mhurhangee/ep-ind-claims huggingface dataset:
A solenoid switch for a starter comprising: a switch cover comprising a mounting hole (52,54,56) for mounting an exhaust assembly, and comprising a first side facing the inside of the solenoid switch and an opposite second side, and the exhaust assembly being mounted in the mounting hole, the exhaust assembly comprising an air permeable element and a plug made of an elastic material, and the plug comprising an exhaust hole through which air in the solenoid switch is discharged out in a direction from the first side to the second side, and the air permeable element covering the exhaust hole, wherein the plug comprises a first portion proximate to the first side and a second portion with a reduced cross-sectional dimension as compared with the first portion with a first step formed between the first portion and the second portion, and the mounting hole comprises a first hole segment adapted to receive the second portion and a first step at the first side of the first hole segment, and wherein the second portion of the plug and the first hole segment of the mounting hole form an interference fit therebetween, and the first step of the plug cooperates with the first step of the switch cover to form a stop for preventing the exhaust assembly from being pushed out of the mounting hole by the air in the solenoid switch. a switch cover comprising a mounting hole (52,54,56) for mounting an exhaust assembly, and comprising a first side facing the inside of the solenoid switch and an opposite second side, and the exhaust assembly being mounted in the mounting hole, the exhaust assembly comprising an air permeable element and a plug made of an elastic material, and the plug comprising an exhaust hole through which air in the solenoid switch is discharged out in a direction from the first side to the second side, and the air permeable element covering the exhaust hole, wherein the plug comprises a first portion proximate to the first side and a second portion with a reduced cross-sectional dimension as compared with the first portion with a first step formed between the first portion and the second portion, and the mounting hole comprises a first hole segment adapted to receive the second portion and a first step at the first side of the first hole segment, and wherein the second portion of the plug and the first hole segment of the mounting hole form an interference fit therebetween, and the first step of the plug cooperates with the first step of the switch cover to form a stop for preventing the exhaust assembly from being pushed out of the mounting hole by the air in the solenoid switch.
A method of filtering a plurality of messages of an electronic apparatus (100, 1100), the method comprising: preprocessing the plurality of messages (301, 431a) with a preprocessor to: identify types of a specific word included in each of the plurality of messages (301, 431a), calculate a message score of each of the plurality of messages (301, 431a) based on a number of the plurality of messages, a weight value for each of types of a specific word included in the plurality of messages (301, 431a), a number of specific words included in each of the plurality of messages (301, 431a) a number of messages in which the at least one of a number of specific words is included among the plurality of messages (301, 431a) and a provision time of each of the plurality of messages (301, 431a).; determine the importance (302, 431b) of each of the plurality of messages (301, 431a) based on the calculated score of each of the plurality of messages (301, 431a); the method further comprising: displaying at least some of the plurality of messages (301, 431a); receiving an input requesting a filtering selected from a plurality of filtering levels of the plurality of messages (301, 431a); obtaining one or more messages having the importance (302, 431b) that meets the filtering request from among the plurality of messages (301, 431a), in response to the input; and displaying the one or more obtained messages (807, 909, 1009). identify types of a specific word included in each of the plurality of messages (301, 431a), calculate a message score of each of the plurality of messages (301, 431a) based on a number of the plurality of messages, a weight value for each of types of a specific word included in the plurality of messages (301, 431a), a number of specific words included in each of the plurality of messages (301, 431a) a number of messages in which the at least one of a number of specific words is included among the plurality of messages (301, 431a) and a provision time of each of the plurality of messages (301, 431a).; determine the importance (302, 431b) of each of the plurality of messages (301, 431a) based on the calculated score of each of the plurality of messages (301, 431a); the method further comprising: displaying at least some of the plurality of messages (301, 431a); receiving an input requesting a filtering selected from a plurality of filtering levels of the plurality of messages (301, 431a); obtaining one or more messages having the importance (302, 431b) that meets the filtering request from among the plurality of messages (301, 431a), in response to the input; and displaying the one or more obtained messages (807, 909, 1009). displaying at least some of the plurality of messages (301, 431a); receiving an input requesting a filtering selected from a plurality of filtering levels of the plurality of messages (301, 431a); obtaining one or more messages having the importance (302, 431b) that meets the filtering request from among the plurality of messages (301, 431a), in response to the input; and displaying the one or more obtained messages (807, 909, 1009).
A method of optimizing fracturing in a well, the method comprising: a) recording distributed acoustic sensing noise intensity signals from a well during a fracturing operation; b) deriving DAS intensity traces from the recorded DAS noise intensity signals, wherein each said DAS intensity trace is a recording of DAS noise intensity over a span of a predetermined number of fiber depths averaged over a predetermined period of time, and wherein each said trace do not overlap with other said traces on fiber depths; c) locating a baseline channel having no perforations at that fiber depth; the method further characterized by comprising: d) calculating a volumetric flow rate Q for each of one or more perforation clusters using the following equation: Q = C 4 ⋅ Intensity 1 3 ⋅ N 2 3 ⋅ H 4 3 D 1 3 wherein D is fluid density, N is the number of perforations in said perforation cluster, H is the diameter of the perforations, Intensity is the DAS intensity from each trace at said perforation cluster minus the DAS intensity from said baseline channel, and C 4 is a constant; and e) using said Q for each said perforation cluster to optimize a fracture plan for subsequent fracture stages in said well and implementing said optimized fracture plan in said well. a) recording distributed acoustic sensing noise intensity signals from a well during a fracturing operation; b) deriving DAS intensity traces from the recorded DAS noise intensity signals, wherein each said DAS intensity trace is a recording of DAS noise intensity over a span of a predetermined number of fiber depths averaged over a predetermined period of time, and wherein each said trace do not overlap with other said traces on fiber depths; c) locating a baseline channel having no perforations at that fiber depth; d) calculating a volumetric flow rate Q for each of one or more perforation clusters using the following equation: Q = C 4 ⋅ Intensity 1 3 ⋅ N 2 3 ⋅ H 4 3 D 1 3 wherein D is fluid density, N is the number of perforations in said perforation cluster, H is the diameter of the perforations, Intensity is the DAS intensity from each trace at said perforation cluster minus the DAS intensity from said baseline channel, and C 4 is a constant; and e) using said Q for each said perforation cluster to optimize a fracture plan for subsequent fracture stages in said well and implementing said optimized fracture plan in said well.
Solid oxide fuel cell stack for an aircraft engine, comprising: a plurality of ring-shaped fuel cell assemblies of a plurality of tubular solid oxide fuel cells each, the fuel cells being arranged parallel to each other and distributed circumferentially around a central axis, at least one first stacking manifold for each fuel cell assembly in contact with a first side of the individual fuel cell assembly, at least one second stacking manifold for each fuel cell assembly in contact with a second side of the individual fuel cell assembly, and a central recess for leading an engine shaft through, wherein the fuel cells each comprise an anode and a cathode, wherein the fuel cell assemblies are stacked in an axial direction through pairs of first stacking manifolds and second stacking manifolds contacting each other, wherein each first stacking manifold comprises a hydrogen inlet and is connected to first ends of the anodes of the respective fuel cells, and wherein each second stacking manifold comprises a hydrogen and steam outlet and is connected to second ends of the anodes of the respective fuel cells. a plurality of ring-shaped fuel cell assemblies of a plurality of tubular solid oxide fuel cells each, the fuel cells being arranged parallel to each other and distributed circumferentially around a central axis, at least one first stacking manifold for each fuel cell assembly in contact with a first side of the individual fuel cell assembly, at least one second stacking manifold for each fuel cell assembly in contact with a second side of the individual fuel cell assembly, and a central recess for leading an engine shaft through, wherein the fuel cells each comprise an anode and a cathode, wherein the fuel cell assemblies are stacked in an axial direction through pairs of first stacking manifolds and second stacking manifolds contacting each other, wherein each first stacking manifold comprises a hydrogen inlet and is connected to first ends of the anodes of the respective fuel cells, and wherein each second stacking manifold comprises a hydrogen and steam outlet and is connected to second ends of the anodes of the respective fuel cells.
A thermal print head comprising: a heat-generating substrate including a heat-generating substrate obverse face and a heat-generating substrate reverse face that are spaced apart from each other in a thickness direction; a resistor layer supported by the heat-generating substrate; a conductive layer supported by the heat-generating substrate and electrically connected to the resistor layer; a first substrate located upstream of the heat-generating substrate in a sub-scanning direction; a second substrate located upstream of the first substrate in the sub-scanning direction; and a third substrate bonded to the first substrate and the second substrate, the third substrate being higher in flexibility than the first substrate, characterized in that the third substrate includes a third obverse face and a third reverse face located on an opposite side of third obverse face, wherein the first substrate is bonded to the third reverse face, and the second substrate is bonded to the third obverse face. a heat-generating substrate including a heat-generating substrate obverse face and a heat-generating substrate reverse face that are spaced apart from each other in a thickness direction; a resistor layer supported by the heat-generating substrate; a conductive layer supported by the heat-generating substrate and electrically connected to the resistor layer; a first substrate located upstream of the heat-generating substrate in a sub-scanning direction; a second substrate located upstream of the first substrate in the sub-scanning direction; and a third substrate bonded to the first substrate and the second substrate, the third substrate being higher in flexibility than the first substrate, characterized in that the third substrate includes a third obverse face and a third reverse face located on an opposite side of third obverse face, wherein the first substrate is bonded to the third reverse face, and the second substrate is bonded to the third obverse face.
A display apparatus comprising: a substrate comprising a bending area between a first area and a second area, the substrate being bent in the bending area about a bending axis; an inorganic insulating layer (110, 120, 130) over the substrate and comprising a first feature (110a, 120a, 130a) that is a first opening or a first recess, the first feature (110a, 120a, 130a) being positioned to correspond to and overlap the bending area; an organic material layer located on the substrate in the bending area and on the inorganic insulating layer (110, 120, 130) wherein the organic material layer at least partially fills the first feature (110a, 120a, 130a) and covers the internal surface of the first features (110a, 120a, 130a) of the inorganic insulating layer (110, 120, 130); and a first conductive layer extending from the first area through the bending area to the second area in a direction crossing the bending axis and located on the organic material layer, wherein the organic material layer comprises a second feature that is a second opening or a second recess, the second feature extending along an edge of the substrate to cross the bending axis. a substrate comprising a bending area between a first area and a second area, the substrate being bent in the bending area about a bending axis; an inorganic insulating layer (110, 120, 130) over the substrate and comprising a first feature (110a, 120a, 130a) that is a first opening or a first recess, the first feature (110a, 120a, 130a) being positioned to correspond to and overlap the bending area; an organic material layer located on the substrate in the bending area and on the inorganic insulating layer (110, 120, 130) wherein the organic material layer at least partially fills the first feature (110a, 120a, 130a) and covers the internal surface of the first features (110a, 120a, 130a) of the inorganic insulating layer (110, 120, 130); and a first conductive layer extending from the first area through the bending area to the second area in a direction crossing the bending axis and located on the organic material layer, wherein the organic material layer comprises a second feature that is a second opening or a second recess, the second feature extending along an edge of the substrate to cross the bending axis.
A library of host cells displaying on their surface proteins of interest which are directly or indirectly fused to a proline-rich peptide or comprising polynucleotides coding for a protein of interest which is directly or indirectly fused to a proline-rich peptide, wherein the proline-rich peptide comprises at least 3, 4, 5, 6 or more contiguous proline residues and wherein the protein of interest is an antibody or fragment thereof selected from the group consisting of a full length antibody, Fab, scFv, Fv, an antibody heavy chain, an antibody light chain, and a single chain antibody.
Method of managing the access of users to services provided by a mobile telecommunications network, comprising: - receiving from a user equipment of a user, which user equipment is capable of supporting communications with the mobile telecommunications network, a request of authentication in the mobile telecommunications network, characterized by: - authenticating the user equipment in the mobile telecommunications network, - before said authenticating and in case it is assessed that the authentication request received from the user equipment is the first attempt of that user equipment to register in the mobile telecommunications network, creating, in a network subscribers profiles database, a default subscriber profile for that user equipment, wherein said default subscriber profile comprises a predetermined subscriber charging parameter used by the mobile telecommunications network for charging the user of said user equipment, and a predetermined Access Point Name. - receiving from a user equipment of a user, which user equipment is capable of supporting communications with the mobile telecommunications network, a request of authentication in the mobile telecommunications network, - authenticating the user equipment in the mobile telecommunications network, - before said authenticating and in case it is assessed that the authentication request received from the user equipment is the first attempt of that user equipment to register in the mobile telecommunications network, creating, in a network subscribers profiles database, a default subscriber profile for that user equipment, wherein said default subscriber profile comprises a predetermined subscriber charging parameter used by the mobile telecommunications network for charging the user of said user equipment, and a predetermined Access Point Name.
An enriched animal feed composition characterized in that it comprises at least 10 7 Archaebacteria cells per millilitre of said composition for use in a method for reducing susceptibility to parasitic infections of animals, wherein the Archaebacteria is a methanogenic Archaebacteria species.
A black ferrite-based stainless steel sheet having excellent weldability, comprising, as a base, a stainless steel containing, in mass%, 0.020% or less of C, 1.0% or less of Si, 0.35% or less of Mn, 0.04% or less of P, 0.005% or less of S, 17-25% of Cr, 0.60% or less of Mo, 0.020% or less of N, 0.40 or less of Al, 10 (C+N) to 0.3% of Ti, 0.05% or less of Nb, and 0.01% or less of O, the balance being Fe and inevitable impurities, and having a surface in which an oxide coating is formed on the base, wherein the stainless steel optionally contains one or more selected from, in mass%, 1.0% or less of Ni, 1.0% or less of Cu, 1.0% or less of V, and 0.01% or less of B, and optionally contains one or more selected from, in mass%, 0.01% or less of Ca, 0.01% or less of REM, and 0.1% or less of Zr, wherein the surface has a lightness index (L*) satisfying L*≤45, chromaticity indices (a*, b*) satisfying -5≤a*≤5 and - 5≤b*≤5, and a blackness satisfying E=(L* 2 +a* 2 +b* 2) 1/2 ≤45, wherein the numerical values are obtained according to the method as specified in the description, and wherein a difference in blackness between a flat portion and a welding heat-affected portion is 10 or less, and a difference in pitting potential between the flat portion and the welding heat-affected portion is 100 mV or less, wherein the pitting potential is measured according to the method as specified in the description. wherein the stainless steel optionally contains one or more selected from, in mass%, 1.0% or less of Ni, 1.0% or less of Cu, 1.0% or less of V, and 0.01% or less of B, and optionally contains one or more selected from, in mass%, 0.01% or less of Ca, 0.01% or less of REM, and 0.1% or less of Zr, wherein the surface has a lightness index (L*) satisfying L*≤45, chromaticity indices (a*, b*) satisfying -5≤a*≤5 and - 5≤b*≤5, and a blackness satisfying E=(L* 2 +a* 2 +b* 2) 1/2 ≤45, wherein the numerical values are obtained according to the method as specified in the description, and wherein a difference in blackness between a flat portion and a welding heat-affected portion is 10 or less, and a difference in pitting potential between the flat portion and the welding heat-affected portion is 100 mV or less, wherein the pitting potential is measured according to the method as specified in the description.
A memory device, comprising: memory cells each configured to produce an output current during a read operation; circuitry configured to, for each of the memory cells, generate a read value based on the output current of the memory cell; circuitry configured to, for each of the memory cells, add a constant value to the read value to generate an added read value, wherein the constant value for each of the memory cells is different from the constant values for any others of the memory cells; and circuity configured to sum the added read values. memory cells each configured to produce an output current during a read operation; circuitry configured to, for each of the memory cells, generate a read value based on the output current of the memory cell; circuitry configured to, for each of the memory cells, add a constant value to the read value to generate an added read value, wherein the constant value for each of the memory cells is different from the constant values for any others of the memory cells; and circuity configured to sum the added read values.
An immunoassay test apparatus, including: a label signal sensor that detects label signals emitted by at least one label conjugated to an antibody or antigen of an immunoassay test device such as a lateral flow test strip or microfluidic cartridge, and outputs sensor data representing the detected label signals; a label imaging component that processes the sensor data to generate label data representing spatial locations of the detected label signals; a test result image generator that processes the label data to generate test result image data representing a visual image of the spatial arrangement of the detected label signals; a display component that displays the test result image to a user of the immunoassay test apparatus to enable the user to evaluate the result of the immunoassay test; and a device imaging component that acquires or accesses device image data representing a visual image of at least a test result portion of the immunoassay test device from which the detected label signals were emitted; wherein the test result image generator processes the label data and the device image data to generate the test result image data, the test result image data representing a composite image of at least the test result portion of the immunoassay test device combined with features that visualise the spatial locations of the detected label signals from the test result portion of the immunoassay test device at corresponding locations of the composite image. a label signal sensor that detects label signals emitted by at least one label conjugated to an antibody or antigen of an immunoassay test device such as a lateral flow test strip or microfluidic cartridge, and outputs sensor data representing the detected label signals; a label imaging component that processes the sensor data to generate label data representing spatial locations of the detected label signals; a test result image generator that processes the label data to generate test result image data representing a visual image of the spatial arrangement of the detected label signals; a display component that displays the test result image to a user of the immunoassay test apparatus to enable the user to evaluate the result of the immunoassay test; and a device imaging component that acquires or accesses device image data representing a visual image of at least a test result portion of the immunoassay test device from which the detected label signals were emitted; wherein the test result image generator processes the label data and the device image data to generate the test result image data, the test result image data representing a composite image of at least the test result portion of the immunoassay test device combined with features that visualise the spatial locations of the detected label signals from the test result portion of the immunoassay test device at corresponding locations of the composite image.
Use of an adenovirus for the manufacture of a medicament for the treatment of tumors, characterized in that the virus replicates in cells having YB-1 in the nucleus, the virus is replication-deficient in cells not having YB-1 in the nucleus, the virus codes for an oncogene protein which transactivates at least one viral gene, wherein the gene is selected from the group comprising E1B55kDa, E4orf6, E4orf3 and E3ADP, wherein the oncogene protein is E1A and the cells forming the tumor or a part thereof have YB-1 in the nucleus.