mhurhangee/ep-ind-claims huggingface dataset:
A tube holder for carrying a tube to multiple processing stations of a tube filling machine, the tube holder comprising: a body comprising an open chamber configured for retaining a tube, the tube having an internal cavity for storing a product, a dispensing end, and an open filling end; characterized by a retractable tube shaping device (301, 400, 500) movably disposed in the body, the shaping device (301, 400, 500) movable between an extended position and a retracted position; wherein when the shaping device (301, 400, 500) is in the extended position, the shaping device (301, 400, 500) engages the tube proximate to the open end and imparts a circular cross sectional shape to the tube for filling the cavity. a body comprising an open chamber configured for retaining a tube, the tube having an internal cavity for storing a product, a dispensing end, and an open filling end; characterized by a retractable tube shaping device (301, 400, 500) movably disposed in the body, the shaping device (301, 400, 500) movable between an extended position and a retracted position; wherein when the shaping device (301, 400, 500) is in the extended position, the shaping device (301, 400, 500) engages the tube proximate to the open end and imparts a circular cross sectional shape to the tube for filling the cavity.
A method employed by a remote radio head for communicating with a plurality of communication devices, UEs, wherein said remote radio head includes an array of antenna elements, said method comprising: receiving at the remote radio head, from a base band unit, a plurality of port signal streams, wherein the plurality of port signal streams was obtained at the base band unit by precoding a plurality of data streams, each data stream of the plurality of data streams intended for a different corresponding UE among the plurality of UEs; and within the remote radio head, processing the plurality of port signal streams to undo the precoding that was performed on the plurality of data streams, and generate via the array of antenna elements a plurality of transmit beams, wherein each transmit beam is directed towards a corresponding different UE among the plurality of UEs and carries a corresponding transmit signal that is derived exclusively from the data stream among the plurality of data streams that is intended for that UE, wherein precoding involves applying, at the base band unit, a layer-to-port precoding matrix to the plurality of data streams to yield the plurality of port signal streams among which each port signal stream is a linear combination of the plurality of data streams, and wherein processing the plurality of port signal streams to undo the precoding applies, at the remote radio head, a port-to-beam precoding matrix to the plurality of port signal streams, wherein the port-to-beam matrix and the layer-to-port matrix when multiplied together generate a diagonal matrix. receiving at the remote radio head, from a base band unit, a plurality of port signal streams, wherein the plurality of port signal streams was obtained at the base band unit by precoding a plurality of data streams, each data stream of the plurality of data streams intended for a different corresponding UE among the plurality of UEs; and within the remote radio head, processing the plurality of port signal streams to undo the precoding that was performed on the plurality of data streams, and generate via the array of antenna elements a plurality of transmit beams, wherein each transmit beam is directed towards a corresponding different UE among the plurality of UEs and carries a corresponding transmit signal that is derived exclusively from the data stream among the plurality of data streams that is intended for that UE, wherein precoding involves applying, at the base band unit, a layer-to-port precoding matrix to the plurality of data streams to yield the plurality of port signal streams among which each port signal stream is a linear combination of the plurality of data streams, and wherein processing the plurality of port signal streams to undo the precoding applies, at the remote radio head, a port-to-beam precoding matrix to the plurality of port signal streams, wherein the port-to-beam matrix and the layer-to-port matrix when multiplied together generate a diagonal matrix.
A method to prepare a multifunctional paint coat with photocatalytic and sanitary effects, characterized by the fact that the TiO 2 nanoparticles are mounted onto a highly porous inorganic substance, wherein the porous inorganic substance is created by a chemical reaction of at least two components in the presence of the TiO 2 nanoparticles, wherein the first component is a water insoluble compound of calcium and the second component is a water solution of sulfate selected from the group of copper sulfate, zinc sulfate, silver sulfate or their mixtures, and wherein this dried paint coat contains 5 to 90 weight percent of the TiO 2 nanoparticles and its thickness is in the range from 0,1 to 100 micrometers.
A photovoltaic laminate comprising: a plurality of photovoltaic solar cells (116, 216, 316), each of the solar cells having a upper side (130, 230) facing the sun during normal operation and a lower side facing away from the sun; an encapsulant layer (140, 240, 340; 150, 250, 350) surrounding and enclosing the solar cells, the encapsulant layer extending between gaps in the solar cells; a transparent cover layer (136, 236, 336) disposed above the upper side of the plurality of solar cells and atop the encapsulant layer, the encapsulant layer adhering to the cover layer; and a mono-stratum sealing layer (160, 260, 360) below the lower side of the plurality of solar cells and beneath the encapsulant layer, the encapsulant layer adhering to the sealing layer along an inner surface and having an outer surface exposed to the ambient environment, characterized in that the mono-stratum sealing layer is co-extruded with at least part of the encapsulant layer. a plurality of photovoltaic solar cells (116, 216, 316), each of the solar cells having a upper side (130, 230) facing the sun during normal operation and a lower side facing away from the sun; an encapsulant layer (140, 240, 340; 150, 250, 350) surrounding and enclosing the solar cells, the encapsulant layer extending between gaps in the solar cells; a transparent cover layer (136, 236, 336) disposed above the upper side of the plurality of solar cells and atop the encapsulant layer, the encapsulant layer adhering to the cover layer; and a mono-stratum sealing layer (160, 260, 360) below the lower side of the plurality of solar cells and beneath the encapsulant layer, the encapsulant layer adhering to the sealing layer along an inner surface and having an outer surface exposed to the ambient environment, characterized in that the mono-stratum sealing layer is co-extruded with at least part of the encapsulant layer.
An inter-cell beam coordination scheduling method, comprising: receiving, by a first wireless access device serving a coordinated cell, a coordination scheduling request, wherein the coordination scheduling request carries an indication of a downlink narrow-transmission beam set D X1 and a terminal identifier, a user terminal indicated by the terminal identifier is an edge user terminal of a serving cell, and the downlink narrow-transmission beam set D X1 is a downlink narrow-transmission beam set that satisfies a principle of minimal interference and that is determined by the edge user terminal through beam training; and in a slot in which downlink scheduling is performed on the edge user terminal in the serving cell of the edge user terminal, using, by the first wireless access device, a narrow-transmission beam in the downlink narrow-transmission beam set D X1 to schedule a camping user terminal of the coordinated cell in downlink, wherein the downlink narrow-transmission beam set D X1 is determined by the edge user terminal through beam training performed on a downlink narrow-reception beam set D U1 by the first wireless access device; and the downlink narrow-reception beam set D U1 is a downlink narrow-reception beam set that satisfies a principle of strongest reception and that is determined by the edge user terminal through beam training performed by a second wireless access device, and the second wireless access device is a wireless access device that serves the serving cell of the edge user terminal.
Closed system for gaining sellable petroleum coke pieces out of solidified petroleum coke in a coke drum unit (4, 8), comprising a coke drum unit (4, 8) for containing the solidified petroleum coke; a coke crushing unit (6, 10) for crushing petroleum coke into sellable petroleum coke pieces; a closed slurry pipe leading petroleum coke slurry to a closed slurry pit; a closed slurry pit; a dewatering bin unit (18, 20) with dewatering bins (18, 20) configured to receive the petroleum coke slurry from the closed slurry pit, to collect the sellable petroleum coke pieces, a water settling tank; a clean water tank configured to receive purified water from an upper part of the water settling tank; and a removal unit configured to remove the sellable petroleum coke pieces from the dewatering bin unit (18, 20); wherein the dewatering bins (18, 20) are configured to act as a filter leading runoff drain water from a lower area of the dewatering bins (18, 20) as filtered water and petroleum coke fines out of it; characterized in that a closed drain water pit, separate from the closed slurry pit, is configured to receive the filtered water and the petroleum coke fines from the dewatering bin unit (18, 20) by a line connecting the dewatering bin unit (18, 20) to the closed drain water pit; and that the water settling tank is configured to receive the filtered water and the petroleum coke fines from the closed drain water pit and to separate the petroleum coke fines from the water by collecting the petroleum coke fines in the bottom part of the water settling tank, and to lead the petroleum coke fines into the closed slurry pit where they mix with the petroleum coke slurry; wherein the dewatering bins (18, 20) comprise an upper cylindrical section and a lower conical section, the upper cylindrical section and the upper part of the lower conical section being provided with filtering channels, especially inner screens, and/or the lower part of the lower conical section being provided with a perforation pattern for removing accumulated water from the dewatering bins (18, 20), and wherein piping is provided connecting the filtering channels and/or the perforation pattern to the line leading to the closed drain water pit.
Device for collecting and removing plastic, sludge-like materials deposited on beds of bodies of water, wherein a controllable floating body is connected to a suction module via hose lines, characterised in that the controllable floating body (12; 18) is equipped with at least one pump/compressor and at least one hydraulic unit as well as at least one power set and on land is connected at one end to a sludge pond or sedimentation tank or a transportable container via pipelines (22; 14) and at the other end to the suction module, which > travels independently over the bed of the body of water on a special caterpillar chassis, > is connected to an echo-sounder and/or a GPS receiver floating on the water surface above suction module via a cable, > has a freely oscillating single- or double- or multi-arm pivoting arm that adapts autonomously to the bed of the body of water, arranged between and/or in front of and/or behind the caterpillar tracks of the caterpillar chassis, and > a sealing plate arranged between the pivoting arm(s) and a sweeping roller, > wherein the sweeping roller is mounted inside a suction bell, > in which a cutting unit is arranged, > and the suction bell has at least one flange/suction port for at least one suction hose. > travels independently over the bed of the body of water on a special caterpillar chassis, > is connected to an echo-sounder and/or a GPS receiver floating on the water surface above suction module via a cable, > has a freely oscillating single- or double- or multi-arm pivoting arm that adapts autonomously to the bed of the body of water, arranged between and/or in front of and/or behind the caterpillar tracks of the caterpillar chassis, and > a sealing plate arranged between the pivoting arm(s) and a sweeping roller, > wherein the sweeping roller is mounted inside a suction bell, > in which a cutting unit is arranged, > and the suction bell has at least one flange/suction port for at least one suction hose.
A bend angle measuring device for a press brake, in which in order to perform a bending action, a sheet metal part to be bent is arranged between a lower tool and an upper tool of a bending tool of the press brake, - wherein the bend angle measuring device has a lighting device and detection device which are arranged on a pivoting device, - wherein the lighting device is designed to emit a first light beam onto a surface portion of the sheet metal part - and wherein the detection device is arranged to detect a light beam reflected by the surface portion, - wherein the detection device is connected via an evaluation module to a machine control system, - characterized in that the pivoting device is pivotably configured between a calibrating position and a measuring position, - so that in the calibrating position or in the measuring position of the pivoting device, the lighting device and detection device is arranged at a standard interval from a surface of the sheet metal part inserted in the bending tool, in its unbent state or in its bent state, - and that in the calibrating position or in the measuring position of the pivoting device, the first light beam is oriented in such a manner that it meets the surface of the sheet metal part, both in its unbent state and also in its bent state, at an acute angle of incidence, - wherein the angle of incidence and the standard interval in the calibrating position and the measuring position of the pivoting device is the same - and the pivoting device is mounted pivotably about a bending edge of one of the bending tools, the lower tool or the upper tool. - wherein the bend angle measuring device has a lighting device and detection device which are arranged on a pivoting device, - wherein the lighting device is designed to emit a first light beam onto a surface portion of the sheet metal part - and wherein the detection device is arranged to detect a light beam reflected by the surface portion, - wherein the detection device is connected via an evaluation module to a machine control system, - characterized in that the pivoting device is pivotably configured between a calibrating position and a measuring position, - so that in the calibrating position or in the measuring position of the pivoting device, the lighting device and detection device is arranged at a standard interval from a surface of the sheet metal part inserted in the bending tool, in its unbent state or in its bent state, - and that in the calibrating position or in the measuring position of the pivoting device, the first light beam is oriented in such a manner that it meets the surface of the sheet metal part, both in its unbent state and also in its bent state, at an acute angle of incidence, - wherein the angle of incidence and the standard interval in the calibrating position and the measuring position of the pivoting device is the same - and the pivoting device is mounted pivotably about a bending edge of one of the bending tools, the lower tool or the upper tool.
An optoelectronic sensor arrangement having at least one light transmitter for transmitting light signals into a monitored zone; a control unit for controlling the light transmitter, having a first light receiver for receiving the light signals transmitted from the light transmitter, wherein the light receiver is configured as a receiver line; having a first main evaluation unit for evaluating the received signals of the first light receiver; having a second light receiver for receiving the light signals transmitted from the light transmitter, wherein the light receiver is configured as a receiver line; wherein the optoelectronic sensor arrangement is a triangulation light scanner, characterized in that the optoelectronic sensor arrangement is equipped with a second secondary evaluation unit for evaluating the received signals of the second light receiver; and at least one first ASIC module is provided, with the ASIC module having at least the control unit, with the first light receiver and the first main evaluation unit being arranged in the first ASIC module and the second light receiver and the second secondary evaluation unit being arranged in a second ASIC module, and with the first ASIC module and the second ASIC module each having a double receiver synchronizer unit that are each connected to one another. a control unit for controlling the light transmitter, having a first light receiver for receiving the light signals transmitted from the light transmitter, wherein the light receiver is configured as a receiver line; having a first main evaluation unit for evaluating the received signals of the first light receiver; having a second light receiver for receiving the light signals transmitted from the light transmitter, wherein the light receiver is configured as a receiver line; wherein the optoelectronic sensor arrangement is a triangulation light scanner, characterized in that the optoelectronic sensor arrangement is equipped with a second secondary evaluation unit for evaluating the received signals of the second light receiver; and at least one first ASIC module is provided, with the ASIC module having at least the control unit, with the first light receiver and the first main evaluation unit being arranged in the first ASIC module and the second light receiver and the second secondary evaluation unit being arranged in a second ASIC module, and with the first ASIC module and the second ASIC module each having a double receiver synchronizer unit that are each connected to one another.
Electrical machine, in particular starter for the internal combustion engine of a motor vehicle, comprising a stator (28, 31, 34) and comprising a rotor, wherein the rotor winding has conductors which are composed of aluminium and which are connected at a connection point to commutator laminations as current-carrying machine parts which are composed of copper, wherein the ends of the aluminium conductors are each terminated with a line section which is composed of copper, and these sections are electrically and mechanically connected to the other current-carrying part of the machine, characterized in that a connection of the line sections (50, 51) which are composed of aluminium and copper is protected against corrosion by an electrically insulating sheathing, wherein the sheathing consists of an insulating-material sleeve which is composed of temperature-resistant shrink tubing.
An auto-darkening welding helmet, comprising: a helmet casing; an auto-darkening filter installed in the helmet casing and including a liquid crystal panel configured to be switched between a non-opaque state and an opaque state; and a lighting device installed in the helmet casing and comprising a cable configured to be connected to the auto-darkening filter in a manner that: when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel, and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter. a helmet casing; an auto-darkening filter installed in the helmet casing and including a liquid crystal panel configured to be switched between a non-opaque state and an opaque state; and a lighting device installed in the helmet casing and comprising a cable configured to be connected to the auto-darkening filter in a manner that: when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel, and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter. when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel, and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter.
Method for insulating an RC voltage divider, comprising the method steps of: - installing at least a part of an active part of the RC voltage divider within an inner housing and insulating the at least a part of the active part with an insulating oil within the inner housing; - hermetically sealing the inner housing; - enclosing the inner housing in an outer housing; - filling a space between the inner housing and the outer housing with an insulating gas; characterized in that the active part comprises a stack of flat pressed capacitance elements and a stack of parallel grading resistors, and the entire active part is hermetically sealed in the inner housing. - installing at least a part of an active part of the RC voltage divider within an inner housing and insulating the at least a part of the active part with an insulating oil within the inner housing; - hermetically sealing the inner housing; - enclosing the inner housing in an outer housing; - filling a space between the inner housing and the outer housing with an insulating gas;
A system for producing an encoded digital audio recording having a plurality of audio channels or audio objects, comprising: an audio encoder to encode a digital audio recording having a plurality of audio channels or audio objects; a Dynamic Range Control, DRC, processor to produce a sequence of encoder DRC gain values by applying a selected one of a plurality of DRC characteristics to a group of one or more of the plurality of audio channels or audio objects, wherein the encoder DRC gain values are to be applied to adjust the group of audio channels or audio objects upon decoding them from the encoded digital audio recording; and means for providing as metadata associated with the encoded digital audio recording i) the sequence of encoder DRC gain values, ii) an indication of the selected DRC characteristic, and iii) an indication of an alternate DRC characteristic selected from the plurality of DRC characteristics. an audio encoder to encode a digital audio recording having a plurality of audio channels or audio objects; a Dynamic Range Control, DRC, processor to produce a sequence of encoder DRC gain values by applying a selected one of a plurality of DRC characteristics to a group of one or more of the plurality of audio channels or audio objects, wherein the encoder DRC gain values are to be applied to adjust the group of audio channels or audio objects upon decoding them from the encoded digital audio recording; and means for providing as metadata associated with the encoded digital audio recording i) the sequence of encoder DRC gain values, ii) an indication of the selected DRC characteristic, and iii) an indication of an alternate DRC characteristic selected from the plurality of DRC characteristics.