mhurhangee/patent-ind-claim-en huggingface dataset:
A signal processing method, comprising: - measuring (S1) a latency between a first signal and a second signal using multiple clock signals of the same frequency but different phases, to obtain a first set of measurement values; - determining (S2) a second set of measurement values from the first set of measurement values and phase differences between the multiple clock signals and a zero-phase-difference clock signal, wherein the zero-phase-difference clock signal is a clock signal with a fixed phase which is artificially determined and wherein the values associated with the second set of measurement values are different from each other; - selecting a smaller measurement value from the second set of measurement values as the latency between the first signal and the second signal. - measuring (S1) a latency between a first signal and a second signal using multiple clock signals of the same frequency but different phases, to obtain a first set of measurement values; - determining (S2) a second set of measurement values from the first set of measurement values and phase differences between the multiple clock signals and a zero-phase-difference clock signal, wherein the zero-phase-difference clock signal is a clock signal with a fixed phase which is artificially determined and wherein the values associated with the second set of measurement values are different from each other; - selecting a smaller measurement value from the second set of measurement values as the latency between the first signal and the second signal.
A system for reducing microorganisms, the system comprising: - a light assembly comprising: - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; - and a processor communicably coupled to the light assembly to control the time averaged intensities of the blue lights sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source; and - at least one optical element arranged with the light assembly configured to direct the blue lights emitted by the light assembly. - a light assembly comprising: - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; - and a processor communicably coupled to the light assembly to control the time averaged intensities of the blue lights sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source; and - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; - and a processor communicably coupled to the light assembly to control the time averaged intensities of the blue lights sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source; and - at least one optical element arranged with the light assembly configured to direct the blue lights emitted by the light assembly.
A pneumatic tire having a specified rotation direction, comprising: a plurality of circumferential main grooves formed on a tread surface and extending in a tire circumferential direction; a plurality of lug grooves formed on the tread surface and extending in a tire lateral direction; a plurality of blocks wherein both sides of the each block being defined in the tire circumferential direction by the lug grooves and at least one end portion of the each block being defined in the tire lateral direction by the circumferential main grooves ; and a plurality of block rows formed by aligning a plurality of the blocks in the tire circumferential direction; wherein given, a region in the tread surface inward from shoulder circumferential main grooves that are the circumferential main grooves positioned outermost in the tire lateral direction among the plurality of circumferential main grooves , as an inner region , and another each region in the tread surface outward from the shoulder circumferential main grooves in the tire lateral direction as outer regions , the inner region comprises a plurality of the block rows aligned in the tire lateral direction; the blocks each comprises narrow grooves that open to at least one of the circumferential main groove and the lug groove , and define the block into a plurality of small blocks , characterized in that the blocks positioned in the inner region are defined into three or more of the small blocks by the narrow grooves ; the blocks positioned in the outer regions are defined into a number of small blocks by the narrow grooves , the number being at least one less than the number of the small blocks defined in the block positioned in the inner region , the small block that, among the plurality of small blocks belonging to a block of the blocks , comprises a portion of the block positioned on a frontmost side in a tire rotation direction is a leading-side block , the small block that, among the plurality of small blocks belonging to a block of the blocks , comprises a portion of the block positioned on a backmost side in the tire rotation direction is a trailing-side block , and the leading-side block has a surface area less than that of the trailing-side block . a plurality of circumferential main grooves formed on a tread surface and extending in a tire circumferential direction; a plurality of lug grooves formed on the tread surface and extending in a tire lateral direction; a plurality of blocks wherein both sides of the each block being defined in the tire circumferential direction by the lug grooves and at least one end portion of the each block being defined in the tire lateral direction by the circumferential main grooves ; and a plurality of block rows formed by aligning a plurality of the blocks in the tire circumferential direction; wherein
Vehicle comprising a dashboard provided with a housing delimited by a lateral wall included in the dashboard and intended to receive an airbag , of which the housing is closed off by a closure wall that is flush with a surface of the dashboard and comprising two nets and a layer in which said nets are embedded, the two nets being attached to the lateral wall and extending towards one another, creating a space between them, the lateral wall being extended by a widened and planar collar that lies in a plane that is perpendicular to the lateral wall , the two nets being attached to this collar , characterized in that the layer is made of expanded polypropylene and in that the two nets , a part of the lateral wall and the collar are overmoulded into the layer of expanded polypropylene .
A hearing device comprising: - a microphone configured to receive sound; - a processing unit configured to provide a processed audio signal for compensating for a hearing loss of a user; - a wireless communication unit configured for wireless communication; - a supporting structure ; wherein the supporting structure comprises: - an electrically conductive ground layer , - an electrically non-conductive opening ; - a connecting line extending from the wireless communication unit provided at a first side of the opening across or along the opening to a second side of the opening and being interconnected with the electrically conductive ground layer at the second side of the opening ; wherein the electrically conductive ground layer is configured to be excited by the connecting line , whereby the electrically conductive ground layer is configured to act as antenna for the wireless communication unit for emission and/or reception of an electromagnetic field; wherein the supporting structure has at least a first layer and a second layer , and wherein the first layer is an electrically conductive layer, the first layer extending over at least 75% of the supporting structure , and wherein the wireless communication unit and the connecting line are provided at the second layer . - a microphone configured to receive sound; - a processing unit configured to provide a processed audio signal for compensating for a hearing loss of a user; - a wireless communication unit configured for wireless communication; - a supporting structure ; wherein the supporting structure comprises: - an electrically conductive ground layer , - an electrically non-conductive opening ; - a connecting line extending from the wireless communication unit provided at a first side of the opening across or along the opening to a second side of the opening and being interconnected with the electrically conductive ground layer at the second side of the opening ; - an electrically conductive ground layer , - an electrically non-conductive opening ; - a connecting line extending from the wireless communication unit provided at a first side of the opening across or along the opening to a second side of the opening and being interconnected with the electrically conductive ground layer at the second side of the opening ; wherein the electrically conductive ground layer is configured to be excited by the connecting line , whereby the electrically conductive ground layer is configured to act as antenna for the wireless communication unit for emission and/or reception of an electromagnetic field; wherein the supporting structure has at least a first layer and a second layer , and wherein the first layer is an electrically conductive layer, the first layer extending over at least 75% of the supporting structure , and wherein the wireless communication unit and the connecting line are provided at the second layer .
Side structure of a cargo space, which includes a vertical structure attached to the cargo space to protect the cargo, which vertical structure is fitted pivotably to the cargo space in order to form an access platform , characterized in that the vertical structure includes two parts on top of each other, of which the first part is pivoted to the cargo space and the second part is pivoted to the first part .
A logic circuit arranged to output a stream of pixel position values, x, for a row of a pixelated display device, said pixelated display device having [ m × n ] pixels, for calculation of corresponding software function values F ( x ) , for display on the pixels of the row; wherein the stream comprises sequential numbers from 0 to ( n - 1); wherein the logic circuit comprises a unity addition module and a plurality, p, of pipeline modules; wherein the pipeline modules have respective individual pipeline identity values, v, from v = 0 to v = ( p - 1); wherein the unity addition module is arranged to provide a multi-bit binary input, i, to each of the plurality, p, of pipeline modules, in common, during a pre-defined time cycle; wherein each pipeline module is arranged, for the pre-defined time cycle, to: receive the multi-bit binary input, i, from the unity addition module; append a binary representation of its individual pipeline identity value, v , to the received multi-bit binary input, i; and to output a unique multi-bit binary output, o v , that comprises a combination of the received multi-bit binary input, i, and the binary representation of its individual pipeline identity value, v. wherein the logic circuit comprises a unity addition module and a plurality, p, of pipeline modules; wherein the pipeline modules have respective individual pipeline identity values, v, from v = 0 to v = ( p - 1); wherein the unity addition module is arranged to provide a multi-bit binary input, i, to each of the plurality, p, of pipeline modules, in common, during a pre-defined time cycle; wherein each pipeline module is arranged, for the pre-defined time cycle, to: receive the multi-bit binary input, i, from the unity addition module; append a binary representation of its individual pipeline identity value, v , to the received multi-bit binary input, i; and to output a unique multi-bit binary output, o v , that comprises a combination of the received multi-bit binary input, i, and the binary representation of its individual pipeline identity value, v. receive the multi-bit binary input, i, from the unity addition module; append a binary representation of its individual pipeline identity value, v , to the received multi-bit binary input, i; and to output a unique multi-bit binary output, o v , that comprises a combination of the received multi-bit binary input, i, and the binary representation of its individual pipeline identity value, v.
A shoe sole comprising a device for stabilising movements of two parts of the shoe sole that are movable relative to each other, comprising: a receptacle , which is fixable to a first part of the shoe sole , wherein the receptacle is filled with a filling medium, and wherein the receptacle comprises a receiving opening , wherein the device further comprises a force transmission element , and an interaction element fixable on a second part of the shoe sole via the force transmission element , which is at least partially accommodated displaceably in the receptacle , and extends through the receiving opening , wherein the part of the interaction element that is located in the receptacle is in contact with the filling medium, characterized in that the force transmission element is held pivotably on the end of the interaction element which protrudes out of the receptacle , wherein at least one projection extends from the receptacle , in the region of the receiving opening , in an outward direction (A) of the interaction element along which the interaction element can be displaced in the receptacle, wherein the projection comprises at least one first contact region for contacting the force transmission element . a receptacle , which is fixable to a first part of the shoe sole , wherein the receptacle is filled with a filling medium, and wherein the receptacle comprises a receiving opening , wherein the device further comprises a force transmission element , and an interaction element fixable on a second part of the shoe sole via the force transmission element , which is at least partially accommodated displaceably in the receptacle , and extends through the receiving opening , wherein the part of the interaction element that is located in the receptacle is in contact with the filling medium, characterized in that the force transmission element is held pivotably on the end of the interaction element which protrudes out of the receptacle , wherein at least one projection extends from the receptacle , in the region of the receiving opening , in an outward direction (A) of the interaction element along which the interaction element can be displaced in the receptacle, wherein the projection comprises at least one first contact region for contacting the force transmission element .
A method performed by a serving network node for handover of one or more communication devices to a target network node , the method comprising: - receiving an Information Centric Networking, ICN, request from the one or more communication devices , - determining one or both of: a lack of availability of content requested in the ICN request and a lack of resources for providing the content requested from a content provider (Pi) based on metadata of the ICN request, and - initiating , in response to the determining, a handover of the one or more communication devices to the target network node . - receiving an Information Centric Networking, ICN, request from the one or more communication devices , - determining one or both of: a lack of availability of content requested in the ICN request and a lack of resources for providing the content requested from a content provider (Pi) based on metadata of the ICN request, and - initiating , in response to the determining, a handover of the one or more communication devices to the target network node .
Gripping device for gripping a single-layer or multi-layer structure , characterised in that it includes: - a main body comprising a top face and a bottom face , opposite the top face , the main body including a system for applying suction to the structure located on the bottom face of the main body intended to be facing the structure , - at least three systems for gripping the structure , which are connected to the main body , each gripping system including a gripping head , capable of rotating about the three axes (X, Y, Z) of a Cartesian coordinate system, provided with a notch for holding the structure in position, - at least three systems for blowing a gas onto the structure , which are respectively associated with said at least three gripping systems , to hold the structure at a distance from the main body , - a device for actuating the gripping of the structure , which is configured to ensure suction via the suction system , blowing via said at least three blowing systems and rotation of the gripping heads to allow the structure to be gripped. - a main body comprising a top face and a bottom face , opposite the top face , the main body including a system for applying suction to the structure located on the bottom face of the main body intended to be facing the structure , - at least three systems for gripping the structure , which are connected to the main body , each gripping system including a gripping head , capable of rotating about the three axes (X, Y, Z) of a Cartesian coordinate system, provided with a notch for holding the structure in position, - at least three systems for blowing a gas onto the structure , which are respectively associated with said at least three gripping systems , to hold the structure at a distance from the main body , - a device for actuating the gripping of the structure , which is configured to ensure suction via the suction system , blowing via said at least three blowing systems and rotation of the gripping heads to allow the structure to be gripped.
A phase difference film solely consisting essentially of a single species of copolymer P containing a polymerization unit A and a polymerization unit B, the weight fraction of the polymerization unit A in the copolymer P being 50% by weight or more, and 90% by weight or less, the phase difference film having a phase separation structure that exhibits a structural birefringence, the polymerization unit A is a unit represented by the general formula (A): wherein R C is a group selected from the group consisting of a phenyl group, a biphenyl group, a naphthyl group, an anthracene group, a phenanthrene group, a naphthacene group, a pentacene group, and a terphenyl group, and R 1 to R 3 are each independently a group selected from the group consisting of a hydrogen atom and an alkyl group of 1 to 12 carbon atoms, and the phase difference film having an NZ factor of greater than 0 and smaller than 1, the NZ factor being a value represented by (nx - nz)/(nx - ny), wherein nx represents a refractive index in a direction in which a maximum refractive index is given among in-plane directions, ny represents a refractive index in a direction, among the in-plane directions of the film, orthogonal to the direction giving nx, and nz represents a refractive index in the thickness direction of the film, the refractive indices being measured at a wavelength of 540 nm. the phase difference film having a phase separation structure that exhibits a structural birefringence, the polymerization unit A is a unit represented by the general formula (A): wherein R C is a group selected from the group consisting of a phenyl group, a biphenyl group, a naphthyl group, an anthracene group, a phenanthrene group, a naphthacene group, a pentacene group, and a terphenyl group, and R 1 to R 3 are each independently a group selected from the group consisting of a hydrogen atom and an alkyl group of 1 to 12 carbon atoms, and wherein R C is a group selected from the group consisting of a phenyl group, a biphenyl group, a naphthyl group, an anthracene group, a phenanthrene group, a naphthacene group, a pentacene group, and a terphenyl group, and R 1 to R 3 are each independently a group selected from the group consisting of a hydrogen atom and an alkyl group of 1 to 12 carbon atoms, and the phase difference film having an NZ factor of greater than 0 and smaller than 1, the NZ factor being a value represented by (nx - nz)/(nx - ny), wherein nx represents a refractive index in a direction in which a maximum refractive index is given among in-plane directions, ny represents a refractive index in a direction, among the in-plane directions of the film, orthogonal to the direction giving nx, and nz represents a refractive index in the thickness direction of the film, the refractive indices being measured at a wavelength of 540 nm.