mhurhangee/ep-ind-claims huggingface dataset:
Anti-fall device for a lifting gate, in particular a machine protection lifting gate, having a mechanical locking device, which comprises a gate carrier movable in a vertical direction for joint movement with the lifting gate and a support element stationary in the vertical direction, which can be brought into a mechanically locked engagement with one another, blocking a vertical movement of the gate carrier; wherein the locking device furthermore has at least one latch which is connected in an articulated manner, at least indirectly, to the gate carrier and can be pivoted into the mechanically locking engagement with the support element, and a stop element is mounted on the gate carrier in a spring-loaded manner, which stop element has a guide in which the latch is guided in such a way that it is pivoted in the direction of the support element when the stop element is deflected, wherein the stop element is assigned a stop in a predetermined vertical end position, against which the stop element strikes during a vertical movement of the gate carrier.
An apparatus comprising: a surgical instrument comprising: a body including a driven disk receptacle; a shaft comprising a proximal end, wherein the proximal end of the shaft extends into the driven disk receptacle; and a driven disk mounted on the proximal end of the shaft so that the driven disk is positioned in the driven disk receptacle, the driven disk comprising a driven interface, wherein the driven interface comprises an engagement receptacle, drive dog receptacles (1952A, 1952B), and a rotation disable element, and wherein upon engagement of the rotation disable element, the rotation disable element engages with the driven disk receptacle to prevent rotation of the driven disk. a body including a driven disk receptacle; a shaft comprising a proximal end, wherein the proximal end of the shaft extends into the driven disk receptacle; and a driven disk mounted on the proximal end of the shaft so that the driven disk is positioned in the driven disk receptacle, the driven disk comprising a driven interface, wherein the driven interface comprises an engagement receptacle, drive dog receptacles (1952A, 1952B), and a rotation disable element, and wherein upon engagement of the rotation disable element, the rotation disable element engages with the driven disk receptacle to prevent rotation of the driven disk.
A cushion (44, 44') for a patient interface device, comprising: a support portion (56, 56') having a bottom edge and an engagement edge (62, 62') located opposite the bottom edge, the bottom edge lying in a first plane, the engagement edge being structured to engage a face of a user when the patient interface device is donned by the user, wherein the engagement edge extends at an angle with respect to a second plane that is parallel to the first plane that is less than or equal to +30 degrees and greater than or equal to -30 degrees; and a sealing flap (58, 58') which is positioned on an inside of the support portion (56, 56') closer to a longitudinal axis of the cushion and extends in a cantilevered fashion inwardly from an inner edge of the engagement edge of the support portion and toward the longitudinal axis of the cushion, characterized in that a length of the sealing flap measured from a proximal end thereof, where the sealing flap (58, 58') is connected to the support portion (56, 56'), to a distal end thereof, where the sealing flap (58, 58') defines an orifice, is 15 mm or less. a support portion (56, 56') having a bottom edge and an engagement edge (62, 62') located opposite the bottom edge, the bottom edge lying in a first plane, the engagement edge being structured to engage a face of a user when the patient interface device is donned by the user, wherein the engagement edge extends at an angle with respect to a second plane that is parallel to the first plane that is less than or equal to +30 degrees and greater than or equal to -30 degrees; and a sealing flap (58, 58') which is positioned on an inside of the support portion (56, 56') closer to a longitudinal axis of the cushion and extends in a cantilevered fashion inwardly from an inner edge of the engagement edge of the support portion and toward the longitudinal axis of the cushion, characterized in that a length of the sealing flap measured from a proximal end thereof, where the sealing flap (58, 58') is connected to the support portion (56, 56'), to a distal end thereof, where the sealing flap (58, 58') defines an orifice, is 15 mm or less.
A method for processing a virtual reality space, the method comprising: receiving, by a first engine on a first computing device, a first message, the first message (300, 410) including a first address (304, 306) for a first virtual reality object in the first engine and indicating a first action to be performed on the first virtual reality object; performing, by the first engine, the first action on the first virtual reality object; determining, by the first engine, a second address for a second virtual reality object in a second engine, the second engine being remote from the first engine, the first and second virtual reality objects being copies of the same virtual reality object; constructing, by the first engine, a second message, the second message including the second address and indicating the first action; and sending, by the first engine, the second message for use by the second engine; the method characterized in that the first engine comprises a plurality of simulators (164, 174, 184, 194), each of which performs simulation on a number of objects associated with that simulator, and wherein each simulator has an associated message queue (160, 170, 180, 190), and wherein performing, by the first engine, the first action on the first virtual reality object comprises routing the first message to the message queue associated with the simulator with which the first object is associated and subsequently performing, by the simulator with which the first object is associated, the first action on the first object. receiving, by a first engine on a first computing device, a first message, the first message (300, 410) including a first address (304, 306) for a first virtual reality object in the first engine and indicating a first action to be performed on the first virtual reality object; performing, by the first engine, the first action on the first virtual reality object; determining, by the first engine, a second address for a second virtual reality object in a second engine, the second engine being remote from the first engine, the first and second virtual reality objects being copies of the same virtual reality object; constructing, by the first engine, a second message, the second message including the second address and indicating the first action; and sending, by the first engine, the second message for use by the second engine; the method characterized in that the first engine comprises a plurality of simulators (164, 174, 184, 194), each of which performs simulation on a number of objects associated with that simulator, and wherein each simulator has an associated message queue (160, 170, 180, 190), and wherein performing, by the first engine, the first action on the first virtual reality object comprises routing the first message to the message queue associated with the simulator with which the first object is associated and subsequently performing, by the simulator with which the first object is associated, the first action on the first object.
An electronic appliance, comprising a display device configured to display a plurality of images (510, 520), wherein the display device includes: a first light-guiding layer disposed below a screen with a first image provided on the first light-guiding layer; a second light-guiding layer disposed below the first light-guiding layer; and at least one light source disposed to selectively illuminate the first light-guiding layer and the second light-guiding layer, characterized in that the second light-guiding layer has a second image provided thereon and a thickness that is 25% to 45% greater than a thickness of the first light-guiding layer such that an intensity of light that is emitted from the at least one light source and introduced into the second light-guiding layer is greater than an intensity of light that is emitted from the at least one light source and introduced into the first light-guiding layer. a first light-guiding layer disposed below a screen with a first image provided on the first light-guiding layer; a second light-guiding layer disposed below the first light-guiding layer; and at least one light source disposed to selectively illuminate the first light-guiding layer and the second light-guiding layer,
A method implemented at a terminal device, the method comprising: obtaining at least one power control parameter to be used for a request message for a random access, wherein the at least one power control parameter comprises a first power offset between a physical uplink shared channel, PUSCH, of the request message and a preamble transmission; and transmitting, to a base station, the request message for the random access, wherein: the first power offset between the PUSCH of the request message and the preamble transmission is the same as a second power offset between a message 3, msg3, PUSCH and a random access channel, RACH, preamble transmission in a four-step random access, a signalling message indicating the second power offset between the msg3 PUSCH and the RACH preamble transmission in the four-step random access is reused for indicating the first power offset between the PUSCH of the request message and the preamble transmission, and the request message comprises: the RACH preamble and the PUSCH. obtaining at least one power control parameter to be used for a request message for a random access, wherein the at least one power control parameter comprises a first power offset between a physical uplink shared channel, PUSCH, of the request message and a preamble transmission; and transmitting, to a base station, the request message for the random access, wherein: the first power offset between the PUSCH of the request message and the preamble transmission is the same as a second power offset between a message 3, msg3, PUSCH and a random access channel, RACH, preamble transmission in a four-step random access, a signalling message indicating the second power offset between the msg3 PUSCH and the RACH preamble transmission in the four-step random access is reused for indicating the first power offset between the PUSCH of the request message and the preamble transmission, and the request message comprises: the RACH preamble and the PUSCH. the first power offset between the PUSCH of the request message and the preamble transmission is the same as a second power offset between a message 3, msg3, PUSCH and a random access channel, RACH, preamble transmission in a four-step random access, a signalling message indicating the second power offset between the msg3 PUSCH and the RACH preamble transmission in the four-step random access is reused for indicating the first power offset between the PUSCH of the request message and the preamble transmission, and the request message comprises: the RACH preamble and the PUSCH.
An image capturing apparatus comprising: a display unit comprising a display panel, the display unit configured to display an image including at least one subject; a detection unit comprising detection circuitry, the detection unit configured to detect an input for setting a part of the displayed image a region of interest; and characterized by: a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus region based on which candidate region is closest to a path of the AF region set in previous frames for the image. a display unit comprising a display panel, the display unit configured to display an image including at least one subject; a detection unit comprising detection circuitry, the detection unit configured to detect an input for setting a part of the displayed image a region of interest; and characterized by: a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus region based on which candidate region is closest to a path of the AF region set in previous frames for the image. a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus region based on which candidate region is closest to a path of the AF region set in previous frames for the image. - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus region based on which candidate region is closest to a path of the AF region set in previous frames for the image.
An antisense oligonucleotide for use in the treatment or prevention of Angelman syndrome in a subject, wherein the antisense oligonucleotide comprises a contiguous nucleotide sequence of 10 to 30 nucleotides in length with 100% complementarity to position 25278410 to 25419462 on human chromosome 15 (SEQ ID NO:1), wherein the antisense oligonucleotide is capable of inducing human paternal UBE3A expression.
An in vitro method for identifying an inhibitor of NADPH-Oxidase 4 function and/or expression comprising the steps of: (a) contacting a biological sample, comprising a nucleic acid sequence encoding for nox4, or the gene expression product of Nox4, with a candidate compound; (b) assessing at least one of Nox4 activity or expression; and (c) comparing the activity or expression in step (b) with the activity or expression of Nox4 in the absence of the candidate compound, wherein a decrease between the measured activities or expression of Nox4 in step (b) compared to step (c) indicates that the candidate compound is an inhibitor of Nox4; and wherein a decrease between the measured activities or expression of Nox4 indicates that the candidate compound is for use in the prevention, treatment, of neuropathic pain. (a) contacting a biological sample, comprising a nucleic acid sequence encoding for nox4, or the gene expression product of Nox4, with a candidate compound; (b) assessing at least one of Nox4 activity or expression; and (c) comparing the activity or expression in step (b) with the activity or expression of Nox4 in the absence of the candidate compound,
An in-field detection apparatus for automatic detection of a fault type of a fault having occurred at power transmission lines of a power supply system, said in-field detection apparatus comprising: (a) a preprocessing unit adapted to normalize measured voltage raw data and/or current raw data of the power transmission lines; (b) a processing unit configured to execute an artificial neural network, ANN, stored in a local memory of said in-field detection apparatus, wherein the normalized voltage and/or current raw data is mapped to fault type scores of different predefined fault types and wherein the fault type scores are evaluated by said processing unit to detect the fault type of the occurred fault; wherein the in-field detection apparatus is characterized by (c) an artificial intelligence module, wherein the artificial intelligence module and the artificial neural network is trained on a combination of simulated fault records and faults comprising real data samples of historical real faults, to interpret patterns in the data to process new previously unseen data samples or fault records. said in-field detection apparatus comprising: (a) a preprocessing unit adapted to normalize measured voltage raw data and/or current raw data of the power transmission lines; (b) a processing unit configured to execute an artificial neural network, ANN, stored in a local memory of said in-field detection apparatus, wherein the normalized voltage and/or current raw data is mapped to fault type scores of different predefined fault types and wherein the fault type scores are evaluated by said processing unit to detect the fault type of the occurred fault; (a) a preprocessing unit adapted to normalize measured voltage raw data and/or current raw data of the power transmission lines; (b) a processing unit configured to execute an artificial neural network, ANN, stored in a local memory of said in-field detection apparatus, wherein the normalized voltage and/or current raw data is mapped to fault type scores of different predefined fault types and wherein the fault type scores are evaluated by said processing unit to detect the fault type of the occurred fault; wherein the in-field detection apparatus is characterized by (c) an artificial intelligence module, wherein the artificial intelligence module and the artificial neural network is trained on a combination of simulated fault records and faults comprising real data samples of historical real faults, to interpret patterns in the data to process new previously unseen data samples or fault records.
A transmission-type optical element (1, 11) that has transmissivity in a first direction and that enables an observer to simultaneously see an external object positioned apart from and visible through the optical element and information provided by the optical element, the optical element comprising: a plurality of first members each having a first surface (321, 331, 341, 351) that forms an element of first information; and the first surface facing a second direction orthogonal to the first direction, wherein the first information is formed by a) a diffraction grating (3311, 3312, 3411, 3511) provided on the first surface, or b) a structure for diffusing light provided on the first surface. a plurality of first members each having a first surface (321, 331, 341, 351) that forms an element of first information; and the first surface facing a second direction orthogonal to the first direction, wherein the first information is formed by a) a diffraction grating (3311, 3312, 3411, 3511) provided on the first surface, or b) a structure for diffusing light provided on the first surface. a) a diffraction grating (3311, 3312, 3411, 3511) provided on the first surface, or b) a structure for diffusing light provided on the first surface.
A hearing aid device having a housing configured to be arranged behind the ear of a user with a tube leading air-borne acoustic signals into the ear canal or with a receiver/ loudspeaker arranged close to or in the ear canal, the hearing aid device comprising a chassis and a printed circuit board attached to the chassis, wherein the chassis comprises a first wall structure provided along one side of the chassis and a second wall structure extending along an opposite side of the chassis, the chassis comprises a longitudinal axis, a lateral axis, and a transversal axis, wherein the printed circuit board is to be received between the first wall structure and the second wall structure, the chassis being arranged in the housing, wherein the chassis comprises an attachment member of a first type (34, 34', 36) configured to restrict the motion of the printed circuit board in a first direction along the transversal axis,and an attachment member of a second type (38, 38') configured to restrict the motion of the printed circuit board in a second direction (X, Y, Z) being different from the first direction, the second direction being along the longitudinal axis and/or the lateral axis, the attachment members of the first and second types (34, 34', 36, 38, 38') are integrated parts of the chassis.
Combination of a heat exchanger, which comprises a plurality of heat exchanger tubes which are provided for throughflow by means of a coolant and at least two heat exchanger boxes (40, 42) which are connected to the heat exchanger tubes at opposite ends, wherein at least one of the heat exchanger boxes forms a connection opening which is integrated into a connection interface for connection to a connection element, and multiple connection elements, which are able to be connected alternatively to the connection interface so as to be fluidically connected to the connection opening and which differ in terms of function, wherein the differences in terms of function result from the fact that: - the connection elements are formed with or without an integrated functional element, wherein at least one of the connection elements is formed with an integrated functional element, and wherein said functional element comprises a coolant pump, a mixing valve or a temperature sensor, and - the connection elements each form a connection fitting, wherein the connection fittings are formed with or without quick coupling functionality. - the connection elements are formed with or without an integrated functional element, wherein at least one of the connection elements is formed with an integrated functional element, and wherein said functional element comprises a coolant pump, a mixing valve or a temperature sensor, and - the connection elements each form a connection fitting, wherein the connection fittings are formed with or without quick coupling functionality.
A protector comprising: a bottom plate part on which a plurality of electric wires of the protector is placed on the same plane; a pair of side parts that is provided to erect from the bottom plate part so that the electric wires are interposed between the pair of the side parts, a distance between the pair of the side parts corresponding to crank-shaped curved parts of the electric wires and formed along the crank-shaped curved parts being larger than a distance between the pair of the side parts corresponding to front and rear linear parts (44, 46) of the electric wires, and characterized in that a protector fixing part is provided on the bottom plate part so that the protector fixing part is positioned between the crank-shaped curved parts provided next to each other. a bottom plate part on which a plurality of electric wires of the protector is placed on the same plane; a pair of side parts that is provided to erect from the bottom plate part so that the electric wires are interposed between the pair of the side parts, a distance between the pair of the side parts corresponding to crank-shaped curved parts of the electric wires and formed along the crank-shaped curved parts being larger than a distance between the pair of the side parts corresponding to front and rear linear parts (44, 46) of the electric wires, and characterized in that a protector fixing part is provided on the bottom plate part so that the protector fixing part is positioned between the crank-shaped curved parts provided next to each other.
A water-atomized iron-based powder pre-alloyed with Ni, Mo and Mn at contents by weight-%: 0.75-1.1 Ni, 0.75 -1.1 Mo 0.09-0.45 Mn, at most 0.02 C, at most 0.25 O, preferably at most 0.2 O, more preferably at most 0.15 O, and at most 0.5 inevitable impurities, the iron-based powder further including 0.5-3.0 %, preferably 0.5-2.5 % and most preferably 0.5-2.0 % by weight of Cu and inevitable impurities, the balance being Fe, wherein all of the Cu is diffusion bonded to the surface of the Ni- and Mo-alloyed Fe-powder. 0.75-1.1 Ni, 0.75 -1.1 Mo 0.09-0.45 Mn, at most 0.02 C, at most 0.25 O, preferably at most 0.2 O, more preferably at most 0.15 O, and at most 0.5 inevitable impurities, the iron-based powder further including 0.5-3.0 %, preferably 0.5-2.5 % and most preferably 0.5-2.0 % by weight of Cu and inevitable impurities, the balance being Fe, wherein all of the Cu is diffusion bonded to the surface of the Ni- and Mo-alloyed Fe-powder.