mhurhangee/ep-ind-claims huggingface dataset:
Miniature fuse with an outer fuse box, wherein at least one melting conductor wound around a winding body, in particular an electrically insulating winding body is arranged in the fuse box, wherein the melting conductor comprises an electrically conductive melting wire, wherein an electrically insulating and/or electrically non-conductive covering of the melting conductor is provided which surrounds the outer shell surface of the melting wire at least in regions, preferably completely, wherein the distance between directly adjacent windings of the melting conductor wound around the winding body is configured to be less than 0.5 mm, preferably less than 0.05 mm, more preferably less than 0.01 mm, more preferably further less than 0.001 mm, characterized in that the covering is configured as a silicone covering and/or comprises silicone as material, wherein the melting wire comprises a further covering surrounding the melting wire at least in regions, wherein the further covering is arranged between the melting wire and the covering, wherein the further covering comprises metal as material, and wherein the material of the further covering differs from the material of the melting wire. wherein an electrically insulating and/or electrically non-conductive covering of the melting conductor is provided which surrounds the outer shell surface of the melting wire at least in regions, preferably completely, wherein the distance between directly adjacent windings of the melting conductor wound around the winding body is configured to be less than 0.5 mm, preferably less than 0.05 mm, more preferably less than 0.01 mm, more preferably further less than 0.001 mm, characterized in that the covering is configured as a silicone covering and/or comprises silicone as material, wherein the melting wire comprises a further covering surrounding the melting wire at least in regions, wherein the further covering is arranged between the melting wire and the covering, wherein the further covering comprises metal as material, and wherein the material of the further covering differs from the material of the melting wire.
A method of tissue assessment, comprising: receiving a data structure correlating values of dielectric parameters with values of at least one parameter of a tissue state, wherein the at least one parameter of a tissue state comprises a reversible lesion type and an irreversible lesion type; determining a value of at least one dielectric parameter of a target tissue, based on signal outputs from multiple electrical circuits, each electrical circuit comprising a first electrode positioned intra-body and in proximity to the target tissue and a second electrode selected from a body surface electrode and an electrode positioned intra-body and in proximity to the target tissue, wherein the signal outputs from the multiple electrical circuits are measured at each of multiple frequencies of an applied electrical field; estimating a value of the reversible lesion type or the irreversible lesion type, based on the determined values of the at least one dielectric parameter of the target tissue and the received data structure; and providing a feedback indicative of said estimate, wherein the determining and the estimating are performed after ablating of a portion of said target tissue to form a lesion and the feedback comprises an estimate of the irreversibility of lesioning in a region of said ablating. receiving a data structure correlating values of dielectric parameters with values of at least one parameter of a tissue state, wherein the at least one parameter of a tissue state comprises a reversible lesion type and an irreversible lesion type; determining a value of at least one dielectric parameter of a target tissue, based on signal outputs from multiple electrical circuits, each electrical circuit comprising a first electrode positioned intra-body and in proximity to the target tissue and a second electrode selected from a body surface electrode and an electrode positioned intra-body and in proximity to the target tissue, wherein the signal outputs from the multiple electrical circuits are measured at each of multiple frequencies of an applied electrical field; estimating a value of the reversible lesion type or the irreversible lesion type, based on the determined values of the at least one dielectric parameter of the target tissue and the received data structure; and providing a feedback indicative of said estimate, wherein the determining and the estimating are performed after ablating of a portion of said target tissue to form a lesion and the feedback comprises an estimate of the irreversibility of lesioning in a region of said ablating.
Hearing device, - having a housing that has an assembly opening and also a housing cap for closing the assembly opening, - having a signal processing unit arranged in the housing, - having a sealing body for sealing the housing against the housing cap against the ingress of contaminants, wherein the sealing body is arranged in the interior of the housing, and - having an antenna body for wireless communication with a separate device, wherein the antenna body is embedded in the sealing body. - having a housing that has an assembly opening and also a housing cap for closing the assembly opening, - having a signal processing unit arranged in the housing, - having a sealing body for sealing the housing against the housing cap against the ingress of contaminants, wherein the sealing body is arranged in the interior of the housing, and - having an antenna body for wireless communication with a separate device,
A fan blade having an airfoil component and an airfoil root, the airfoil root, comprising: a core; and a wear covering disposed onto the core; characterised in that said wear covering is a composite laminate layer, wherein the composite laminate layer is an integrally bonded woven laminate containing a mixture of polytetrafluoroethylene and poly-meta-phenylene isophthalamide fibers arranged in an inverse fashion to produce a right angle grid, wherein the airfoil root further includes a compressive residual stress layer treated into the core, the compressive residual stress layer being produced by a burnishing of the core. a core; and a wear covering disposed onto the core; characterised in that said wear covering is a composite laminate layer, wherein the composite laminate layer is an integrally bonded woven laminate containing a mixture of polytetrafluoroethylene and poly-meta-phenylene isophthalamide fibers arranged in an inverse fashion to produce a right angle grid, wherein the airfoil root further includes a compressive residual stress layer treated into the core, the compressive residual stress layer being produced by a burnishing of the core.
A method for communicating with a base station, comprising: transmitting, by a user equipment, UE of a plurality of UEs, a sounding reference signal, SRS, during a subframe (300, 400, 500, 600, 700, 800) including an uplink portion (302, 502) and a downlink portion (304, 402, 504, 602), wherein the SRS is configured using permutation or scrambling in order to avoid collision, wherein the SRS is transmitted using non-orthogonal physical resources via a corresponding uplink channel, and wherein the SRS is elongated over time to exceed the uplink portion of the subframe and is transmitted during at least a portion of the downlink portion (304, 402, 504, 602) of the subframe (300, 400, 500, 600, 700, 800), wherein the UE transmits the elongated SRS with a low power relative to a remainder of the plurality of UEs; and receiving, by the UE from the base station, beamformed downlink communications based on information obtained from at least the SRS about the uplink channel and applied to a downlink channel. transmitting, by a user equipment, UE of a plurality of UEs, a sounding reference signal, SRS, during a subframe (300, 400, 500, 600, 700, 800) including an uplink portion (302, 502) and a downlink portion (304, 402, 504, 602), wherein the SRS is configured using permutation or scrambling in order to avoid collision, wherein the SRS is transmitted using non-orthogonal physical resources via a corresponding uplink channel, and wherein the SRS is elongated over time to exceed the uplink portion of the subframe and is transmitted during at least a portion of the downlink portion (304, 402, 504, 602) of the subframe (300, 400, 500, 600, 700, 800), wherein the UE transmits the elongated SRS with a low power relative to a remainder of the plurality of UEs; and receiving, by the UE from the base station, beamformed downlink communications based on information obtained from at least the SRS about the uplink channel and applied to a downlink channel.
Battery, more particularly for a motor vehicle, with a plurality of battery cells (12, 14), wherein in a head area each of the battery cells (12, 14) has a first electrical contact element with a first polarity and a second electrical contact element with a second polarity, and wherein at least two of the battery cells (12, 14) are electrically connected in parallel to each other by means of a connection element (24, 26) assigned to the contact elements (20, 22) of the same polarity, wherein in the battery the head areas of the at least two battery cells (12, 14) electrically connected in parallel face each other and the contact elements (20, 22) of the same polarity of the two battery cells (12, 14) electrically connected in parallel are firmly bonded to the relevant connection element (24, 26), wherein the relevant connection element (24, 26) is designed as a bus bar which is rectangular in cross-section, characterised in that the relevant connection element (24, 26) is arranged between the two contact elements (20, 22) of the same polarity of the battery cells (12, 14), the head areas of which face each other, wherein upper sides and lower sides of the relevant connection element (24, 26) are connected to the contact elements (20, 22) of the same polarity of the at least two battery cells (12, 14) electrically connected in parallel.
A method for determining a background count rate in liquid scintillation counting, wherein the method comprises: - measuring external standard spectra of a sample, the method being characterised by further comprising the steps of: - determining, from the external standard spectra, a triple to double coincidence ratio and a quench parameter, - determining, based on the triple to double coincidence ratio and the quench parameter, a background reference parameter, and - determining, based on the background reference parameter, the background count rate from a background reference curve. - measuring external standard spectra of a sample, the method being characterised by further comprising the steps of: - determining, from the external standard spectra, a triple to double coincidence ratio and a quench parameter, - determining, based on the triple to double coincidence ratio and the quench parameter, a background reference parameter, and - determining, based on the background reference parameter, the background count rate from a background reference curve.
Method of manufacturing an external timepiece component, wherein: - there is provided a metallic base made of a first material which is titanium and/or a first titanium alloy, - there is provided at least one metallic cover plate made of a second material, said second material including a second metal chosen from among gold and platinum and palladium and/or a second alloy including at least gold or platinum or palladium, characterized in that: said at least one cover plate is produced with a thickness greater than or equal to 0.5 millimetres; - said at least one cover plate is welded, without filler material, to said base to form a bimetallic blank, by bringing said cover plate and said base to a temperature higher than the melting temperature of said cover plate and than the melting temperature of said base; - then said bimetallic blank is shaped and/or machined to give said structural component the final form thereof. - there is provided a metallic base made of a first material which is titanium and/or a first titanium alloy, - there is provided at least one metallic cover plate made of a second material, said second material including a second metal chosen from among gold and platinum and palladium and/or a second alloy including at least gold or platinum or palladium, said at least one cover plate is produced with a thickness greater than or equal to 0.5 millimetres; - said at least one cover plate is welded, without filler material, to said base to form a bimetallic blank, by bringing said cover plate and said base to a temperature higher than the melting temperature of said cover plate and than the melting temperature of said base; - then said bimetallic blank is shaped and/or machined to give said structural component the final form thereof. - said at least one cover plate is welded, without filler material, to said base to form a bimetallic blank, by bringing said cover plate and said base to a temperature higher than the melting temperature of said cover plate and than the melting temperature of said base; - then said bimetallic blank is shaped and/or machined to give said structural component the final form thereof.
A roller carriage for displaceably suspending a sliding leaf from a roller rail, wherein the roller carriage surrounds a frontal edge of the sliding leaf, and includes at least one fastening element (15, 15a) for applying a force onto the surface of the sliding leaf, by means of which the sliding leaf is supported at the roller carriage in a clamped manner, wherein the fastening element (15, 15a) penetrates through a bore (3, 3a) of the sliding leaf and constitutes in this case a positive connection between the roller carriage and the sliding leaf, wherein the roller carriage includes at least one bore (13, 13a, 17, 17a) by means of which a curable liquid may be filled into the bore (3, 3a) of the sliding leaf, characterized in that another bore (17, 17a) is disposed at a frontal side of the fastening element (15, 15a), and in that the fastening element (15, 15a) includes a shank (19, 19a) and an extension (18, 18a), wherein the other bore (17, 17a), by means of a channel or a further bore (21, 21 a) exits at the circumferential surface of the extension (18, 18a).
An air mattress, comprising: a plurality of air cell groups (10a to 10g) made from a plurality of bladder-shaped cells and lined up with respect to the lengthwise direction of the air mattress so as to support at least a head area, shoulder area, back area, buttock area, thigh area, knee area, and heel area of a person lying on said air mattress; an air supply/release pump; an air tube connecting said bladder-shaped cells and said air supply/release pump in one or a plurality of independent first systems for each of the air cell groups out of said air cell groups and one or a plurality of independent second systems for each of specific bladder-shaped cells out of the plurality of air cell groups; and a controller for controlling air supply/release by the air supply/release pump to said first systems and second systems; wherein: said controller performs a control so that the pressure in at least those air cell groups (10c, 10e), out of the air cell groups (10a to 10e) to which air is supplied via said first system, corresponding to the back area and thigh area of the person lying on said air mattress is greater than the pressure in the air cell groups corresponding to the buttock area. a plurality of air cell groups (10a to 10g) made from a plurality of bladder-shaped cells and lined up with respect to the lengthwise direction of the air mattress so as to support at least a head area, shoulder area, back area, buttock area, thigh area, knee area, and heel area of a person lying on said air mattress; an air supply/release pump; an air tube connecting said bladder-shaped cells and said air supply/release pump in one or a plurality of independent first systems for each of the air cell groups out of said air cell groups and one or a plurality of independent second systems for each of specific bladder-shaped cells out of the plurality of air cell groups; and a controller for controlling air supply/release by the air supply/release pump to said first systems and second systems; wherein: said controller performs a control so that the pressure in at least those air cell groups (10c, 10e), out of the air cell groups (10a to 10e) to which air is supplied via said first system, corresponding to the back area and thigh area of the person lying on said air mattress is greater than the pressure in the air cell groups corresponding to the buttock area.
A non-aqueous electrolyte secondary battery having a power generating element enclosed within an outer casing which contains a laminate film including aluminum, wherein the power generating element has a positive electrode obtained by forming a positive electrode active material layer on a surface of a positive electrode current collector, a negative electrode obtained by forming a negative electrode active material layer comprising an aqueous binder on a surface of a negative electrode current collector, a separator for maintaining an electrolyte liquid, and a gas releasing means for releasing a gas generated within the power generating element to an extra space inside the outer casing, and the ratio value (V 2 /V 1) of a volume V 2 of the extra space to a volume V 1 of pores included in the power generating element is 0.5 to 1.0, the volume V 1 representing the sum of pores included in each of the positive electrode, the separator and the negative electrode constituting the power generating element calculated from the density of electrodes, the true density of each of the positive electrode, the separator and the negative electrode, and the basis weight of electrodes, and the volume V 2 representing the extra space when expanding at the maximum without the break of the outer casing; characterized in that the secondary battery further comprises a pressing member for applying pressure on the outer casing such that the group pressure applied on the power generating element is 6.86 to 68.6 kPa, wherein the separator comprises a ceramic layer comprising inorganic particles and a binder on at least one surface of a resin porous substrate and the gas releasing means is the ceramic layer.
An anti-fog film assembly for preventing condensation on a substrate comprising: A transparent film having a first surface and a second surface opposite the first surface; and a transparent anti-fog layer formed from a polyurethane-film forming composition comprising 10% to 40% by weight of total solids of the polyurethane forming composition of a hydroxyl-bearing surfactant having a hydrophobic region and a hydrophilic region, a polyisocyanate-containing component, and an active hydrogen-containing component reactive with the polyisocyanate-containing component, or a polyisocyanate prepolymer having reactive isocyanate groups, a hydrophilic polyol, and a hydroxyl-bearing surfactant having a hydrophilic region and hydrophobic region; effective to provide the layer with anti-fog properties when said substrate is alternatively held between -23°C and 0°C and then exposed to ambient air with a relative humidity of 40% to 70% at temperatures of 18 oC to 30 oC for up to 2 minutes, the anti-fog layer being disposed on an area of the first surface of the film; and an adhesive layer disposed on an area of the second surface of the transparent film, wherein the film assembly provides visibility through said adhesive layer, said film and said anti-fog layer wherein the assembly is repositionable on the substrate. A transparent film having a first surface and a second surface opposite the first surface; and a transparent anti-fog layer formed from a polyurethane-film forming composition comprising 10% to 40% by weight of total solids of the polyurethane forming composition of a hydroxyl-bearing surfactant having a hydrophobic region and a hydrophilic region, a polyisocyanate-containing component, and an active hydrogen-containing component reactive with the polyisocyanate-containing component, or a polyisocyanate prepolymer having reactive isocyanate groups, a hydrophilic polyol, and a hydroxyl-bearing surfactant having a hydrophilic region and hydrophobic region; effective to provide the layer with anti-fog properties when said substrate is alternatively held between -23°C and 0°C and then exposed to ambient air with a relative humidity of 40% to 70% at temperatures of 18 oC to 30 oC for up to 2 minutes, the anti-fog layer being disposed on an area of the first surface of the film; and an adhesive layer disposed on an area of the second surface of the transparent film, wherein the film assembly provides visibility through said adhesive layer, said film and said anti-fog layer wherein the assembly is repositionable on the substrate.
A container detachment prevention structure comprising: a first engaging portion provided on an outer peripheral face of a container containing a liquid agent and the container having an outflow opening for the liquid agent closed off by a sealing member; a first engaged portion that is engaged by the first engaging portion when the container is pushed into a container mounting section, the first engaged portion stopping the container from detaching from the container mounting section; and opening means that opens the sealing member on the outflow opening when the container is pushed into the container mounting section after the first engaging portion has engaged the first engaged portion, characterized in that: the opening means comprises a piercing section that pierces the sealing member and an inflow section for inflowing the liquid agent that has flowed out from the outflow opening; and the container detachment prevention structure further comprises a second engaged portion that is engaged by the first engaging portion when the container is pushed into the container mounting section and the piercing section has pierced the sealing member, the second engaged portion preventing the piercing section from coming out from inside the liquid agent container. a first engaging portion provided on an outer peripheral face of a container containing a liquid agent and the container having an outflow opening for the liquid agent closed off by a sealing member; a first engaged portion that is engaged by the first engaging portion when the container is pushed into a container mounting section, the first engaged portion stopping the container from detaching from the container mounting section; and opening means that opens the sealing member on the outflow opening when the container is pushed into the container mounting section after the first engaging portion has engaged the first engaged portion, characterized in that: the opening means comprises a piercing section that pierces the sealing member and an inflow section for inflowing the liquid agent that has flowed out from the outflow opening; and the opening means comprises a piercing section that pierces the sealing member and an inflow section for inflowing the liquid agent that has flowed out from the outflow opening; and the container detachment prevention structure further comprises a second engaged portion that is engaged by the first engaging portion when the container is pushed into the container mounting section and the piercing section has pierced the sealing member, the second engaged portion preventing the piercing section from coming out from inside the liquid agent container.