mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus comprising: a signal line that connects an antenna and a wireless communication module to each other, the signal line being divided from the antenna at a position of an end portion thereof on the antenna side, and having a portion where the signal line is divided in part into sections, with an adjacent portion adjacent to the divided portion of the signal line being greater in line width than a main body portion of the signal line; a first ground pattern disposed to face the main body portion; and a second ground pattern disposed to face the adjacent portion, wherein the distance from the adjacent portion to the second ground pattern is longer than the distance from the main body portion to the first ground pattern, and the antenna and the wireless communication module are connected to each other through the signal line and a solder adhered to the adjacent portion. a signal line that connects an antenna and a wireless communication module to each other, the signal line being divided from the antenna at a position of an end portion thereof on the antenna side, and having a portion where the signal line is divided in part into sections, with an adjacent portion adjacent to the divided portion of the signal line being greater in line width than a main body portion of the signal line; a first ground pattern disposed to face the main body portion; and a second ground pattern disposed to face the adjacent portion, wherein the distance from the adjacent portion to the second ground pattern is longer than the distance from the main body portion to the first ground pattern, and the antenna and the wireless communication module are connected to each other through the signal line and a solder adhered to the adjacent portion.
A method of recording an audio/video, A/V, signal, comprising the steps of: selecting a category item for the AN signal; storing category information about the AN signal, the category information including the category item; determining a compression ratio for the A/V signal according to the category item selected for the AN signal; and recording the A/V signal, which is compressed at the compression ratio, to the storage medium. selecting a category item for the AN signal; storing category information about the AN signal, the category information including the category item; determining a compression ratio for the A/V signal according to the category item selected for the AN signal; and recording the A/V signal, which is compressed at the compression ratio, to the storage medium.
Pressurisable filtration vessel, particularly in cylindrical form, comprising: - a filter element, comprised of a plurality of vertically arranged filtration membrane modules, particularly ultrafiltration membrane modules, the filtration membrane modules each comprised of a plurality of cylindrical hollow fibre elements for filtering a to be filtered fluid; - a distributor at a bottom end connected to an inlet for distributing an input fluid to the filter element; - a collector connected to an outlet for collecting an output fluid from the filter element; wherein the filter element is located between the distributor and the collector, wherein the distributor is arranged to guide to be filtered fluid to cylindrical outer surfaces of the plurality of filtration membrane modules, wherein the plurality of filtration membrane modules are positioned at a first end via a support plate and at a second end via a retaining plate, wherein the plurality of filtration membrane modules are configured that to be filtered fluid is fed via the cylindrical outer surfaces, wherein a scouring plate is provided, the scouring plate providing air holes directed to a surface of the filtration membrane modules wherein the scouring plate provides blanked out punchings and wherein the air scour plate has internal channels in walls of the punchings which are suitable to guide air jets via the air holes perpendicular to the filtration membrane modules, characterized in that the scouring plate being fed by scouring air via air channels, wherein the air channels are provided from a bottom distribution plate integrated in the support plate to the scouring plate. - a filter element, comprised of a plurality of vertically arranged filtration membrane modules, particularly ultrafiltration membrane modules, the filtration membrane modules each comprised of a plurality of cylindrical hollow fibre elements for filtering a to be filtered fluid; - a distributor at a bottom end connected to an inlet for distributing an input fluid to the filter element; - a collector connected to an outlet for collecting an output fluid from the filter element;
Device for the aerial and virtual projection of an auto stereoscopic digital image comprising: - a case comprising a front wall, a rear wall, connected to each other by at least an upper wall and a lower wall, said front wall comprising an opening forming a viewing window for an aerial and virtual image of said digital auto stereoscopic image, - an optical system comprising at least one concave spherical mirror having an optical axis, a focal length F, a center of the radius of curvature C located on said optical axis, said optical system being arranged in said case such that it can direct at least part of the received incident light towards said viewing window to form an aerial and virtual image of the digital auto stereoscopic image, - a screen for displaying autostereoscopic images with N viewpoints, overlaid with a cylindrical lens array forming an optical component for selecting viewpoints of said digital autostereoscopic image to be projected, housed in said case opposite said spherical mirror at a distance substantially equal to twice the focal length F, and distanced from said optical axis of said spherical mirror, perpendicularly to this optical axis by a distance of at least half the height of the display screen, said height being defined according to the axis perpendicular to said optical axis. - a case comprising a front wall, a rear wall, connected to each other by at least an upper wall and a lower wall, said front wall comprising an opening forming a viewing window for an aerial and virtual image of said digital auto stereoscopic image, - an optical system comprising at least one concave spherical mirror having an optical axis, a focal length F, a center of the radius of curvature C located on said optical axis, said optical system being arranged in said case such that it can direct at least part of the received incident light towards said viewing window to form an aerial and virtual image of the digital auto stereoscopic image, - a screen for displaying autostereoscopic images with N viewpoints, overlaid with a cylindrical lens array forming an optical component for selecting viewpoints of said digital autostereoscopic image to be projected, housed in said case opposite said spherical mirror at a distance substantially equal to twice the focal length F, and distanced from said optical axis of said spherical mirror, perpendicularly to this optical axis by a distance of at least half the height of the display screen, said height being defined according to the axis perpendicular to said optical axis.
A method for estimating the roll angle of a camera in a travelling motor vehicle with the camera comprising the following steps: a) with the camera an image sequence is recorded of the motor vehicle environment, b) from the camera images, at least one signature (S1-S6) is determined on the road surface and followed (tracked) c) from the altered position of the at least one signature (S1-S6) in one or several subsequent camera image(s), it is determined in which roll angle direction the camera is rotated d) the value of the roll angle is iteratively corrected by a correction angle until the estimated roll angle sufficiently compensates the rotation of the camera. a) with the camera an image sequence is recorded of the motor vehicle environment, b) from the camera images, at least one signature (S1-S6) is determined on the road surface and followed (tracked) c) from the altered position of the at least one signature (S1-S6) in one or several subsequent camera image(s), it is determined in which roll angle direction the camera is rotated d) the value of the roll angle is iteratively corrected by a correction angle until the estimated roll angle sufficiently compensates the rotation of the camera.
A monolithic device comprising: a light emitting diode, LED, array comprising: an array of pillars of semiconductor layers; the semiconductor layers including an N-type layer, an active layer, and a P-type layer; the pillars having a height greater than their width; a fill between the pillars, the fill including a reflective metal; the reflective metal providing mechanical support for the pillars, providing optical isolation between the pillars, and electrically contacting the N-type layer of each pillar along sidewalls of the N-type layers; and a dielectric material insulating sidewalls of the P-type layer and the active layer from the reflective metal. an array of pillars of semiconductor layers; the semiconductor layers including an N-type layer, an active layer, and a P-type layer; the pillars having a height greater than their width; a fill between the pillars, the fill including a reflective metal; the reflective metal providing mechanical support for the pillars, providing optical isolation between the pillars, and electrically contacting the N-type layer of each pillar along sidewalls of the N-type layers; and a dielectric material insulating sidewalls of the P-type layer and the active layer from the reflective metal.
A ram air fan assembly comprising: a ram air fan disposed at a fan inlet; a ram air fan motor operably connected to the ram air fan; a blower operably connected to the ram air fan; a cap disposed in the fan inlet upstream of the ram air fan; characterised in that the blower is configured to redirect a cooling flow across the ram air fan motor from a substantially axially directed flow to a substantially radially directed flow thereby increasing the cooling flow across the ram air fan motor, and in that the blower is disposed axially between the ram air fan and the cap. a ram air fan disposed at a fan inlet; a ram air fan motor operably connected to the ram air fan; a blower operably connected to the ram air fan; a cap disposed in the fan inlet upstream of the ram air fan; characterised in that the blower is configured to redirect a cooling flow across the ram air fan motor from a substantially axially directed flow to a substantially radially directed flow thereby increasing the cooling flow across the ram air fan motor, and in that the blower is disposed axially between the ram air fan and the cap.
A method of assembling a prosthetic heart valve including a leaflet assembly, comprising: forming a plurality of leaflet sub-assemblies, each leaflet sub-assembly including a leaflet and a skirt, wherein each leaflet sub-assembly is formed by placing the skirt on one side of the leaflet such that the skirt extends along a curved cusp edge portion of the leaflet and two commissure tabs of the leaflet, folding two end portions of the skirt around corresponding commissures tabs of the leaflet, stitching each folded end portion to a corresponding commissure tab of the two commissure tabs to form a respective half commissure portion of the leaflet sub-assembly, and stitching the skirt to the cusp edge portion of the leaflet; forming the leaflet assembly by pairing each half commissure portion of each leaflet sub-assembly with a half commissure portion of another leaflet sub-assembly of the plurality of leaflet sub-assemblies to form a plurality of pairs of adjacent half commissure portions, and for each pair, stitching the adjacent half commissure portions to each other to form a commissure of the leaflet assembly; and securing the leaflet assembly to a frame of the prosthetic heart valve via fastening each commissure to a commissure support portion of the frame. forming a plurality of leaflet sub-assemblies, each leaflet sub-assembly including a leaflet and a skirt, wherein each leaflet sub-assembly is formed by placing the skirt on one side of the leaflet such that the skirt extends along a curved cusp edge portion of the leaflet and two commissure tabs of the leaflet, folding two end portions of the skirt around corresponding commissures tabs of the leaflet, stitching each folded end portion to a corresponding commissure tab of the two commissure tabs to form a respective half commissure portion of the leaflet sub-assembly, and stitching the skirt to the cusp edge portion of the leaflet; forming the leaflet assembly by pairing each half commissure portion of each leaflet sub-assembly with a half commissure portion of another leaflet sub-assembly of the plurality of leaflet sub-assemblies to form a plurality of pairs of adjacent half commissure portions, and for each pair, stitching the adjacent half commissure portions to each other to form a commissure of the leaflet assembly; and securing the leaflet assembly to a frame of the prosthetic heart valve via fastening each commissure to a commissure support portion of the frame.
A movement control device comprising: a housing, an elongate push rod mounted in the housing for reciprocal movement along a longitudinal axis, with one end of the push rod extending out of the housing, a spring arranged between the housing and the push rod to provide a biassing force on the push rod in a first direction parallel to said longitudinal axis causing an outward movement of the push rod out of the housing, a damping device arranged between the housing and the push rod to provide a damped resistive force in a direction opposite to said first direction, wherein the damping device is a piston and cylinder type linear damper comprising a piston rod, and an indexing mechanism for controlling movement of the push rod relative to the housing, with the damper being arranged to act along an axis that is parallel to the longitudinal axis of the push rod and spaced apart from it, characterised in that the push rod comprises a flange arranged to be spaced apart from the piston rod of the damper in an initial stage of the outward movement of the push rod and to come into abutting engagement with the piston rod subsequently. a housing, an elongate push rod mounted in the housing for reciprocal movement along a longitudinal axis, with one end of the push rod extending out of the housing, a spring arranged between the housing and the push rod to provide a biassing force on the push rod in a first direction parallel to said longitudinal axis causing an outward movement of the push rod out of the housing, a damping device arranged between the housing and the push rod to provide a damped resistive force in a direction opposite to said first direction, wherein the damping device is a piston and cylinder type linear damper comprising a piston rod, and an indexing mechanism for controlling movement of the push rod relative to the housing, with the damper being arranged to act along an axis that is parallel to the longitudinal axis of the push rod and spaced apart from it, characterised in that the push rod comprises a flange arranged to be spaced apart from the piston rod of the damper in an initial stage of the outward movement of the push rod and to come into abutting engagement with the piston rod subsequently.
A method for enabling an autonomous driving mode for a mixed-mode vehicle configured to switch between a manual driving mode and an autonomous driving mode, the method comprising: - determining if a geographical position of the vehicle is within a predetermined launch area, - determining if a vehicle user is present aboard the vehicle or not, - enabling the autonomous driving mode when at least the two following conditions are determined: the geographical position of the vehicle is within the predetermined launch area and a vehicle user is not present aboard the vehicle, wherein the method further comprises: - receiving a signal indicative of an autonomous driving mission, - initiating the autonomous driving mission when also the autonomous driving mode is enabled, characterized in that the method further comprises: - determining if a load is connected to the vehicle and/or provided on the vehicle in accordance with a condition given by the autonomous driving mission, and - initiating the autonomous driving mission when it is also determined that the load is connected to the vehicle and/or provided on the vehicle. - determining if a geographical position of the vehicle is within a predetermined launch area, - determining if a vehicle user is present aboard the vehicle or not, - enabling the autonomous driving mode when at least the two following conditions are determined: the geographical position of the vehicle is within the predetermined launch area and a vehicle user is not present aboard the vehicle, wherein the method further comprises: - receiving a signal indicative of an autonomous driving mission, - initiating the autonomous driving mission when also the autonomous driving mode is enabled, characterized in that the method further comprises: - determining if a load is connected to the vehicle and/or provided on the vehicle in accordance with a condition given by the autonomous driving mission, and - initiating the autonomous driving mission when it is also determined that the load is connected to the vehicle and/or provided on the vehicle.
A construction machine comprising: a swing structure; a hydraulic pump; a hydraulic motor for driving the swing structure using hydraulic fluid from the hydraulic pump; an electric motor for driving the swing structure with or without the aid of the hydraulic motor; and a hydraulic actuator driven by the hydraulic fluid from the hydraulic pump, the hydraulic actuator being able to be operated together with the swing structure, characterized in that only the electric motor is used to swing the swing structure when the swing structure is operated together with the hydraulic actuator. a swing structure; a hydraulic pump; a hydraulic motor for driving the swing structure using hydraulic fluid from the hydraulic pump; an electric motor for driving the swing structure with or without the aid of the hydraulic motor; and a hydraulic actuator driven by the hydraulic fluid from the hydraulic pump, the hydraulic actuator being able to be operated together with the swing structure, characterized in that only the electric motor is used to swing the swing structure when the swing structure is operated together with the hydraulic actuator.
A system for wireless energy distribution over a defined area, the system comprising: a source resonator coupled to an energy source and generating an oscillating magnetic field with a driving frequency; a repeater resonator (2902, 3014, 3016, 3018, 3020) positioned in the defined area and in proximity to the source resonator, and the repeater resonator (2902, 3014, 3016, 3018, 3020) having a resonant frequency; and at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) positioned in the defined area, each of the at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) positioned in proximity to at least one other repeater resonator, and each of the at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) having a resonant frequency; wherein the source resonator is configured to wirelessly transfer power through the repeater resonators (2902, 3014, 3016, 3018, 3020) in the defined area; wherein the system is configured to detune the resonant frequency of at least one of the repeater resonators (2902, 3014, 3016, 3018, 3020) from the driving frequency of the source resonator to adjust a power distribution in the area; and wherein the detuning the at least one of the repeater resonators (2902, 3014, 3016, 3018, 3020) is performed according to a routing algorithm. a source resonator coupled to an energy source and generating an oscillating magnetic field with a driving frequency; a repeater resonator (2902, 3014, 3016, 3018, 3020) positioned in the defined area and in proximity to the source resonator, and the repeater resonator (2902, 3014, 3016, 3018, 3020) having a resonant frequency; and at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) positioned in the defined area, each of the at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) positioned in proximity to at least one other repeater resonator, and each of the at least two other repeater resonators (2902, 3014, 3016, 3018, 3020) having a resonant frequency;
Crutch for a forearm of a person for supporting said person, comprising: - a longitudinally extending member having a floor-engaging first free end, - a handle connected to said longitudinally extending member, which handle is designed to be manually graspable by said person, and - a cuff connected to said longitudinally extending member, which cuff forms a contact surface that is designed to support said forearm, when said handle is held by a hand associated to said forearm, characterized in that, the contact surface comprises a recess that is designed to receive the ulna bone of said forearm, when said handle is held by said hand associated to said forearm, wherein said recess is a groove formed in said contact surface, wherein said groove extends along an extension direction from an upper edge of the cuff to a lower edge of the cuff. - a longitudinally extending member having a floor-engaging first free end, - a handle connected to said longitudinally extending member, which handle is designed to be manually graspable by said person, and - a cuff connected to said longitudinally extending member, which cuff forms a contact surface that is designed to support said forearm, when said handle is held by a hand associated to said forearm,