mhurhangee/ep-ind-claims huggingface dataset:
A skin care assembly comprising: a heat dissipation member (110, 300) and an operation head;wherein the heat dissipation member (110, 300) comprises a thermal coupling surface (111, 340);the operation head comprises a cold compress member (210, 100) and a refrigeration member, the thermal coupling surface (111, 340) is configured to be thermally coupled with a heat generating side of the refrigeration member to dissipate heat generated by the refrigeration member; the cold compress member (210, 100) comprises a contact surface (211, 100a) and a conduction surface (212, 100b), wherein the contact surface (211, 100a) is configured to contact a skin; a cooling side of the refrigeration member (220, 200) is thermally coupled with the conduction surface (212, 100b) of the cold compress member (210, 100), thereby cooling the cold compress member (210, 100); and the heat dissipation member (110, 300) extends from a head end of the skin care assembly to a trailing end of the skin care assembly; characterized in that the skin care assembly further comprises a first cover, the first cover is configured to fix the cold compress member (210, 100) and the refrigeration member (220, 200) to the heat dissipation member (110, 300), an opening is defined on the first cover and arranged corresponding to the cold compress member (210, 100), the heat dissipation member comprises a second cover and a heat dissipation body, the second cover is disposed between the heat dissipation body and the first cover, the second cover is fixed on the heat dissipation body, and the first cover is fixed on the second cover.
A method, comprising: - obtaining depth data indicative of a time-resolved measurement of a 3-D position of a moveable target in a field-of-view of a depth sensor, and - processing the depth data using an interacting multi-model, IMM, tracking algorithm, the IMM tracking algorithm providing, for each one of multiple iterations, tracking data comprising a respective estimate of the 3-D position of the moveable target, wherein the IMM tracking algorithm comprises a first model providing a first output (7621, 7625), a second model providing a second output (7622, 7626), and a fusion module (7627, 7635) fusing the first output (7621, 7625) and the second output (7622, 7626) to thereby provide the tracking data, wherein the first model models a movement state of the moveable target, wherein the second model models a rest state of the moveable target, wherein the second model determines the second output (7622, 7626) based on the estimate of the 3-D position of the moveable target with respect to one or more input elements of a user interface predefined within the field-of-view, wherein the moveable target is selected from the group consisting of: hand; part of a hand; and handheld pointing device. - obtaining depth data indicative of a time-resolved measurement of a 3-D position of a moveable target in a field-of-view of a depth sensor, and - processing the depth data using an interacting multi-model, IMM, tracking algorithm, the IMM tracking algorithm providing, for each one of multiple iterations, tracking data comprising a respective estimate of the 3-D position of the moveable target, wherein the IMM tracking algorithm comprises a first model providing a first output (7621, 7625), a second model providing a second output (7622, 7626), and a fusion module (7627, 7635) fusing the first output (7621, 7625) and the second output (7622, 7626) to thereby provide the tracking data, wherein the first model models a movement state of the moveable target, wherein the second model models a rest state of the moveable target, wherein the second model determines the second output (7622, 7626) based on the estimate of the 3-D position of the moveable target with respect to one or more input elements of a user interface predefined within the field-of-view, wherein the moveable target is selected from the group consisting of: hand; part of a hand; and handheld pointing device.
A method in a first wireless station (900, 1100) of a wireless network, the method comprising: generating a check sequence (613, 709, 813) to protect the integrity of a subpacket (601, 701, 801) of a packet, wherein the check sequence is generated such that a second wireless station wirelessly receiving a signal corresponding to the packet can sequentially verify the integrity of the subpacket as if the check sequence were appended at the end of the subpacket being protected and wherein the generating comprises: computing an appended check sequence of the subpacket (601, 701, 801); and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; embedding the check sequence in an embedding field (605, 705, 805) within the subpacket, wherein the embedding field is located prior to the end of the subpacket; and wirelessly transmitting the packet. generating a check sequence (613, 709, 813) to protect the integrity of a subpacket (601, 701, 801) of a packet, wherein the check sequence is generated such that a second wireless station wirelessly receiving a signal corresponding to the packet can sequentially verify the integrity of the subpacket as if the check sequence were appended at the end of the subpacket being protected and wherein the generating comprises: computing an appended check sequence of the subpacket (601, 701, 801); and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; computing an appended check sequence of the subpacket (601, 701, 801); and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; embedding the check sequence in an embedding field (605, 705, 805) within the subpacket, wherein the embedding field is located prior to the end of the subpacket; and wirelessly transmitting the packet.
Chair containing a chair post and a seat element, which is mounted on a coupling member and which is rotatable around its longitudinal axis and its transverse axis i.e. towards ahead and towards back and also sidewards, against the restoring force of at least one elastically deformable element, wherein - the coupling element is a supporting element with an outer surface having spherically formed sections characterized in that - the supporting element contains two axle trunnions aligned to a first axle and two further axle trunnions which are aligned to a second axle which intersects the first axle rectangularly - the supporting element and the axle trunnions (3, 4) are rotatably mounted in two opposed half shells (6, 7), which are provided with hemispherical inner surfaces, and - the axle trunnions (5, 6) are mounted in the two half shells (6, 7) by means of elastic elements (8 or 8', respectively), forming axle bearings. - the coupling element is a supporting element with an outer surface having spherically formed sections - the supporting element contains two axle trunnions aligned to a first axle and two further axle trunnions which are aligned to a second axle which intersects the first axle rectangularly - the supporting element and the axle trunnions (3, 4) are rotatably mounted in two opposed half shells (6, 7), which are provided with hemispherical inner surfaces, and - the axle trunnions (5, 6) are mounted in the two half shells (6, 7) by means of elastic elements (8 or 8', respectively), forming axle bearings.
An optical amplifier for optical packet communication comprising an erbium doped fiber having an active region whose diameter is between 3.4μm and 10μm, inclusive, wherein the numerical aperture of the erbium doped fiber is less than or equal to 0.2, wherein the erbium doped fiber comprises a core and a clad surrounding the core, the core being doped with erbium as a rare earth, and the clad being doped with a lower concentration of erbium than that included in the core. wherein the numerical aperture of the erbium doped fiber is less than or equal to 0.2, wherein the erbium doped fiber comprises a core and a clad surrounding the core, the core being doped with erbium as a rare earth, and the clad being doped with a lower concentration of erbium than that included in the core.
A process for forming an image on a substrate, comprising depositing ink compositions of at least two colours onto the substrate to form the image, and fixing the image to the substrate, wherein the ink is deposited using an electrostatic printhead, which ejects chargeable marking particles dispersed in a carrier fluid by using an applied electric field to first concentrate and then eject the marking particles, and wherein all of the ink compositions are deposited onto the substrate before the image is fixed; wherein the fixing is by coating the ink compositions with a varnish, and then curing the varnish, or by pre-coating the surface of the substrate with an uncured or partially-cured basecoat material before all ink compositions are deposited, and then fixing the ink compositions by curing the basecoat after all the ink compositions have been deposited.
An accumulator assisted gas turbine engine start system for a gas turbine engine including a fuel supply, the system comprising: an accumulator positioned in flow communication between the fuel supply and the gas turbine engine configured to store fuel pressure in fuel flowing from the fuel supply to the gas turbine engine; a gear pump positioned in flow communication between the fuel supply and the accumulator, wherein fuel is delivered from the fuel supply to the accumulator through the gear pump; and a check valve positioned in flow communication between the fuel supply and the accumulator, wherein the check valve limits a loss of pressure in the accumulator when the gas turbine engine and the gear pump are inactive. an accumulator positioned in flow communication between the fuel supply and the gas turbine engine configured to store fuel pressure in fuel flowing from the fuel supply to the gas turbine engine; a gear pump positioned in flow communication between the fuel supply and the accumulator, wherein fuel is delivered from the fuel supply to the accumulator through the gear pump; and a check valve positioned in flow communication between the fuel supply and the accumulator, wherein the check valve limits a loss of pressure in the accumulator when the gas turbine engine and the gear pump are inactive.
A laser eye surgery system comprising: a patient interface, wherein the patient interface comprises an elastic suction ring adapted to be vacuum attached to the patient's eye; force sensors located on the patient interface to detect patient movement; vacuum sensors (84, 233, 235) adapted to sense the level of suction between the patient interface and the eye; a video camera adapted to be used to provide imaging of the patient's eye during treatment; wherein the surgery system has control electronics, and the laser surgery system is configured to: monitor a plurality of inputs associated with a docking of a patient's eye to a suction ring of a patient interface which is aligned with an optical axis of the laser eye surgery system, wherein the system is configured to simultaneously monitor: a video feed of the laser eye surgery through the patient interface; a physical force sensor that detects movement of the patient's eye relative to the patient interface; and a vacuum sensor connected to a vacuum chamber of the suction ring; and combine at least two of these three inputs in an algorithm to predict whether a failure of vacuum is imminent; and halt or delay the laser eye surgery if the combination of at least two of these three inputs is consistent with a threshold likelihood of a significant vacuum leak. a patient interface, wherein the patient interface comprises an elastic suction ring adapted to be vacuum attached to the patient's eye; force sensors located on the patient interface to detect patient movement; vacuum sensors (84, 233, 235) adapted to sense the level of suction between the patient interface and the eye; a video camera adapted to be used to provide imaging of the patient's eye during treatment; monitor a plurality of inputs associated with a docking of a patient's eye to a suction ring of a patient interface which is aligned with an optical axis of the laser eye surgery system, wherein the system is configured to simultaneously monitor: a video feed of the laser eye surgery through the patient interface; a physical force sensor that detects movement of the patient's eye relative to the patient interface; and a vacuum sensor connected to a vacuum chamber of the suction ring; and a video feed of the laser eye surgery through the patient interface; a physical force sensor that detects movement of the patient's eye relative to the patient interface; and a vacuum sensor connected to a vacuum chamber of the suction ring; and combine at least two of these three inputs in an algorithm to predict whether a failure of vacuum is imminent; and halt or delay the laser eye surgery if the combination of at least two of these three inputs is consistent with a threshold likelihood of a significant vacuum leak.
A bollard with a camera mount for mounting a camera within the bollard at one of a plurality of positions; characterised in that the bollard comprises a substantially hollow casing and the camera mount is adapted to attach the camera to an interior side of the hollow casing, the camera mount comprising a holder for holding the camera; and an attachment component, coupled to the holder and arranged to permit attachment of the camera mount to the interior side of the casing of the bollard;the bollard further comprising: a first mounting portion within the interior of the bollard and arranged to permit mounting of the first camera at one of the plurality of first positions; and wherein, the attachment component is couplable to the mounting portion at one of a plurality of positions, thereby permitting mounting of the camera at one of the plurality of positions. a holder for holding the camera; and an attachment component, coupled to the holder and arranged to permit attachment of the camera mount to the interior side of the casing of the bollard;the bollard further comprising: a first mounting portion within the interior of the bollard and arranged to permit mounting of the first camera at one of the plurality of first positions; and wherein, the attachment component is couplable to the mounting portion at one of a plurality of positions, thereby permitting mounting of the camera at one of the plurality of positions.
A method of erecting a case having four sidewalls and at least four flaps at the bottom of the case from a blank, comprising the steps of: providing said blank in a flattened condition with four panels (46,48,50,52) and at least four flaps (30,32,34,36,38,40,42,44) providing a picking and handling device, providing a supporting device having at least one transversally positioned gap and at least one gap positioned in the longitudinal direction of the supporting device, picking said flattened blank from a blank storage, moving said blank upwards causing the blank to assume an unflattened condition, moving said unflattened blank to the supporting device, moving said unflattened blank downwards so that a first flap is folded towards a first sidewall to form a partially folded case, moving the partially folded case in the longitudinal direction of the supporting device to reach said transversally positioned gap, moving the partially folded case downwards so that a second flap enters the transversally positioned gap, moving the partially folded case in the longitudinal direction of the supporting device to fold the second flap towards a second sidewall, moving the partially folded case essentially perpendicularly to the longitudinal direction of the supporting device to fold a third towards a third sidewall, moving the partially folded case upwards until a bottom edge of a fourth flap is lifted above the supporting device, and moving the partially folded case essentially perpendicularly to the longitudinal direction of the supporting device to fold the fourth flap towards a fourth sidewall, thereby providing a case in a folded condition. providing said blank in a flattened condition with four panels (46,48,50,52) and at least four flaps (30,32,34,36,38,40,42,44) providing a picking and handling device, providing a supporting device having at least one transversally positioned gap and at least one gap positioned in the longitudinal direction of the supporting device, picking said flattened blank from a blank storage, moving said blank upwards causing the blank to assume an unflattened condition, moving said unflattened blank to the supporting device, moving said unflattened blank downwards so that a first flap is folded towards a first sidewall to form a partially folded case, moving the partially folded case in the longitudinal direction of the supporting device to reach said transversally positioned gap, moving the partially folded case downwards so that a second flap enters the transversally positioned gap, moving the partially folded case in the longitudinal direction of the supporting device to fold the second flap towards a second sidewall, moving the partially folded case essentially perpendicularly to the longitudinal direction of the supporting device to fold a third towards a third sidewall, moving the partially folded case upwards until a bottom edge of a fourth flap is lifted above the supporting device, and moving the partially folded case essentially perpendicularly to the longitudinal direction of the supporting device to fold the fourth flap towards a fourth sidewall, thereby providing a case in a folded condition.
Axial ball joint for a length-adjustable two-point link, the axial ball joint having a housing and a ball pin with a joint ball rotatably and pivotably mounted in the housing), which, in the non-deflected state, extends out of the housing in an axial direction, wherein the ball pin is, inter alia, rotatably mounted in the housing and can be attached in a length-adjustable manner via a threaded connection to a connection component, wherein the ball pin has on its outer circumference a driver geometry, and wherein the housing has a connection pin connected in one piece to the latter, which extends at least substantially at right angles to the axial direction, characterized in that the housing is closed at one axial end by an axial support, which is formed as a rotary part or as a rotationally symmetrical extruded part with a thickness varying in the axial direction.
A ceramic material, which is produced by mixing aluminium oxide Al2O3, zirconium dioxide Zr02, yttrium oxide Y203, cerium oxide Ce02, lanthanum oxide La203 and praseodymium oxide Pr6011 and subsequent sintering and in which, after sintering, an aluminium oxide matrix is present in the finished material in a proportion of 55-90 vol.% and the zirconium dioxide is present in a proportion of 10-45 vol.%, at least 75% of the zirconium dioxide present in the finished material being present in its tetragonal modification and chemically stabilised by a mixture of yttrium oxide and cerium oxide, characterised in that a proportion of 10-75 vol.% of the aluminium oxide matrix is present in the form of hexagonal platelets of the composition LaAl11O18 and the proportion of praseodymium oxide added by alloying amounts to 0.1-1.0 vol.% based on the entire mixture and during sintering a mixed crystal is formed in the finished material by a chemical reaction with aluminium oxide, lanthanum aluminate and/or zirconium oxide.
A cosmetic composition, characterized in that it comprises, as active ingredient, an extract, called green extract, of seeds of the Aframomum angustifolium or longoza plant made with an ecologically friendly and cosmetically acceptable polar solvent, comprising or consisting of a polar solvent of polyol, in particular a glycol, in a cosmetically acceptable excipient.
An image processing method, comprising: identifying at least one scenario from an original image; determining an enhancement method corresponding to the scenario; performing image processing on the corresponding scenario through the enhancement method to obtain an enhanced image, wherein the step of identifying at least one scenario from an original image comprises: converting the original image from a first color space into a second color space, the first color space comprising three components of a red component, a green component and a blue component, and the second color space comprising one brightness component and two chroma components, characterized in that the step of determining an enhancement method corresponding to the scenario comprises: extracting feature information from the scenario; matching the feature information with a feature value in a feature database; determining the category of the scenario according to the matched feature value, if the feature information is successfully matched with the feature value in the feature database; and inquiring an enhancement method corresponding to the category of the scenario from an enhancement method database, in order to determine the enhancement method corresponding to the scenario. identifying at least one scenario from an original image; determining an enhancement method corresponding to the scenario; performing image processing on the corresponding scenario through the enhancement method to obtain an enhanced image, wherein the step of identifying at least one scenario from an original image comprises: converting the original image from a first color space into a second color space, the first color space comprising three components of a red component, a green component and a blue component, and the second color space comprising one brightness component and two chroma components, characterized in that the step of determining an enhancement method corresponding to the scenario comprises: extracting feature information from the scenario; matching the feature information with a feature value in a feature database; determining the category of the scenario according to the matched feature value, if the feature information is successfully matched with the feature value in the feature database; and inquiring an enhancement method corresponding to the category of the scenario from an enhancement method database, in order to determine the enhancement method corresponding to the scenario. extracting feature information from the scenario; matching the feature information with a feature value in a feature database; determining the category of the scenario according to the matched feature value, if the feature information is successfully matched with the feature value in the feature database; and inquiring an enhancement method corresponding to the category of the scenario from an enhancement method database, in order to determine the enhancement method corresponding to the scenario.