mhurhangee/ep-ind-claims huggingface dataset:
A power semiconductor module, comprising: at least one semiconductor board with at least two semiconductor chips, each semiconductor chip having two power electrodes (26, 28); an adapter board attached to the semiconductor board above the at least two semiconductor chips, the adapter board comprising a terminal area for each semiconductor chip on a side facing away from the semiconductor board; wherein the adapter board, in each terminal area, provides a power terminal for each power electrode (26, 28) of the semiconductor chip associated with the terminal area; wherein each power terminal is electrically connected via an electrically conductive vertical post (34, 36) below the terminal area with the semiconductor chip; characterised in that each of the power terminals has at least two plug connectors; wherein the adapter board comprises jumper connectors for interconnecting two plug connectors for electrically connecting power electrodes (26, 28) of different semiconductor chips. at least one semiconductor board with at least two semiconductor chips, each semiconductor chip having two power electrodes (26, 28); an adapter board attached to the semiconductor board above the at least two semiconductor chips, the adapter board comprising a terminal area for each semiconductor chip on a side facing away from the semiconductor board; wherein the adapter board, in each terminal area, provides a power terminal for each power electrode (26, 28) of the semiconductor chip associated with the terminal area; wherein each power terminal is electrically connected via an electrically conductive vertical post (34, 36) below the terminal area with the semiconductor chip; characterised in that each of the power terminals has at least two plug connectors; wherein the adapter board comprises jumper connectors for interconnecting two plug connectors for electrically connecting power electrodes (26, 28) of different semiconductor chips.
Device for cleansing and applying a composition to the hair, comprising a body structure comprising a first, dispensing opening and a second, vacuum opening, a nebulizer with an outlet connected to the first, dispensing opening, a vacuum system with an inlet connected to the second, vacuum opening, and a handle extending the body structure, wherein the body structure has a support having a peripheral edge delimited by a perimeter line, the support extending along a longitudinal axis, and application elements extending from a longitudinal face of the support along a longitudinal axis, the application elements having a first, free end and a second end connected obliquely or perpendicularly to the longitudinal face of the support, the first, dispensing opening and the second, vacuum opening opening onto the longitudinal face of the support without passing through the application elements, characterized in that it has a suction nozzle that is movable in translation along its longitudinal axis and ends with the second, vacuum opening, and a drive mechanism setting the suction nozzle in motion with an oscillating movement along the longitudinal axis.
Heat transfer device comprising at least one channel for a heat-absorbing medium and at least one channel for a heat-emitting medium, at least one of the channels having a textile structure, at least in regions, characterized in that the textile structure having regions compressed at regular spacings, the compressed regions of the textile structure being disposed in the transition region between at least one channel for a heat-absorbing medium and at least one channel for a heat-emitting medium for the production of a thermal contact and the non-compressed regions of the textile structure being disposed in the flow region of at least one channel.
Pneumatic vehicle tyre comprising a tread with different profile structures in the halves of the tread, the tyre having a tyre inner shoulder region and a tyre outer shoulder region and being intended to be fitted on the vehicle in such a way that the tyre outer shoulder region is located on the outer side of the vehicle, the tread in the tyre outer shoulder region having profile elements with transverse channels that extend over the width of the contact area, characterized in that a raised base portion, which locally reduces the depth of the transverse channel and connects the flanks of the transverse channel to one another, is respectively formed in the transverse channels in the outer shoulder region axially outside the width of the contact area of the tyre.
Electrochemical energy storage, containing a cell arrangement having a plurality of electrochemical cells, several of which are serially interconnected and have in each case a first connecting contact with a first polarity and a second connecting contact with a second polarity, and temperature detection means, which provide at least one piece of information on the temperature of at least one electrochemical cell and contain at least one fiber optic sensor, which contains at least one segment with at least one fiber Bragg grating, wherein a temperature-dependent mechanical tension can be applied to the at least one segment of the fiber optic sensor, characterized in that the energy storage has a plurality of fitting pieces, in each case two adjacent cells with their first and second connecting contacts (202, 207) are serially interconnected via the fitting pieces and the fitting pieces are also in contact with the at least one fiber optic sensor in such a way that the fitting pieces can apply the temperature-dependent mechanical tension to the at least one segment of the fiber optic sensor.
A method for separating seismic sources, characterised by: using a programmable computer to perform the following: applying an operator in a Laplace frequency domain to multiple source seismic data acquired in a marine seismic survey with multiple sources located at different depths to generate an estimate of a primary source wavefield, the operator being a function of a time delay between a primary source and one or more secondary sources, a reghosting operator at a depth of the primary source, and deghosting operators at depths of the primary and one or more secondary sources; adaptively subtracting the estimate of the primary source wavefield from the multiple-source seismic data to generate an estimate of one or more secondary source wavefields; applying another operator in the Laplace frequency domain to the estimates of the one or more secondary source wavefields to generate another estimate of the primary source wavefield, the operator being a function of time delays between the primary source and the one or more secondary sources, the reghosting operator at the depth of the primary source, and the deghosting operators at the depths of the one or more secondary sources; and using the estimates of the primary source and the one or more secondary source wavefields, after further iterative refinements to remove noise, to generate upgoing and downgoing wavefield components of the multiple source seismic data. applying an operator in a Laplace frequency domain to multiple source seismic data acquired in a marine seismic survey with multiple sources located at different depths to generate an estimate of a primary source wavefield, the operator being a function of a time delay between a primary source and one or more secondary sources, a reghosting operator at a depth of the primary source, and deghosting operators at depths of the primary and one or more secondary sources; adaptively subtracting the estimate of the primary source wavefield from the multiple-source seismic data to generate an estimate of one or more secondary source wavefields; applying another operator in the Laplace frequency domain to the estimates of the one or more secondary source wavefields to generate another estimate of the primary source wavefield, the operator being a function of time delays between the primary source and the one or more secondary sources, the reghosting operator at the depth of the primary source, and the deghosting operators at the depths of the one or more secondary sources; and using the estimates of the primary source and the one or more secondary source wavefields, after further iterative refinements to remove noise, to generate upgoing and downgoing wavefield components of the multiple source seismic data.
A slide rail assembly (16, 200), comprising: a first rail; a second rail movable with respect to the first rail; a third rail mounted between the first rail and the second rail, wherein the third rail comprises an upper wall, a lower wall, and a sidewall, the sidewall being connected between the upper wall and the lower wall of the third rail, wherein the upper wall, the lower wall, and the sidewall of the third rail jointly define a channel; and at least one supporting structure disposed at a position relative to the first rail; at least one extension member coupled to the first rail at a position adjacent to a rear portion of the first rail, wherein the at least one supporting structure is connected to the first rail via the at least one extension member, and wherein the extension member includes an upper portion, a lower portion, and a side portion connected between the upper portion and the lower portion; the upper portion, the lower portion, and the side portion jointly define an extension channel, through which the second rail extends; and the at least one supporting structure is located in the extension channel; wherein, when the second rail is at a predetermined position relative to the first rail, the third rail supports a rail section of the second rail, and the at least one supporting structure supports a portion of the remaining rail section of the second rail; wherein the extension channel is aligned with or faces the channel of the third rail. a first rail; a second rail movable with respect to the first rail; a third rail mounted between the first rail and the second rail, wherein the third rail comprises an upper wall, a lower wall, and a sidewall, the sidewall being connected between the upper wall and the lower wall of the third rail, wherein the upper wall, the lower wall, and the sidewall of the third rail jointly define a channel; and at least one supporting structure disposed at a position relative to the first rail; at least one extension member coupled to the first rail at a position adjacent to a rear portion of the first rail, wherein the at least one supporting structure is connected to the first rail via the at least one extension member, and wherein the extension member includes an upper portion, a lower portion, and a side portion connected between the upper portion and the lower portion; the upper portion, the lower portion, and the side portion jointly define an extension channel, through which the second rail extends; and the at least one supporting structure is located in the extension channel; wherein, when the second rail is at a predetermined position relative to the first rail, the third rail supports a rail section of the second rail, and the at least one supporting structure supports a portion of the remaining rail section of the second rail; wherein the extension channel is aligned with or faces the channel of the third rail.
Apparatus for coding a first connection partner and a second connection partner of a bayonet lock, wherein the apparatus comprises a bayonet lock having a first connection partner and having a second connection partner, wherein the first connection partner has at least two locking arms (16, 18, 20) for locking the connection and is arranged on a fluid-line adaptor, and wherein the second connection partner has a flange ring for lead-through of the first locking partner with a number of recesses (24, 26, 28), corresponding to the number of locking arms (16, 18, 20), for lead-through of the locking arms (16, 18, 20) and is arranged on an adaptor receptacle, wherein a first locking arm has a different geometry from the further locking arms (18, 20), wherein a first recess assigned to the first locking arm has a matching geometry for positioning the first connection partner and the second connection partner in a predefined position, and the further recesses (26, 28) have a geometry which is different and does not match the first locking arm, and wherein the apparatus furthermore has a mechanical coding device, wherein the coding device has a first coding partner on the first connection partner and has a second coding partner on the second connection partner, wherein the first coding partner and the second coding partner are oriented in a manner matching one another when the first connection partner and the second connection partner are arranged in a predefined position in relation to one another and a connection is realized via the bayonet lock, wherein the first coding partner is a projection and the second coding partner is a guide assigned to the projection, characterized in that the projection extends away from the first connection partner in a radial direction of the fluid-line adaptor, wherein the second connection partner has an edge which extends in a circumferential direction of the adaptor receptacle and which has the guide for the projection, wherein the guide extends in the circumferential direction.
An optical assembly (1, 301) comprising: a spacer layer (20, 105) which is translucent or transparent; an image forming reflector which has a reflective layer, the reflective layer being formed at least in a first region of the spacer layer; and a protective layer which is laminated over the spacer layer and the image forming reflector, the protective layer being translucent or transparent, wherein the spacer layer is made of a polyolefin or/and a polymer containing an aryl group, the image forming reflector has a visible image formed therein, the visible image being authenticatable, the image forming reflector has an individual information record in which a code is stored in form of a plurality of removed linear segments, the removed linear segments being formed by removing parts of the reflective layer, the image forming reflector has white level regions and a black level region in planar view of the image forming reflector, each of the white level regions having the removed linear segments formed therein, the black level region being interposed between the white level regions, and the spacer layer has a first surface and a second surface, the first surface having the image forming reflector mounted thereon, the second surface being opposed to the first surface, wherein the optical assembly has a reflective scattering layer which diffuses light incident thereto and which is formed on a surface of the spacer layer facing away from the surface where the image forming reflector is disposed. a spacer layer (20, 105) which is translucent or transparent; an image forming reflector which has a reflective layer, the reflective layer being formed at least in a first region of the spacer layer; and a protective layer which is laminated over the spacer layer and the image forming reflector, the protective layer being translucent or transparent, wherein the spacer layer is made of a polyolefin or/and a polymer containing an aryl group, the image forming reflector has a visible image formed therein, the visible image being authenticatable, the image forming reflector has an individual information record in which a code is stored in form of a plurality of removed linear segments, the removed linear segments being formed by removing parts of the reflective layer, the image forming reflector has white level regions and a black level region in planar view of the image forming reflector, each of the white level regions having the removed linear segments formed therein, the black level region being interposed between the white level regions, and the spacer layer has a first surface and a second surface, the first surface having the image forming reflector mounted thereon, the second surface being opposed to the first surface, wherein the optical assembly has a reflective scattering layer which diffuses light incident thereto and which is formed on a surface of the spacer layer facing away from the surface where the image forming reflector is disposed.
Installation for feeding livestock, comprising a plurality of modules (10, 12, 14) for storing and/or preparing feed products, means for preparing a mixture from the products stored in the storage and/or preparation modules (10, 12, 14), and an autonomous movable distributor robot for distributing the feed mixture to the animals, characterised in that the mixing means comprise a fixed mixer, and the installation comprises a distributor (50, 52, 53) installed on the distributor robot and transfer means for transferring a mixture from the mixer to the distributor robot.
A replaceable filter member configured for a hearing aid device comprising a unit with a housing configured to be inserted into the ear canal of a user of the hearing aid device, the housing comprising one or more openings (10, 12) along the length of the housing, and a sound opening in the distal end of the housing said filter member configured to prevent ear wax from entering an opening (10, 12, 34) in the housing, the filter member being a one-piece body that is configured to cover several openings (10, 12) in the unit while attached to the unit, the filter member comprising a first lattice and a second (30") lattice of different structure than the first lattice, and the first lattice arranged in such a way that when the filter member is attached to the unit the first lattice covers the one or more openings (10, 12) along the length of the housing of the unit and the second (30") lattice covers the sound opening in the distal end of the housing.
A method comprising: determining a desired rate of change of a refrigeration system operating parameter; using historical data to predict an expected rate of change of said operating parameter for cycling each component of a plurality of refrigeration system components; calculating an appropriateness factor for each component of said plurality, said appropriateness factor corresponding to a difference between said expected rate of change for said component and said desired rate of change; ranking said components based on said appropriateness factor; selectively cycling at least one component from said plurality based on said ranking. determining a desired rate of change of a refrigeration system operating parameter; using historical data to predict an expected rate of change of said operating parameter for cycling each component of a plurality of refrigeration system components; calculating an appropriateness factor for each component of said plurality, said appropriateness factor corresponding to a difference between said expected rate of change for said component and said desired rate of change; ranking said components based on said appropriateness factor; selectively cycling at least one component from said plurality based on said ranking.
A device suitable for use during surgery to direct the insertion of a guide or an implant across a bone hinge, wherein the bone hinge is adjacent to a cut made in a bone during the surgery, the device comprising: (i) a main body comprising or consisting of a first arm, wherein the first arm comprises a first opening for receiving the guide or the implant; and (iii) an insertion part having a first end and a second end, the first end comprising an elongated portion which is suitable for insertion into the cut, and the second end comprising an attachment part for reversibly attaching the insertion part to the main body; wherein when the elongated portion is inserted into the cut and the insertion part is attached to the main body, the first opening is configured to direct the insertion of the guide or the implant into the bone from a first point on the outer surface across the bone hinge. (i) a main body comprising or consisting of a first arm, wherein the first arm comprises a first opening for receiving the guide or the implant; and (iii) an insertion part having a first end and a second end, the first end comprising an elongated portion which is suitable for insertion into the cut, and the second end comprising an attachment part for reversibly attaching the insertion part to the main body;
Coffee machine (1,1') consisting of a thermoblock assembled by two separate parts, comprising at least: - an external female part (1^1) shaped prismatic or cylindrical; - an inner male part (1^2) shaped cylindrical; - a diffuser with water vent valve; - an helical bar; wherein female part ( 1^1) is separated from male part ( 1^2) and male part ( 1^2) is joint to external female part ( 1^1) thread coupled, so that top sides of said parts are on the same level; and wherein the coffee machine (1,1') has outer female part ( 1^1) and inner male part ( 1^2) made of metal or other types of materials.
An aerosol-generating system comprising: a liquid storage portion for holding a liquid aerosol-forming substrate, the liquid storage portion comprising a first portion in fluid communication with a second portion; a first pair of electrodes (320, 420) arranged adjacent to or in the first portion of the liquid storage portion; a second pair of electrodes (330, 430) arranged adjacent to or in the second portion of the liquid storage portion; and control system configured to: measure an electrical quantity between the first pair of electrodes (320, 420); measure an electrical quantity between the second pair of electrodes (330, 430); and determine the orientation of the liquid storage portion based on measurements of the electrical quantity between the first pair of electrodes (320, 420) and measurements of the electrical quantity between the second pair of electrodes (330, 430). a liquid storage portion for holding a liquid aerosol-forming substrate, the liquid storage portion comprising a first portion in fluid communication with a second portion; a first pair of electrodes (320, 420) arranged adjacent to or in the first portion of the liquid storage portion; a second pair of electrodes (330, 430) arranged adjacent to or in the second portion of the liquid storage portion; and control system configured to: measure an electrical quantity between the first pair of electrodes (320, 420); measure an electrical quantity between the second pair of electrodes (330, 430); and determine the orientation of the liquid storage portion based on measurements of the electrical quantity between the first pair of electrodes (320, 420) and measurements of the electrical quantity between the second pair of electrodes (330, 430). measure an electrical quantity between the first pair of electrodes (320, 420); measure an electrical quantity between the second pair of electrodes (330, 430); and determine the orientation of the liquid storage portion based on measurements of the electrical quantity between the first pair of electrodes (320, 420) and measurements of the electrical quantity between the second pair of electrodes (330, 430).