at least one of the magneto dielectric modules and/or at least one of the dielectric modules applied to the antenna pattern to tune the resonance frequencies of the antenna pattern according to the resonance frequencies for the terminal;
A support and grip device, particularly for protective shields, comprising a receptacle for accommodating a forearm of a user, and a handle, which faces and is proximate to said receptacle and has at least one portion that can be held by the user to grip the shield, said at least one portion of said handle being arranged substantially along a direction that is inclined with respect to a reference straight line, said reference straight line being parallel to a plane for anchoring the receptacle to the shield and perpendicular to the axis defined by the forearm, when the forearm is accommodated in said receptacle, for the grip of the handle by the user in a manner that conforms to the posture of the hand, said handle comprising a central segment, which constitutes said at least one portion, and two lateral portions (8a, 8b), which are connected respectively to corresponding ends of said central segment and have, on the opposite side, respective points for fixing to the shield, the support and grip device being characterized in that - said lateral portions (8a, 8b) are inclined with respect to the perpendicular to the plane of the shield, for coupling to said fixing points, which are aligned along a direction that is substantially perpendicular to said axis of the forearm of said user. - said lateral portions (8a, 8b) are inclined with respect to the perpendicular to the plane of the shield, for coupling to said fixing points, which are aligned along a direction that is substantially perpendicular to said axis of the forearm of said user.