mhurhangee/ep-ind-claims huggingface dataset:
A wearable wireless device comprising: a circuit board; a housing body housing the circuit board, the housing body having a front side and a back side, the back side configured to be closer to a user when worn than the front side; a first antenna element electrically connected to the circuit board and located at the front side of the housing body; a second antenna element electrically connected to the circuit board and located at the front side of the housing body, and a display located at the front side of the housing body, wherein a first end of the first antenna element and a first end of the second antenna element are separated by a first distance, a second end of the first antenna element and a second end of the second antenna element are separated by a second distance, the first distance is smaller than the second distance, and feed points of the first and second antenna elements (150, 160) to the circuit board are located near the first distance and away from the second distance, and wherein the front side comprises a top surface and side surfaces connected to the top surface via tilted connecting surfaces (171, 172, 173, 174), and wherein the first and second antenna elements (150, 160) are located at the tilted connecting surfaces (171, 172, 173, 174). a circuit board; a housing body housing the circuit board, the housing body having a front side and a back side, the back side configured to be closer to a user when worn than the front side; a first antenna element electrically connected to the circuit board and located at the front side of the housing body; a second antenna element electrically connected to the circuit board and located at the front side of the housing body, and a display located at the front side of the housing body, wherein a first end of the first antenna element and a first end of the second antenna element are separated by a first distance, a second end of the first antenna element and a second end of the second antenna element are separated by a second distance, the first distance is smaller than the second distance, and feed points of the first and second antenna elements (150, 160) to the circuit board are located near the first distance and away from the second distance, and wherein the front side comprises a top surface and side surfaces connected to the top surface via tilted connecting surfaces (171, 172, 173, 174), and wherein the first and second antenna elements (150, 160) are located at the tilted connecting surfaces (171, 172, 173, 174).
A spatialized audio system, comprising: a sensor to detect a head pose of a listener; and a processor to: render, based on the detected head pose of the listener, first audio data corresponding to a first plurality of sources, each of the first plurality of sources having respective ones of a first plurality of positions, to second audio data corresponding to a second plurality of sources, each of the second plurality of sources having respective ones of a second plurality of positions; and reproduce, based on the second audio data, a spatialized sound field corresponding to the first audio data for the listener, wherein the first plurality of sources are virtual sound sources, wherein the second plurality of sources are virtual sound sources and consists of fewer sources than the first plurality of sources, and wherein rendering the first audio data to the second audio data comprises each of the second plurality of sources recording virtual sound generated by the first plurality of sources at a respective one of the second plurality of positions. a sensor to detect a head pose of a listener; and a processor to: render, based on the detected head pose of the listener, first audio data corresponding to a first plurality of sources, each of the first plurality of sources having respective ones of a first plurality of positions, to second audio data corresponding to a second plurality of sources, each of the second plurality of sources having respective ones of a second plurality of positions; and reproduce, based on the second audio data, a spatialized sound field corresponding to the first audio data for the listener, render, based on the detected head pose of the listener, first audio data corresponding to a first plurality of sources, each of the first plurality of sources having respective ones of a first plurality of positions, to second audio data corresponding to a second plurality of sources, each of the second plurality of sources having respective ones of a second plurality of positions; and reproduce, based on the second audio data, a spatialized sound field corresponding to the first audio data for the listener, wherein the first plurality of sources are virtual sound sources, wherein the second plurality of sources are virtual sound sources and consists of fewer sources than the first plurality of sources, and wherein rendering the first audio data to the second audio data comprises each of the second plurality of sources recording virtual sound generated by the first plurality of sources at a respective one of the second plurality of positions.
An decolorizable electrophotographic toner, comprising a binder resin, an electron-donating color-developable agent, characterized by further comprising: - a wax having an acid value of 60 mgKOH/g or more and functioning as a color-developing agent; and - a further wax having a higher melting point than the first wax and an acid value of 20mgKOH/g or less and functioning as a decolorization accelerating agent during the decoloring treatment. - a wax having an acid value of 60 mgKOH/g or more and functioning as a color-developing agent; and - a further wax having a higher melting point than the first wax and an acid value of 20mgKOH/g or less and functioning as a decolorization accelerating agent during the decoloring treatment.
A nozzle head for emitting a spray jet of an application agent, in particular of an insulating agent, wherein a) a specific volumetric flow of the application agent is applied by the spray jet, b) the spray jet extends essentially flat in a jet plane, and c) the spray jet has in the jet plane a specific jet width, which depends on the volumetric flow of the application agent, comprising d) two outer plates (6, 7), and e) a middle plate, which is disposed between the two outer plates (6, 7) and has a front edge on the spraying side with a predetermined contour, wherein f) the middle plate has outer tips (19, 20) on both sides which protrude in the spraying direction, and g) the middle plate has a recess in the middle, characterized in that h) the recess has a central arch section with a first radius and two adjacent outer arch sections with a second radius. a) a specific volumetric flow of the application agent is applied by the spray jet, b) the spray jet extends essentially flat in a jet plane, and c) the spray jet has in the jet plane a specific jet width, which depends on the volumetric flow of the application agent, d) two outer plates (6, 7), and e) a middle plate, which is disposed between the two outer plates (6, 7) and has a front edge on the spraying side with a predetermined contour, wherein f) the middle plate has outer tips (19, 20) on both sides which protrude in the spraying direction, and g) the middle plate has a recess in the middle, h) the recess has a central arch section with a first radius and two adjacent outer arch sections with a second radius.
A control circuit for a header module of a modular energy system, the header module comprising a display screen configured to display a user interface and be coupled to the control circuit, the header module configured to removably connect to a plurality of energy modules, each energy module comprising a port configured to deliver one or more energy modalities to a surgical instrument connected thereto, wherein the control circuit is configured to: detect attachment of a first energy module of the plurality of energy modules to the modular energy system; control the display screen to display a first UI portion on the UI corresponding to the first energy module, the first UI portion comprising a first UI element corresponding to a first port or a first function of the first energy module; detect attachment of a second energy module of the plurality of energy modules to the modular energy system; control the display screen to reconfigure the displayed first UI portion and further display a second UI portion on the UI corresponding to the second energy module such that both the first UI portion and the second UI portion are displayed on the display screen, the second UI portion comprising a second UI element corresponding to a second port or a second function of the second energy module. detect attachment of a first energy module of the plurality of energy modules to the modular energy system; control the display screen to display a first UI portion on the UI corresponding to the first energy module, the first UI portion comprising a first UI element corresponding to a first port or a first function of the first energy module; detect attachment of a second energy module of the plurality of energy modules to the modular energy system; control the display screen to reconfigure the displayed first UI portion and further display a second UI portion on the UI corresponding to the second energy module such that both the first UI portion and the second UI portion are displayed on the display screen, the second UI portion comprising a second UI element corresponding to a second port or a second function of the second energy module.
A hard landing indicator mountable to a landing gear of an aircraft, the landing gear comprising first and second components (21, 22), each of the first and second components (21, 22) having adjacent first and second side surfaces (26, 27), the first and second components (21, 22) being displaceable toward each other in a scissor-like manner upon the aircraft experiencing a landing, the hard landing indicator comprising: a first portion securable to the first component of the landing gear; and a second portion projecting from the first portion so as to be positioned within a path of displacement of the second component toward the first component, the second portion being impacted and marked by the second component upon the second component being displaced by a hard landing of the aircraft. a first portion securable to the first component of the landing gear; and a second portion projecting from the first portion so as to be positioned within a path of displacement of the second component toward the first component, the second portion being impacted and marked by the second component upon the second component being displaced by a hard landing of the aircraft.
A peptide of 40 amino acids or less comprising: (i) a first domain comprising an amino acid sequence having at least 60% sequence identity with the sequence PDDRTLQ (SEQ ID NO: 1); and (ii) a second domain covalently linked to the first domain, said second domain comprising the amino acid sequence QNPVYLIPETVPYIKWDN (SEQ ID NO: 2); wherein said peptide binds to monoclonal antibody clone 72A1. (i) a first domain comprising an amino acid sequence having at least 60% sequence identity with the sequence PDDRTLQ (SEQ ID NO: 1); and (ii) a second domain covalently linked to the first domain, said second domain comprising the amino acid sequence QNPVYLIPETVPYIKWDN (SEQ ID NO: 2); wherein said peptide binds to monoclonal antibody clone 72A1.
Engine device, comprising a combustion engine and a separating device for separating impurities from a raw gas stream, in particular for separating oil mist from an oil mist-containing blow-by gas stream of the combustion engine, wherein the separating device comprises the following: - at least one separating body for separating the impurities; - an ejector device for producing a suction effect on an exit side of the at least one separating body; - a supply device for supplying a drive medium to the ejector device, wherein, by means of the supply device, optionally a) compressed supply air from a supply air tract of the combustion engine, b) exhaust gas from an exhaust gas tract of the combustion engine, c) a mixture of compressed supply air and exhaust gas is suppliable as drive medium to the ejector device. - at least one separating body for separating the impurities; - an ejector device for producing a suction effect on an exit side of the at least one separating body; - a supply device for supplying a drive medium to the ejector device, wherein, by means of the supply device, optionally a) compressed supply air from a supply air tract of the combustion engine, b) exhaust gas from an exhaust gas tract of the combustion engine, c) a mixture of compressed supply air and exhaust gas is suppliable as drive medium to the ejector device.
Apparatus for separating materials of different flowability which are mixed together, comprising a frame structure, a hollow drum which is rotationally driven and mounted on the frame structure and has a perforated lateral surface, a pressing element which is located from outside in the region of the lateral surface of the hollow drum in such a manner that the hollow drum and the pressing element form a product intake wedge for guiding a product stream consisting of pressed material between the hollow drum and the pressing element, and at least one stripping element for stripping the pressed material from the hollow drum, wherein the stripping element is configured and adapted to strip off material residues attached to the outside of the hollow drum, wherein the stripping element comprises a plate-like and rectangular main body with two long sides (L 1, L 2) and two narrow sides (S 1, S 2) which are shorter than the long sides (L 1, L 2), wherein a stripping edge (12, 13) is configured on at least one long side (L 1, L 2), characterised in that at least one of the two narrow sides (S 1, S 2) is at least partially concave.
Refrigerator unit and/or a freezer unit having at least one carcass and having at least one cooled inner space arranged in the carcass, wherein the unit comprises at least one refrigerant circuit that serves for cooling of the inner space, wherein the carcass comprises at least one full vacuum insulation body which at least partially consists of a film bag in the inner space of which, which is filled with a support material, a vacuum prevails, wherein the vacuum-tight envelope of the vacuum insulation body at least partly consists of a film, wherein the film is designed as a pushed in square bottom bag, characterized in that the complete refrigerant circuit is configured as an assembly that is placed into the carcass, wherein at least one cut-out at the marginal side or undercut arranged at the marginal side is arranged in the full vacuum insulation body through which the suction line extends from the evaporator to the compressor and which is provided with at least one thermal insulation, wherein the pushed in square bottom bag comprises film folds that provide the film excess required for forming the recess or undercut.
Method for the generative manufacturing of a component on a building platform • in which particles of a building material are first applied layer by layer to the building platform and then to the component under construction and are fused by an energy beam, • the building platform being equipped with a heating device and the component under construction being heated by means of the building platform, characterized in that the first layer of the component under construction is heated by means of the building platform to a temperature level that is at least as high as a calculated or experimentally determined heating of the uppermost layer of the component completed without using the heating device and in that a reference temperature T r for the layer produced in each case and a tolerance range for the reference temperature T r are defined and the heating power of the heating device is lowered as the method progresses to the extent that the tolerance range for a reference temperature T r is maintained in the layer that is last produced in each case. • in which particles of a building material are first applied layer by layer to the building platform and then to the component under construction and are fused by an energy beam, • the building platform being equipped with a heating device and the component under construction being heated by means of the building platform,
Device for the displacement of a locking element of a function-essential component, in particular a steering column of a motor vehicle, with a locking cylinder, which comprises a rotatable cylinder core with a key channel, a control member arranged on the cylinder lock, which is in an operative connection with the locking element in such a manner that, with a rotation of the cylinder core, the locking element can be brought into a locking position and an unlocking position, wherein the cylinder lock comprises an identification element, which is movable between an extended and a retracted position, wherein in a key-free key channel the identification element is in a retracted position and with an inserted key in the key channel, the identification element is in the extended position, a safety lock is provided, which can be brought into an activated state and a deactivated state and comprises a coupling element, which is in operative connection with the locking element as well as with the control member, wherein in the deactivated state, the safety lock permits a movement of the locking element, and the identification element is in the retracted position, in which the identification element is decoupled from the coupling element, and in the activated state, the safety lock blocks a movement of the locking element from the unlocking position into the locking position, and the identification element is in the extended position, characterized in that the safety lock comprises a lever element, which is movably arranged between the identification element and the coupling element around a rotational axis, wherein through a movement of the identification element, the lever element is moveable between a release position and an arresting position, in the arresting position, the lever element engages on the coupling element, in the release position, the lever element permits a movement of the coupling element, and the lever element is mounted in such a manner that, in the movement between the release position and the arresting position, the rotational axis is displaceable along a defined curve track, wherein two protrusions are provided, which are each arranged on a side of the lever element, wherein the protrusions are arranged laterally on the lever element and extend perpendicularly to the longitudinal extension of the lever element.
A method of manufacturing a reflective optical element of an optical system for EUV lithography, said reflective optical element comprising a multilayer system (23, 83) for reflecting an incident electromagnetic wave having an operating wavelength in the EUV range, the reflected wave having a phase cp, and a capping layer (25, 85) made from a capping layer material, wherein the method comprises the folslowing steps: a) determining, for said capping layer material, a dependency according to which the phase of the reflected wave varies with the thickness of the capping layer; b) determining a linearity-region in said dependency in which the phase of the reflected wave varies substantially linearly with the thickness of the capping layer (25, 85); and c) creating a thickness profile in said capping layer (25, 85) such that both the maximum thickness and the minimum thickness in said thickness profile are in said linearity-region. a) determining, for said capping layer material, a dependency according to which the phase of the reflected wave varies with the thickness of the capping layer; b) determining a linearity-region in said dependency in which the phase of the reflected wave varies substantially linearly with the thickness of the capping layer (25, 85); and c) creating a thickness profile in said capping layer (25, 85) such that both the maximum thickness and the minimum thickness in said thickness profile are in said linearity-region.
A method for detecting hydrocarbons comprising: obtaining seismic data associated with a body of water in a survey region; masking the seismic data from the body of water between the surface of the body of water and 500 meters below the surface of the body of water; masking the seismic data from below the seafloor; applying a filter to at least a portion of the water column portion of the seismic data to enhance diffraction anomaly signals with respect to horizontal or nearly horizontal signals associated with the water-column to form filtered seismic data; determining seepage locations from the seafloor based on the filtered seismic data by identifying diffraction anomalies in the filtered seismic data as the seepage locations, validating diffraction anomalies in the filtered seismic data as the seepage locations, and identifying hydrocarbons based at least partially on the seepage locations. obtaining seismic data associated with a body of water in a survey region; masking the seismic data from the body of water between the surface of the body of water and 500 meters below the surface of the body of water; masking the seismic data from below the seafloor; applying a filter to at least a portion of the water column portion of the seismic data to enhance diffraction anomaly signals with respect to horizontal or nearly horizontal signals associated with the water-column to form filtered seismic data; determining seepage locations from the seafloor based on the filtered seismic data by identifying diffraction anomalies in the filtered seismic data as the seepage locations, validating diffraction anomalies in the filtered seismic data as the seepage locations, and identifying hydrocarbons based at least partially on the seepage locations.
Method for manufacturing non-flat agglomerated stone products, comprising: - providing a mold which is open at the top and which has an inner surface; - covering the inner surface of the mold with a material preventing the direct contact of the manufacturing mass with the mold; - discharging the manufacturing mass consisting of particles of at least an aggregate and an organic binder into the mold; - subjecting the mold to vacuum for the purpose of extracting the occluded air in the mass, wherein the vacuum is 133 to 2.666 Pa (1 to 20 mm Hg); - applying a pressure comprised between 2·10 5 -10 6 Pa (2-10 bar) and vibration comprised between 2000-3500 rpm to the mass to continue extracting the air and compacting the mass; - inducing the polymerization of the mass, wherein the polymerization has a time of 1-5 hours and - extracting the formed product, characterized in that the mold additionally comprises a rigid inner sleeve, which is placed and adjusted inside the mold and on which the material preventing the direct contact of the manufacturing mass is applied. - providing a mold which is open at the top and which has an inner surface; - covering the inner surface of the mold with a material preventing the direct contact of the manufacturing mass with the mold; - discharging the manufacturing mass consisting of particles of at least an aggregate and an organic binder into the mold; - subjecting the mold to vacuum for the purpose of extracting the occluded air in the mass, wherein the vacuum is 133 to 2.666 Pa (1 to 20 mm Hg); - applying a pressure comprised between 2·10 5 -10 6 Pa (2-10 bar) and vibration comprised between 2000-3500 rpm to the mass to continue extracting the air and compacting the mass; - inducing the polymerization of the mass, wherein the polymerization has a time of 1-5 hours and - extracting the formed product,