mhurhangee/ep-ind-claims huggingface dataset:
Wiper system for wiping a glazed panel of a motor vehicle, which comprises a driving reduction motor of non-electronic type, and a crank of a linkage for converting the rotational movement of an output shaft of the reduction motor into a reciprocating sweeping movement of a wiper blade, characterized in that the wiper system comprises means for detecting the passage of the crank at predefined angular positions about the output shaft, which means are borne by the reduction motor and are connected to a device for controlling at least one component of the wiper system.
An organ measuring tool assembly comprising: a grasping device having a handle assembly, an elongate body extending distally from the handle assembly, and first and second jaws (20, 22) supported on the elongate body, the first and second jaws (20, 22) being movable in response to actuation of the handle assembly between an open position and a closed position; and a measuring device having a coupling portion and a measuring portion, characterised in that the measuring portion comprises a circular or ring-shaped body that is formed of a resilient material, and the coupling portion being configured to releasably engage the first and second jaws (20, 22) of the grasping device to releasably couple the measuring device to the grasping device, wherein the measuring device defines a predetermined diameter, wherein the coupling portion includes a pair of spaced sleeves positioned on an outer periphery of the circular or ring-shaped body. a grasping device having a handle assembly, an elongate body extending distally from the handle assembly, and first and second jaws (20, 22) supported on the elongate body, the first and second jaws (20, 22) being movable in response to actuation of the handle assembly between an open position and a closed position; and a measuring device having a coupling portion and a measuring portion, characterised in that the measuring portion comprises a circular or ring-shaped body that is formed of a resilient material, and the coupling portion being configured to releasably engage the first and second jaws (20, 22) of the grasping device to releasably couple the measuring device to the grasping device, wherein the measuring device defines a predetermined diameter, wherein the coupling portion includes a pair of spaced sleeves positioned on an outer periphery of the circular or ring-shaped body.
A total temperature probe comprising: • a hollow elongate shroud defined by a shroud wall that envelops a first cavity; the shroud wall comprising an inner skin and an outer skin which enclose a second cavity therebetween; • a temperature sensor mounted in the first cavity; wherein, in use, fluid flow is received into the first cavity, passes through at least one aperture in the inner skin into the second cavity and thence passes out of the shroud through at least one aperture in the outer skin, wherein the at least one aperture in the outer skin is axially and/or circumferentially displaced from the at least one aperture in the inner skin. • a hollow elongate shroud defined by a shroud wall that envelops a first cavity; the shroud wall comprising an inner skin and an outer skin which enclose a second cavity therebetween; • a temperature sensor mounted in the first cavity;
A method for video preview, applicable to a processing device, comprising steps of: receiving a video file; and decoding the video file to obtain a plurality of video frames; characterised by converting each of the video frames into texture data; performing a plurality of shading computations on the texture data to respectively generate a plurality of render video outputs for video preview, wherein each of the shading computations corresponds to a different designated video viewing mode comprising monoscopic mode, side-by-side stereoscopic mode, and over-under stereoscopic mode; and providing the video preview as concurrent play of the plurality of render video outputs. receiving a video file; and decoding the video file to obtain a plurality of video frames; characterised by converting each of the video frames into texture data; performing a plurality of shading computations on the texture data to respectively generate a plurality of render video outputs for video preview, wherein each of the shading computations corresponds to a different designated video viewing mode comprising monoscopic mode, side-by-side stereoscopic mode, and over-under stereoscopic mode; and providing the video preview as concurrent play of the plurality of render video outputs.
Lock for an espagnolette fitting for bolting a window, a French door or the like with a casement being pivotable against a frame, with a locking element, activatable in a longitudinally movable manner, and a locking plate, arranged opposite the locking element, with a recess in the locking plate for inserting the locking element in the open position and with a holding bar (4, 19) for engaging from behind the locking element in the locked position, wherein the holding bar (4, 19), depending on the position of the locking element, is guided moveably during its movement in the locked position transversely to the direction of movement of the locking element, wherein the locking plate has a retaining bar (7, 8) engaging from behind the locking element being in the locked position and the holding bar (4, 19) and wherein a control plate (9, 16) is arranged between a base plate, provided to be screwed together with the frame, of the locking plate and a cover plate, arranged parallel to the base plate, of the locking plate and wherein the holding bar (4, 19) is connected with the control plate (9, 16) moveably guided within the locking plate, characterized in that the control plate (9, 16) has a control edge opposing the movement of the locking element in the locked position and in that a first retaining bar, engaging from behind the locking element and the holding bar (4, 19), is arranged on the cover plate and a second retaining bar, engaging from behind the locking element and the holding bar, is arranged on the base plate.
Method for producing a fastening device that is suitable for mounting on two rafters (20, 21), wherein, in the method, - a mounting base is produced, which is embodied in a telescopic manner and is longitudinally adjustable, - for attaching a connection pipe to the mounting base, retaining means are provided, which comprise a clamping element and a mating clamping element, - the clamping element and the mating clamping element are produced, which are connectable together such that the clamping element and the mating clamping element clamp a portion of the mounting base between one another after the fastening device has been mounted, - wherein the clamping element is produced from a one-piece metal body, and - wherein, on the inner side of the clamping element, steps are formed, which, or at least the step edges of which, bearing against the mounting base after the clamping element has been mounted, characterized in that, - on the inner side of the clamping element, steps are cut out by material removal, which extend with a constant step height from one end of the clamping element to the other end of the clamping element in the clamping-element longitudinal direction, - wherein the steps extend continuously from one end of the clamping element to the other end, or - in the case of interruptions, for example transversely extending grooves or a transversely extending through-hole - at least along a length of at least 30% of the total distance between the two ends (101, 102) of the clamping element. - a mounting base is produced, which is embodied in a telescopic manner and is longitudinally adjustable, - for attaching a connection pipe to the mounting base, retaining means are provided, which comprise a clamping element and a mating clamping element, - the clamping element and the mating clamping element are produced, which are connectable together such that the clamping element and the mating clamping element clamp a portion of the mounting base between one another after the fastening device has been mounted, - wherein the clamping element is produced from a one-piece metal body, and - wherein, on the inner side of the clamping element, steps are formed, which, or at least the step edges of which, bearing against the mounting base after the clamping element has been mounted, - on the inner side of the clamping element, steps are cut out by material removal, which extend with a constant step height from one end of the clamping element to the other end of the clamping element in the clamping-element longitudinal direction, - wherein the steps extend continuously from one end of the clamping element to the other end, or - in the case of interruptions, for example transversely extending grooves or a transversely extending through-hole - at least along a length of at least 30% of the total distance between the two ends (101, 102) of the clamping element.
An antisense oligonucleotide that is capable to inducing skipping of pseudo exon 40 from human USH2A pre-mRNA, wherein said AON comprises a sequence that is complementary to at least 18, 19, 20, 21, 22, 23, or 24 consecutive nucleotides of SEQ ID NO:45, 46 or 47.
A method for fabricating a multifiber assembly, comprising: selecting a plurality of optical fibers that each have a respective cladding diameter; determining a maximum fiber core position error for the plurality of optical fibers in a plurality of configurations, wherein for each configuration: the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and determining a desired order of the plurality of optical fibers that minimizes the maximum fiber core position error. selecting a plurality of optical fibers that each have a respective cladding diameter; determining a maximum fiber core position error for the plurality of optical fibers in a plurality of configurations, wherein for each configuration: the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and determining a desired order of the plurality of optical fibers that minimizes the maximum fiber core position error.
A method of configuring an array of speaker elements for use in a venue, comprising (a) providing an initial candidate configuration for the array and iterating, until a stopping criteria is reached, the steps of: (i) computing, with a computer and using a radiation model, a sound field produced by the array having the candidate configuration at a plurality of points in venue, and (ii) evaluating, with a computer a result of an objective function involving the calculated sound field at a plurality of audience positions in the venue, (iii) constructing, with a computer a new candidate configuration for the array using the result of the objective function, and (b) configuring the array in accordance with a preferred candidate configuration of the array produced by the iterations, wherein the preferred candidate configuration is selected, with a computer, using the results from evaluating the objective function, wherein the objective function comprises a sum over a plurality of audience positions of a measure indicative of the difference between the magnitude of the sound field and a target value for the magnitude of the sound field at those positions, and further comprises a measure indicative of the relative size of the total pressure delivered to non-audience positions compared to the total pressure delivered to audience positions. (a) providing an initial candidate configuration for the array and iterating, until a stopping criteria is reached, the steps of: (i) computing, with a computer and using a radiation model, a sound field produced by the array having the candidate configuration at a plurality of points in venue, and (ii) evaluating, with a computer a result of an objective function involving the calculated sound field at a plurality of audience positions in the venue, (iii) constructing, with a computer a new candidate configuration for the array using the result of the objective function, (i) computing, with a computer and using a radiation model, a sound field produced by the array having the candidate configuration at a plurality of points in venue, and (ii) evaluating, with a computer a result of an objective function involving the calculated sound field at a plurality of audience positions in the venue, (iii) constructing, with a computer a new candidate configuration for the array using the result of the objective function, and (b) configuring the array in accordance with a preferred candidate configuration of the array produced by the iterations, wherein the preferred candidate configuration is selected, with a computer, using the results from evaluating the objective function, wherein the objective function comprises a sum over a plurality of audience positions of a measure indicative of the difference between the magnitude of the sound field and a target value for the magnitude of the sound field at those positions, and further comprises a measure indicative of the relative size of the total pressure delivered to non-audience positions compared to the total pressure delivered to audience positions.
A method for conveying information from a node to a user equipment, UE, in a High Speed Packet Access, HSPA, system, wherein said method comprises the steps of: - obtaining (S1; 502) rank information and modulation information related to a four-branch Multiple Input Multiple Output, MIMO, system; - combining (S2; 504) the rank information and the modulation information related to said four-branch MIMO system into a bit pattern of 5 bits; - transmitting (S3; 506) the combined rank information and modulation information related to said four-branch MIMO system as said bit pattern of 5 bits in a High Speed Shared Control Channel, HS-SCCH, to the UE. - obtaining (S1; 502) rank information and modulation information related to a four-branch Multiple Input Multiple Output, MIMO, system; - combining (S2; 504) the rank information and the modulation information related to said four-branch MIMO system into a bit pattern of 5 bits; - transmitting (S3; 506) the combined rank information and modulation information related to said four-branch MIMO system as said bit pattern of 5 bits in a High Speed Shared Control Channel, HS-SCCH, to the UE.
An optoelectronic component comprising: - a first semiconductor layer stack, which has an active layer designed for the emission of radiation and a main area, - a separating layer, which is arranged on the main area of the first semiconductor layer stack, wherein the separating layer forms a semitransparent mirror and comprises a dielectric material, - a second semiconductor layer stack, which is arranged at the separating layer and which has a further active layer designed for the emission of radiation and a main area, wherein the separating layer comprises a cutout into which an electrically conducting material is introduced. - a first semiconductor layer stack, which has an active layer designed for the emission of radiation and a main area, - a separating layer, which is arranged on the main area of the first semiconductor layer stack, wherein the separating layer forms a semitransparent mirror and comprises a dielectric material, - a second semiconductor layer stack, which is arranged at the separating layer and which has a further active layer designed for the emission of radiation and a main area, wherein the separating layer comprises a cutout into which an electrically conducting material is introduced.
An information-processing apparatus comprising: acquisition means configured to acquire information about a communication-method type from a display device connected to the information-processing apparatus; determination means configured to determine whether or not the display device is adapted to receive data included in digital contents by using a predetermined copyright-protection technology based on the communication-method-type information; conversion means configured to convert an image quality of the digital contents; and output means configured to transmit the converted digital contents to the display device, characterized in that the conversion means is configured to convert the image quality of the digital contents, when it is determined by the determination means that the display device is not adapted to receive the data included in the digital contents by using the predetermined copyright-protection technology. acquisition means configured to acquire information about a communication-method type from a display device connected to the information-processing apparatus; determination means configured to determine whether or not the display device is adapted to receive data included in digital contents by using a predetermined copyright-protection technology based on the communication-method-type information; conversion means configured to convert an image quality of the digital contents; and output means configured to transmit the converted digital contents to the display device, characterized in that the conversion means is configured to convert the image quality of the digital contents, when it is determined by the determination means that the display device is not adapted to receive the data included in the digital contents by using the predetermined copyright-protection technology.
Wireless smart home control device at least to control at least one smart home functional unit (10a-b), having at least one stationary element (20a-b), having at least one portable control element (22a-b) and having at least one coupling unit (24a-b) to, physically, couple the stationary element (20a-b) to the portable control element (22a-b), wherein the portable control element (22a-b), in a state coupled by means of the coupling unit (24a-b), produces a macro control element (26a-b), wherein the macro control element (26a-b) has at least one rotation position detection module (50a-b), at least to detect a rotation position of at least one part (30a-b; 32a-b) of the macro control element (26a-b), wherein at least part of a control operation of the macro control element (26a-b) comprises an at least partial rotation of at least one part (30a-b) of the macro control element (26a-b) with respect to at least one further part (32a-b) of the macro control element (26a-b), characterized in that the macro control element (26a-b) has at least one restoring element (36a-b) to restore a rotational deflection of the at least one part (30a-b) of the macro control element (26a-b) that is deflected from an initial state back to the initial state, wherein the initial state of the macro control element (26a-b) is in the form of the state that the macro control element (26a-b) is in immediately after the portable control element (22a-b) and the stationary element (20a-b) have been coupled, and wherein a maximum rotation angle for a rotation of the at least one part (30a-b) of the macro control element (26a-b) with respect to the at least one further part (32a-b) of the macro control element (26a-b) is at most 15°.
An oil-cooled electrical generator, comprising: a housing; a stator; a back iron surrounding the stator; a rotor; a gap between the stator and the rotor; an air passageway passing through the stator to the gap; a source of pressurized air in fluid communication with the air passageway; a port for communicating the source of pressurized air into the housing; wherein the port is aligned with an air passageway that passes through a land of the back iron; wherein the air passageway is in fluid communication with an annular groove of a center lamination of the stator; wherein the center lamination is provided with air-passageway holes passing from the annular groove to the gap 146 for placing the gap in fluid communication with the source 148 of pressurized air; and passageways (110,137), around the stator and through the rotor, for cooling oil, wherein the passageways (110, 137) for cooling oil are fluidly isolated from the gap. a housing; a stator; a back iron surrounding the stator; a rotor; a gap between the stator and the rotor; an air passageway passing through the stator to the gap; a source of pressurized air in fluid communication with the air passageway; a port for communicating the source of pressurized air into the housing; wherein the port is aligned with an air passageway that passes through a land of the back iron; wherein the air passageway is in fluid communication with an annular groove of a center lamination of the stator; wherein the center lamination is provided with air-passageway holes passing from the annular groove to the gap 146 for placing the gap in fluid communication with the source 148 of pressurized air; and passageways (110,137), around the stator and through the rotor, for cooling oil, wherein the passageways (110, 137) for cooling oil are fluidly isolated from the gap.
A method of analysing the effect of an assault on hair, comprising the steps of: (i) collecting imaging data for at least one hair surface, (ii) applying at least one assault to the at least one hair surface, (iii) collecting imaging data for the at least one hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the at least one hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model of step (i) and (vii) assessing the degree of damage to the hair. (i) collecting imaging data for at least one hair surface, (ii) applying at least one assault to the at least one hair surface, (iii) collecting imaging data for the at least one hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the at least one hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model of step (i) and (vii) assessing the degree of damage to the hair.