mhurhangee/patent-ind-claim-en huggingface dataset:
An alignment device comprising an optical fiber cable having an optical fiber which has a fiber core and a fiber cladding , the optical fiber cable having a decoupling plug at a decoupling-side fiber end of the optical fiber , the decoupling plug having at least one cladding light sensor arranged behind the decoupling-side fiber end for measuring cladding light , which emerges from the end face of the fiber cladding at the decoupling-side fiber end , and wherein the decoupling plug has a deflection optic which is arranged between the decoupling-side fiber end and the cladding light sensor and which directs at least a portion of the emerged cladding light onto the at least one cladding light sensor , and a device for displacing an input-coupling-side fiber end of the optical fiber and/or an input-coupling optic , which is arranged in front of the input-coupling-side fiber end for coupling light into the fiber core , relative to one another in the direction at right angles to the fiber axis (A) as a function of the sensor signal of the at least one cladding light sensor . an optical fiber cable having an optical fiber which has a fiber core and a fiber cladding , the optical fiber cable having a decoupling plug at a decoupling-side fiber end of the optical fiber , the decoupling plug having at least one cladding light sensor arranged behind the decoupling-side fiber end for measuring cladding light , which emerges from the end face of the fiber cladding at the decoupling-side fiber end , and wherein the decoupling plug has a deflection optic which is arranged between the decoupling-side fiber end and the cladding light sensor and which directs at least a portion of the emerged cladding light onto the at least one cladding light sensor , and a device for displacing an input-coupling-side fiber end of the optical fiber and/or an input-coupling optic , which is arranged in front of the input-coupling-side fiber end for coupling light into the fiber core , relative to one another in the direction at right angles to the fiber axis (A) as a function of the sensor signal of the at least one cladding light sensor .
A process for preparing a functionalized lithium anode, characterized in that it comprises contacting a lithium metal substrate with an aromatic diazonium salt in a solvent selected from toluene, tetrahydrofuran, 3,4-dihydro-2 H -pyran, 4-ethylmorpholine and 1,4-dioxane, wherein the functionalization takes place on the surface of the lithium metal substrate.
A method for wireless communication by a user equipment, UE , the method comprising: receiving , from a base station, BS , a plurality of synchronization signal blocks, SSBs, each SSB associated with a different transmit beam of the BS ; and transmitting a random-access preamble on a first random access channel, RACH, occasion associated with a first SSB of the plurality of SSBs, wherein the first RACH occasion is one of a plurality of RACH occasions associated with the plurality of SSBs, wherein the first RACH occasion is selected based on measurements of the plurality of SSBs, wherein the first SSB is associated with a first number of the plurality of RACH occasions and a second SSB of the plurality of SSBs is associated with a second number of the plurality of RACH occasions, wherein the first number is different than the second number. receiving , from a base station, BS , a plurality of synchronization signal blocks, SSBs, each SSB associated with a different transmit beam of the BS ; and transmitting a random-access preamble on a first random access channel, RACH, occasion associated with a first SSB of the plurality of SSBs, wherein the first RACH occasion is one of a plurality of RACH occasions associated with the plurality of SSBs, wherein the first RACH occasion is selected based on measurements of the plurality of SSBs, wherein the first SSB is associated with a first number of the plurality of RACH occasions and a second SSB of the plurality of SSBs is associated with a second number of the plurality of RACH occasions, wherein the first number is different than the second number.
A method of generating a total corneal power map , comprising: acquiring OCT data with a scan pattern centered on an eye cornea, wherein the scan pattern includes n radial scans (101-112) repeated r times, c circular scans (114-116) repeated r times, and n * raster scans (120-134) where the scan pattern is repeated m times, where each scan includes a A-scans, wherein the scan pattern is a pachymetry mapping pattern defined by one of (a=1024, r=2, n=12, c=1, n*=0, and m=1), (a=2048, r=4, n=16, c=2, n*=0, and m=1), or (a=2048, r=1, n=16, c=2, n*=0, and m=4), and wherein the values of n, r, c, n*, and m define OCT data acquisition for pachymetry mapping and include a circular scan; obtaining a corneal topography image of the eye; obtaining a pachymetry map from the OCT data; obtaining a corneal anterior power map from the corneal topography image; generating an elevation map from the corneal topography image; registering the pachymetry map with the elevation map; generating a corneal posterior surface from the elevation map and the pachymetry map; and generating the total corneal power map from the anterior power map and a power map associated with the corneal posterior surface. acquiring OCT data with a scan pattern centered on an eye cornea, wherein the scan pattern includes n radial scans (101-112) repeated r times, c circular scans (114-116) repeated r times, and n * raster scans (120-134) where the scan pattern is repeated m times, where each scan includes a A-scans, wherein the scan pattern is a pachymetry mapping pattern defined by one of (a=1024, r=2, n=12, c=1, n*=0, and m=1), (a=2048, r=4, n=16, c=2, n*=0, and m=1), or (a=2048, r=1, n=16, c=2, n*=0, and m=4), and wherein the values of n, r, c, n*, and m define OCT data acquisition for pachymetry mapping and include a circular scan; wherein the scan pattern is a pachymetry mapping pattern defined by one of (a=1024, r=2, n=12, c=1, n*=0, and m=1), (a=2048, r=4, n=16, c=2, n*=0, and m=1), or (a=2048, r=1, n=16, c=2, n*=0, and m=4), and wherein the values of n, r, c, n*, and m define OCT data acquisition for pachymetry mapping and include a circular scan; obtaining a corneal topography image of the eye; obtaining a pachymetry map from the OCT data; obtaining a corneal anterior power map from the corneal topography image; generating an elevation map from the corneal topography image; registering the pachymetry map with the elevation map; generating a corneal posterior surface from the elevation map and the pachymetry map; and generating the total corneal power map from the anterior power map and a power map associated with the corneal posterior surface.
Control assembly for a motor vehicle lock system having at least a first motor vehicle lock and a second motor vehicle lock , wherein the first and second motor vehicle lock are associated with a closure element of a motor vehicle , wherein the motor vehicle locks each can be brought into a main locking position and optionally a pre-locking position for a retaining engagement between a lock latch of the motor vehicle lock and a locking part , and into an opened position, wherein the motor vehicle lock system comprises a sensor assembly which determines sensor values for the respective position of the motor vehicle locks , wherein the first and the second motor vehicle lock each have a closing assembly which is provided for closing the respective motor vehicle lock in one respective closing process and which acts on the lock latch and/or the locking part, wherein the motor vehicle lock system has at least one, in particular in each case one, electric closing drive for the closing assemblies , wherein the control assembly triggers a closing routine on fulfillment of a starting criterion by the sensor values, in which closing routine the control assembly controls the at least one closing drive , characterized in that the control assembly generates a specific control specification for the closing processes according to the sensor values and in accordance with a coordination specification, in that according to the coordination specification the closing process of the first motor vehicle lock and the closing process of the second motor vehicle lock are each dependent both on the position of the first motor vehicle lock and on the position of the second motor vehicle lock , and in that the control assembly controls the at least one closing drive in accordance with the control specifications. wherein the control assembly triggers a closing routine on fulfillment of a starting criterion by the sensor values, in which closing routine the control assembly controls the at least one closing drive , characterized in that the control assembly generates a specific control specification for the closing processes according to the sensor values and in accordance with a coordination specification, in that according to the coordination specification the closing process of the first motor vehicle lock and the closing process of the second motor vehicle lock are each dependent both on the position of the first motor vehicle lock and on the position of the second motor vehicle lock , and in that the control assembly controls the at least one closing drive in accordance with the control specifications.
A method of wireless communication at a base station , comprising: receiving packets from a plurality of User Equipments, UEs (104, 404, 406, 408, 409, 410m 504, 506, 607, 508, 510, 750, 1002, 1302), at the base station using uplink communications between the plurality of UEs and the base station; determining a location associated with each of the plurality of packets received by the base station; determining whether to include each of the plurality of received packets in a combined packet based on whether the location associated with a corresponding packet received by the base station is within an area; and combining the packets from the plurality of UEs that satisfy the determination into a plurality of combined packets, wherein each combined packet is formed using an exclusive OR, XOR, function on a plurality of the determined packets; and broadcasting the plurality of combined packets from the base station. receiving packets from a plurality of User Equipments, UEs (104, 404, 406, 408, 409, 410m 504, 506, 607, 508, 510, 750, 1002, 1302), at the base station using uplink communications between the plurality of UEs and the base station; determining a location associated with each of the plurality of packets received by the base station; determining whether to include each of the plurality of received packets in a combined packet based on whether the location associated with a corresponding packet received by the base station is within an area; and combining the packets from the plurality of UEs that satisfy the determination into a plurality of combined packets, wherein each combined packet is formed using an exclusive OR, XOR, function on a plurality of the determined packets; and broadcasting the plurality of combined packets from the base station.
A building automation system, with - a stationary interface for communication between a user and a network, which includes at least one device that manages and processes in-building processes, wherein the stationary interface comprises a sensitive surface and processing logic adapted to directly or indirectly receive and process at least one command that controls the at least one device, and wherein a display and/or information device is provided coupled to the sensitive surface , wherein the sensitive surface is integrated into or applied to a building wall, the system further comprising a mobile device and being arranged for at least part of the configuration of the at least one device to be performed wirelessly via the mobile device in cooperation with the stationary interface, characterized in that the mobile device is a smartphone having a camera function configured to detect a non-contact gesture of the user and to transmit at least one command represented by the gesture to the stationary interface via a radio link, wherein the transmission of the at least one command is triggered by the gesture of the user. - a stationary interface for communication between a user and a network, which includes at least one device that manages and processes in-building processes, wherein the stationary interface comprises a sensitive surface and processing logic adapted to directly or indirectly receive and process at least one command that controls the at least one device, and wherein a display and/or information device is provided coupled to the sensitive surface , wherein the sensitive surface is integrated into or applied to a building wall, the system further comprising a mobile device and being arranged for at least part of the configuration of the at least one device to be performed wirelessly via the mobile device in cooperation with the stationary interface, characterized in that the mobile device is a smartphone having a camera function configured to detect a non-contact gesture of the user and to transmit at least one command represented by the gesture to the stationary interface via a radio link, wherein the transmission of the at least one command is triggered by the gesture of the user. wherein the stationary interface comprises a sensitive surface and processing logic adapted to directly or indirectly receive and process at least one command that controls the at least one device, and wherein a display and/or information device is provided coupled to the sensitive surface , wherein the sensitive surface is integrated into or applied to a building wall, the system further comprising a mobile device and being arranged for at least part of the configuration of the at least one device to be performed wirelessly via the mobile device in cooperation with the stationary interface, characterized in that the mobile device is a smartphone having a camera function configured to detect a non-contact gesture of the user and to transmit at least one command represented by the gesture to the stationary interface via a radio link, wherein the transmission of the at least one command is triggered by the gesture of the user.
An uplink data transmission resource obtaining method performed by a user equipment, the method comprising: • determining first network nodes, among a plurality of first network nodes that can provide an uplink data transmission resource, based on service types supported by the cells of the plurality of first network nodes and signal quality measurement results (S1001); • sending to each first network node of the determined first network nodes a resource obtaining request, wherein the resource obtaining request is used to obtain an uplink data transmission resource of the corresponding first network node (S1002); • receiving from each of the determined first network nodes a corresponding resource obtaining response, wherein each resource obtaining response comprises information indicating an uplink data transmission resource, (S1003); • selecting a first network node among the determined first network nodes based on the received resource obtaining responses as a serving network node (S1004); • determining an uplink data transmission resource that is provided by the serving network node for the user equipment according to the resource obtaining response of the serving network node (S1005); and • sending uplink data to the serving network node by using the uplink data transmission resource provided by the serving network node (S1006). • determining first network nodes, among a plurality of first network nodes that can provide an uplink data transmission resource, based on service types supported by the cells of the plurality of first network nodes and signal quality measurement results (S1001); • sending to each first network node of the determined first network nodes a resource obtaining request, wherein the resource obtaining request is used to obtain an uplink data transmission resource of the corresponding first network node (S1002); • receiving from each of the determined first network nodes a corresponding resource obtaining response, wherein each resource obtaining response comprises information indicating an uplink data transmission resource, (S1003); • selecting a first network node among the determined first network nodes based on the received resource obtaining responses as a serving network node (S1004); • determining an uplink data transmission resource that is provided by the serving network node for the user equipment according to the resource obtaining response of the serving network node (S1005); and • sending uplink data to the serving network node by using the uplink data transmission resource provided by the serving network node (S1006).
A method for wireless communication, comprising: receiving , at a wireless communication node, a first message from a mobile device requesting a reestablishment of a network connection; transmitting , from the wireless communication node, a second message to the mobile device, the second message including information for reestablishing and reconfiguring the network connection; receiving , at the wireless communication node, a third message from the mobile device acknowledging at least one of completing a reestablishment of the network connection, or completing a reconfiguration of the network connection; characterized by determining that the reestablishment of the network connection is successful and that the reconfiguration of the network connection is not successful based on the third message acknowledging completing the reestablishment of the network connection; and determining that both the reestablishment of the network connection and the reconfiguration of the network connection are successful based on the third message acknowledging completing the reconfiguration of the network connection. receiving , at a wireless communication node, a first message from a mobile device requesting a reestablishment of a network connection; transmitting , from the wireless communication node, a second message to the mobile device, the second message including information for reestablishing and reconfiguring the network connection; receiving , at the wireless communication node, a third message from the mobile device acknowledging at least one of completing a reestablishment of the network connection, or completing a reconfiguration of the network connection; characterized by determining that the reestablishment of the network connection is successful and that the reconfiguration of the network connection is not successful based on the third message acknowledging completing the reestablishment of the network connection; and determining that both the reestablishment of the network connection and the reconfiguration of the network connection are successful based on the third message acknowledging completing the reconfiguration of the network connection.
A method for inactivating the alpha-Gal antigen in biological tissues, particularly in tissues that can be used to manufacture bioprosthetic substitutes and/or in bioprosthetic substitutes that are already prepared and intended for human or veterinary clinical use, characterized in that it entails the following steps: - providing a solution based on caffeic acid for the inactivation of at least part of the alpha-Gal antigen in said tissues; - incubating the samples to be treated in said solutions in controlled conditions; - subjecting the treated tissues to a series of washes. - providing a solution based on caffeic acid for the inactivation of at least part of the alpha-Gal antigen in said tissues; - incubating the samples to be treated in said solutions in controlled conditions; - subjecting the treated tissues to a series of washes.
Circuitry for an implantable medical device , comprising: a non-rechargeable battery outputting a battery voltage (Vbat); boosting circuitry for boosting the battery voltage (Vbat) to a boosted voltage (Vbat+); first circuitry powered either by the battery voltage (Vbat) when the battery voltage (Vbat) is greater than or equal to a threshold voltage (Vt), or the boosted voltage (Vbat+) when the battery voltage (Vbat) is less than the threshold voltage (Vt); second circuitry comprising a DC-DC converter , wherein the second circuitry is only powered by the battery voltage (Vbat); and at least one Digital-to-Analog converter ; wherein the DC-DC converter produces a compliance voltage (V+) to power the at least one Digital-to-Analog converter , and wherein the Digital-to-Analog converter is adapted to provide current to at least one electrode of the implantable medical device. a non-rechargeable battery outputting a battery voltage (Vbat); boosting circuitry for boosting the battery voltage (Vbat) to a boosted voltage (Vbat+); first circuitry powered either by the battery voltage (Vbat) when the battery voltage (Vbat) is greater than or equal to a threshold voltage (Vt), or the boosted voltage (Vbat+) when the battery voltage (Vbat) is less than the threshold voltage (Vt); second circuitry comprising a DC-DC converter , wherein the second circuitry is only powered by the battery voltage (Vbat); and at least one Digital-to-Analog converter ; wherein the DC-DC converter produces a compliance voltage (V+) to power the at least one Digital-to-Analog converter , and wherein the Digital-to-Analog converter is adapted to provide current to at least one electrode of the implantable medical device.
A case for removably receiving a separate and distinct mobile device having a front device surface, a rear device surface opposite the front device surface, and a periphery extending between the front device surface and the rear device surface of the mobile device, the case comprising: a frame defining a frame inner perimeter configured for surrounding the periphery of the mobile device when the mobile device is received within the case and defining a frame recess; and an elastomeric shell received in or configured for receipt in the frame recess and surrounded by or configured to be surrounded by the frame, the elastomeric shell further having a shell outer surface , a shell inner surface opposite the shell outer surface, and a shell rim extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein the shell outer surface forms outer projections defining respective outer projection extremities and forms respective outer troughs extending between the outer projections and defining outer trough extremities , the outer projections extending toward the frame inner perimeter such that each of the outer trough extremities is spaced further from the frame than adjacent ones of the outer projection extremities. a frame defining a frame inner perimeter configured for surrounding the periphery of the mobile device when the mobile device is received within the case and defining a frame recess; and an elastomeric shell received in or configured for receipt in the frame recess and surrounded by or configured to be surrounded by the frame, the elastomeric shell further having a shell outer surface , a shell inner surface opposite the shell outer surface, and a shell rim extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein the shell outer surface forms outer projections defining respective outer projection extremities and forms respective outer troughs extending between the outer projections and defining outer trough extremities , the outer projections extending toward the frame inner perimeter such that each of the outer trough extremities is spaced further from the frame than adjacent ones of the outer projection extremities.