mhurhangee/ep-ind-claims huggingface dataset:
A lifting apparatus for receiving loads, in particular a wheelchair in a transport vehicle, wherein the lifting apparatus comprises a frame part, which is retained on the vehicle floor such that it can be displaced horizontally in order to be extended out of the vehicle and retracted therein, and also a lifting panel, which is retained in an adjustable manner on the frame part, wherein, in an extended position of the frame part, the lifting panel can be lowered horizontally from the latter on the outside of the vehicle from a lifted position into a lowered position on the ground, in order to receive loads in a barrier-free manner, wherein the lifting panel can be raised again into the raised, lifted position together with the loads supplied, wherein the frame part can be retracted from the extended position, together with the raised lifting panel and the loads supplied, in particular with at least one wheelchair, into a basic position in the vehicle, wherein, for the displacement of the lifting panel between the lifted position and lowered position, a lifting device (17, 18), which is driven in a controllable manner, is fitted on the frame part, such that it can be shifted therewith, and wherein the lifting device comprises two identical lifting units (17, 18) fitted on the frame part alongside the lifting panel, characterized in that each lifting unit (17, 18) has a linear drive (8, 9) running in the extending/retracting direction, and the two linear drives (8, 9) can be controlled in a simultaneously correlated manner, and in that in each case the adjustment part of a linear drive (8, 9) is connected to the side-assigned corners (26, 27) of the lifting panel via deflecting rollers (23, 24, 25) with traction elements (21, 22).
A ventilation device comprising: a first plate having a first set of apertures, and a second plate having a second set of apertures separated by cover portions, said first and second plates (11, 21) being slidable with respect to each other in a first direction (x) between a first and a second extreme position and being able to assume at least one intermediate position between said extreme positions, in which first extreme position all apertures of said first set are aligned with said cover portions and not with the apertures of said second set, and in which second extreme position all apertures of said first set are at least partially aligned with the apertures of said second set, characterized in that the dimensions of said cover portions vary along said first direction and/or along a second direction (y) perpendicular to the first direction such that in said intermediate position at least one aperture of said first set is at least partially aligned with at least one aperture of said second set, and at least one other aperture of said first set is aligned with a cover portion and not with an aperture of said second set. a first plate having a first set of apertures, and a second plate having a second set of apertures separated by cover portions, said first and second plates (11, 21) being slidable with respect to each other in a first direction (x) between a first and a second extreme position and being able to assume at least one intermediate position between said extreme positions, in which first extreme position all apertures of said first set are aligned with said cover portions and not with the apertures of said second set, and in which second extreme position all apertures of said first set are at least partially aligned with the apertures of said second set, characterized in that the dimensions of said cover portions vary along said first direction and/or along a second direction (y) perpendicular to the first direction such that in said intermediate position at least one aperture of said first set is at least partially aligned with at least one aperture of said second set, and at least one other aperture of said first set is aligned with a cover portion and not with an aperture of said second set.
A patch-type controller comprising: a main body; a connection unit, which is an adhesive member, of which a side surface is disposed on a bottom surface of the main body, and the other side surface is configured to be adhered on a side of a cellular phone, a cellular phone case or a wireless communication device; an input unit (210, 220) formed on a top surface of the main body to be handled by a user; and a control unit configured to generate an input signal of the cellular phone or the wireless communication device for controlling the cellular phone or the wireless communication device through the input unit, characterized in that the main body further includes a supporting unit formed to allow the user to support the cellular phone, the cellular phone case or the wireless communication device by inserting a finger, wherein the supporting unit is formed in a "U" shape, an end and the other end of which are respectively connected to one side surface and the other side surface of the main body, and the supporting unit is connected to the main body to be rotatable from the main body in a vertical direction. a main body; a connection unit, which is an adhesive member, of which a side surface is disposed on a bottom surface of the main body, and the other side surface is configured to be adhered on a side of a cellular phone, a cellular phone case or a wireless communication device; an input unit (210, 220) formed on a top surface of the main body to be handled by a user; and a control unit configured to generate an input signal of the cellular phone or the wireless communication device for controlling the cellular phone or the wireless communication device through the input unit, characterized in that the main body further includes a supporting unit formed to allow the user to support the cellular phone, the cellular phone case or the wireless communication device by inserting a finger, wherein the supporting unit is formed in a "U" shape, an end and the other end of which are respectively connected to one side surface and the other side surface of the main body, and the supporting unit is connected to the main body to be rotatable from the main body in a vertical direction.
A composition being free of human serum albumin, gelatine, histidine, lysine, methionine or immunoglubulins, comprising: (a) a peptide, a protein or a mixture thereof, (b) a hydrophilic polymer, (c) a mixture of a polyalcohol and a sugar, wherein the weight ratio of polyalcohol to sugar is from 2:1 to 5:1 (wt-%), and (d) a detergent. (a) a peptide, a protein or a mixture thereof, (b) a hydrophilic polymer, (c) a mixture of a polyalcohol and a sugar, wherein the weight ratio of polyalcohol to sugar is from 2:1 to 5:1 (wt-%), and (d) a detergent.
A device for assisting an operator in the handling of a tool, comprising a robotic handling arm of said tool mounted on a motor-driven cart, said device comprising means for automatically controlling the movement of said motor-driven cart according to the movements of the trunk and/or the lower limbs of the operator and/or according to a predetermined movement instruction and in that it has means for supporting said operator comprising a harness capable of holding at least a portion of the trunk of said operator, preferably a portion of the pelvis and/or pelvic belt of said operator, and means for securing said harness to the frame of said motor-driven cart.
An inlet manifold for a liquid fuel supply assembly for a fuel nozzle of a turbomachine, the inlet manifold defining a longitudinal direction, a transverse direction, and a vertical direction, the longitudinal direction, the transverse direction, and the vertical direction are mutually perpendicular, the inlet manifold comprising: a main inlet oriented along the longitudinal direction; a pilot inlet; a wye passage comprising an inlet branch, the inlet branch in fluid communication with the main inlet of the inlet manifold; a first main passage in fluid communication with a first outlet branch of the wye passage, the first main passage extending generally along the longitudinal direction between the wye passage and a first main outlet; a second main passage in fluid communication with a second outlet branch of the wye passage, the second main passage extending generally along the longitudinal direction between the wye passage and a second main outlet; and a pilot passage in fluid communication with the pilot inlet, the pilot passage extending generally along the longitudinal direction between the pilot inlet and a pilot outlet, characterized in that the inlet manifold comprises a central body, in which the main inlet, the pilot inlet, the wye passage, the first main passage, the first main outlet, the second main passage, the second main outlet, the pilot passage, and the pilot outlet are formed, wherein the pilot inlet is oriented along the vertical direction. a main inlet oriented along the longitudinal direction; a pilot inlet; a wye passage comprising an inlet branch, the inlet branch in fluid communication with the main inlet of the inlet manifold; a first main passage in fluid communication with a first outlet branch of the wye passage, the first main passage extending generally along the longitudinal direction between the wye passage and a first main outlet; a second main passage in fluid communication with a second outlet branch of the wye passage, the second main passage extending generally along the longitudinal direction between the wye passage and a second main outlet; and a pilot passage in fluid communication with the pilot inlet, the pilot passage extending generally along the longitudinal direction between the pilot inlet and a pilot outlet, characterized in that the inlet manifold comprises a central body, in which the main inlet, the pilot inlet, the wye passage, the first main passage, the first main outlet, the second main passage, the second main outlet, the pilot passage, and the pilot outlet are formed, wherein the pilot inlet is oriented along the vertical direction.
A resin composition for foam molding comprising: - a thermally expandable microcapsule that includes a shell containing an epoxy resin and a core agent that is a volatile expansion agent encapsulated by the shell; - a thermoplastic resin; and - a curable compound having two or more functional groups each selected from the group consisting of a carboxy group, a hydroxy group, an amino group, an amido group, and an acid anhydride group in each molecule, wherein the epoxy resin is an epoxy resin for reacting with the curable compound to be cured during expansion of the thermally expandable microcapsule by heating. - a thermally expandable microcapsule that includes a shell containing an epoxy resin and a core agent that is a volatile expansion agent encapsulated by the shell; - a thermoplastic resin; and - a curable compound having two or more functional groups each selected from the group consisting of a carboxy group, a hydroxy group, an amino group, an amido group, and an acid anhydride group in each molecule,
Anti-friction bearing cage having pockets, delimited at least in a U-shaped manner, for rolling bodies, comprising the following features: - at least one ring-like circumferential element which is configured in a manner which is distributed in the circumferential direction with at least three radial indentations or bulges, the inner or outer shell face of which acts as guide face for the cage, - web elements are attached in an integrally joined manner to the circumferential element, one of the pockets extending in each case between two adjacent web elements, and - the web elements are fastened in each case between two adjacent indentations or bulges to the circumferential element on the outer or inner shell face which lies radially opposite the indentations or bulges. - at least one ring-like circumferential element which is configured in a manner which is distributed in the circumferential direction with at least three radial indentations or bulges, the inner or outer shell face of which acts as guide face for the cage, - web elements are attached in an integrally joined manner to the circumferential element, one of the pockets extending in each case between two adjacent web elements, and - the web elements are fastened in each case between two adjacent indentations or bulges to the circumferential element on the outer or inner shell face which lies radially opposite the indentations or bulges.
Method for light-to-frequency conversion, comprising the steps of: - generating a photocurrent by means of a photodiode, wherein the photocurrent is generated during an integration time (TINT), - converting the photocurrent into a digital comparator output signal (LOUT) in a charge balancing operation depending on a first clock signal, - determining from the digital comparator output signal (LOUT) an asynchronous count comprising an integer number of counts depending on the first clock signal, - determining from the digital comparator output signal (LOUT) a fractional time count depending on a second clock signal, and - calculating from a sum of the asynchronous count and the fractional time count a digital output signal (ADC-COUNT) which is indicative of the photocurrent generated by the photodiode generated during the integration time (TINT); characterized in that: - the asynchronous count and the fractional time count are determined, in parallel, during the integration time (TINT). - generating a photocurrent by means of a photodiode, wherein the photocurrent is generated during an integration time (TINT), - converting the photocurrent into a digital comparator output signal (LOUT) in a charge balancing operation depending on a first clock signal, - determining from the digital comparator output signal (LOUT) an asynchronous count comprising an integer number of counts depending on the first clock signal, - determining from the digital comparator output signal (LOUT) a fractional time count depending on a second clock signal, and - calculating from a sum of the asynchronous count and the fractional time count a digital output signal (ADC-COUNT) which is indicative of the photocurrent generated by the photodiode generated during the integration time (TINT); characterized in that: - the asynchronous count and the fractional time count are determined, in parallel, during the integration time (TINT). - the asynchronous count and the fractional time count are determined, in parallel, during the integration time (TINT).
A medical electrical lead comprising: an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region; an electrode disposed on the insulative lead body and in electrical contact with the conductor; and a fibrous matrix disposed on at least part of the electrode, the fibrous matrix including fibers, the fibers including: a polyvinylidene fluoride-based (PVDF-based) polymer including an amorphous PVDF phase and a crystalline PVDF phase, wherein the crystalline PVDF phase includes a beta form crystalline structure in an amount exceeding any other crystalline structure form in the crystalline PVDF phase; and a crystal-modifying additive. an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region; an electrode disposed on the insulative lead body and in electrical contact with the conductor; and a fibrous matrix disposed on at least part of the electrode, the fibrous matrix including fibers, the fibers including: a polyvinylidene fluoride-based (PVDF-based) polymer including an amorphous PVDF phase and a crystalline PVDF phase, wherein the crystalline PVDF phase includes a beta form crystalline structure in an amount exceeding any other crystalline structure form in the crystalline PVDF phase; and a crystal-modifying additive.
A microcapsule, comprising: an agglomeration of primary microcapsules and a loading substance, each individual primary microcapsule having a primary shell, wherein the loading substance is encapsulated by the primary shell, wherein the agglomeration is encapsulated by an outer shell, and wherein both the primary shell and the outer shell are formed from a complex coacervate of pea protein isolate and a negatively charged protein.
A method for forming a vertical hetero-stack of a first nanostructure and a second nanostructure arranged on an upper surface of the first nanostructure, the first nanostructure formed by a first transition metal dichalcogenide, TMDC, material and the second nanostructure formed by a second TMDC material, the method comprising: providing the first nanostructure on a substrate wherein the upper surface of the first nanostructure is formed by a basal plane of the first TMDC material, forming a reactive layer of molecules on the first nanostructure along a periphery of the upper surface, forming a dielectric layer on the substrate adjacent to the first nanostructure by a dielectric layer deposition process, the dielectric layer being formed with a thickness such that an upper surface of the dielectric layer becomes flush with the upper surface of the first nanostructure, and forming the second nanostructure by a vapor deposition process wherein the second TMDC material nucleates on the reactive layer along said periphery and grows laterally therefrom to form the second nanostructure on said upper surface, wherein the second TMDC material grows laterally above and along the upper surface of the first nanostructure and above and along an upper surface of the dielectric layer. providing the first nanostructure on a substrate wherein the upper surface of the first nanostructure is formed by a basal plane of the first TMDC material, forming a reactive layer of molecules on the first nanostructure along a periphery of the upper surface, forming a dielectric layer on the substrate adjacent to the first nanostructure by a dielectric layer deposition process, the dielectric layer being formed with a thickness such that an upper surface of the dielectric layer becomes flush with the upper surface of the first nanostructure, and forming the second nanostructure by a vapor deposition process wherein the second TMDC material nucleates on the reactive layer along said periphery and grows laterally therefrom to form the second nanostructure on said upper surface, wherein the second TMDC material grows laterally above and along the upper surface of the first nanostructure and above and along an upper surface of the dielectric layer.
A nonaqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode; and a nonaqueous electrolyte, wherein the positive electrode includes Li x Mn a Ni b Co c M d O 2 with 0 < x < 1.3, 0.1 < a < 0.7, 0.1 < b < 0.6, 0.1 < c < 0.67, 0 ≤ d < 0.1, a + b + c + d = 1, and M represents a metal selected from a group consisting of Al, Ti, Mg, Cr, Zn, W, Zr and Nb as a positive active material, and the nonaqueous electrolyte includes a cyclic disulfone compound of a following general formula in an amount of 0.1 to 4.0% by mass based on a total mass of the nonaqueous electrolyte: wherein R1 and R2 each represent hydrogen, or an alkyl group having 2 to 4 carbon atoms, optionally including a halogen element, under the provision that R1 and R2 are not both hydrogen. a positive electrode; a negative electrode; and a nonaqueous electrolyte, wherein the positive electrode includes Li x Mn a Ni b Co c M d O 2 with 0 < x < 1.3, 0.1 < a < 0.7, 0.1 < b < 0.6, 0.1 < c < 0.67, 0 ≤ d < 0.1, a + b + c + d = 1, and M represents a metal selected from a group consisting of Al, Ti, Mg, Cr, Zn, W, Zr and Nb as a positive active material, and the nonaqueous electrolyte includes a cyclic disulfone compound of a following general formula in an amount of 0.1 to 4.0% by mass based on a total mass of the nonaqueous electrolyte: wherein R1 and R2 each represent hydrogen, or an alkyl group having 2 to 4 carbon atoms, optionally including a halogen element, under the provision that R1 and R2 are not both hydrogen.
Vacuum cleaner bag with an outer wall (2, 7) of filter material, in which an inflow opening is formed, wherein the vacuum cleaner bag is produced from an upper layer of filter material and a lower layer of filter material, which are welded together around the edge, and a hose-shaped formation of air-permeable material, which is closed at at least one side and which is fixed at opposite sides to the outer wall (2, 7) at a seam, is arranged in the vacuum cleaner bag, characterised in that the hose-shaped formation has in a middle region a passage opening opposite the inflow opening and the passage opening is held by way of holding means adjacent to the inflow opening.
A computer-implemented method for generating an audio scene for an extended reality environment, the method comprising: determining that a first virtual sound source (320, 420, 620) associated with the XR environment affects a sound in the audio scene; generating a sound component associated with the first virtual sound source (320, 420, 620) based on a contribution of the first virtual sound source (320, 420, 620) to the audio scene; mapping the sound component to a first loudspeaker included in a plurality of loudspeakers (120, 330, 430, 530) by computing a cost function to determine the contribution of the first virtual sound source (320, 420, 620) to one or more loudspeakers included in the plurality of loudspeakers (120, 330, 430, 530) within the audio scene, wherein the cost function for the first loudspeaker is equal to the product of a frequency bias function that prioritizes spatialization of sound sources (320, 420, 620) with a higher frequency and an absolute distance between an angle of the first virtual sound source (320, 420, 620) and the first loudspeaker with respect to a user; and outputting at least a first portion of the sound component for playback on the first loudspeaker. determining that a first virtual sound source (320, 420, 620) associated with the XR environment affects a sound in the audio scene; generating a sound component associated with the first virtual sound source (320, 420, 620) based on a contribution of the first virtual sound source (320, 420, 620) to the audio scene; mapping the sound component to a first loudspeaker included in a plurality of loudspeakers (120, 330, 430, 530) by computing a cost function to determine the contribution of the first virtual sound source (320, 420, 620) to one or more loudspeakers included in the plurality of loudspeakers (120, 330, 430, 530) within the audio scene, wherein the cost function for the first loudspeaker is equal to the product of a frequency bias function that prioritizes spatialization of sound sources (320, 420, 620) with a higher frequency and an absolute distance between an angle of the first virtual sound source (320, 420, 620) and the first loudspeaker with respect to a user; and a frequency bias function that prioritizes spatialization of sound sources (320, 420, 620) with a higher frequency and an absolute distance between an angle of the first virtual sound source (320, 420, 620) and the first loudspeaker with respect to a user; and outputting at least a first portion of the sound component for playback on the first loudspeaker.