mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging device comprising: - at least one photonic integrated circuit comprising: an integrated waveguide for guiding a light signal , and a light coupler and at least one further light coupler optically coupled to the integrated waveguide , the light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as a light beam , the at least one further light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as at least one further light beam , wherein each of said light coupler and the at least one further light coupler is a light propagating region in the photonic integrated circuit that comprises a light dispersing structure for coupling light out of the integrated circuit; - a microfluidic channel for containing an object immersed in a fluid medium, said microfluidic channel being configured to enable, in operation of the device, illumination of said object by said light beam, wherein the light coupler and the at least one further light coupler are positioned such that the light beam and the at least one further light beam generated by respectively the light coupler and the at least one further light coupler simultaneously illuminate the object from different angles for allowing recording 3D information of said object ; and - at least one imaging detector positioned for imaging said object illuminated by the light beam , the imaging device being a lens-free imaging device, wherein the imaging detector is configured to obtain a spatial pattern of the illuminated said object . - at least one photonic integrated circuit comprising: an integrated waveguide for guiding a light signal , and a light coupler and at least one further light coupler optically coupled to the integrated waveguide , the light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as a light beam , the at least one further light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as at least one further light beam , wherein each of said light coupler and the at least one further light coupler is a light propagating region in the photonic integrated circuit that comprises a light dispersing structure for coupling light out of the integrated circuit; - a microfluidic channel for containing an object immersed in a fluid medium, said microfluidic channel being configured to enable, in operation of the device, illumination of said object by said light beam, wherein the light coupler and the at least one further light coupler are positioned such that the light beam and the at least one further light beam generated by respectively the light coupler and the at least one further light coupler simultaneously illuminate the object from different angles for allowing recording 3D information of said object ; and - at least one imaging detector positioned for imaging said object illuminated by the light beam , the imaging device being a lens-free imaging device, wherein the imaging detector is configured to obtain a spatial pattern of the illuminated said object .
A terminal characterized by comprising: a mapping section configured to map a front-loaded demodulation reference signal, DMRS, and an additional DMRS to a physical uplink shared channel, PUSCH; and a transmission section configured to transmit the PUSCH being with aggregated multiple slots, wherein, when the additional DMRS is mapped to a top slot of the aggregated multiple slots, the mapping section is configured to map the additional DMRS in each of a second and later slots to the same symbol position as in the top slot. a mapping section configured to map a front-loaded demodulation reference signal, DMRS, and an additional DMRS to a physical uplink shared channel, PUSCH; and a transmission section configured to transmit the PUSCH being with aggregated multiple slots, wherein, when the additional DMRS is mapped to a top slot of the aggregated multiple slots, the mapping section is configured to map the additional DMRS in each of a second and later slots to the same symbol position as in the top slot.
A biomedical electrode comprising: a plate-shaped support portion ; an elastic pillar portion that is provided on a first surface of the plate-shaped support portion ; a conductive resin layer that is formed to cover a distal end of the elastic pillar portion ; and a conductive wire that is electrically connected to the conductive resin layer and is arranged in the elastic pillar portion from a distal end side toward a base end side, wherein the elastic pillar portion is elastically deformable and is formed of an insulating elastic member including a silicone rubber, and wherein a tensile elongation at break of the conductive wire is 1% or higher and 50% or lower. a plate-shaped support portion ; an elastic pillar portion that is provided on a first surface of the plate-shaped support portion ; a conductive resin layer that is formed to cover a distal end of the elastic pillar portion ; and a conductive wire that is electrically connected to the conductive resin layer and is arranged in the elastic pillar portion from a distal end side toward a base end side, wherein the elastic pillar portion is elastically deformable and is formed of an insulating elastic member including a silicone rubber, and wherein a tensile elongation at break of the conductive wire is 1% or higher and 50% or lower.
An additive manufacturing method, comprising: patterning a laser beam using a mirror array ; and reflecting the patterned laser beam from the mirror array onto a powder to melt the powder, wherein the pattern corresponds to a portion of a layer of an article, characterized in that the patterned laser beam comprises a plurality of laser spots, and groups of 9-25 mirrors are configured to provide each laser spot of the patterned laser beam. patterning a laser beam using a mirror array ; and reflecting the patterned laser beam from the mirror array onto a powder to melt the powder, wherein the pattern corresponds to a portion of a layer of an article, characterized in that the patterned laser beam comprises a plurality of laser spots, and groups of 9-25 mirrors are configured to provide each laser spot of the patterned laser beam.
A retention assembly for connecting a base to a tool having a shaft , wherein the retention assembly comprises: a shaft engagement socket defining a shaft receptacle configured to receive the shaft along an insertion axis; a retainer configured to releasably secure the shaft to the shaft engagement socket , the retainer having a body that defines an opening extending therethrough, the opening being dimensioned to receive the shaft; and at least one finger extending from the body of the retainer , the at least one finger defining a sliding surface and being configured to contact the shaft, characterized in that the sliding surface of the at least one finger is configured to slidably contact a ramp on the shaft engagement socket; wherein the retainer is configured to translate relative to the shaft engagement socket along the insertion axis, such that when the retainer is translated toward the shaft engagement socket, the sliding surface of the at least one finger slides along the ramp of the shaft engagement socket and causes the at least one finger to move away from the shaft , and when the retainer is translated away from the shaft engagement socket , the sliding surface of the at least one finger slides along the ramp and causes the at least one finger to move towards the shaft . a shaft engagement socket defining a shaft receptacle configured to receive the shaft along an insertion axis; a retainer configured to releasably secure the shaft to the shaft engagement socket , the retainer having a body that defines an opening extending therethrough, the opening being dimensioned to receive the shaft; and at least one finger extending from the body of the retainer , the at least one finger defining a sliding surface and being configured to contact the shaft, characterized in that the sliding surface of the at least one finger is configured to slidably contact a ramp on the shaft engagement socket; wherein the retainer is configured to translate relative to the shaft engagement socket along the insertion axis, such that when the retainer is translated toward the shaft engagement socket, the sliding surface of the at least one finger slides along the ramp of the shaft engagement socket and causes the at least one finger to move away from the shaft , and when the retainer is translated away from the shaft engagement socket , the sliding surface of the at least one finger slides along the ramp and causes the at least one finger to move towards the shaft .
An endoscope system comprising: a light source unit that emits red light, green light, and blue light at a first light emission ratio; an image pick-up sensor that images an observation target in a body, and outputs a color image signal including an image signal of a first color, an image signal of a second color, and an image signal of a third color, the image pick-up sensor imaging the observation target in the body illuminated by the red light, the green light, and the blue light at the first light emission ratio and outputting a first color image signal; and a control unit configured to change a light emission ratio of the red light, the green light, and the blue light of the light source unit from the first light emission ratio to a second light emission ratio and control the amount of light of at least one color among the red light, the green light, and the blue light so that a signal level of the image signal of the second color or the image signal of the third color in the first color image signal matches a signal level of the image signal of the first color, and wherein the image pick-up sensor images the observation target illuminated by the red light, the green light, and the blue light at the second light emission ratio, and outputs a second color image signal. a light source unit that emits red light, green light, and blue light at a first light emission ratio; an image pick-up sensor that images an observation target in a body, and outputs a color image signal including an image signal of a first color, an image signal of a second color, and an image signal of a third color, the image pick-up sensor imaging the observation target in the body illuminated by the red light, the green light, and the blue light at the first light emission ratio and outputting a first color image signal; and a control unit configured to change a light emission ratio of the red light, the green light, and the blue light of the light source unit from the first light emission ratio to a second light emission ratio and control the amount of light of at least one color among the red light, the green light, and the blue light so that a signal level of the image signal of the second color or the image signal of the third color in the first color image signal matches a signal level of the image signal of the first color, and wherein the image pick-up sensor images the observation target illuminated by the red light, the green light, and the blue light at the second light emission ratio, and outputs a second color image signal.
A clipping system for treating tissue, comprising: a clip including a pair of clip arms , each of the clip arms extending from a proximal end to a distal end , proximal ends of the clip arms slidably received within a channel of a capsule to be moved between an open configuration and a closed configuration, the capsule including a slot including a first portion extending from a proximal end of the capsule through a wall thereof and a second portion extending at an angle of between 0 to 90 degrees relative to the first portion , wherein the slot extends along an angled path and/or wherein the second portion extends at an angle of between 10 to 90 degrees relative to the first portion ; and an applicator including an elongated flexible member and a control member extending therethrough, the control member including a distal end configured to be releasably connected to the clip arms to move the arms between the open configuration and the closed configuration, a distal end of the elongated flexible member including a bushing , the bushing including a distal portion receivable within the proximal end of the capsule , the distal portion including an engaging tab extending laterally outward therefrom receivable within an engaging portion of the slot in a coupled configuration, a spring extending along the distal portion of the bushing and disposed proximally of the engaging tab so that, when the engaging tab is received within the engaging portion, the spring is compressed against a portion of the capsule . a clip including a pair of clip arms , each of the clip arms extending from a proximal end to a distal end , proximal ends of the clip arms slidably received within a channel of a capsule to be moved between an open configuration and a closed configuration, the capsule including a slot including a first portion extending from a proximal end of the capsule through a wall thereof and a second portion extending at an angle of between 0 to 90 degrees relative to the first portion , wherein the slot extends along an angled path and/or wherein the second portion extends at an angle of between 10 to 90 degrees relative to the first portion ; and an applicator including an elongated flexible member and a control member extending therethrough, the control member including a distal end configured to be releasably connected to the clip arms to move the arms between the open configuration and the closed configuration, a distal end of the elongated flexible member including a bushing , the bushing including a distal portion receivable within the proximal end of the capsule , the distal portion including an engaging tab extending laterally outward therefrom receivable within an engaging portion of the slot in a coupled configuration, a spring extending along the distal portion of the bushing and disposed proximally of the engaging tab so that, when the engaging tab is received within the engaging portion, the spring is compressed against a portion of the capsule .
A cementitious composite for in-situ hydration, the cementitious composite comprising: a sealing layer ; a containment layer ; a cementitious mixture disposed between the sealing layer and the containment layer , the cementitious mixture including a plurality of cementitious particles , the containment layer configured to prevent the plurality of cementitious particles from migrating out of the cementitious composite; and a connection layer disposed within the cementitious mixture and extending between the sealing layer and the containment layer , the connection layer including a plurality of connectors having ends that are discrete and spaced apart from each other. a sealing layer ; a containment layer ; a cementitious mixture disposed between the sealing layer and the containment layer , the cementitious mixture including a plurality of cementitious particles , the containment layer configured to prevent the plurality of cementitious particles from migrating out of the cementitious composite; and a connection layer disposed within the cementitious mixture and extending between the sealing layer and the containment layer , the connection layer including a plurality of connectors having ends that are discrete and spaced apart from each other.
A method for channel sounding in a wireless local area network, WLAN, system performed by an access point, AP, the method comprising: broadcasting a beacon comprising information on a sub-channel selective transmission, SST, sounding restricted access window, RAW, for channel sounding; transmitting a plurality of null data packet, NDP, frames in the SST sounding RAW to a station, STA; and receiving , from the STA, a report frame including information on at least one channel selected by the STA based on the NDP frames, wherein the beacon comprises a bit value indicating whether the channel sounding is performed through the SST sounding RAW and a bit value to control the transmission by the STA in a duration of the SST sounding RAW duration, and wherein the RAW is a duration of time in which access is permitted to predetermined STAs. broadcasting a beacon comprising information on a sub-channel selective transmission, SST, sounding restricted access window, RAW, for channel sounding; transmitting a plurality of null data packet, NDP, frames in the SST sounding RAW to a station, STA; and receiving , from the STA, a report frame including information on at least one channel selected by the STA based on the NDP frames, wherein the beacon comprises a bit value indicating whether the channel sounding is performed through the SST sounding RAW and a bit value to control the transmission by the STA in a duration of the SST sounding RAW duration, and wherein the RAW is a duration of time in which access is permitted to predetermined STAs.
An instrument for navigating to a target area near a subchondral defect of a bone, comprising: a body portion having a front surface and a patient specific surface opposite the front surface, the patient specific surface defining a negative impression of a portion of a skin surface of a patient, the negative impression including an imprint of a first anatomical landmark and a second anatomical landmark; and a targeting device configured to be attached to the front surface of the body portion, the targeting device including a rail and at least one device portal configured to guide a device into a subchondral region of the bone for treatment at the target area, characterised in that the first anatomical landmark is a patella and the second anatomical landmark is a tibial tubercle. a body portion having a front surface and a patient specific surface opposite the front surface, the patient specific surface defining a negative impression of a portion of a skin surface of a patient, the negative impression including an imprint of a first anatomical landmark and a second anatomical landmark; and a targeting device configured to be attached to the front surface of the body portion, the targeting device including a rail and at least one device portal configured to guide a device into a subchondral region of the bone for treatment at the target area, characterised in that the first anatomical landmark is a patella and the second anatomical landmark is a tibial tubercle.
A method of moving a snap point (444-456) of an object , characterized in that the method comprises the steps of: selecting an object on a workspace of a computer-aided design system ; selecting a tool that results in a set of first grips (404-428) and a second grip being displayed in association with the object , wherein the set of first grips (404-428) is associated with at least a resize function, and the second grip comprises (i) a first portion associated with a rotate function and (ii) a second portion indicating a snap point (444-456) location of the object , wherein the second portion of the second grip also indicates a center of rotation for the rotate function and the first portion of the second grip enables a user to rotate the object around the snap point (444-456), wherein the snap point (444-456) of the object facilitates placement of the object as the object is moved; selecting the second grip of the object ; moving the second grip to a desired location to create the snap point (444-456) for the object at the desired location ; and moving the object so that the snap point (444-456) of the object snaps to at least one of i) another point on the workspace , ii) another object on the workspace , or iii) a line displayed on the workspace . selecting an object on a workspace of a computer-aided design system ; selecting a tool that results in a set of first grips (404-428) and a second grip being displayed in association with the object , wherein the set of first grips (404-428) is associated with at least a resize function, and the second grip comprises (i) a first portion associated with a rotate function and (ii) a second portion indicating a snap point (444-456) location of the object , wherein the second portion of the second grip also indicates a center of rotation for the rotate function and the first portion of the second grip enables a user to rotate the object around the snap point (444-456), wherein the snap point (444-456) of the object facilitates placement of the object as the object is moved; selecting the second grip of the object ; moving the second grip to a desired location to create the snap point (444-456) for the object at the desired location ; and moving the object so that the snap point (444-456) of the object snaps to at least one of i) another point on the workspace , ii) another object on the workspace , or iii) a line displayed on the workspace .
Process for layer-by-layer production of three-dimensional objects, wherein said process comprises the steps of: a) applying a layer of a powder material solidifiable under the action of electromagnetic radiation, b) heating the powder material to not more than 10 K below the melting point according to DIN 53765 by means of a radiation from a heat-radiating element whose maximum radiation intensity is at a wavelength of 5000 nm or at longer wavelengths, c) selective melting/sintering of at least a region of the powder material which corresponds to the cross section of the three-dimensional object, d) repeating steps a) to c) until the three-dimensional object is obtained. a) applying a layer of a powder material solidifiable under the action of electromagnetic radiation, b) heating the powder material to not more than 10 K below the melting point according to DIN 53765 by means of a radiation from a heat-radiating element whose maximum radiation intensity is at a wavelength of 5000 nm or at longer wavelengths, c) selective melting/sintering of at least a region of the powder material which corresponds to the cross section of the three-dimensional object, d) repeating steps a) to c) until the three-dimensional object is obtained.
A method of calculating an amount of exercise performed, the method comprising: measuring noise based on a relative difference in displacement between a skin of a user and a sensor attached to the skin of the user; determining a number of steps taken by the user based on the measured noise, wherein the determining of the number of steps taken by the user comprises: sampling the measured noise; extracting peaks of the noise from the sampled noise; and determining the number of steps taken by the user based on a number of the extracted peaks; and calculating an amount of exercise performed by the user based on the determined number of steps. measuring noise based on a relative difference in displacement between a skin of a user and a sensor attached to the skin of the user; determining a number of steps taken by the user based on the measured noise, wherein the determining of the number of steps taken by the user comprises: sampling the measured noise; extracting peaks of the noise from the sampled noise; and determining the number of steps taken by the user based on a number of the extracted peaks; and sampling the measured noise; extracting peaks of the noise from the sampled noise; and determining the number of steps taken by the user based on a number of the extracted peaks; and calculating an amount of exercise performed by the user based on the determined number of steps.