mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: determining , by a first network device, a first resource, wherein the first resource comprises a resource used by a second network device to send a first signal to a second relay device; sending , by the first network device, first configuration information to a first relay device different to the second relay device, determining , by the first relay device, based on the first configuration information, a second resource for sending a second signal, and wherein the second resource is a part or all of the first resource, determining, by the first relay device, a third resource for sending the second signal, wherein the first configuration information is used to indicate the third resource used by the first relay device to send the second signal; sending, by the first network device, second configuration information to the first relay device, wherein the second configuration information is used to indicate a time domain offset between the third resource and the second resource, and wherein the determination of the second resource by the first relay device is based on the first configuration information and the time domain offset; sending , by the first relay device, the second signal on the second resource; and receiving, by the second relay device, the second signal on part or all of the first resource; sending, by the first network device, a third signal to the first relay device on the third resource; and wherein the first relay device and the second relay device each do not have a capability of simultaneously sending and receiving signals. determining , by a first network device, a first resource, wherein the first resource comprises a resource used by a second network device to send a first signal to a second relay device; sending , by the first network device, first configuration information to a first relay device different to the second relay device, determining , by the first relay device, based on the first configuration information, a second resource for sending a second signal, and wherein the second resource is a part or all of the first resource, determining, by the first relay device, a third resource for sending the second signal, wherein the first configuration information is used to indicate the third resource used by the first relay device to send the second signal; sending, by the first network device, second configuration information to the first relay device, wherein the second configuration information is used to indicate a time domain offset between the third resource and the second resource, and wherein the determination of the second resource by the first relay device is based on the first configuration information and the time domain offset; sending , by the first relay device, the second signal on the second resource; and receiving, by the second relay device, the second signal on part or all of the first resource; sending, by the first network device, a third signal to the first relay device on the third resource; and wherein the first relay device and the second relay device each do not have a capability of simultaneously sending and receiving signals.
An apparatus for measuring gas concentration of multiple gases in a headspace of closed containers for food or pharmaceuticals, said apparatus comprising a multi-wavelength laser module , and a detector for detection of multiple wavelength ranges, said detector comprising at least two material layers arranged after each other along the same optical axis, where each layer is designed to detect a certain wavelength range different from each other; the apparatus being characterized in that said multi-wavelength laser module comprises at least two tunable diode laser sources, each tunable diode laser source being a chip , wherein the chips are arranged side-by-side in the same can to provide overlapped beam paths without additional optics.
A method for wireless communications by a user equipment, UE , comprising: requesting a nonseamless wireless offload, NSWO, connection to a network during an extensible authentication protocol, EAP, procedure; and receiving , after successful authentication, a reason code from a network entity indicating NSWO is not allowed if the network does not support NSWO, wherein the reason code further indicates that a packet data network, PDN, connection is required if the network supports only single-connection; and receiving an internet protocol, IP, address if the network supports NSWO. requesting a nonseamless wireless offload, NSWO, connection to a network during an extensible authentication protocol, EAP, procedure; and receiving , after successful authentication, a reason code from a network entity indicating NSWO is not allowed if the network does not support NSWO, wherein the reason code further indicates that a packet data network, PDN, connection is required if the network supports only single-connection; and receiving an internet protocol, IP, address if the network supports NSWO.
A mobile radio testing device for protocol testing of a device under test , the mobile radio testing device comprising a downlink path and an uplink path , wherein the uplink path comprises at least a first analysis mode and a second analysis mode ; wherein the mobile radio testing device includes a demodulation processing unit for analyzing a signal from the device under test in the first analysis mode ; wherein the second analysis mode analyzes said signal from the device under test without using the demodulation processing unit ; wherein the mobile radio testing device further comprises a graphical user interface , configured to display results from the first analysis mode and the second analysis mode simultaneously; and wherein the graphical user interface is further configured to control a signal transmission in the downlink path , thereby generating a selective interference through the downlink path that acts on said signal received from the device under test . wherein the mobile radio testing device includes a demodulation processing unit for analyzing a signal from the device under test in the first analysis mode ; wherein the second analysis mode analyzes said signal from the device under test without using the demodulation processing unit ; wherein the mobile radio testing device further comprises a graphical user interface , configured to display results from the first analysis mode and the second analysis mode simultaneously; and wherein the graphical user interface is further configured to control a signal transmission in the downlink path , thereby generating a selective interference through the downlink path that acts on said signal received from the device under test .
A control valve assembly comprising: a process fluid pipeline ; a valve to control a process fluid flow through the pipeline ; an actuator for actuating the valve ; a control fluid power apparatus for operating the actuator , the control fluid power apparatus comprising: a first housing having a first piston defining a first chamber and a second chamber , the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line , the first chamber being w oriented above the second chamber ; and a second housing having a second piston defining a third chamber and a fourth chamber , the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid , the third chamber being oriented above the fourth chamber . a process fluid pipeline ; a valve to control a process fluid flow through the pipeline ; an actuator for actuating the valve ; a control fluid power apparatus for operating the actuator , the control fluid power apparatus comprising: a first housing having a first piston defining a first chamber and a second chamber , the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line , the first chamber being w oriented above the second chamber ; and a second housing having a second piston defining a third chamber and a fourth chamber , the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid , the third chamber being oriented above the fourth chamber . a first housing having a first piston defining a first chamber and a second chamber , the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line , the first chamber being w oriented above the second chamber ; and a second housing having a second piston defining a third chamber and a fourth chamber , the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid , the third chamber being oriented above the fourth chamber .
A compound of formula (I) or a cosmetically acceptable salt of a compound of formula (I) wherein R 1 is selected from the group consisting of a C 1 -C 2 alkyl group, a C 5 -C 12 aryl group or a benzyl group; R 2 is the amino acid side chain of arginine, lysine, 2,4-diaminobutyric acid, homolysine, ornithine or 2-aminohexanoic acid; R 3 or R 3' are selected from the group consisting of H, an unsubstituted aryl(m)ethyl group and an unsubstituted heteroaryl(m)ethyl group; and R 4 and R 5 are, independently of each other, H or a C 1 -C 10 alkyl group; and with the proviso that only one of R 3 or R 3' is H and the respective other one of R 3 and R 3' is not H. R 1 is selected from the group consisting of a C 1 -C 2 alkyl group, a C 5 -C 12 aryl group or a benzyl group; R 2 is the amino acid side chain of arginine, lysine, 2,4-diaminobutyric acid, homolysine, ornithine or 2-aminohexanoic acid; R 3 or R 3' are selected from the group consisting of H, an unsubstituted aryl(m)ethyl group and an unsubstituted heteroaryl(m)ethyl group; and R 4 and R 5 are, independently of each other, H or a C 1 -C 10 alkyl group; and with the proviso that only one of R 3 or R 3' is H and the respective other one of R 3 and R 3' is not H.
An anti-polishing ring for a cylinder liner , which cylinder liner can form a cylinder of a piston engine , which engine comprises a piston that is configured to move in the cylinder in a reciprocating manner between bottom dead center and top dead center, the piston comprising at least one piston ring , wherein the wall of the cylinder liner comprises a through hole , which is configured to allow transmission of pressure from the cylinder to a pressure sensor , the hole being arranged in the wall of the cylinder liner at such a height that when the cylinder liner is mounted in an engine for forming a cylinder and a piston inside the cylinder is at top dead center, the hole opens inside the cylinder at a location that is above all the piston rings of the piston , and wherein the upper end of the cylinder liner comprises a recess for receiving an anti-polishing ring and the hole opens to the area of the recess , characterized in that the outer surface of the anti-polishing ring comprises a groove , which extends in the axial direction from the upper end of the anti-polishing ring towards the lower end and is configured to allow transmission of pressure from the cylinder to the through hole of the cylinder liner .
Method for predicting the speed of the wind in the plane of the rotor of a wind turbine equipped with a LIDAR sensor , in which the following steps are implemented: a) the speed of the wind in at least one measurement plane (PM), which is distant from said turbine , is measured by means of said LIDAR sensor ; b) an induction factor of the wind is determined, said induction factor of the wind representing a braking coefficient of the wind between said measurement plane and said plane of said rotor; c) a delay index between said measurement plane (PM) and said plane of the rotor (PR) of said wind turbine is determined by means of said induction factor and of said measurement of the speed of the wind in said measurement plane; d) a model of the evolution of the wind between said measurement plane (PM) and said plane of said rotor (PR), said model of the evolution of the wind linking the speed of the wind in said plane of said rotor (PR) at a predetermined instant to the measured speed of the wind in said measurement plane (PM) at several instants which are prior to said predetermined instant, is constructed by means of said induction factor, said prior instants being determined by means of said delay index; e) said prediction of the speed of the wind in said plane of the rotor is determined by means of said model of the evolution of the wind and of a Kalman filter, preferably an adaptive Kalman filter. a) the speed of the wind in at least one measurement plane (PM), which is distant from said turbine , is measured by means of said LIDAR sensor ; b) an induction factor of the wind is determined, said induction factor of the wind representing a braking coefficient of the wind between said measurement plane and said plane of said rotor; c) a delay index between said measurement plane (PM) and said plane of the rotor (PR) of said wind turbine is determined by means of said induction factor and of said measurement of the speed of the wind in said measurement plane; d) a model of the evolution of the wind between said measurement plane (PM) and said plane of said rotor (PR), said model of the evolution of the wind linking the speed of the wind in said plane of said rotor (PR) at a predetermined instant to the measured speed of the wind in said measurement plane (PM) at several instants which are prior to said predetermined instant, is constructed by means of said induction factor, said prior instants being determined by means of said delay index; e) said prediction of the speed of the wind in said plane of the rotor is determined by means of said model of the evolution of the wind and of a Kalman filter, preferably an adaptive Kalman filter.
Positioning support for positioning components to be inspected during their inspection by means of an optical control apparatus, comprising: a casing base configured to be indexed and centered on a base of the control apparatus, a sliding base able to slide along an "Y" axis in a plane of the casing base perpendicular to the optical axis, the casing base serving as an interface between the optical control apparatus and the sliding base; a sliding plate able to slide along an "X" axis perpendicular to the "Y" axis in a plane parallel to said plane of the sliding base, the sliding base serving as an interface between the casing base and the sliding plate ; interchangeable elements configured to be fixed to the sliding plate and comprising templates for free positioning of a plurality of components to be measured on the sliding plate and alignment elements, such as bars , for aligned positioning of a plurality of components to be measured on said sliding plate. a casing base configured to be indexed and centered on a base of the control apparatus, a sliding base able to slide along an "Y" axis in a plane of the casing base perpendicular to the optical axis, the casing base serving as an interface between the optical control apparatus and the sliding base; a sliding plate able to slide along an "X" axis perpendicular to the "Y" axis in a plane parallel to said plane of the sliding base, the sliding base serving as an interface between the casing base and the sliding plate ; interchangeable elements configured to be fixed to the sliding plate and comprising templates for free positioning of a plurality of components to be measured on the sliding plate and alignment elements, such as bars , for aligned positioning of a plurality of components to be measured on said sliding plate.
Method for transmitting a document from a first party (P1) to a second party (P2), wherein the method comprises the following steps: a) determining various sequences of in each case m intermediate nodes (A-G) from a base set of n intermediate nodes (A-G); b) wherein computers serve as intermediate nodes and each intermediate node (A-G) holds a private cryptographic key for which a corresponding public cryptographic key is known; c) encrypting the document in succession with the public keys of the intermediate nodes (A-G) of one of the sequences ; d) transmitting the document to the holder of that public key with which the present document was last encrypted, and decrypting the document with the private key of this holder; e) repeating step d until all of the intermediate nodes (A-G) of the sequence have decrypted the document ; and f) delivering the document to the second party (P2), g) wherein steps c) to f) are also performed for all of the other sequences . a) determining various sequences of in each case m intermediate nodes (A-G) from a base set of n intermediate nodes (A-G); b) wherein computers serve as intermediate nodes and each intermediate node (A-G) holds a private cryptographic key for which a corresponding public cryptographic key is known; c) encrypting the document in succession with the public keys of the intermediate nodes (A-G) of one of the sequences ; d) transmitting the document to the holder of that public key with which the present document was last encrypted, and decrypting the document with the private key of this holder; e) repeating step d until all of the intermediate nodes (A-G) of the sequence have decrypted the document ; and f) delivering the document to the second party (P2), g) wherein steps c) to f) are also performed for all of the other sequences .
A locating system for a plurality of items, the system comprising: a plurality of glowable devices , each glowable device including a passive RFID tag programmed with a unique tag identifier and an electroluminescent layer on a surface of the RFID tag , each glowable device being adapted to be secured to one of the items; and an RFID reader arranged to selectively interrogate the RFID tags based on the unique tag identifier; wherein an RFID tag is arranged to cause its surface-mounted electroluminescent layer mounted to a first surface of the RFID tag to glow in response to the selective interrogation and to transmit a tag response back to the RFID reader in response to the selective interrogation to enable the RFID reader to determine the position of the RFID tag relative to the RFID reader , characterized in that the locating system further uses measurements of received signal strength to determine the relative position of the transmitting RFID tag and identify relative elevation and azimuth of the transmitting RFID tag according to the polarization of the tag response. a plurality of glowable devices , each glowable device including a passive RFID tag programmed with a unique tag identifier and an electroluminescent layer on a surface of the RFID tag , each glowable device being adapted to be secured to one of the items; and an RFID reader arranged to selectively interrogate the RFID tags based on the unique tag identifier; wherein an RFID tag is arranged to cause its surface-mounted electroluminescent layer mounted to a first surface of the RFID tag to glow in response to the selective interrogation and to transmit a tag response back to the RFID reader in response to the selective interrogation to enable the RFID reader to determine the position of the RFID tag relative to the RFID reader , characterized in that the locating system further uses measurements of received signal strength to determine the relative position of the transmitting RFID tag and identify relative elevation and azimuth of the transmitting RFID tag according to the polarization of the tag response.
A user equipment, UE for wireless communication, comprising: a memory ; and one or more processors operatively coupled to the memory, the memory and the one or more processors configured to: initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT. a memory ; and one or more processors operatively coupled to the memory, the memory and the one or more processors configured to: initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT. initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT.
A vehicle , the vehicle comprising: a cabin comprising seats; at least one of a roof light module, a door panel, and a headliner; a display positioned such that it is visible from all seats in the cabin, the display being integral to the roof light module, door panel or headliner; an occupancy-monitoring sensor ; and a controller circuit configured to: receive occupant data from the occupancy-monitoring sensor; determine, based on the occupant data, a respective occupancy status at each of the seats; and indicate, on the display to be visible from all seats in the cabin, the respective occupancy status at each of the seats. a cabin comprising seats; at least one of a roof light module, a door panel, and a headliner; a display positioned such that it is visible from all seats in the cabin, the display being integral to the roof light module, door panel or headliner; an occupancy-monitoring sensor ; and a controller circuit configured to: receive occupant data from the occupancy-monitoring sensor; determine, based on the occupant data, a respective occupancy status at each of the seats; and indicate, on the display to be visible from all seats in the cabin, the respective occupancy status at each of the seats. receive occupant data from the occupancy-monitoring sensor; determine, based on the occupant data, a respective occupancy status at each of the seats; and indicate, on the display to be visible from all seats in the cabin, the respective occupancy status at each of the seats.