mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving at a recipient entity mail processing system from a sender mail processing system of a sender of a mall piece a request for an internal recipient address, wherein the internal recipient address comprises a name and internal location of an employee within the recipient entity, and wherein the recipient entity mail processing system and the sender mail processing system are coupled to a network; comparing, in the recipient entity mail processing system, information included in the request with information stored in a database to determine, based on the information included in the request, a correct internal recipient address; providing a delivery code associated with the actual employee name and location internally to the recipient entity from the recipient entity mail processing system to the sender mall processing system, wherein the delivery code is randomly or pseudo-randomly generated such that it is unique for each mail piece; receiving by the recipient entity a mail piece from the sender with the delivery code on it; determining, by the recipient entity mail processing system, based on the delivery code and information stored in the database, the name and location of the actual employee to which the mail piece is to be delivered. receiving at a recipient entity mail processing system from a sender mail processing system of a sender of a mall piece a request for an internal recipient address, wherein the internal recipient address comprises a name and internal location of an employee within the recipient entity, and wherein the recipient entity mail processing system and the sender mail processing system are coupled to a network; comparing, in the recipient entity mail processing system, information included in the request with information stored in a database to determine, based on the information included in the request, a correct internal recipient address; providing a delivery code associated with the actual employee name and location internally to the recipient entity from the recipient entity mail processing system to the sender mall processing system, wherein the delivery code is randomly or pseudo-randomly generated such that it is unique for each mail piece; receiving by the recipient entity a mail piece from the sender with the delivery code on it; determining, by the recipient entity mail processing system, based on the delivery code and information stored in the database, the name and location of the actual employee to which the mail piece is to be delivered.
A fitting for a building door, with an actuator, in particular a door knob, with an electrical drive, and with a battery compartment for the reception of at least one energy accumulator, which serves for supplying electrical current to the drive, wherein the electrical drive and/or the battery compartment are/is disposed in the actuator, wherein at least two electrical conductors (37, 38, 91, 92), which are disposed within the actuator, serve for involving the battery compartment and/or the drive in an electrical circuit, characterized in that the electrical conductors (37, 38, 91, 92) are torque-proof supported in the actuator, wherein a guide for the torque-proof support of the electrical conductors (37, 38, 91, 92) is provided, and the guide is configured by means of a passage of a support element, which serves for supporting the actuator at a fitting body and projects into the actuator.
A method for identifying semantic entities within an audio signal, comprising: obtaining, by a computing device comprising one or more processors and one or more memory devices, an audio signal concurrently heard by a user; receiving, by the computing device, a request from a user to display one or more semantic entities; determining, by the computing device, a selected portion of the audio signal for analysis based at least in part on a predetermined time period preceding receipt of the request from the user to display the one or more semantic entities; analyzing, by a machine-learned model stored on the computing device, the selected portion of the audio signal in a background of the computing device to determine the one or more semantic entities; and in response to receiving the request, displaying the one or more semantic entities on a display screen of the computing device. obtaining, by a computing device comprising one or more processors and one or more memory devices, an audio signal concurrently heard by a user; receiving, by the computing device, a request from a user to display one or more semantic entities; determining, by the computing device, a selected portion of the audio signal for analysis based at least in part on a predetermined time period preceding receipt of the request from the user to display the one or more semantic entities; analyzing, by a machine-learned model stored on the computing device, the selected portion of the audio signal in a background of the computing device to determine the one or more semantic entities; and in response to receiving the request, displaying the one or more semantic entities on a display screen of the computing device.
A method, comprising: moving a mold including a molten casting material in a first direction; and guiding an interface, which is defined by a baffle, and separates a heat source region on a first side of the interface from a heat sink region on a second side of the interface, across the mold in a second direction in response to the moving the mold effective to advance a solidification front of the casting material along a mold axis extending in the second direction, wherein the second direction is deviated from the first direction, wherein the interface is inclined relative to the horizontal direction and is deviated from the first direction at a non-perpendicular angle and is deviated from the mold axis extending in the second direction at a non-perpendicular angle. moving a mold including a molten casting material in a first direction; and guiding an interface, which is defined by a baffle, and separates a heat source region on a first side of the interface from a heat sink region on a second side of the interface, across the mold in a second direction in response to the moving the mold effective to advance a solidification front of the casting material along a mold axis extending in the second direction, wherein the second direction is deviated from the first direction, wherein the interface is inclined relative to the horizontal direction and is deviated from the first direction at a non-perpendicular angle and is deviated from the mold axis extending in the second direction at a non-perpendicular angle.
A computer-implemented method of recognizing verbal commands, comprising: capturing at least one depth image by a depth camera positioned in a vehicle, each of the depth image covering at least part of a user and comprising pixels representing distances from the depth camera to the at least part of the user; recognizing a pose or gesture of the user based on the captured depth image; generating gesture information based on the recognized pose or gesture, the gesture information indicating a direction pointed by the user outward of the vehicle towards a point-of-interest outside the vehicle; determining one or more devices among a plurality of devices that are likely to be targeted by the user for an operation by analyzing the gesture information and without performing speech recognition on an audio signal including an utterance by the user; selecting a plurality of verbal commands associated with the one or more devices determined as likely being targeted; receiving the audio signal including the utterance by the user at a time when the at least one depth image is being captured; and determining a device command for operating the one or more devices likely being targeted by performing speech recognition on the audio signal using the selected plurality of verbal commands, the determined device command representing an action associated with the point-of-interest. capturing at least one depth image by a depth camera positioned in a vehicle, each of the depth image covering at least part of a user and comprising pixels representing distances from the depth camera to the at least part of the user; recognizing a pose or gesture of the user based on the captured depth image; generating gesture information based on the recognized pose or gesture, the gesture information indicating a direction pointed by the user outward of the vehicle towards a point-of-interest outside the vehicle; determining one or more devices among a plurality of devices that are likely to be targeted by the user for an operation by analyzing the gesture information and without performing speech recognition on an audio signal including an utterance by the user; selecting a plurality of verbal commands associated with the one or more devices determined as likely being targeted; receiving the audio signal including the utterance by the user at a time when the at least one depth image is being captured; and determining a device command for operating the one or more devices likely being targeted by performing speech recognition on the audio signal using the selected plurality of verbal commands, the determined device command representing an action associated with the point-of-interest.
Method for testing the authenticity of a measurement cell consisting of a transparent material, which is suitable for use in a photometric detection system, and wherein the transparent material contains at least one light-absorbing substance, characterized by the following steps: a) measuring the absorption of a plurality of transparent reference objects respectively at least at two different wavelengths, storing the absorption measurement values as reference values and forming a reference class; b) measuring the absorption of the measurement cell to be tested for authenticity at the wavelengths used in step a); c) comparing the absorption measurement values of the measurement cell to be tested for authenticity with the values of the reference class. a) measuring the absorption of a plurality of transparent reference objects respectively at least at two different wavelengths, storing the absorption measurement values as reference values and forming a reference class; b) measuring the absorption of the measurement cell to be tested for authenticity at the wavelengths used in step a); c) comparing the absorption measurement values of the measurement cell to be tested for authenticity with the values of the reference class.
A method for establishing the presence of specified characteristics of a container product (9, 11, 109, 111) produced by the blow moulding, filling and sealing method, in particular made of plastic material, the actual value of at least one specified characteristic being automatically recorded in at least one test station (1-7, 101-107) and being compared with the target value of this characteristic, characterised in that - in a container product in the form of a strip of containers (9, 109) with containers (11, 111) made of plastic which are connected to one another separably at connection points, the containers (11, 111) are separated mechanically, and the separating force required for the separation is recorded, or - in an independent, preferably first test station (1, 101) containers are separated by twisting off of the strip of containers (9, 109), and the torque required for the twisting off is automatically recorded, and/or - with containers (11, 111) filled with a container content, the separated containers (11, 111) are brought mechanically into a test station (2, 102) and are weighed in the latter in order to record their overall weight automatically, and the weighed containers (11, 111) are brought mechanically into a test station (3, 103) and are emptied here, and the emptied containers (11, 111) are brought mechanically into a test station (4, 104) and are weighed in the latter in order to record their empty weight, and the recorded overall weight is automatically compared with the recorded empty weight in order to establish the weight of the container content. - in a container product in the form of a strip of containers (9, 109) with containers (11, 111) made of plastic which are connected to one another separably at connection points, the containers (11, 111) are separated mechanically, and the separating force required for the separation is recorded, or - in an independent, preferably first test station (1, 101) containers are separated by twisting off of the strip of containers (9, 109), and the torque required for the twisting off is automatically recorded, and/or - with containers (11, 111) filled with a container content, the separated containers (11, 111) are brought mechanically into a test station (2, 102) and are weighed in the latter in order to record their overall weight automatically, and the weighed containers (11, 111) are brought mechanically into a test station (3, 103) and are emptied here, and the emptied containers (11, 111) are brought mechanically into a test station (4, 104) and are weighed in the latter in order to record their empty weight, and the recorded overall weight is automatically compared with the recorded empty weight in order to establish the weight of the container content.
A scrubbing sponge, comprising a base of sponge material and a scourer deposited on the base, the scourer is comprised of grains of material having a hardness greater than the sponge material and less than 4.5 on the Mohs' scale, the base having a surface with open cells provided with rims and the scourer being deposited on the rims of the cells characterized in that the scourer is deposited on the rims of the cells so that the cells are not filled with the scourer.
A display panel, comprising: several pixel groups arranged in a matrix which consist of N-row × M-column subpixels, gate lines (Gate) connected to subpixels of respective rows, and a plurality of data lines (Data) connected to subpixels of respective columns; wherein N is a positive integer greater than 2, M is a positive integer greater than 1, and in one and the same pixel group, subpixels of each column comprise subpixels of at least two different colors, a plurality of operational amplifiers (21, 22, 23) corresponding to a data line (Data), a respective operational amplifier (21, 22, 23) arranged to be connected to a corresponding data line (Data) via a corresponding switching device, respectively, and a control unit connected to respective switching devices, wherein, the number of operational amplifiers (21, 22, 23) corresponding to each data line (Data) is equal to the number of different color subpixels in the same pixel group connected to each data line (Data), and each operational amplifier (21,22, 23) is configured to output data signals to subpixels of the same color connected to a corresponding data line (Data) successively according to a scanning order of the gate lines (Gate); the control unit is configured to control a switching device connected to the data line (Data) to be in a conducting state when a gate line (Gate) connected to a row of pixels is scanned, wherein the switching device controlled to be in the conducting state is a switching device connected to the operational amplifier (21, 22, 23) configured to output a data signal to the data line corresponding to the color of the subpixel connected to said data line on the scanned row; and the plurality of operational amplifiers (21, 22, 23) are configured such that, in each column of subpixels, data signals are outputted by different operational amplifiers (21, 22, 23) respectively to subpixels of the different colors, and data signals are outputted by a same operational amplifier (21, 22, 23) to the subpixels of the same color.
A semiconductor device comprising: a semiconductor substrate; an interlayer insulating film (INS1, INS2, INS3) formed over the semiconductor substrate and having a main surface; a first wiring (M1W) and a second wiring (M2W) which are embedded in the interlayer insulating film (INS1, INS2, INS3) and are adjacent to each other; wherein the first wiring (M1W) and the second wiring (M2W) are mainly made of a copper film, characterized in that: a region (DM1, ER1) having a nitrogen concentration higher than that of the interlayer insulating film (INS1, INS2, INS3) is formed in the first main surface of the interlayer insulating film (INS1, INS2, INS3) between the first wiring (M1W) and the second wiring (M2W), and a lower portion of the region (DM1, ER1) acts as an electric field relaxation layer and has a higher nitrogen concentration than an upper portion of the region that is a damage layer. a semiconductor substrate; an interlayer insulating film (INS1, INS2, INS3) formed over the semiconductor substrate and having a main surface; a first wiring (M1W) and a second wiring (M2W) which are embedded in the interlayer insulating film (INS1, INS2, INS3) and are adjacent to each other; wherein the first wiring (M1W) and the second wiring (M2W) are mainly made of a copper film, characterized in that: a region (DM1, ER1) having a nitrogen concentration higher than that of the interlayer insulating film (INS1, INS2, INS3) is formed in the first main surface of the interlayer insulating film (INS1, INS2, INS3) between the first wiring (M1W) and the second wiring (M2W), and a lower portion of the region (DM1, ER1) acts as an electric field relaxation layer and has a higher nitrogen concentration than an upper portion of the region that is a damage layer. a region (DM1, ER1) having a nitrogen concentration higher than that of the interlayer insulating film (INS1, INS2, INS3) is formed in the first main surface of the interlayer insulating film (INS1, INS2, INS3) between the first wiring (M1W) and the second wiring (M2W), and a lower portion of the region (DM1, ER1) acts as an electric field relaxation layer and has a higher nitrogen concentration than an upper portion of the region that is a damage layer.
Ophthalmological device for processing eye tissue, comprising a laser source configured to generate a pulsed laser beam; a focusing optical unit configured to focus a processing laser beam into the eye tissue, and a scanner system configured to direct the processing laser beam into the eye tissue in accordance with predefined scanning patterns; furthermore comprising a beam splitting system disposed upstream of the scanner system and configured to generate the processing laser beam from the pulsed laser beam in such a way that the processing laser beam comprises a first beam part and a second beam part, wherein the first beam part is focused by the focusing optical unit onto a first outer surface of a lenticule to be cut in the eye tissue, and the second beam part is focused onto a different, second outer surface of the lenticule to be cut in the eye tissue, and that, in the course of directing the processing laser beam into the eye tissue by means of the scanner system, the first outer surface is processed by the first beam part and the second outer surface is processed by the second beam part.
A polarized ultraviolet light splitting element, comprising: a substrate layer; and a stripe-shaped convex portion comprising a titanium metal composite oxide which is a titanium oxide formed in parallel stripes on the substrate layer, the polarised ultraviolet light splitting element being characterised in that the titanium metal composite oxide is a doped titanium oxide and is represented by the following Chemical Formula 1: [Chemical Formula 1] TixMyO 2 wherein M is Ni, Cr, Cu, Fe, B, V. Nb, Sb, Sn, Si, or Al, y is 0.01 to 0.2, and (x+y) is 1. a substrate layer; and a stripe-shaped convex portion comprising a titanium metal composite oxide which is a titanium oxide formed in parallel stripes on the substrate layer, the polarised ultraviolet light splitting element being characterised in that the titanium metal composite oxide is a doped titanium oxide and is represented by the following Chemical Formula 1: [Chemical Formula 1] TixMyO 2 wherein M is Ni, Cr, Cu, Fe, B, V. Nb, Sb, Sn, Si, or Al, y is 0.01 to 0.2, and (x+y) is 1.
A point chisel, comprising: a substantially circular cross-section shank having a longitudinal axis; and a tapered working end region in which the shank tapers to a working point; wherein the tapered working end region comprises at least three converging substantially planar surfaces, wherein adjacent planar surfaces meet each other along at least part of their length at a substantially straight edge region situated between adjacent elongate ribs, characterised in that, each of the planar surfaces is ribbed and includes an elongate rib protruding therefrom and extending along at least part of the length thereof. a substantially circular cross-section shank having a longitudinal axis; and a tapered working end region in which the shank tapers to a working point; wherein the tapered working end region comprises at least three converging substantially planar surfaces, wherein adjacent planar surfaces meet each other along at least part of their length at a substantially straight edge region situated between adjacent elongate ribs, characterised in that, each of the planar surfaces is ribbed and includes an elongate rib protruding therefrom and extending along at least part of the length thereof.
A hydrofluoroolefin compound represented by the following general formula: in which, Rf 1 and Rf 2 are (i) independently linear or branched fluoroalkyl groups having 1 to 8 carbon atoms and optionally include one or more catenated heteroatoms; or (ii) bonded together to form a ring structure having 4 to 8 carbon atoms and optionally include one or more catenated heteroatoms; α is CF 3, F, or H; β is F or H; γ is CF 3, F, CF 2 H, CFH 2, or CH 3, and the compound includes a total of 1 to 4 H atoms; and with the provisos that at least one of α and γ is F or H; when γ is CF 3 or F, at least one of α and P is H; when γ is CH 3, at least one of α and β is F; and when α is CF 3, then β is H and γ is F; wherein at least one of Rf 1 and Rf 2 have two or more carbon atoms; wherein the heteroatom in the catenated heteroatom is selected from oxygen, nitrogen, and sulfur and a catenated nitrogen atom, if present, is a tertiary nitrogen wherein the nitrogen atom is bonded to three perfluorinated carbon atoms. in which, Rf 1 and Rf 2 are (i) independently linear or branched fluoroalkyl groups having 1 to 8 carbon atoms and optionally include one or more catenated heteroatoms; or (ii) bonded together to form a ring structure having 4 to 8 carbon atoms and optionally include one or more catenated heteroatoms; (i) independently linear or branched fluoroalkyl groups having 1 to 8 carbon atoms and optionally include one or more catenated heteroatoms; or (ii) bonded together to form a ring structure having 4 to 8 carbon atoms and optionally include one or more catenated heteroatoms; α is CF 3, F, or H; β is F or H; γ is CF 3, F, CF 2 H, CFH 2, or CH 3, and the compound includes a total of 1 to 4 H atoms; and with the provisos that at least one of α and γ is F or H; when γ is CF 3 or F, at least one of α and P is H; when γ is CH 3, at least one of α and β is F; and when α is CF 3, then β is H and γ is F; wherein at least one of Rf 1 and Rf 2 have two or more carbon atoms; wherein the heteroatom in the catenated heteroatom is selected from oxygen, nitrogen, and sulfur and a catenated nitrogen atom, if present, is a tertiary nitrogen wherein the nitrogen atom is bonded to three perfluorinated carbon atoms.