mhurhangee/ep-ind-claims huggingface dataset:
Method for handling faults in a data processing device, comprising (a) automatically acquiring output information (114, 115) from a data processing device at at least one man-machine interface of the data processing device; (b) automatically detecting a fault message which indicates a fault in the data processing device; (c) transmitting the detected fault message together with the output information (114, 115) to a fault handling location; (d) evaluating the transmitted fault message by: providing a plurality of predefined patterns and a plurality of fault handling routines assigned to the predefined patterns in the fault handling location; selecting the patterns from the plurality of predefined patterns contained in the output information (114, 115); and determining the fault handling routine assigned to the selected patterns from a plurality of fault handling routines by means of the fault handling location; (e) transmitting the determined fault handling routine to the data processing device for the purpose of handling the fault, characterized in that the display of a display device (14, 14', 14'') of the data processing device is acquired as optical output information (114, 115), text contents of the optical output information are determined using a text recognition device (31"), and that fault handling routine whose associated text-based pattern is contained in the text contents is determined. (a) automatically acquiring output information (114, 115) from a data processing device at at least one man-machine interface of the data processing device; (b) automatically detecting a fault message which indicates a fault in the data processing device; (c) transmitting the detected fault message together with the output information (114, 115) to a fault handling location; (d) evaluating the transmitted fault message by: providing a plurality of predefined patterns and a plurality of fault handling routines assigned to the predefined patterns in the fault handling location; selecting the patterns from the plurality of predefined patterns contained in the output information (114, 115); and determining the fault handling routine assigned to the selected patterns from a plurality of fault handling routines by means of the fault handling location; providing a plurality of predefined patterns and a plurality of fault handling routines assigned to the predefined patterns in the fault handling location; selecting the patterns from the plurality of predefined patterns contained in the output information (114, 115); and determining the fault handling routine assigned to the selected patterns from a plurality of fault handling routines by means of the fault handling location; (e) transmitting the determined fault handling routine to the data processing device for the purpose of handling the fault,
Device for making available wheel parameters of a rail vehicle for a train computer of the rail vehicle having at least one measuring device which measures the wheels of the rail vehicle, rolling on train tracks, in order to determine the wheel parameters of the rail vehicle, and transmits the determined wheel parameters to a transmitting device which sends the wheel parameters to a receiving device of the rail vehicle which passes on the received wheel parameters to the train computer of the rail vehicle, wherein the measuring device is connected to a processing computer which assigns the wheel parameters measured by the measuring device to the wheels of the rail vehicle and encodes them into a data record which is sent as a message in a wireless fashion by the transmitting device to the receiving device of the rail vehicle.
A method implemented in a wireless transmit/receive unit, WTRU, for uplink transmission using multiple uplink carriers, the method being characterized by: selecting a first uplink carrier for an ongoing retransmission and a second uplink carrier for an enhanced dedicated channel, E-DCH, transmission; calculating a normalized remaining power margin, NRPM, available for an enhanced dedicated channel, E-DCH, transport format combination, E-TFC, selection for the second uplink carrier by: subtracting from a maximum allowed transmit power a power required for a dedicated physical control channel, DPCCH, for each of the first and the second uplink carrier, a power required for a high speed dedicated physical control channel, HS-DPCCH, for either the first uplink carrier or the second uplink carrier, a power required for an E-DCH dedicated physical data channel, E-DPDCH, for the first uplink carrier, a power required for an E-DCH dedicated physical control channel, E-DPCCH, for the first uplink carrier, and a power required for an E-DPCCH for the second uplink carrier, wherein the subtractions provide a result, and dividing the result by a power required for a DPCCH associated with the second uplink carrier; and performing the E-DCH transport format combination, E-TFC, selection. selecting a first uplink carrier for an ongoing retransmission and a second uplink carrier for an enhanced dedicated channel, E-DCH, transmission; calculating a normalized remaining power margin, NRPM, available for an enhanced dedicated channel, E-DCH, transport format combination, E-TFC, selection for the second uplink carrier by: subtracting from a maximum allowed transmit power a power required for a dedicated physical control channel, DPCCH, for each of the first and the second uplink carrier, a power required for a high speed dedicated physical control channel, HS-DPCCH, for either the first uplink carrier or the second uplink carrier, a power required for an E-DCH dedicated physical data channel, E-DPDCH, for the first uplink carrier, a power required for an E-DCH dedicated physical control channel, E-DPCCH, for the first uplink carrier, and a power required for an E-DPCCH for the second uplink carrier, wherein the subtractions provide a result, and dividing the result by a power required for a DPCCH associated with the second uplink carrier; and subtracting from a maximum allowed transmit power a power required for a dedicated physical control channel, DPCCH, for each of the first and the second uplink carrier, a power required for a high speed dedicated physical control channel, HS-DPCCH, for either the first uplink carrier or the second uplink carrier, a power required for an E-DCH dedicated physical data channel, E-DPDCH, for the first uplink carrier, a power required for an E-DCH dedicated physical control channel, E-DPCCH, for the first uplink carrier, and a power required for an E-DPCCH for the second uplink carrier, wherein the subtractions provide a result, and dividing the result by a power required for a DPCCH associated with the second uplink carrier; and performing the E-DCH transport format combination, E-TFC, selection.
A system on a chip integrated circuit, SoC, including: an active base die including a first cache memory (412A-F); a first die mounted on and coupled with the active base die, the first die including an interconnect fabric, an input/output interface, and an atomic operation handler; and a second die mounted on the active base die and coupled with the active base die and the first die, the second die including an array of graphics processing elements and an interface to the first cache memory of the active base die, wherein at least one of the graphics processing elements are configured to perform, via the atomic operation handler, an atomic operation to a memory device; wherein the first die includes media engine configured to perform an atomic operation to the memory device; the memory device is coupled with the second die via the first die; the memory device is coupled with a host processor and accessible via the input/output interface; the SoC further comprising a second cache memory to cache data associated with the atomic operation performed to the memory device, the second cache memory is associated with a burst buffer cache that is configured to be enabled when a rate of incoming atomic requests exceeds a burst rate threshold. an active base die including a first cache memory (412A-F); a first die mounted on and coupled with the active base die, the first die including an interconnect fabric, an input/output interface, and an atomic operation handler; and a second die mounted on the active base die and coupled with the active base die and the first die, the second die including an array of graphics processing elements and an interface to the first cache memory of the active base die, wherein at least one of the graphics processing elements are configured to perform, via the atomic operation handler, an atomic operation to a memory device; the first die includes media engine configured to perform an atomic operation to the memory device; the memory device is coupled with the second die via the first die; the memory device is coupled with a host processor and accessible via the input/output interface; the SoC further comprising a second cache memory to cache data associated with the atomic operation performed to the memory device, the second cache memory is associated with a burst buffer cache that is configured to be enabled when a rate of incoming atomic requests exceeds a burst rate threshold.
An isolated nucleic acid molecule encoding a chimeric antigen receptor comprising at least one extracellular antigen binding domain comprising a mesothelin antigen binding domain, wherein the CAR is encoded by a nucleotide sequence comprising SEQ ID NO: 13, 15, or 17.
A flexible section of an underwater seismic cable, comprising: first and second termination units (20, 22); two or more ropes (44, 45), each pivotably attached at one end to the first termination unit and at the other end to the second termination unit; a rigid ring having at least one bore in which the two or more ropes (44, 45) are received freely, the rigid ring being located between the first and second termination units (20, 22); wherein the ring has a single bore through which the two or more ropes pass (44, 45), characterized in that the bore flares outwards in both directions from a central point at its waist, and in that the ring includes a bore wall bounding the bore and having a curvature from a first end to a second end of the ring providing a bend radius R B for the two or more ropes (44, 45) in the bore. first and second termination units (20, 22); two or more ropes (44, 45), each pivotably attached at one end to the first termination unit and at the other end to the second termination unit; a rigid ring having at least one bore in which the two or more ropes (44, 45) are received freely, the rigid ring being located between the first and second termination units (20, 22); wherein the ring has a single bore through which the two or more ropes pass (44, 45), characterized in that the bore flares outwards in both directions from a central point at its waist, and in that the ring includes a bore wall bounding the bore and having a curvature from a first end to a second end of the ring providing a bend radius R B for the two or more ropes (44, 45) in the bore.
A microsphere comprising an outer shell and a foaming agent sealed into the outer shell, wherein: (i) the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size of the microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B1 (mass%), relationships in Relationships, and are satisfied: 60 ≤ A ≤ 120 − 0.14 × A + 27 ≤ B 1 ≤ − 0.14 × A + 33 or (ii) the outer shell is constructed from a polymer of a monomer including a polymerizable monomer; the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size of said microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B2 (parts by mass), relationships in Relationships, and are satisfied: 60 ≤ A ≤ 120 − 0.22 × A + 39 ≤ B 2 ≤ − 0.22 × A + 43 where, B2 represents the parts by mass of the foaming agent when the parts by mass of the polymerizable monomer is 100, characterized in that a density of foamed particles produced when the microspheres are caused to foam is 0.024 g/ml or less, as defined under the heading "foamed particle density measurement" of the examples. (i) the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size of the microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B1 (mass%), relationships in Relationships, and are satisfied: 60 ≤ A ≤ 120 − 0.14 × A + 27 ≤ B 1 ≤ − 0.14 × A + 33 or (ii) the outer shell is constructed from a polymer of a monomer including a polymerizable monomer; the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size of said microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B2 (parts by mass), relationships in Relationships, and are satisfied: 60 ≤ A ≤ 120 − 0.22 × A + 39 ≤ B 2 ≤ − 0.22 × A + 43 where, B2 represents the parts by mass of the foaming agent when the parts by mass of the polymerizable monomer is 100,
A discharge spout for flexible bags, said discharge spout comprising a rigid plastic body forming a discharge passage and having a tube intended to be inserted between two walls of a flexible bag and joined to such walls by means of sealing, said tube having a smooth outer surface and two opposite flat flaps extending externally in a mid-plane of said tube, said outer surface of the tube forming, together with the surface of said flat flaps, a sealing surface, characterized in that said outer surface of the tube is a dished surface in the axial direction of said tube, said dished surface having a middle area in which the distance to the axis of said tube is maximum, separating two side sections (5b, 5c) in which the distance to the axis of said tube is decreasing from said middle area in the direction to the ends of the tube opposite said middle area.
A method of obtaining a block tool, particularly for working stone materials, comprising the following steps: - arranging: a) at least one mold member; b) at least one foamable fluid compound selected from the group including epoxy, polyurethane, silicon, polyester and acrylic resins; c) granular material comprising at least one salt of a component selected from the group including oxalic acid and its derivatives; and d) at least one barrier member (2a, 70c) for said at least one salt, permeable to said foamable fluid compound, such barrier member being engageable with said mold member; - engaging said at least one barrier member (2a, 70c) with said at least one mold member, thereby delimiting therein a receiving zone and an foaming zone; - supplying said at least one foamable fluid compound into said receiving zone in said at least one mold member, and said granular material in said receiving zone, or in said foaming zone; and - letting said at least one foamable fluid compound to foam or causing it to foam from said receiving zone to said foaming zone, whereby a portion of said at least one foamable fluid compound flows through said at least one barrier member (2a, 70c), thereby obtaining a block tool having a connecting portion including said at least one foamed compound, and a working portion comprising both said at least one foamed compound and said at least one salt. - arranging: a) at least one mold member; b) at least one foamable fluid compound selected from the group including epoxy, polyurethane, silicon, polyester and acrylic resins; c) granular material comprising at least one salt of a component selected from the group including oxalic acid and its derivatives; and d) at least one barrier member (2a, 70c) for said at least one salt, permeable to said foamable fluid compound, such barrier member being engageable with said mold member; a) at least one mold member; b) at least one foamable fluid compound selected from the group including epoxy, polyurethane, silicon, polyester and acrylic resins; c) granular material comprising at least one salt of a component selected from the group including oxalic acid and its derivatives; and d) at least one barrier member (2a, 70c) for said at least one salt, permeable to said foamable fluid compound, such barrier member being engageable with said mold member; - engaging said at least one barrier member (2a, 70c) with said at least one mold member, thereby delimiting therein a receiving zone and an foaming zone; - supplying said at least one foamable fluid compound into said receiving zone in said at least one mold member, and said granular material in said receiving zone, or in said foaming zone; and - letting said at least one foamable fluid compound to foam or causing it to foam from said receiving zone to said foaming zone, whereby a portion of said at least one foamable fluid compound flows through said at least one barrier member (2a, 70c), thereby obtaining a block tool having a connecting portion including said at least one foamed compound, and a working portion comprising both said at least one foamed compound and said at least one salt.
An olfactory display that includes a display main body and a plurality of fragrance source cartridges, and presents a fragrance within a range bounded in terms of time and space, wherein the display main body comprises: a housing having an emission port in a center portion in a front side; a plurality of cartridge accommodation rooms that are formed by dividing an internal space of the housing by radial partitions, each of the cartridge accommodation rooms having an air supply port and an air discharge port; a communicating hole that is provided in the housing to make respective air discharge ports communicate with the emission port; cartridge exchange portions each formed in each of the cartridge accommodation rooms; and a plurality of airflow sources that are provided in the cartridge accommodation rooms, each of the airflow sources sending air into the inside of the fragrance source cartridge that is accommodated in the cartridge accommodation room from the air supply port by using a diaphragm having a piezoelectric device, and each of the fragrance source cartridges comprises: a container main body that has an outer shape conformed to an inner shape of the cartridge accommodation room, and is formed with an air inlet in a position corresponding to the air supply port and a fragrance outlet in a position corresponding to the air discharge port; and a solid-like fragrance source stored within the container main body, and the inner shape of the cartridge accommodation room and the outer shape of the container main body respectively have inclined surfaces inclined with respect to an insertion direction of the fragrance source cartridge. a housing having an emission port in a center portion in a front side; a plurality of cartridge accommodation rooms that are formed by dividing an internal space of the housing by radial partitions, each of the cartridge accommodation rooms having an air supply port and an air discharge port; a communicating hole that is provided in the housing to make respective air discharge ports communicate with the emission port; cartridge exchange portions each formed in each of the cartridge accommodation rooms; and a plurality of airflow sources that are provided in the cartridge accommodation rooms, each of the airflow sources sending air into the inside of the fragrance source cartridge that is accommodated in the cartridge accommodation room from the air supply port by using a diaphragm having a piezoelectric device, and a container main body that has an outer shape conformed to an inner shape of the cartridge accommodation room, and is formed with an air inlet in a position corresponding to the air supply port and a fragrance outlet in a position corresponding to the air discharge port; and a solid-like fragrance source stored within the container main body, and
A double pass amplifier comprising: a gain medium (530,630) having an input portion and a reflective portion; a reflective element (532,632) optically coupled to the reflective portion; a beam path optically coupled to the input portion; a first set of cylindrical lenses (520,522;624,626) disposed along the beam path, wherein the first set of cylindrical lenses are oriented orthogonally; a set of apertures (580,582;612,622) disposed along the beam path, wherein the set of apertures are oriented orthogonally; a second set of cylindrical lenses (550,552;660,662) disposed along the beam path, wherein the second set of cylindrical lenses are oriented orthogonally; and an injection mirror (548;612) positioned between the set of apertures and the second set of cylindrical lenses. a gain medium (530,630) having an input portion and a reflective portion; a reflective element (532,632) optically coupled to the reflective portion; a beam path optically coupled to the input portion; a first set of cylindrical lenses (520,522;624,626) disposed along the beam path, wherein the first set of cylindrical lenses are oriented orthogonally; a set of apertures (580,582;612,622) disposed along the beam path, wherein the set of apertures are oriented orthogonally; a second set of cylindrical lenses (550,552;660,662) disposed along the beam path, wherein the second set of cylindrical lenses are oriented orthogonally; and an injection mirror (548;612) positioned between the set of apertures and the second set of cylindrical lenses.
Apparatus for determining and/or monitoring a pressure, with at least one pressure converter, which converts the pressure into an electrical signal, wherein the pressure converter has at least one membrane which can be exposed to the pressure, wherein at least one acoustic sensor is provided which captures acoustic signals and converts them to electrical signals and which is coupled mechanically and/or acoustically with the pressure converter and wherein at least one evaluation unit is provided, wherein the evaluation unit evaluates the electrical signals of the acoustic sensor, characterized in that the evaluation unit evaluates the electrical signals of the acoustic sensor with regard to rupture detection or a plastic deformation of the membrane of the pressure converter.