mhurhangee/ep-ind-claims huggingface dataset:
A display substrate, comprising a display region and a peripheral region surrounding the display region, wherein the display region comprises an opening, and the peripheral region comprises an opening peripheral region at least partially in the opening; the display substrate comprises a base substrate, a semiconductor pattern, a first conductive pattern, and a second conductive pattern, the semiconductor pattern, the first conductive pattern, and the second conductive pattern being in the opening peripheral region; the semiconductor pattern is on the base substrate, the first conductive pattern is on a side of the semiconductor pattern away from the base substrate, and the second conductive pattern is on a side of the first conductive pattern away from the semiconductor pattern; the first conductive pattern is configured to transmit an electrical signal for the display region; the first conductive pattern comprises a plurality of first wire groups arranged side by side in a first direction, and each of the first wire groups comprises at least two first wires arranged side by side in the first direction; in a direction perpendicular to the base substrate, each of the at least two first wires is spaced and insulated from the semiconductor pattern and the second conductive pattern, respectively, so as to be able to form a capacitor; and the semiconductor pattern is electrically connected to the second conductive pattern through a plurality of via holes in the opening peripheral region, and the plurality of via holes are between adjacent first wire groups in the first direction. wherein the display region comprises an opening, and the peripheral region comprises an opening peripheral region at least partially in the opening; the display substrate comprises a base substrate, a semiconductor pattern, a first conductive pattern, and a second conductive pattern, the semiconductor pattern, the first conductive pattern, and the second conductive pattern being in the opening peripheral region; the semiconductor pattern is on the base substrate, the first conductive pattern is on a side of the semiconductor pattern away from the base substrate, and the second conductive pattern is on a side of the first conductive pattern away from the semiconductor pattern; the first conductive pattern is configured to transmit an electrical signal for the display region; the first conductive pattern comprises a plurality of first wire groups arranged side by side in a first direction, and each of the first wire groups comprises at least two first wires arranged side by side in the first direction; in a direction perpendicular to the base substrate, each of the at least two first wires is spaced and insulated from the semiconductor pattern and the second conductive pattern, respectively, so as to be able to form a capacitor; and the semiconductor pattern is electrically connected to the second conductive pattern through a plurality of via holes in the opening peripheral region, and the plurality of via holes are between adjacent first wire groups in the first direction.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, X 1 to X 3 are the same as or different from each other, and are each independently N or CR 1, at least one of X 1 to X 3 is N, R 1 is hydrogen or deuterium, Y 1 is a substituted or unsubstituted naphthylene group, L 1 is a substituted or unsubstituted arylene group L 2 to L 4 are the same as or different from each other, and are each independently a direct bond; a substituted or unsubstituted arylene group; a substituted or unsubstituted heteroarylene group; or a substituted or unsubstituted divalent arylamine group, Ar 1 and Ar 2 are the same as or different from each other, and are each independently a halogen group; an amino group; a nitrile group; a nitro group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group, and Ar 3 and Ar 4 are the same as or different from each other, and are each independently a substituted or unsubstituted pyridyl group. X 1 to X 3 are the same as or different from each other, and are each independently N or CR 1, at least one of X 1 to X 3 is N, R 1 is hydrogen or deuterium, Y 1 is a substituted or unsubstituted naphthylene group, L 1 is a substituted or unsubstituted arylene group L 2 to L 4 are the same as or different from each other, and are each independently a direct bond; a substituted or unsubstituted arylene group; a substituted or unsubstituted heteroarylene group; or a substituted or unsubstituted divalent arylamine group, Ar 1 and Ar 2 are the same as or different from each other, and are each independently a halogen group; an amino group; a nitrile group; a nitro group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group, and Ar 3 and Ar 4 are the same as or different from each other, and are each independently a substituted or unsubstituted pyridyl group.
An attachment (10; 110; 210) for a tracheal cannula (57; 157), the attachment (10; 110; 210) surrounding a cavity (20; 120; 220), the attachment (10; 110; 210) being open or openable both in a coupling area (12; 112; 212) of the attachment (10; 110; 210) as well as in an orifice area (16; 116; 216) of the attachment (10; 110; 210), differing in location from the coupling area (12; 112; 212), for providing an access to the cavity (20; 120; 220), the attachment (10; 110; 210) having in the coupling area (12; 112; 212) a latching formation (38; 138; 238), which is designed for a releasable connection to a mating latching formation (60, 62; 162) of the tracheal cannula (57; 157), the coupling area (12; 112; 212) surrounding a section of the cavity, the section of the cavity (20; 120; 220) surrounded by the coupling area (12; 112; 212) being centrally penetrated by virtual coupling axis, the coupling axis defining an axial direction (a) along its path, defining a plurality of radial directions (r) orthogonally to its path and defining a circumferential direction (u) running around it, the coupling area (12; 112; 212) having at least one support section (26, 28; 126, 128; 226, 228), on which at a first location the latching formation (38; 138; 238) is situated and at a second location distinct from the first location a force application area (36; 136; 236) is situated in such a way that by exerting an actuating force on the force application area (36; 136; 236) in the radial direction toward the coupling axis, the support section (26, 28; 126, 128; 226, 228) is displaceable between two positions of different radial distance of the latching formation (38; 138; 238) situated on the support section (26, 28; 126, 128; 226, 228) from the coupling axis, wherein the force application area (36; 136; 236) and the latching formation (38; 138; 238) displaceable by an exertion of force on the force application area (36; 136; 236) of the same support section (26, 28; 126, 128; 226, 228) are situated along the coupling axis at an axial distance (d) from each other, characterized in that the attachment (10; 110; 210) is formed between the coupling area (12; 112; 212) and the orifice area (16; 116; 216) as a tube or a hood curved around an axis of curvature that is orthogonal to the coupling axis. wherein the force application area (36; 136; 236) and the latching formation (38; 138; 238) displaceable by an exertion of force on the force application area (36; 136; 236) of the same support section (26, 28; 126, 128; 226, 228) are situated along the coupling axis at an axial distance (d) from each other, characterized in that the attachment (10; 110; 210) is formed between the coupling area (12; 112; 212) and the orifice area (16; 116; 216) as a tube or a hood curved around an axis of curvature that is orthogonal to the coupling axis.
A method for determining an active time of user equipment, UE, wherein the method comprises: acquiring, by a UE, extension information of a discontinuous transmission, DTX active time of a base station, wherein the extension information is used to indicate extension performed by the base station on the DTX active time of the base station; and adjusting a DTX active time of the UE according to the extension information, and using an overlapped time between the DTX active time of the UE and a discontinuous reception, DRX active time of the UE as an active time of the UE for listening on a physical downlink control channel, PDCCH channel, wherein the DTX active time of the UE is the DTX active time of the base station learned by the UE. acquiring, by a UE, extension information of a discontinuous transmission, DTX active time of a base station, wherein the extension information is used to indicate extension performed by the base station on the DTX active time of the base station; and adjusting a DTX active time of the UE according to the extension information, and using an overlapped time between the DTX active time of the UE and a discontinuous reception, DRX active time of the UE as an active time of the UE for listening on a physical downlink control channel, PDCCH channel, wherein the DTX active time of the UE is the DTX active time of the base station learned by the UE.
A method of making an article having an anti-glare surface, comprising: depositing deformable particles on a portion of at least one glass surface of the article comprising contacting the glass surface with a suspension of wax particles, polymer particles, or a combination thereof; deforming the deposited deformable particles on the surface by heating to adhere the particles to the glass surface; and contacting the glass surface having the adhered particles with an etchant to form the anti-glare surface. depositing deformable particles on a portion of at least one glass surface of the article comprising contacting the glass surface with a suspension of wax particles, polymer particles, or a combination thereof; deforming the deposited deformable particles on the surface by heating to adhere the particles to the glass surface; and contacting the glass surface having the adhered particles with an etchant to form the anti-glare surface.
Absorber tube comprising a metal tube and a sleeve tube, which is made of a material transparent to solar radiation and encloses the metal tube, wherein an annular space which is evacuated and has at least one container filled with protective gas is formed between the metal tube and the sleeve tube, characterized in that the container is a solderless pressure container.
A push-pull type fiber optic assembly adapted for connecting to a fiber optic connector adapter, comprising a fiber optic connector (100, 2100) having a housing (102, 2102) with a top housing surface and a bottom housing surface, the assembly further comprising a push-pull mechanism (104, 2104), wherein the push-pull mechanism (104, 2104) comprises: a main body (250, 2210) having a front portion (254, 2214), a middle portion (256, 2216) and a rear portion (258, 2218); a latch body (252, 2212), comprising at least one latch (310, 2280) for engaging the fiber optic connector adapter and connected to the front portion of the main body, the front portion having at least one window (266, 2236) to receive the at least one latch (310, 2280) therethrough from the latch body, and a rail portion (290, 292, 294, 2256, 2258) extending along side portions of the latch body and the main body to slidably engage the fiber optic connector housing (102, 2102) on one of the top housing surface and the bottom housing surface. a main body (250, 2210) having a front portion (254, 2214), a middle portion (256, 2216) and a rear portion (258, 2218); a latch body (252, 2212), comprising at least one latch (310, 2280) for engaging the fiber optic connector adapter and connected to the front portion of the main body, the front portion having at least one window (266, 2236) to receive the at least one latch (310, 2280) therethrough from the latch body, and a rail portion (290, 292, 294, 2256, 2258) extending along side portions of the latch body and the main body to slidably engage the fiber optic connector housing (102, 2102) on one of the top housing surface and the bottom housing surface.
Filling element for filling a container with a filling product, comprising a filling valve for controlling the filling product flow flowing into the container and a swirler having at least one guide surface by means of which the filling product flowing into the container is able to be set into a rotational movement, characterised in that the gradient of the guide surface of the swirler is variable such that the gradient of the guide surface of this single swirler is adaptable.
A computer-implemented method comprising: determining, by a processing device, a first shape of a main body of a mold of a dental arch for a patient, wherein the mold comprises multiple separate molds; determining, by the processing device, a second shape of a separable feature of the mold; determining, by the processing device, a third shape and configuration of a receiving element of the main body to receive the separable feature, wherein the receiving element comprises one or more slots or holes formed by the main body and is configured to receive the separable feature, wherein the separable feature has one or more protrusions configured to be inserted into the receiving element of the main body, and wherein the separable feature is mechanically affixed to the main body via insertion into the receiving element of the main body; and outputting, by the processing device, instructions for fabricating, via a fabrication machine, the separable feature and the main body that includes the receiving element for receiving the separable feature. determining, by a processing device, a first shape of a main body of a mold of a dental arch for a patient, wherein the mold comprises multiple separate molds; determining, by the processing device, a second shape of a separable feature of the mold; determining, by the processing device, a third shape and configuration of a receiving element of the main body to receive the separable feature, wherein the receiving element comprises one or more slots or holes formed by the main body and is configured to receive the separable feature, wherein the separable feature has one or more protrusions configured to be inserted into the receiving element of the main body, and wherein the separable feature is mechanically affixed to the main body via insertion into the receiving element of the main body; and outputting, by the processing device, instructions for fabricating, via a fabrication machine, the separable feature and the main body that includes the receiving element for receiving the separable feature.
A sensor arrangement, comprising; an object; and a sensor device for measuring a property of the object, the sensor device comprising a magnetic field generator adapted to generate a magnetic field in at least a part of the object; at least one magnetic field detector adapted to detect at least one detection signal in response to the magnetic field generated in at least a part of the object, wherein the at least one detection signal is indicative of the property of the object; wherein a direct current or a direct voltage is applicable to the magnetic field generator to generate temporarily the magnetic field in at least a part of the object; the magnetic field generator has a reception for receiving the object, wherein the reception is a central opening provided in the magnetic field generator, and wherein the object is a shaft; the object is a movable object; the object is made of a magnetic material or is made of a magnetizable material; the property of the object is a torque applied to the object, a force applied to the object, or a shear force applied to the object; and wherein the at least one magnetic field detector is arranged on or integrated in the magnetic field generator and the sensor arrangement is configured to measure the property of the object during application of the direct current or the direct voltage.
A method for transmitting seismic data in a seismic field, comprising: receiving, at a data acquisition cell, a backup assignment table from a recorder system; transmitting seismic data from the data acquisition cell to a first communication device; and transmitting the seismic data from the data acquisition cell to a second communication device in accordance with the backup assignment table if no acknowledge receipt of the seismic data is received by the data acquisition cell from the first communication device. receiving, at a data acquisition cell, a backup assignment table from a recorder system; transmitting seismic data from the data acquisition cell to a first communication device; and transmitting the seismic data from the data acquisition cell to a second communication device in accordance with the backup assignment table if no acknowledge receipt of the seismic data is received by the data acquisition cell from the first communication device.
A load drive apparatus of a motored vehicle having a transmission between a motor for generating force driving said vehicle and a driving wheel of said vehicle, comprising: a drive device for driving said motor; an upconverter for receiving direct current voltage from a direct current power supply to upconvert the direct current voltage and supply the upconverted voltage to said drive device; up-conversion control means (30; 104) for setting said upconverted voltage, as based on an output of said motor, and controlling said upconverter to generate said upconverted voltage set; and torque control means (30; 102, 106) for controlling said drive device, characterized in that said torque control means (30; 102, 106) is adapted to reduce a torque output of said motor when said transmission is shifting gears, and said up-conversion control means (30; 104) is adapted to control said upconverter, when said transmission is shifting gears, to prevent said up-converted voltage from decreasing, as said torque control means reduces the torque output of said motor, and to allow said up-converted voltage to increase, as the torque output of said motor recovers. a drive device for driving said motor; an upconverter for receiving direct current voltage from a direct current power supply to upconvert the direct current voltage and supply the upconverted voltage to said drive device; up-conversion control means (30; 104) for setting said upconverted voltage, as based on an output of said motor, and controlling said upconverter to generate said upconverted voltage set; and torque control means (30; 102, 106) for controlling said drive device, characterized in that said torque control means (30; 102, 106) is adapted to reduce a torque output of said motor when said transmission is shifting gears, and said up-conversion control means (30; 104) is adapted to control said upconverter, when said transmission is shifting gears, to prevent said up-converted voltage from decreasing, as said torque control means reduces the torque output of said motor, and to allow said up-converted voltage to increase, as the torque output of said motor recovers.
A system for neuromodulation, especially for neurostimulation, for the treatment of a subject, comprising - at least a stimulation controller, - at least a stimulation pattern storage means, which is connected to stimulation controller and which comprises stimulation data, - at least an electrical stimulation device, - at least an electrical interface between the electrical stimulation device and the subject, the electrical interface being connectable with at least a bio-interface of or with the nervous system of the subject, wherein the electrical interface and the bio-interface are arranged such that signals and/or data can be exchanged from the electrical interface to the bio-interface, preferably also vice versa, wherein the stimulation data are pre-programmed patterns, which comprise at least - a spatial component, which is related to the part of the nervous system being stimulated - a temporal component, which is related to the time at which each spatial component mentioned above is applied. and wherein the stimulation controller is capable to send configuration signals on the basis of the stimulation data to the electrical stimulation device such that via the electrical interface electrical stimulation can be provided to the bio-interface, wherein the electrical stimulation provided is characterized by stimulation parameters that vary over time in a pre-programmed manner. - at least a stimulation controller, - at least a stimulation pattern storage means, which is connected to stimulation controller and which comprises stimulation data, - at least an electrical stimulation device, - at least an electrical interface between the electrical stimulation device and the subject, the electrical interface being connectable with at least a bio-interface of or with the nervous system of the subject, wherein the electrical interface and the bio-interface are arranged such that signals and/or data can be exchanged from the electrical interface to the bio-interface, preferably also vice versa, - a spatial component, which is related to the part of the nervous system being stimulated - a temporal component, which is related to the time at which each spatial component mentioned above is applied.
A cell identification method performable by a wireless device operating in a wireless communication network, the method comprising: determining a discontinuous reception, DRX, state associated with a downlink active state, DL_DRX_Active =1, in a wireless device, being characterised by the steps of: comparing in the wireless device the DRX cycle set by the wireless communication network to a threshold, the threshold expressed as integral number of subframes; and adjusting the DRX switching time of the wireless device to enablethe wireless device in the active DRX state to identify and decode (240, 250) a system frame number, SFN, parameter of a newly detectable wireless cell within a predetermined time selected from a plurality of predetermined times (A, B) based on the results of the comparison. determining a discontinuous reception, DRX, state associated with a downlink active state, DL_DRX_Active =1, in a wireless device, being characterised by the steps of: comparing in the wireless device the DRX cycle set by the wireless communication network to a threshold, the threshold expressed as integral number of subframes; and adjusting the DRX switching time of the wireless device to enablethe wireless device in the active DRX state to identify and decode (240, 250) a system frame number, SFN, parameter of a newly detectable wireless cell within a predetermined time selected from a plurality of predetermined times (A, B) based on the results of the comparison. comparing in the wireless device the DRX cycle set by the wireless communication network to a threshold, the threshold expressed as integral number of subframes; and adjusting the DRX switching time of the wireless device to enablethe wireless device in the active DRX state to identify and decode (240, 250) a system frame number, SFN, parameter of a newly detectable wireless cell within a predetermined time selected from a plurality of predetermined times (A, B) based on the results of the comparison.