mhurhangee/ep-ind-claims huggingface dataset:
A signal isolator comprising: a first coil (314, 320; 414) having first and second ends; a first plate (312; 412) coupled to the first end of the first coil; a second plate (318; 418) coupled to the second end of the first coil, where the first and/or second plate is configured to be coupled to a drive circuit; a second coil (336, 338; 436) inductively coupled to the first coil; a third plate (332; 432) capacitively coupled to the first plate; a fourth plate (334; 434) capacitively coupled to the second plate; at least one isolation layer (340; 440) between the first and second coils and between the first and second plates and the third and fourth plates; a receive module including a first receive circuit coupled to the third and fourth plates and a second receive circuit to receive the signal on the second coil; and a processing module to generate the output signal corresponding to the signal transmitted by the drive circuit from signals received by the first and second receive circuits. a first coil (314, 320; 414) having first and second ends; a first plate (312; 412) coupled to the first end of the first coil; a second plate (318; 418) coupled to the second end of the first coil, where the first and/or second plate is configured to be coupled to a drive circuit; a second coil (336, 338; 436) inductively coupled to the first coil; a third plate (332; 432) capacitively coupled to the first plate; a fourth plate (334; 434) capacitively coupled to the second plate; at least one isolation layer (340; 440) between the first and second coils and between the first and second plates and the third and fourth plates; a receive module including a first receive circuit coupled to the third and fourth plates and a second receive circuit to receive the signal on the second coil; and a processing module to generate the output signal corresponding to the signal transmitted by the drive circuit from signals received by the first and second receive circuits.
Method for producing a multi-page adhesive label comprising at least two sheets of data held one above the other by a layer of peel-off adhesive, this method comprising the following step: - superimpose, on an adhesive backing sheet, a first adhesive layer, a first data sheet, a second adhesive layer, and a second data sheet, this method being characterized in that it comprises the following steps: - cutting, in a single pass of a punching tool comprising a first impression and a second impression, the first impression enveloping the second impression: a first contour in both the first data sheet and the second data sheet, thanks to the first impression; a second contour in the second data sheet, thanks to the second impression; so that the first contour has an extension portion extending beyond the second contour, and so that at least one fastener is formed in the second data sheet, this fastener connecting the second data sheet on either side of the first contour and in line with the extension portion; - peel off the portion of the first data sheet around the first contour and the portion of the second data sheet around the second contour from the adhesive backing sheet in a single weeding pass, the latter being driven by said fastener. - superimpose, on an adhesive backing sheet, a first adhesive layer, a first data sheet, a second adhesive layer, and a second data sheet, - cutting, in a single pass of a punching tool comprising a first impression and a second impression, the first impression enveloping the second impression: a first contour in both the first data sheet and the second data sheet, thanks to the first impression; a second contour in the second data sheet, thanks to the second impression; so that the first contour has an extension portion extending beyond the second contour, and so that at least one fastener is formed in the second data sheet, this fastener connecting the second data sheet on either side of the first contour and in line with the extension portion; - peel off the portion of the first data sheet around the first contour and the portion of the second data sheet around the second contour from the adhesive backing sheet in a single weeding pass, the latter being driven by said fastener.
Chewable tablet with a chewable excipient material which dissolves in the mouth of a human only after continuous chewing over more than one minute, characterized in that dried and powdered parts of a plant, namely leaves, flowers, fruits or roots of the plant, selected from one or more plants of the plant genera Althaea (Malvaceae), Baptisia (indigo), Cetraria (lichens), Cimicifuga (cohoshes), Crataegus (hawthorn), Echinacea (coneflower), Hedera (ivy), Malphigia (acerola), Mentha (mint) and Rosa (rosehip) are distributed within the excipient material, where the total weight of the tablet amounts to between 300 and 2000 mg and the amount of the dried and powdered plant parts amounts to between 10 and 50% by weight, based on the total weight of the individual chewable tablet.
A system for battery pack thermal management, wherein the battery pack comprising at least one cell stack comprising a plurality of battery cells arranged in the cell stack, wherein the system comprising a cooling element arranged at least on a top face of the battery cells and comprising a first heat exchange surface and second heat exchange surface opposite the first heat exchange surface, wherein the cooling element comprising at least one extension arranged on the first exchange surface; the first heat exchange surface is configured to be in thermal contact with at least one battery cell busbar and heat producing hotspot area of the battery cell casing; the second heat exchange surface is configured to be in thermal contact with at least one electrical circuit component of the battery pack; thermal energy is configured to be conducted from the at least one battery cell busbar, heat producing hotspot area of the battery cells, and at least one electrical circuit component to the cooling element; and the extension of the cooling element comprising at least one fin. a cooling element arranged at least on a top face of the battery cells and comprising a first heat exchange surface and second heat exchange surface opposite the first heat exchange surface, wherein the cooling element comprising at least one extension arranged on the first exchange surface; the first heat exchange surface is configured to be in thermal contact with at least one battery cell busbar and heat producing hotspot area of the battery cell casing; the second heat exchange surface is configured to be in thermal contact with at least one electrical circuit component of the battery pack; thermal energy is configured to be conducted from the at least one battery cell busbar, heat producing hotspot area of the battery cells, and at least one electrical circuit component to the cooling element; and the extension of the cooling element comprising at least one fin.
An apparatus comprising: - a power source configured to generate an alternating electric excitation signal; - a current detector configured to measure amplitude values of a current supplied by the power source; and - a processor; wherein the apparatus is configured to: - apply, by the power source, a first alternating electric excitation signal to an oscillation blade device at a first excitation frequency causing a blade of the oscillation blade device to oscillate at a first oscillation frequency; - measure, by the current detector, amplitude values of the current supplied by the power source to the oscillation blade device said current representing a frequency which is a combination resulting from the beating of the first excitation frequency and the first oscillation frequency of the blade; - assess, by the processor, a plurality of successive peak values of said measured amplitudes; - determine, by the processor, a second oscillation frequency for the blade if variation in the successive peak values is detected; and - apply, by the power source, a second alternating electric excitation signal to the oscillation blade device at a second excitation frequency which is equal to the determined second oscillation frequency. - a power source configured to generate an alternating electric excitation signal; - a current detector configured to measure amplitude values of a current supplied by the power source; and - a processor; - apply, by the power source, a first alternating electric excitation signal to an oscillation blade device at a first excitation frequency causing a blade of the oscillation blade device to oscillate at a first oscillation frequency; - measure, by the current detector, amplitude values of the current supplied by the power source to the oscillation blade device said current representing a frequency which is a combination resulting from the beating of the first excitation frequency and the first oscillation frequency of the blade; - assess, by the processor, a plurality of successive peak values of said measured amplitudes; - determine, by the processor, a second oscillation frequency for the blade if variation in the successive peak values is detected; and - apply, by the power source, a second alternating electric excitation signal to the oscillation blade device at a second excitation frequency which is equal to the determined second oscillation frequency.
An anxiolytic composition, comprising a synergistic combination of L-theanine, a whey protein, an extract of magnolia and an extract of phellodendron.
An apparatus for repairing a porous region in a composite laminate by infusing a flowable matrix material into the porous region via a surface of the composite laminate, the apparatus comprising: a vacuum barrier covering at least a first portion of an area of the surface of the composite laminate overlaying a location of the porous region in the composite laminate, the vacuum barrier defining an enclosed volume comprising the first portion of the area of the surface of the composite laminate; a supply of flowable matrix material available to the first portion of the area of the surface of the composite laminate; a flow barrier hindering a flow of the flowable matrix material across the surface out of the first portion of the area via the surface of the composite laminate, the flow barrier being positioned between the first portion of the area of the surface and a second portion of the area of said surface of the composite laminate, the second portion of the area being outside the first portion of the area of the surface; and a vacuum source in fluid communication with the enclosed volume; characterized in that the vacuum source is configured to cause the flowable matrix material in the first portion of the area of the surface to be drawn into the porous region, the vacuum source being in fluid communication with the second portion of the area of the surface to draw the flowable matrix material out of the porous region via the second portion of the area, wherein the apparatus further comprises an overflow carrier facilitating the flow of flowable matrix material exiting the porous region via the second portion away from the second portion. a vacuum barrier covering at least a first portion of an area of the surface of the composite laminate overlaying a location of the porous region in the composite laminate, the vacuum barrier defining an enclosed volume comprising the first portion of the area of the surface of the composite laminate; a supply of flowable matrix material available to the first portion of the area of the surface of the composite laminate; a flow barrier hindering a flow of the flowable matrix material across the surface out of the first portion of the area via the surface of the composite laminate, the flow barrier being positioned between the first portion of the area of the surface and a second portion of the area of said surface of the composite laminate, the second portion of the area being outside the first portion of the area of the surface; and a vacuum source in fluid communication with the enclosed volume; characterized in that the vacuum source is configured to cause the flowable matrix material in the first portion of the area of the surface to be drawn into the porous region, the vacuum source being in fluid communication with the second portion of the area of the surface to draw the flowable matrix material out of the porous region via the second portion of the area, wherein the apparatus further comprises an overflow carrier facilitating the flow of flowable matrix material exiting the porous region via the second portion away from the second portion.
Method for pressing a press material mat during the process of producing wood based boards, more particularly fibreboards, in a continuous press, wherein the press comprises a press frame, at least one upper press plate (2, 5) and at least one lower press plate (3, 6), wherein in order to adjust a press gap arranged between the press plates, the upper press plate (2, 5) and/or the lower press plate (3, 6) are acted upon by press cylinders (7, 8) supported at the press frame, wherein on the inlet side, the press plates (5, 6) form an inlet area in which the press material mat entering into the press gap is compressed during a compression phase, characterised in that at least in the inlet area, the upper plate and/or the lower press plate is at least in parts lowered and raised in a cyclically pulsating manner so that by means of the press cylinders connected to the upper press plate and/or the lower press plate in the inlet area, the press material mat entering the inlet gap consecutively passes through several pulsating, varying compression phases and decompression phases, wherein in several compression phases, the press material mat is on multiple occasions cyclically compressed to nominal size or over-compressed to under nominal size and each time between the compression phases is unpressurised above nominal size in the decompression phases. wherein the press comprises a press frame, at least one upper press plate (2, 5) and at least one lower press plate (3, 6), wherein in order to adjust a press gap arranged between the press plates, the upper press plate (2, 5) and/or the lower press plate (3, 6) are acted upon by press cylinders (7, 8) supported at the press frame, wherein on the inlet side, the press plates (5, 6) form an inlet area in which the press material mat entering into the press gap is compressed during a compression phase, characterised in that at least in the inlet area, the upper plate and/or the lower press plate is at least in parts lowered and raised in a cyclically pulsating manner so that by means of the press cylinders connected to the upper press plate and/or the lower press plate in the inlet area, the press material mat entering the inlet gap consecutively passes through several pulsating, varying compression phases and decompression phases, wherein in several compression phases, the press material mat is on multiple occasions cyclically compressed to nominal size or over-compressed to under nominal size and each time between the compression phases is unpressurised above nominal size in the decompression phases.
A reciprocating-piston internal combustion engine (1; 30), comprising at least one cylinder, in which a reciprocating piston is disposed so as to be movable in a reciprocating manner, wherein a pin structure is disposed in the combustion chamber in the region of the cylinder head and/or of the piston crown, characterized in that, the reciprocating-piston internal combustion engine (1; 30) having a baffle pin which for deflecting and/or distributing introduced fuel toward the pin structure is disposed in the region of the pin structure, wherein the baffle pin with respect to an introduction direction of the fuel into the combustion chamber and the pin structure is arranged and configured such that introduced fuel at least largely impacts the baffle pin and by the latter is deflected and/or distributed in the radial direction toward the pin structure. in which a reciprocating piston is disposed so as to be movable in a reciprocating manner, wherein a pin structure is disposed in the combustion chamber in the region of the cylinder head and/or of the piston crown, characterized in that, the reciprocating-piston internal combustion engine (1; 30) having a baffle pin which for deflecting and/or distributing introduced fuel toward the pin structure is disposed in the region of the pin structure, wherein the baffle pin with respect to an introduction direction of the fuel into the combustion chamber and the pin structure is arranged and configured such that introduced fuel at least largely impacts the baffle pin and by the latter is deflected and/or distributed in the radial direction toward the pin structure.
Auxetic adjustment device (10, 10') at least partially comprising an auxetic cell structure which has a plurality of cell units having a predeterminable geometry, an action direction being assigned to the auxetic cell structure in an initial position of the adjustment device (10, 10'), an actuator exerting an action force (F z) on the auxetic cell structure in order to adjust the auxetic cell structure in the action direction, which force, transversely to the action force (F z), causes an auxetic reaction of the auxetic cell structure into an adjustment position on a reaction axis in the reaction direction, which is provided as an adjustment axis in an adjustment direction of the adjustment device (10, 10'), the cell units of the cell structure being connected to one another via at least one joint, characterized in that the cell units of the cell structure are connected to one another via at least one joint with at least one support element arranged at the edge of the cell structure.
A cold storage material comprising: tetrahydrofuran; water; and at least one silver compound selected from the group consisting of silver phosphate represented by a chemical formula Ag 3 PO 4, silver carbonate represented by a chemical formula Ag 2 CO 3, and a silver oxide represented by a chemical formula AgO, wherein the cold storage material has a melting point of 2 degrees Celsius or higher and 8 degrees Celsius or lower, and the cold storage material has a crystallization temperature of 0 degrees Celsius or higher and lower than the melting point. tetrahydrofuran; water; and at least one silver compound selected from the group consisting of silver phosphate represented by a chemical formula Ag 3 PO 4, silver carbonate represented by a chemical formula Ag 2 CO 3, and a silver oxide represented by a chemical formula AgO, wherein the cold storage material has a melting point of 2 degrees Celsius or higher and 8 degrees Celsius or lower, and the cold storage material has a crystallization temperature of 0 degrees Celsius or higher and lower than the melting point.
A method for testing wireless performance of a wireless terminal, wherein the wireless terminal is configured as a device under test, DUT, the DUT has a plurality of transmitting antennas and is placed in an anechoic chamber, and the method comprises: obtaining antenna pattern of the plurality of the transmitting antennas of the DUT, and importing the antenna pattern into a channel emulator; selecting a same number of testing antennas in the anechoic chamber as a number of the transmitting antennas of the DUT, so that the transmitting antennas of the DUT transmit signals to the selected testing antennas, and generating a propagation channel matrix between output ports of the transmitting antennas of the DUT and input ports of the selected testing antennas; loading an inverse matrix of the propagation channel matrix on original transmitting signals to get loaded signals; transmitting, by the transmitting antennas of the DUT, the loaded signals to the selected testing antennas; receiving, by the selected testing antennas, transmitting antenna output port signals from the transmitting antennas of the DUT to generate testing antenna input port signals, and sending the testing antenna input port signals to the channel emulator, the channel emulator receiving and processing the testing antenna input port signals to generate an analog signal and sending the analog signal to an analog base station; and receiving, by the analog base station, the analog signal, and performing a throughput test to obtain an uplink wireless performance test of the DUT. obtaining antenna pattern of the plurality of the transmitting antennas of the DUT, and importing the antenna pattern into a channel emulator; selecting a same number of testing antennas in the anechoic chamber as a number of the transmitting antennas of the DUT, so that the transmitting antennas of the DUT transmit signals to the selected testing antennas, and generating a propagation channel matrix between output ports of the transmitting antennas of the DUT and input ports of the selected testing antennas; loading an inverse matrix of the propagation channel matrix on original transmitting signals to get loaded signals; transmitting, by the transmitting antennas of the DUT, the loaded signals to the selected testing antennas; receiving, by the selected testing antennas, transmitting antenna output port signals from the transmitting antennas of the DUT to generate testing antenna input port signals, and sending the testing antenna input port signals to the channel emulator, the channel emulator receiving and processing the testing antenna input port signals to generate an analog signal and sending the analog signal to an analog base station; and receiving, by the analog base station, the analog signal, and performing a throughput test to obtain an uplink wireless performance test of the DUT.
Method for producing a structure by means of a cold gas spraying method, comprising the steps: - providing a carrier with a carrier surface, to which the structure can be attached by means of the cold gas spraying method by following a travel path, - providing an element with an element surface that is different from the carrier surface, wherein the element is arranged in the travel path and/or the travel path is specified such that intersections of the travel path and/or interruptions of the structure are arranged on the element surface. - providing a carrier with a carrier surface, to which the structure can be attached by means of the cold gas spraying method by following a travel path, - providing an element with an element surface that is different from the carrier surface, wherein the element is arranged in the travel path and/or the travel path is specified such that intersections of the travel path and/or interruptions of the structure are arranged on the element surface.