mhurhangee/patent-ind-claim-en huggingface dataset:
Device for measuring parameters of a road made from aggregates in order to determine its condition, comprising a sensor C which measures data and has a housing which is integrated into the pavement and has a cylindrical shape with an upper face (10-1), a lower face (10-2) and a peripheral wall (10-3), characterized in that the upper face comprises two electrodes (12-1; 12-2) which are flush with the upper face (10- 1), generate an inter-electrode space and have wireless transmission means so as to be able to transfer said data from the sensor C in digital form, the sensor C having automatic cleaning means which are arranged on the upper face (10-1) of the housing and advantageously comprise pads (28-1) which are distributed over said upper surface (12-1).
A fibrous structure comprising a plurality of filaments wherein at least one of the filaments comprises a thermoplastic polymer, and a plurality of solid additives wherein the solid additives comprise fibers, the fibrous structure further comprising: (a) a continuous network region, wherein the solid additives are present in the continuous network region at a first average weight % as measured according to the TGA Test Method; and (b) a plurality of discrete zones, wherein the solid additives are present in one or more of the discrete zones at a second average weight % different from the first average weight % as measured according to the TGA Test Method; wherein the discrete zones are dispersed throughout the continuous network region, and wherein the first average weight % is from 10% to 90% as measured according to the TGA Test Method and the second average weight % is from 10% to 90% as measured according to the TGA Test Method; and wherein the filaments are present in the fibrous structure at a level of less than 90% by weight of the fibrous structure on a dry basis and the solid additives are present in the fibrous structure at a level of greater than 10% by weight of the fibrous structure on a dry basis; and wherein the ratio of the first average weight % to the second average weight % is less than 1 as measured according to the TGA Test Method. (a) a continuous network region, wherein the solid additives are present in the continuous network region at a first average weight % as measured according to the TGA Test Method; and (b) a plurality of discrete zones, wherein the solid additives are present in one or more of the discrete zones at a second average weight % different from the first average weight % as measured according to the TGA Test Method;
Welding station comprising a plurality of longitudinal welding heads for an installation for manufacturing packages with pads, each head being configured to weld to one another two superposed sheets (L) as said sheets (L) advance in a first direction (A), each head comprising a welding device configured to apply heat on a determined action area of said head or facing said head , a first traction belt (2.3) and a second traction belt (2.4) parallel to the first traction belt (2.3) and separated from the first traction belt (2.3) by a determined separation gap (D) in a second direction (T) which is transverse to the first direction (A), the action area being arranged in said separation gap (D) between both traction belts (2.3, 2.4), or facing said separation gap (D), and each of the welding heads being configured to be able to move along the second direction (T).
An image sensor (1000A; 1000C), comprising: a semiconductor substrate including a plurality of pixel regions (PR) separated by an isolation region (IR) and having a first surface and an opposing second surface , wherein the second surface receives incident light; a plurality of color filters respectively disposed on the second surface of the semiconductor substrate to correspond to the plurality of pixel regions (PR); a cover insulating layer disposed on the second surface of the semiconductor substrate and covering the plurality of color filters ; a plurality of first transparent electrodes (270; 270b) disposed on the cover insulating layer and spaced apart to respectively overlap the plurality of color filters ; an isolation pattern (250; 250b) disposed on the cover insulating layer between the plurality of first transparent electrodes (270; 270b) and having a trench (TN) spaced apart from the plurality of first transparent electrodes (270; 270b); a drain electrode (270D; 270D2) disposed in the trench (TN) of the isolation pattern (250; 250b) and configured to receive a potential higher than a potential of the first transparent electrodes ; and an organic photoelectric layer and a second transparent electrode sequentially disposed on the plurality of first transparent electrodes (270; 270b) and the isolation pattern (250; 250b). a semiconductor substrate including a plurality of pixel regions (PR) separated by an isolation region (IR) and having a first surface and an opposing second surface , wherein the second surface receives incident light; a plurality of color filters respectively disposed on the second surface of the semiconductor substrate to correspond to the plurality of pixel regions (PR); a cover insulating layer disposed on the second surface of the semiconductor substrate and covering the plurality of color filters ; a plurality of first transparent electrodes (270; 270b) disposed on the cover insulating layer and spaced apart to respectively overlap the plurality of color filters ; an isolation pattern (250; 250b) disposed on the cover insulating layer between the plurality of first transparent electrodes (270; 270b) and having a trench (TN) spaced apart from the plurality of first transparent electrodes (270; 270b); a drain electrode (270D; 270D2) disposed in the trench (TN) of the isolation pattern (250; 250b) and configured to receive a potential higher than a potential of the first transparent electrodes ; and an organic photoelectric layer and a second transparent electrode sequentially disposed on the plurality of first transparent electrodes (270; 270b) and the isolation pattern (250; 250b).
Method for manufacturing an authenticable industrially printed material, comprising: • Generating, with a pseudo-random generator initialized with a seed key, a reference two dimensional authentication mark as a pattern of dots; • Engraving cells on a cylinder, said cells defining the mark as a function of a transparent liquid substance volume deposited in the cell, wherein the transparent liquid substance is a low viscosity liquid and is capable of solidification upon drying over the industrially printed material; • Applying the transparent liquid substance of the cylinder to the printed material, said substance modifying the reflectance of the underlying industrially printed material surface as a function of the deposited substance thickness, the substance being deposited with a first thickness in areas other than individual locations defined by the dots of the authentication mark and with a reduced or increased thickness of the first thickness to produce thickness irregularities, invisible for the naked eye at the individual locations defined by the dots. • Generating, with a pseudo-random generator initialized with a seed key, a reference two dimensional authentication mark as a pattern of dots; • Engraving cells on a cylinder, said cells defining the mark as a function of a transparent liquid substance volume deposited in the cell, wherein the transparent liquid substance is a low viscosity liquid and is capable of solidification upon drying over the industrially printed material; • Applying the transparent liquid substance of the cylinder to the printed material, said substance modifying the reflectance of the underlying industrially printed material surface as a function of the deposited substance thickness, the substance being deposited with a first thickness in areas other than individual locations defined by the dots of the authentication mark and with a reduced or increased thickness of the first thickness to produce thickness irregularities, invisible for the naked eye at the individual locations defined by the dots.
A method in a data-parallel adaptive filter system, the method comprising: obtaining (S310) parameters for each of a plurality of branches of the adaptive filter system, each branch comprising a power amplifier block, the parameters being model parameters for describing each of the plurality of branches; computing (S320) gradient-based information for a selected one of the plurality of branches, wherein the gradient-based information relates to a gradient operator applied to a cost function; and updating (S330) the parameters for each of the plurality of branches based on the gradient-based information for the selected branch, wherein the parameter for the selected one of the plurality of branches is updated by adding parameter for the selected branch to a product of the gradient-based information and a first ratio, the first ratio being larger than zero; and the parameter for a respective one of the plurality of branches other than the selected branch is updated by adding parameter for the respective branch to a product of the gradient-based information and a second ratio, the second ratio being larger than zero and dependent on a similarity between the respective branch and the selected branch. obtaining (S310) parameters for each of a plurality of branches of the adaptive filter system, each branch comprising a power amplifier block, the parameters being model parameters for describing each of the plurality of branches; computing (S320) gradient-based information for a selected one of the plurality of branches, wherein the gradient-based information relates to a gradient operator applied to a cost function; and updating (S330) the parameters for each of the plurality of branches based on the gradient-based information for the selected branch, wherein the parameter for the selected one of the plurality of branches is updated by adding parameter for the selected branch to a product of the gradient-based information and a first ratio, the first ratio being larger than zero; and the parameter for a respective one of the plurality of branches other than the selected branch is updated by adding parameter for the respective branch to a product of the gradient-based information and a second ratio, the second ratio being larger than zero and dependent on a similarity between the respective branch and the selected branch.
A control channel resource allocation method, comprising: determining a virtual resource block VRB number corresponding to a first physical downlink control channel, or determining a serial number of a first control channel element CCE for a first physical downlink control channel to transmit downlink control information DCI, wherein the first physical downlink control channel is: a secondary physical downlink control channel S-PDCCH or a relay physical downlink control channel R-PDCCH; and obtaining , according to the VRB number corresponding to the first physical downlink control channel, an offset, and a physical uplink control channel PUCCH parameter, a PUCCH format 1a or 1b resource number corresponding to the first physical downlink control channel; or obtaining , according to the serial number of the first CCE for the first physical downlink control channel to transmit the DCI, an offset, and a physical uplink control channel PUCCH parameter, the PUCCH format 1a or 1b resource number corresponding to the first physical downlink control channel; wherein a resource of a PUCCH format 1a or 1b is only allocated if a PDSCH indicated by the first physical downlink control channel exists; and wherein a PUCCH format 1a or 1b resource set corresponding to the first physical downlink control channel follows a PUCCH format 1a or 1b resource set corresponding to the PDCCH. determining a virtual resource block VRB number corresponding to a first physical downlink control channel, or determining a serial number of a first control channel element CCE for a first physical downlink control channel to transmit downlink control information DCI, wherein the first physical downlink control channel is: a secondary physical downlink control channel S-PDCCH or a relay physical downlink control channel R-PDCCH; and obtaining , according to the VRB number corresponding to the first physical downlink control channel, an offset, and a physical uplink control channel PUCCH parameter, a PUCCH format 1a or 1b resource number corresponding to the first physical downlink control channel; or obtaining , according to the serial number of the first CCE for the first physical downlink control channel to transmit the DCI, an offset, and a physical uplink control channel PUCCH parameter, the PUCCH format 1a or 1b resource number corresponding to the first physical downlink control channel; wherein a resource of a PUCCH format 1a or 1b is only allocated if a PDSCH indicated by the first physical downlink control channel exists; and wherein a PUCCH format 1a or 1b resource set corresponding to the first physical downlink control channel follows a PUCCH format 1a or 1b resource set corresponding to the PDCCH.
An LED vehicle headlight comprising: a lens having a focal plane (P); a reflector disposed at a side of the lens , the reflector having a first focal point (f1) and a second focal point (f2), wherein the second focal point (f2) is located on the focal plane (P); a first light source having a first light-emitting surface confronting the lens ; a second light source having a second light-emitting surface confronting the reflector , the first focal point (f1) is located on the second light-emitting surface, and the reflector is configured to reflect and focus light beams emitted from the second light-emitting surface onto the second focal point (f2); characterized in that an optical axis (A) of the lens is placed in between the first light source and the second light source , and that a controller is configured to turn on both the first light source and the second light source in a driving beam mode; and turn on the first light source and turn off the second light source in a passing beam mode. a lens having a focal plane (P); a reflector disposed at a side of the lens , the reflector having a first focal point (f1) and a second focal point (f2), wherein the second focal point (f2) is located on the focal plane (P); a first light source having a first light-emitting surface confronting the lens ; a second light source having a second light-emitting surface confronting the reflector , the first focal point (f1) is located on the second light-emitting surface, and the reflector is configured to reflect and focus light beams emitted from the second light-emitting surface onto the second focal point (f2); characterized in that an optical axis (A) of the lens is placed in between the first light source and the second light source , and that a controller is configured to turn on both the first light source and the second light source in a driving beam mode; and turn on the first light source and turn off the second light source in a passing beam mode.
A method comprising: determining a plurality of network signaling events, NSE, comprising a first NSE and a second NSE, wherein each of the plurality of NSEs comprises a pattern of network control messages; transmitting the plurality of NSEs via a network; monitoring the transmission of the plurality of NSEs; determining that the first NSE triggered a connection to a service; canceling the second NSE in response to determining that the first NSE has triggered the connection to the service; and providing data to the service. determining a plurality of network signaling events, NSE, comprising a first NSE and a second NSE, wherein each of the plurality of NSEs comprises a pattern of network control messages; transmitting the plurality of NSEs via a network; monitoring the transmission of the plurality of NSEs; determining that the first NSE triggered a connection to a service; canceling the second NSE in response to determining that the first NSE has triggered the connection to the service; and providing data to the service.
A method of operating a user communication device , the method comprising: maintaining a domain name system bypass data structure on the user communication device, wherein the domain name system bypass data structure comprises a list of prioritized network addresses for content nodes of a content delivery network , the content nodes configured to cache content from at least one origin server for a user application on the user communication device, and wherein the network addresses are prioritized based on access factors for the network addresses tested at least partially on the user communication device; updating the domain name system bypass data structure in the user communication device according to a systematic or periodic update schedule; receiving a user instruction requesting new content within the user application of the user communication device; in response to the user instruction , processing at least the domain name system bypass data structure on the user communication device to identify a network address in the list of prioritized network addresses for retrieving the new content; and requesting the new content from a content node using the network address. maintaining a domain name system bypass data structure on the user communication device, wherein the domain name system bypass data structure comprises a list of prioritized network addresses for content nodes of a content delivery network , the content nodes configured to cache content from at least one origin server for a user application on the user communication device, and wherein the network addresses are prioritized based on access factors for the network addresses tested at least partially on the user communication device; updating the domain name system bypass data structure in the user communication device according to a systematic or periodic update schedule; receiving a user instruction requesting new content within the user application of the user communication device; in response to the user instruction , processing at least the domain name system bypass data structure on the user communication device to identify a network address in the list of prioritized network addresses for retrieving the new content; and requesting the new content from a content node using the network address.
Pneumatic vehicle tyre having a carcass, a profiled tread, a belt and a single-or multi-ply belt bandage comprising strength members running in the circumferential direction of the tyre, wherein at least one of the bandage plies of the belt bandage comprises at least one hybrid cord composed of two mutually end-twisted yarns as a strength member, wherein the first yarn is a yarn made of polyamide 6 (PA 6.6) and the second yarn is a yarn made of polyethylene terephthalate (PET) characterized in that • the overall linear density of the hybrid cord is 460 dtex to 695 dtex, • in that each of the two yarns has a linear density which is 32% to 68% of the overall linear density of the hybrid cord and • in that the twist factor of the hybrid cord is 118 to 150, wherein the twist factor is given by the formula: twist [T/m] *√(tex/1000). • the overall linear density of the hybrid cord is 460 dtex to 695 dtex, • in that each of the two yarns has a linear density which is 32% to 68% of the overall linear density of the hybrid cord and • in that the twist factor of the hybrid cord is 118 to 150, wherein the twist factor is given by the formula: twist [T/m] *√(tex/1000).
A method for maintaining a gaseous composition within a tube, the tube being a part of tubular transportation system made of a plurality of tubes for transporting one or more passengers or one or more cargos via a capsule, the tube being arranged along at least one predetermined route, the method comprising: (a) pumping the tube to a pressure that is below atmospheric pressure until the tube is substantially evacuated; (b) identifying a predetermined power value; characterized in (c) identifying a first percentage, x, of helium based on the predetermined power value identified in (b) and a leak rate associated with the tube; and (d) maintaining, within each tube in the plurality of substantially evacuated tubes, a gaseous composition comprising a mixture of a first percentage, x, of helium and a second percentage, ( 100-x ), of air. (a) pumping the tube to a pressure that is below atmospheric pressure until the tube is substantially evacuated; (b) identifying a predetermined power value; characterized in (c) identifying a first percentage, x, of helium based on the predetermined power value identified in (b) and a leak rate associated with the tube; and (d) maintaining, within each tube in the plurality of substantially evacuated tubes, a gaseous composition comprising a mixture of a first percentage, x, of helium and a second percentage, ( 100-x ), of air.
A computer implemented method of determining a tire pressure of an aircraft, the method comprising: receiving data of a recent stable point comprising both a tire gas pressure and a tire gas temperature, wherein the recent stable point is a stable point identified in historical data that is closest to the present time; receiving data of a desired tire gas temperature, at which a corresponding tire gas pressure is desired to be determined; and determining the corresponding tire gas pressure based on the data of the recent stable point and the desired tire gas temperature. receiving data of a recent stable point comprising both a tire gas pressure and a tire gas temperature, wherein the recent stable point is a stable point identified in historical data that is closest to the present time; receiving data of a desired tire gas temperature, at which a corresponding tire gas pressure is desired to be determined; and determining the corresponding tire gas pressure based on the data of the recent stable point and the desired tire gas temperature.
OCT system comprising an OCT light source for emitting OCT light , comprising a first beam splitter for splitting the OCT light into an object beam path and a reference beam path , comprising a second beam splitter for generating an interference signal from the object beam path and the reference beam path , wherein the object beam path is guided between the first beam splitter and the second beam splitter through a first polarization-maintaining optical waveguide and the reference beam path is guided between the first beam splitter and the second beam splitter through a second polarization-maintaining optical waveguide , and comprising a detector for picking up the interference signal, wherein a polarization-dependent retardation element is arranged in the object beam path and wherein the OCT light , in the first polarization-maintaining optical waveguide or in the second polarization-maintaining optical waveguide , is transferred between a first axis and a second axis of the polarization-maintaining optical waveguide , with the result that the OCT light propagates in a first longitudinal section of the polarization-maintaining optical waveguide in the first axis and in a second longitudinal section of the polarization-maintaining optical waveguide in the second axis, wherein the first axis and the second axis of a polarization-maintaining optical waveguide correspond to the fast axis and, respectively, the slow axis, and wherein a third polarization-maintaining optical waveguide extends in the object arm between the first beam splitter and an exit end , with the result that OCT light emerging from the exit end of the third polarization-maintaining optical waveguide passes through the polarization-dependent retardation element and that the object beam path of the OCT light reflected by the measurement object continues through the polarization-dependent retardation element , the third polarization-maintaining optical waveguide and the first beam splitter into the first polarization-maintaining optical waveguide .