mhurhangee/ep-ind-claims huggingface dataset:
A camera device that assists a user in photographing a vehicle for documenting a condition of the vehicle, comprising a screen and a camera; wherein the camera device is adapted to receive user input regarding a year, make and model of the vehicle, said camera device including a processor for causing the screen to display a video image of the vehicle, that is captured by the camera and a graphical overlay that is in a shape of an outline of the vehicle and is located at a predetermined orientation relative to said screen, said predetermined orientation including a predetermined horizontal angle and predetermined vertical height, said camera adapted to capture a screen shot following a user action when said image of said vehicle is aligned with said graphical overlay, said camera including memory for storing said screen shot that includes an image of the vehicle that was aligned with said graphical overlay; wherein said graphical overlay of the vehicle is created by extrapolating a 2D image outline from a 3D model of the vehicle.
An additive manufacturing apparatus for building an object (302, 402, 502, 602), comprising: an irradiation source; a build chamber, having at least one chamber wall (306, 406, 506, 606); a powder delivery mechanism; and a build platform (308, 408, 508, 608) on which the object (302, 402, 502, 602) is built, the build chamber and the build platform (308, 408, 508, 608) defining while in operation a powder bed (304, 404, 504, 604), wherein at least one surface of the build chamber or build platform (308, 408, 508, 608) is moveable in a manner that is capable of adjusting forces on the object (302, 402, 502, 602) in the powder bed (304, 404, 504, 604), wherein the at least one chamber wall (306, 406, 506, 606) is segmented and each segmented portion is loaded with springs or with actuators or with fluid pressure valves. an irradiation source; a build chamber, having at least one chamber wall (306, 406, 506, 606); a powder delivery mechanism; and a build platform (308, 408, 508, 608) on which the object (302, 402, 502, 602) is built, the build chamber and the build platform (308, 408, 508, 608) defining while in operation a powder bed (304, 404, 504, 604), wherein at least one surface of the build chamber or build platform (308, 408, 508, 608) is moveable in a manner that is capable of adjusting forces on the object (302, 402, 502, 602) in the powder bed (304, 404, 504, 604), wherein the at least one chamber wall (306, 406, 506, 606) is segmented and each segmented portion is loaded with springs or with actuators or with fluid pressure valves.
A computer implemented method for generating a final corrected head-related, HR, filter dataset,, the method comprising: obtaining a first corrected HR filter dataset, H I ′, wherein the obtaining comprises: obtaining an initial HR filter dataset,; obtaining an extracted HR filter dataset,, extracted from the initial HR filter dataset,; obtaining a model,, of the extracted HR filter dataset,; generating a modelled HR filter dataset,, using the model,; selecting for correction one or more HR filters that are included in the initial HR filter dataset,, based on the modelled HR filter dataset,, and the extracted HR filter dataset,; and generating the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein the method further comprises generating the final corrected HR filter set using the first corrected HR filter dataset H I ′, or the final corrected HR filter dataset is the first corrected HR filter dataset H I ′. obtaining a first corrected HR filter dataset, H I ′, wherein the obtaining comprises: obtaining an initial HR filter dataset,; obtaining an extracted HR filter dataset,, extracted from the initial HR filter dataset,; obtaining a model,, of the extracted HR filter dataset,; generating a modelled HR filter dataset,, using the model,; selecting for correction one or more HR filters that are included in the initial HR filter dataset,, based on the modelled HR filter dataset,, and the extracted HR filter dataset,; and generating the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein obtaining an initial HR filter dataset,; obtaining an extracted HR filter dataset,, extracted from the initial HR filter dataset,; obtaining a model,, of the extracted HR filter dataset,; generating a modelled HR filter dataset,, using the model,; selecting for correction one or more HR filters that are included in the initial HR filter dataset,, based on the modelled HR filter dataset,, and the extracted HR filter dataset,; and generating the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein the method further comprises generating the final corrected HR filter set using the first corrected HR filter dataset H I ′, or the final corrected HR filter dataset is the first corrected HR filter dataset H I ′.
An optical coherence tomography catheter for performing elastographic deformation mapping of tissues and plaques of an interior body, the OCT catheter comprising: a catheter having an elongated catheter body extending longitudinally between a proximal end and a distal end along a longitudinal axis, the catheter body including a distal portion at the distal end and a catheter lumen from the proximal end to the distal end; a palpator, disposed in the distal portion, the palpator being configured to apply one of a directed fluid directed to a target area of the interior body or a mechanical indenter to contact the target area of the interior body, to produce a surface-applied palpation force to the target area of the interior body to mechanically displace the interior body and cause elastographic deformation of the target area of one or more surface and subsurface tissues and plaques; and an OCT imaging sensor, disposed in the distal portion, to direct and deliver an OCT beam for OCT deformation detection including elastographic deformation measurement to provide elastographic mapping of the target area, wherein, when the palpator is configured to apply a directed fluid to the target area: the palpator is configured to produce kHz range pulsed fluid palpation, or the palpator comprises a thermal microbubble driven emitter to explosively evaporate a fluid to create one or more microbubbles which cause emission of some of the fluid to produce palpating shock waves. a catheter having an elongated catheter body extending longitudinally between a proximal end and a distal end along a longitudinal axis, the catheter body including a distal portion at the distal end and a catheter lumen from the proximal end to the distal end; a palpator, disposed in the distal portion, the palpator being configured to apply one of a directed fluid directed to a target area of the interior body or a mechanical indenter to contact the target area of the interior body, to produce a surface-applied palpation force to the target area of the interior body to mechanically displace the interior body and cause elastographic deformation of the target area of one or more surface and subsurface tissues and plaques; and an OCT imaging sensor, disposed in the distal portion, to direct and deliver an OCT beam for OCT deformation detection including elastographic deformation measurement to provide elastographic mapping of the target area, wherein, when the palpator is configured to apply a directed fluid to the target area: the palpator is configured to produce kHz range pulsed fluid palpation, or the palpator comprises a thermal microbubble driven emitter to explosively evaporate a fluid to create one or more microbubbles which cause emission of some of the fluid to produce palpating shock waves.
A pharmaceutical composition suitable for delivering O 2 to humans comprising (i) a pharmaceutically acceptable amount of an H-NOX protein, and (ii) a pharmaceutically acceptable carrier, wherein either (a) the O 2 dissociation constant of the H-NOX protein is between 1 nM and 1 mM at 20 °C, and the NO reactivity of the H-NOX protein is less than 700 s -1 at 20 °C, or (b) the O 2 dissociation constant of the H-NOX protein is within 2 orders of magnitude of that of human hemoglobin alpha, and the NO reactivity of the H-NOX protein is at least 10-fold lower than that of human hemoglobin alpha and wherein the H-NOX protein comprises at least one distal pocket mutation, said mutation being of a residue in alpha-helix A, D, E, or G and wherein the H-NOX protein is non-immunogenic in humans. (a) the O 2 dissociation constant of the H-NOX protein is between 1 nM and 1 mM at 20 °C, and the NO reactivity of the H-NOX protein is less than 700 s -1 at 20 °C, or (b) the O 2 dissociation constant of the H-NOX protein is within 2 orders of magnitude of that of human hemoglobin alpha, and the NO reactivity of the H-NOX protein is at least 10-fold lower than that of human hemoglobin alpha
A gateway device comprising a processor unit arranged to run a routing protocol for including the gateway device into an ad-hoc communication network, the gateway device being capable of relaying, via a half-duplex communication link, data from the ad-hoc communication network to a permanent communication network and relaying, via the half-duplex communication link, data from the permanent communication network to the ad-hoc communication network, wherein the processor unit is arranged to set the following operations into a pre-determined order of mutual priority: relaying data from the ad-hoc communication network to the permanent communication network via the half-duplex communication link and relaying data from the permanent communication network to the ad-hoc communication network via the half-duplex communication link.
Method for energy-efficient operation of a network element (10, 11, 12, 13, 14, 15) in a network, wherein the method comprises the following steps which are carried out by the network element: receiving a first destination address (202, 302) for useful data (200, 300) in a message (2, 3) in a standby mode of the network element; determining, on the basis of the destination address, that the useful data are not intended for the network element; changing to an idle mode for a predetermined period (Δt, Δt'); and changing from the idle mode to the standby mode or to a transmission mode after expiry of the predetermined period, wherein the energy consumption (E 0, E 0 ', E -1, E- 1 ') of the network element is lower in the idle mode than in the standby mode, characterized in that the network element determines the predetermined period (Δt, Δt') from a sender address and the destination address (202, 302) which are contained in at least one meta data block, for example a message header of the message, and are received by the network element. receiving a first destination address (202, 302) for useful data (200, 300) in a message (2, 3) in a standby mode of the network element; determining, on the basis of the destination address, that the useful data are not intended for the network element; changing to an idle mode for a predetermined period (Δt, Δt'); and changing from the idle mode to the standby mode or to a transmission mode after expiry of the predetermined period, wherein the energy consumption (E 0, E 0 ', E -1, E- 1 ') of the network element is lower in the idle mode than in the standby mode, characterized in that the network element determines the predetermined period (Δt, Δt') from a sender address and the destination address (202, 302) which are contained in at least one meta data block, for example a message header of the message, and are received by the network element.
A process for preparing adrenaline-containing double layered lipid vesicles, preferably liposomes, comprising the steps of: a) preparing a buffer solution with an acidic pH comprised between 2 and 6, preferably comprised between 2.4 and 3.0; b) adding a solution containing lipids to the buffer solution and maintaining under stirring until a vesicular dispersion is formed; c) sonicating the vesicular dispersion for a time comprised between 60 and 200 seconds, preferably between 100 and 150 seconds; d) adding at least one pharmaceutically acceptable antioxidant substance; e) adding a basic solution to the vesicular dispersion until reaching a pH of about 9, preferably comprised between 8 and 9, even more preferably comprised between 8.7 and 9.0; f) adding adrenaline and maintaining the dispersion under stirring for a time comprised between 5 and 15 hours, preferably between 10 and 13 hours; wherein steps a) - f) are performed in the order described. a) preparing a buffer solution with an acidic pH comprised between 2 and 6, preferably comprised between 2.4 and 3.0; b) adding a solution containing lipids to the buffer solution and maintaining under stirring until a vesicular dispersion is formed; c) sonicating the vesicular dispersion for a time comprised between 60 and 200 seconds, preferably between 100 and 150 seconds; d) adding at least one pharmaceutically acceptable antioxidant substance; e) adding a basic solution to the vesicular dispersion until reaching a pH of about 9, preferably comprised between 8 and 9, even more preferably comprised between 8.7 and 9.0; f) adding adrenaline and maintaining the dispersion under stirring for a time comprised between 5 and 15 hours, preferably between 10 and 13 hours;
A robotic collection system comprising: a working robot configured to autonomously travel on a field to collect target objects on the field; and a management controller configured to manage a work schedule of the working robot, wherein the management controller obtains information about an amount of the target objects on the field, and changes an existing work schedule based on the information, characterized in that when determining that efficiency of collection work is low based on the information, the management controller increases the frequency of a standby state of the working robot. a working robot configured to autonomously travel on a field to collect target objects on the field; and a management controller configured to manage a work schedule of the working robot, wherein the management controller obtains information about an amount of the target objects on the field, and changes an existing work schedule based on the information, characterized in that when determining that efficiency of collection work is low based on the information, the management controller increases the frequency of a standby state of the working robot.
A colored hair ornament comprising: a light source; and a plurality of light-transmissive filaments (10, 15, 130); wherein each light-transmissive filament has a proximal end (40, 132), a distal end (50, 134) and a side wall, wherein the proximal end of each light-transmissive filament is arranged to receive light from the light source; wherein one or more light-transmissive filaments of the plurality of light-transmissive filaments are coated with a hair coloring composition; wherein the hair coloring composition comprises a film-forming aminosilicone polymer and a hair coloring agent. a light source; and a plurality of light-transmissive filaments (10, 15, 130); wherein each light-transmissive filament has a proximal end (40, 132), a distal end (50, 134) and a side wall, wherein the proximal end of each light-transmissive filament is arranged to receive light from the light source; wherein one or more light-transmissive filaments of the plurality of light-transmissive filaments are coated with a hair coloring composition; wherein the hair coloring composition comprises a film-forming aminosilicone polymer and a hair coloring agent.
A front part body structure of a vehicle, the front part body structure comprising: an upper frame which is extended in a longitudinal direction of the vehicle, one end of which is joined to a front pillar, and which includes an inner panel and an outer panel, characterised in that the outer panel is divided in a dividing part in the longitudinal direction of the vehicle to form a front outer panel and a rear outer panel of the outer panel; whereby a first partition wall is provided between the inner panel and the outer panel, one end of which is joined to the inner panel, and the other end of which is fastened and fixed to the dividing part of the outer panel by means of a fastening member. an upper frame which is extended in a longitudinal direction of the vehicle, one end of which is joined to a front pillar, and which includes an inner panel and an outer panel, characterised in that the outer panel is divided in a dividing part in the longitudinal direction of the vehicle to form a front outer panel and a rear outer panel of the outer panel; whereby a first partition wall is provided between the inner panel and the outer panel, one end of which is joined to the inner panel, and the other end of which is fastened and fixed to the dividing part of the outer panel by means of a fastening member.
A shaft assembly attachable to a handle of a surgical instrument, said shaft assembly comprising: a shaft, comprising: a connector portion configured to operably connect said shaft to the handle; and a proximal end; an end effector comprising a distal end; an articulation joint connecting said end effector to said shaft; a firing driver movable relative to said end effector by a firing motion; and an articulation driver system, comprising: a first articulation driver (10030, 10130, 10230, 10330, 10430); and a second articulation driver (10040, 10140, 10240, 10340, 10440) operably engaged with said end effector; and an articulation lock (10050, 10150, 10250, 10350, 10450), characterised in that the articulation lock is configured to releasably hold said second articulation driver in position, wherein an initial movement of said first articulation driver is configured to unlock said second articulation driver and a subsequent movement of said first articulation driver is configured to drive said second articulation driver. a shaft, comprising: a connector portion configured to operably connect said shaft to the handle; and a proximal end; a connector portion configured to operably connect said shaft to the handle; and a proximal end; an end effector comprising a distal end; an articulation joint connecting said end effector to said shaft; a firing driver movable relative to said end effector by a firing motion; and an articulation driver system, comprising: a first articulation driver (10030, 10130, 10230, 10330, 10430); and a second articulation driver (10040, 10140, 10240, 10340, 10440) operably engaged with said end effector; and a first articulation driver (10030, 10130, 10230, 10330, 10430); and a second articulation driver (10040, 10140, 10240, 10340, 10440) operably engaged with said end effector; and an articulation lock (10050, 10150, 10250, 10350, 10450), characterised in that the articulation lock is configured to releasably hold said second articulation driver in position, wherein an initial movement of said first articulation driver is configured to unlock said second articulation driver and a subsequent movement of said first articulation driver is configured to drive said second articulation driver.
A bonded retainer (2, 18, 30), configured to stabilize a plurality of teeth (5, 22, 34) in a jaw (3, 20, 32), the bonded retainer comprising: a contact surface (4, 21, 33) that is aligned overall with a parabolic curvature of the jaw in a longitudinal direction (1, 19) of the bonded retainer (2, 18, 30) and that is aligned locally with a lingual surface contour of the teeth (5, 22, 34); a lingual surface (6, 23) that extends lingually in parallel with the contact surface (4, 21, 33), and retentions (10, 14, 16, 25, 28, 36) that extend from the lingual surface (6, 23) transversal to the longitudinal direction (1, 19). a contact surface (4, 21, 33) that is aligned overall with a parabolic curvature of the jaw in a longitudinal direction (1, 19) of the bonded retainer (2, 18, 30) and that is aligned locally with a lingual surface contour of the teeth (5, 22, 34); a lingual surface (6, 23) that extends lingually in parallel with the contact surface (4, 21, 33), and retentions (10, 14, 16, 25, 28, 36) that extend from the lingual surface (6, 23) transversal to the longitudinal direction (1, 19).
A method for detecting an opening in a casing of a communication device, wherein the communication device comprises an acoustic speaker and an acoustic sensor, characterized in that the method comprises: - transmitting from the acoustic speaker an acoustic signal propagating inside the casing of the communication device, - receiving to the acoustic sensor an acoustic signal response, - analyzing the received acoustic signal response, and - determining, based on said received acoustic signal response, if the casing constitutes a closed space. - transmitting from the acoustic speaker an acoustic signal propagating inside the casing of the communication device, - receiving to the acoustic sensor an acoustic signal response, - analyzing the received acoustic signal response, and - determining, based on said received acoustic signal response, if the casing constitutes a closed space.
A distributed charging system comprising a plurality of transportable charging stations and at least one of a charging station transport unit, wherein the at least one charging station transport unit of the distributed charging system has at least one lifting mechanism adapted to lift at least one charging station deployed on a ground floor onto a transport platform of the charging station transport unit for transport to another location, wherein each transportable charging station has at least one battery pack with rechargeable battery cells adapted to store electrical energy which is used to charge batteries of electrically powered vehicles connected to charging stations deployed on the ground floor, characterised in that the housing of the portable charging station comprises a ground locking interface unit adapted to lock the charging station mechanically and/or electrically to a base frame of the distributed charging system installed on the ground floor, wherein the base frame is connected to a local and/or public power supply grid to provide electrical current via electrical contacts of the ground locking interface unit and via power supply lines to a battery loading circuitry of the transportable charging station deployed on said base frame. the housing of the portable charging station comprises a ground locking interface unit adapted to lock the charging station mechanically and/or electrically to a base frame of the distributed charging system installed on the ground floor, wherein the base frame is connected to a local and/or public power supply grid to provide electrical current via electrical contacts of the ground locking interface unit and via power supply lines to a battery loading circuitry of the transportable charging station deployed on said base frame.
A resin composite in which a fiber-reinforced resin material comprising fibers and a resin, and a resin expanded body are integrally laminated, wherein said resin expanded body has first and second holes opened at an interface between said resin expanded body and said fiber-reinforced resin material, and said fiber-reinforced resin material and said resin expanded body are integrally laminated by making a resin of said fiber-reinforced resin material to flow into said first and second holes, wherein said resin expanded body is formed by thermally fusing a plurality of resin expanded particles to each other, said resin expanded particles forming an interface between said resin expanded body and said fiber-reinforced resin material have said first hole, and said resin is caused to flow into an inner area of said resin expanded particles, and wherein a void section is formed between said resin expanded particles, and said second hole is formed in a surface by opening said void section.