mhurhangee/ep-ind-claims huggingface dataset:
An electrode assembly for a secondary battery, the electrode assembly comprising: a first electrode plate including a first electrode current collector and a first electrode active material layer on at least a region of the first electrode current collector; a second electrode plate including a second electrode current collector and a second electrode active material layer on at least a region of the second electrode current collector; a separator between the first electrode plate and the second electrode plate; a first electrode tab coupled to the first electrode current collector in a mandrel portion of the electrode assembly; and a second electrode tab coupled to the second electrode current collector in a mandrel portion of the electrode assembly, wherein a region of the first electrode current collector including the first electrode tab is formed to face a wound first electrode plate, wherein a region of the second electrode current collector including the second electrode tab is formed to face a wound second electrode plate, and wherein the second electrode active material layer is only on one surface of the second electrode current collector in a region preceding a first winding turn of the second electrode plate. a first electrode plate including a first electrode current collector and a first electrode active material layer on at least a region of the first electrode current collector; a second electrode plate including a second electrode current collector and a second electrode active material layer on at least a region of the second electrode current collector; a separator between the first electrode plate and the second electrode plate; a first electrode tab coupled to the first electrode current collector in a mandrel portion of the electrode assembly; and a second electrode tab coupled to the second electrode current collector in a mandrel portion of the electrode assembly, wherein a region of the first electrode current collector including the first electrode tab is formed to face a wound first electrode plate, wherein a region of the second electrode current collector including the second electrode tab is formed to face a wound second electrode plate, and wherein the second electrode active material layer is only on one surface of the second electrode current collector in a region preceding a first winding turn of the second electrode plate.
Dosing device for the dissolution of a solid treatment agent, having a dissolution and storage container in which a fluid is stored, having a pump (45, 68), and having a line which extends from the pump (45, 68) on the pressure side and opens at a spraying nozzle, wherein there is a follow-up flow of the fluid via a fluid inlet and the fluid is circulated by means of the pump (45, 68), which acts on the line, via which line the fluid exits at the spraying nozzle and dissolves the solid treatment agent, characterized in that an actuation means for the pump is switched by way of a hollow-body float or a solid-material float, which either rises or falls according to the concentration of the dissolved solid treatment agent in the treatment agent/fluid mixture in the dissolution and storage container, or generates a detectable buoyancy force.
An aluminum material coated with carbon, comprising: an aluminum material; and a carbon-containing layer formed on a surface of said aluminum material, the aluminum material further comprising: an interposition layer that is formed between said aluminum material and said carbon-containing layer, said interposition layer containing aluminium and carbon, wherein said carbon-containing layer is formed by fibers or filaments extending outward from the surface of the aluminium material according to a cactus-like structure, so that the surface area of the aluminum material coated with carbon is increased. an aluminum material; and a carbon-containing layer formed on a surface of said aluminum material, the aluminum material further comprising: an interposition layer that is formed between said aluminum material and said carbon-containing layer, said interposition layer containing aluminium and carbon, wherein said carbon-containing layer is formed by fibers or filaments extending outward from the surface of the aluminium material according to a cactus-like structure, so that the surface area of the aluminum material coated with carbon is increased. an interposition layer that is formed between said aluminum material and said carbon-containing layer, said interposition layer containing aluminium and carbon, wherein said carbon-containing layer is formed by fibers or filaments extending outward from the surface of the aluminium material according to a cactus-like structure, so that the surface area of the aluminum material coated with carbon is increased.
A genetically modified mouse, comprising: a nucleic acid sequence that encodes a human EPO protein (hEPO) operably linked to an endogenous mouse EPO gene promoter at the mouse EPO locus, wherein the operable linkage results in a null mutation in the mouse EPO gene at the mouse EPO gene locus, a nucleic acid sequence that encodes a human M-CSF (hM-CSF) protein operably linked to an endogenous mouse M-csf promoter at the mouse M-csf gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse M-csf gene, a nucleic acid sequence that encodes a human IL-3 (hIL-3) protein operably linked to an endogenous mouse IL-3 promoter at the mouse IL-3 gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse IL-3 gene, a nucleic acid sequence that encodes a human GM-CSF (hGM-CSF) protein operably linked to an endogenous mouse Gm-csf promoter at the mouse Gm- csf gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse Gm-csf gene, a nucleic acid sequence that encodes a human TPO (hTPO) protein operably linked to an endogenous mouse TPO promoter at the mouse TPO gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse TPO gene, and a SIRPa transgene that encodes a human Sirpa (hSirpa) protein operably linked to a Sirpa promoter, wherein the mouse expresses the hSirpa protein, wherein the genetically modified mouse is immunodeficient. a nucleic acid sequence that encodes a human EPO protein (hEPO) operably linked to an endogenous mouse EPO gene promoter at the mouse EPO locus, wherein the operable linkage results in a null mutation in the mouse EPO gene at the mouse EPO gene locus, a nucleic acid sequence that encodes a human M-CSF (hM-CSF) protein operably linked to an endogenous mouse M-csf promoter at the mouse M-csf gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse M-csf gene, a nucleic acid sequence that encodes a human IL-3 (hIL-3) protein operably linked to an endogenous mouse IL-3 promoter at the mouse IL-3 gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse IL-3 gene, a nucleic acid sequence that encodes a human GM-CSF (hGM-CSF) protein operably linked to an endogenous mouse Gm-csf promoter at the mouse Gm- csf gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse Gm-csf gene, a nucleic acid sequence that encodes a human TPO (hTPO) protein operably linked to an endogenous mouse TPO promoter at the mouse TPO gene locus and wherein the mouse is heterozygous null or homozygous null for the mouse TPO gene, and a SIRPa transgene that encodes a human Sirpa (hSirpa) protein operably linked to a Sirpa promoter, wherein the mouse expresses the hSirpa protein, wherein the genetically modified mouse is immunodeficient.
An enclosure for a wearable acoustic monitoring device, the enclosure comprising: a hollow body portion defined by a sidewall and top wall; and a substantially planar base portion configured to interface with the hollow body portion thus forming a cavity therebetween, wherein, the base portion comprises a flat engagement surface, for engagement with a body surface, and an acoustic port through the flat engagement surface, for acoustic communication from the body surface to an acoustic sensor housed within the cavity, and, wherein, the acoustic port is located within a depression in, or elongate channel through, the flat engagement surface of the base portion such that the acoustic sensor is spaced apart from the body surface, in use. a hollow body portion defined by a sidewall and top wall; and a substantially planar base portion configured to interface with the hollow body portion thus forming a cavity therebetween, wherein, the base portion comprises a flat engagement surface, for engagement with a body surface, and an acoustic port through the flat engagement surface, for acoustic communication from the body surface to an acoustic sensor housed within the cavity, and, wherein, the acoustic port is located within a depression in, or elongate channel through, the flat engagement surface of the base portion such that the acoustic sensor is spaced apart from the body surface, in use.
A method of characterizing a tumor selected from the group consisting of diffuse astrocytoma, oligoastrocytoma, anaplastic astrocytoma, anaplastic oligoastrocytoma, oligodendroglioma, pleomorphic xanthoastrocytoma, and anaplastic oligodendroglioma in a sample isolated from a human subject who has a tumor, comprising: assaying the sample for isocitrate dehydrogenase 1 or isocitrate dehydrogenase 2 gene or mRNA transcribed from the gene in the human subject or protein translated from the mRNA, to identify residue 132 or a codon for residue 132 of IDH1 or residue 172 or a codon for residue 172 of IDH2, wherein a mutation is identified if the residue or the codon for the residue other than arginine is identified. assaying the sample for isocitrate dehydrogenase 1 or isocitrate dehydrogenase 2 gene or mRNA transcribed from the gene in the human subject or protein translated from the mRNA, to identify residue 132 or a codon for residue 132 of IDH1 or residue 172 or a codon for residue 172 of IDH2, wherein a mutation is identified if the residue or the codon for the residue other than arginine is identified.
Header attachment for a harvesting machine, comprising a horizontal part, on the front side of which a horizontal cutting unit is arranged, and comprising two vertical side parts (4, 5) by means of which the header attachment can be connected to the harvesting machine, a side part comprising in each case a lateral support frame having an engagement portion (21, 22) which is intended to engage with a projection on a support frame of the harvesting machine, characterised in that at least one adapter piece (24; 25) is associated with a lateral support frame, can be fastened to the engagement portion (21, 22), and has a shape which is is adapted to the shapes of the engagement portion (21, 22) and the projection such that, when the header attachment is mounted on the harvesting machine, the adapter piece forms a bearing surface for the projection.
A method comprising: operating an aerial vehicle in a crosswind-flight orientation, wherein the aerial vehicle is connected to a tether that defines a tether sphere having a radius based on a length of the tether, wherein the tether is connected to a ground station; while the aerial vehicle is in the crosswind-flight orientation, positioning the aerial vehicle at a first location that is substantially on the tether sphere, wherein the first location is substantially downwind of the ground station; transitioning the aerial vehicle from the crosswind-flight orientation to a forward-flight orientation, such that the aerial vehicle moves from the tether sphere, wherein the aerial vehicle has attached flow, and wherein a tension of the tether is reduced; and operating the aerial vehicle in the forward-flight orientation to ascend at an angle of ascent to a second location, wherein the second location is substantially downwind of the ground station. operating an aerial vehicle in a crosswind-flight orientation, wherein the aerial vehicle is connected to a tether that defines a tether sphere having a radius based on a length of the tether, wherein the tether is connected to a ground station; while the aerial vehicle is in the crosswind-flight orientation, positioning the aerial vehicle at a first location that is substantially on the tether sphere, wherein the first location is substantially downwind of the ground station; transitioning the aerial vehicle from the crosswind-flight orientation to a forward-flight orientation, such that the aerial vehicle moves from the tether sphere, wherein the aerial vehicle has attached flow, and wherein a tension of the tether is reduced; and operating the aerial vehicle in the forward-flight orientation to ascend at an angle of ascent to a second location, wherein the second location is substantially downwind of the ground station.
A packer comprising: a mandrel; a primary opening seat attached to an interior of the mandrel; a secondary opening seat attached to the interior of the mandrel; a landing seat attached to the interior of the mandrel; a packer element attached to an exterior of the mandrel; and a closing seat attached to the interior of the mandrel; wherein the secondary opening seat is between the primary opening seat and the landing seat; wherein the primary opening seat is between the closing seat and the secondary opening seat; wherein the primary opening seat is configured to engage an opening plug and move from a first position where the primary opening seat covers an opening to a second position where the primary opening seat does not cover the opening; wherein the secondary opening seat is configured to engage the primary opening seat and move from a first position where the secondary opening seat covers a port to a second position where the secondary opening seat does not cover the port; wherein the landing seat is configured to engage the secondary opening seat and provide a seal; wherein the packer element is configured to set when the port is not covered and the seal is provided; and wherein the closing seat is configured to engage a closing plug and move from a first position where the closing seat does not cover the opening to a second position where the closing seat covers the opening. a mandrel; a primary opening seat attached to an interior of the mandrel; a secondary opening seat attached to the interior of the mandrel; a landing seat attached to the interior of the mandrel; a packer element attached to an exterior of the mandrel; and a closing seat attached to the interior of the mandrel; wherein the secondary opening seat is between the primary opening seat and the landing seat; wherein the primary opening seat is between the closing seat and the secondary opening seat; wherein the primary opening seat is configured to engage an opening plug and move from a first position where the primary opening seat covers an opening to a second position where the primary opening seat does not cover the opening; wherein the secondary opening seat is configured to engage the primary opening seat and move from a first position where the secondary opening seat covers a port to a second position where the secondary opening seat does not cover the port; wherein the landing seat is configured to engage the secondary opening seat and provide a seal; wherein the packer element is configured to set when the port is not covered and the seal is provided; and wherein the closing seat is configured to engage a closing plug and move from a first position where the closing seat does not cover the opening to a second position where the closing seat covers the opening.
A bioreactor vessel for removable connection to a bioreactor module, the vessel comprising: a chamber defined by top, bottom and side walls; a sideways-projecting rigid ledge projecting to a side of the vessel and having defined therein a through port terminating at one end at an externally-facing connection port in a bottom surface of the ledge; and a conduit at least partly defining a fluid flow path between the chamber and the externally-facing connection port, a chamber end of the conduit being in fluid communication with the chamber and the other end of the conduit being connected to the through port. a chamber defined by top, bottom and side walls; a sideways-projecting rigid ledge projecting to a side of the vessel and having defined therein a through port terminating at one end at an externally-facing connection port in a bottom surface of the ledge; and a conduit at least partly defining a fluid flow path between the chamber and the externally-facing connection port, a chamber end of the conduit being in fluid communication with the chamber and the other end of the conduit being connected to the through port.
A method in a control node for handling paging of a user equipment for delivery of a terminating transaction, the user equipment being located in a radio coverage area, wherein the radio coverage area is controlled by the control node, the method comprising: • initiating a paging request broadcast in the radio coverage area; • opening, triggered by the initiating of the paging request broadcast, a paging response reception window; • storing, while the paging response reception window is open, all received paging responses; and • authenticating, if more than one paging response has been received, at least one user equipment (110, 120) which has provided a paging response, and continuing delivery of the terminating transaction to the user equipment which could be successfully authenticated; characterized in authenticating the user equipment first, that provided the second paging response. • initiating a paging request broadcast in the radio coverage area; • opening, triggered by the initiating of the paging request broadcast, a paging response reception window; • storing, while the paging response reception window is open, all received paging responses; and • authenticating, if more than one paging response has been received, at least one user equipment (110, 120) which has provided a paging response, and continuing delivery of the terminating transaction to the user equipment which could be successfully authenticated;
A semiconductor chip for measuring a magnetic field based on the Hall effect, the semiconductor chip comprising: - an electrically conductive well having a first conductivity type, in a substrate having a second conductivity type, - at least four well contacts arranged at the surface of the well, and having the first conductivity type, - a plurality of conductive buffer regions having the first conductivity type, the plurality of buffer regions being interleaved with the well contacts, each buffer region being present between two neighboring well contacts, the buffer regions extending at least as deep into the electrically conductive well as the well contacts and characterized in that the regions in between the well contacts and the buffer regions and the regions outside the outer buffer regions or well contacts are filled with oxide. - an electrically conductive well having a first conductivity type, in a substrate having a second conductivity type, - at least four well contacts arranged at the surface of the well, and having the first conductivity type, - a plurality of conductive buffer regions having the first conductivity type, the plurality of buffer regions being interleaved with the well contacts, each buffer region being present between two neighboring well contacts, the buffer regions extending at least as deep into the electrically conductive well as the well contacts and characterized in that the regions in between the well contacts and the buffer regions and the regions outside the outer buffer regions or well contacts are filled with oxide.
Coupling assembly, in particular for a manual or an automated motor vehicle multi-step transmission, having - a wet-running friction clutch for arranging between a drive engine and a multi-step transmission, - a fluid actuator for actuating the friction clutch, - a fluid supply device which has an electric motor and a pump assembly which is driven by the electric motor, the pump assembly being connected via a first branch to the fluid actuator, - a secondary branch, via which a part of the fluid volumetric flow which is provided by the pump assembly can be conducted to a low pressure region, and - a branch assembly, characterized in that the branch assembly is actuated to reduce the secondary fluid volumetric flow which is conducted to the secondary branch if an actuating pressure in the fluid actuator exceeds a threshold pressure (P SW) and/or the fluid actuator exceeds a threshold travel (S SW), the branch assembly being configured in such a way that a direct connection between the pump assembly and the fluid actuator is set up in each of its operating states. - a wet-running friction clutch for arranging between a drive engine and a multi-step transmission, - a fluid actuator for actuating the friction clutch, - a fluid supply device which has an electric motor and a pump assembly which is driven by the electric motor, the pump assembly being connected via a first branch to the fluid actuator, - a secondary branch, via which a part of the fluid volumetric flow which is provided by the pump assembly can be conducted to a low pressure region, and - a branch assembly,
A channel allocation method of a dual-band wireless communication apparatus which comprises a plurality of wireless communicators (110-1 - 110-N), the method comprising: receiving, by a controller of the dual-band wireless communication apparatus, wireless environment information via at least one of the wireless communicators (110-1 - 110-N); allocating, by the controller, a channel to a first wireless communicator among the plurality of wireless communicators (110-1 - 110-N) based on the received wireless environment information; setting, by the first wireless communicator, the allocated channel as a channel for communicating with a first external device; measuring, by a second wireless communicator to which no channel has been allocated, a received signal strength of a frequency band different from its current frequency band; changing, by the second wireless communicator, when the measured received signal strength of the different frequency band exceeds a threshold, the frequency band to the different frequency band exceeding the threshold; scanning, by the second wireless communicator, channels in the changed frequency band and setting one of the scanned channels as a channel for communicating with a second external device. receiving, by a controller of the dual-band wireless communication apparatus, wireless environment information via at least one of the wireless communicators (110-1 - 110-N); allocating, by the controller, a channel to a first wireless communicator among the plurality of wireless communicators (110-1 - 110-N) based on the received wireless environment information; setting, by the first wireless communicator, the allocated channel as a channel for communicating with a first external device; measuring, by a second wireless communicator to which no channel has been allocated, a received signal strength of a frequency band different from its current frequency band; changing, by the second wireless communicator, when the measured received signal strength of the different frequency band exceeds a threshold, the frequency band to the different frequency band exceeding the threshold; scanning, by the second wireless communicator, channels in the changed frequency band and setting one of the scanned channels as a channel for communicating with a second external device.