mhurhangee/ep-ind-claims huggingface dataset:
An isolated antibody that competes for specific binding to human NTB-A with a monoclonal antibody comprising VH and VL domains having amino acid sequences as respectively shown in residues 20-135 of SEQ ID NO:1 and residues 21-140 of SEQ ID NO:2; wherein the antibody comprises a CDR-H1 amino acid sequence as shown in SEQ ID NO:5; a CDR-H2 amino acid sequence as shown in SEQ ID NO:6; a CDR-H3 amino acid sequence as shown in SEQ ID NO:7; a CDR-L1 amino acid sequence as shown in SEQ ID NO:8; a CDR-L2 amino acid sequence as shown in SEQ ID NO:9; and a CDR-L3 amino acid sequence as shown in SEQ ID NO:10 or wherein the antibody comprises a CDR-H1 amino acid sequence as shown in SEQ ID NO:11; a CDR-H2 amino acid sequence as shown in SEQ ID NO:12; a CDR-H3 amino acid sequence as shown in SEQ ID NO:13; a CDR-L1 amino acid sequence as shown in SEQ ID NO:14; a CDR-L2 amino acid sequence as shown in SEQ ID NO:15; and a CDR-L3 amino acid sequence as shown in SEQ ID NO:16.
A rechargeable battery (1000, 1002) comprising: an electrode assembly comprising a first electrode, a separator, and a second electrode; a case accommodating the electrode assembly, and having an opening at a side thereof for receiving the electrode assembly; a cap assembly coupled to the case at the opening, wherein the cap assembly comprises a cap plate, wherein the cap plate comprises a vent member; wherein the rechargeable battery (1000, 1002) further comprises a first insulation member surrounding the case, an extending portion of the first insulation member extending by a height above the cap assembly; and a second insulation member on the cap assembly and contacting the extending portion of the first insulation member, the second insulation member being a coated layer, wherein the vent member being exposed through the second insulation member, wherein the cap plate further comprises an embankment around a periphery of the vent member having a height which is enough to prevent insulation material of the second insulation member from flowing into or on the vent member. an electrode assembly comprising a first electrode, a separator, and a second electrode; a case accommodating the electrode assembly, and having an opening at a side thereof for receiving the electrode assembly; a cap assembly coupled to the case at the opening, wherein the cap assembly comprises a cap plate, wherein the cap plate comprises a vent member; wherein the rechargeable battery (1000, 1002) further comprises a first insulation member surrounding the case, an extending portion of the first insulation member extending by a height above the cap assembly; and a second insulation member on the cap assembly and contacting the extending portion of the first insulation member, the second insulation member being a coated layer, wherein the vent member being exposed through the second insulation member, wherein the cap plate further comprises an embankment around a periphery of the vent member having a height which is enough to prevent insulation material of the second insulation member from flowing into or on the vent member.
Radiation-curable coating composition, especially for producing a scratch-resistant coating on polycarbonate surfaces, comprising at least one urethane acrylate prepared from an isocyanurate trimer of 1,6-hexamethylene diisocyanate and butanediol monoacrylate, the isocyanurate trimer having an NCO content of 19.6 to 24.0 wt% and an equivalent weight of 175 to 214, the urethane acrylate having a weight ratio of the isocyanurate trimer to the butanediol monoacrylate of 1.0:0.65 to 1.0:0.9, characterized in that the coating composition comprises i) 45.0 to 59.0 wt% of the at least one urethane acrylate, ii) 25.0 to 37.0 wt% of at least one tetrafunctional polyester acrylate monomer, iii) 8.0 to 12.0 wt% of at least one diol diacrylate ester and/or of at least one monoacrylate ester, iv) 2.3 to 3.5 wt% of at least one photoinitiator, v) 2.1 to 3.1 wt% of at least one reactive acryloyltriazole UV absorber, vi) 1.5 to 2.0 wt% of at least one nonreactive UV absorber, vii) 0.7 to 1.0 wt% of at least one sterically hindered amine, viii) 0.4 to 0.9 wt% of at least one flow control additive, the weight percentage ranges being based on the sum of the solids contents of the stated components i) to viii) and their sum making 100 wt%.
A double-stranded ribonucleic acid (dsRNA), wherein said dsRNA comprises a sense strand and an antisense strand comprising a region of complementarity which is complementary to at least a part of a mRNA encoding Serum amyloid A, wherein the sense strand consists of the nucleotide sequence of SEQ ID NO: 311, SEQ ID NO: 155, SEQ ID NO: 37, SEQ ID NO: 127, SEQ ID NO: 95, SEQ ID NO: 105, SEQ ID NO: 59, SEQ ID NO: 23, SEQ ID NO: 193, SEQ ID NO: 283, SEQ ID NO: 251, SEQ ID NO: 261, SEQ ID NO: 215, or SEQ ID NO: 179 and the antisense strand consists of SEQ ID NO: 312, SEQ ID NO: 156, SEQ ID NO: 38, SEQ ID NO: 128, SEQ ID NO: 96, SEQ ID NO: 106, SEQ ID NO: 60, SEQ ID NO: 24, SEQ ID NO: 194, SEQ ID NO: 284, SEQ ID NO: 252, SEQ ID NO: 262, SEQ ID NO: 216, or SEQ ID NO: 180.
Method for monitoring overload in an industrial truck having a lifting mast and a load receiving device guided such that it can be moved vertically on the lifting mast, in particular a load fork, having at least one hydraulic cylinder for raising the load receiving device, having pressure sensor means for measuring a load pressure (2, 4, 8), having an operating device for entering control commands to raise/lower the load receiving device, and having a controller, wherein the controller detects by using the load pressure (2, 4, 8) whether a value corresponding to a maximum load has been reached during a raise control command, characterized in that, during a control command to raise the load receiving device and with a load pressure (4, 8) corresponding to a maximum load, the controller supplies pressure medium for a minimum time period and then stops the supply of pressure medium and, following the stoppage of the pressure medium supply, upon the occurrence of at least one considerable pressure drop, detects an actual lifting movement and the application of a load.
Method for determining at least one state of a user in a motor-vehicle passenger compartment, regarding whether they are actively driving the vehicle or not, wherein an eye-movement sensor device (31, 32) for sensing eye movements of the user is provided, the method comprising: - feeding an artificial intelligence with data generated by the sensor device with a view to recognizing at least one eye-movement frequency of the user, an eye-movement frequency above a first threshold being characteristic of the user viewing a landscape passing by, and being distinguishable from the concentrated gaze of a vehicle driver, - determining a current eye-movement frequency of the user and comparing the current frequency with the first threshold, and - if the current frequency is higher than the first threshold, triggering a notification signal intended for the user. - feeding an artificial intelligence with data generated by the sensor device with a view to recognizing at least one eye-movement frequency of the user, an eye-movement frequency above a first threshold being characteristic of the user viewing a landscape passing by, and being distinguishable from the concentrated gaze of a vehicle driver, - determining a current eye-movement frequency of the user and comparing the current frequency with the first threshold, and - if the current frequency is higher than the first threshold, triggering a notification signal intended for the user.
A refueling coupling comprising: an outer body, the outer body including a nozzle receiving end and a hose connection end; a housing disposed within the outer body, the housing including a first housing side proximate the nozzle receiving end and a second housing side proximate the hose connection end, the first housing side configured to receive a portion of a fuel nozzle; a main poppet valve including a main poppet spring; a pilot poppet valve including a pilot poppet spring, and wherein the main poppet valve and the pilot poppet valve are at least partially disposed within the housing; wherein the refueling coupling further comprises a housing cover disposed on the second housing side and including an orifice, wherein the orifice is configured to connect a fuel flow path with an interior portion of the housing; and a first housing volume and a second housing volume comprise volumes provided on opposing sides of the orifice and housing cover; characterized in that in use of the refueling coupling a first pressure force associated with the first housing volume is applied to the pilot poppet valve, and the first pressure force and a second pressure force associated with the second housing volume are applied to the main poppet valve; wherein the first and second pressure forces urge or push the main poppet valve and the pilot poppet valve towards their closed positions. an outer body, the outer body including a nozzle receiving end and a hose connection end; a housing disposed within the outer body, the housing including a first housing side proximate the nozzle receiving end and a second housing side proximate the hose connection end, the first housing side configured to receive a portion of a fuel nozzle; a main poppet valve including a main poppet spring; a pilot poppet valve including a pilot poppet spring, and wherein the main poppet valve and the pilot poppet valve are at least partially disposed within the housing; wherein the refueling coupling further comprises a housing cover disposed on the second housing side and including an orifice, wherein the orifice is configured to connect a fuel flow path with an interior portion of the housing; and a first housing volume and a second housing volume comprise volumes provided on opposing sides of the orifice and housing cover; characterized in that in use of the refueling coupling a first pressure force associated with the first housing volume is applied to the pilot poppet valve, and the first pressure force and a second pressure force associated with the second housing volume are applied to the main poppet valve; wherein the first and second pressure forces urge or push the main poppet valve and the pilot poppet valve towards their closed positions.
A cutter unit configured to cut a recording sheet to be advanced toward a forward side in an advancing direction, the cutter unit comprising: a fixed blade, which includes a fixed blade edge, and is provided on a first surface side of the recording sheet; a movable blade including: a movable blade edge opposed to the fixed blade edge in a cutting direction crossing the advancing direction; and a sliding surface, which is provided on a first side in the advancing direction, and is configured to be slid on the fixed blade; and a rack holder capable of reciprocating along the cutting direction, the rack holder including: a movable blade holder configured to support the movable blade; and an urging member configured to urge the movable blade to the first side in the advancing direction. a fixed blade, which includes a fixed blade edge, and is provided on a first surface side of the recording sheet; a movable blade including: a movable blade edge opposed to the fixed blade edge in a cutting direction crossing the advancing direction; and a sliding surface, which is provided on a first side in the advancing direction, and is configured to be slid on the fixed blade; and a movable blade edge opposed to the fixed blade edge in a cutting direction crossing the advancing direction; and a sliding surface, which is provided on a first side in the advancing direction, and is configured to be slid on the fixed blade; and a rack holder capable of reciprocating along the cutting direction, the rack holder including: a movable blade holder configured to support the movable blade; and an urging member configured to urge the movable blade to the first side in the advancing direction. a movable blade holder configured to support the movable blade; and an urging member configured to urge the movable blade to the first side in the advancing direction.
A camera assembly, characterized in, comprising at least two lens assemblies having an image sensor, one lens assembly being configured to detect a current ambient brightness that is used to control exposure time of each light sensor component corresponding to each pixel in another lens assembly configured to obtain an image, wherein each image sensor comprises: a pixel array, comprising a plurality of row pixels and a plurality of column pixels, wherein each pixel is associated with a single switch; and a control circuit, configured to: control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; wherein the intersection region is an annular intersection region surrounding a center of the pixel array. a pixel array, comprising a plurality of row pixels and a plurality of column pixels, wherein each pixel is associated with a single switch; and a control circuit, configured to: control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; control each pixel in the pixel array to work separately by controlling the single switch to be switched on or off; control the image sensor to work in an imaging mode or in a light sensing mode; receive a light sensing instruction to control an intersection region of a part of row pixels and a part of column pixels in the pixel array to detect an illumination intensity, so as to enable the image sensor to work in the light sensing mode; and receive an imaging instruction to control the pixel array to acquire an image, so as to enable the image sensor to work in the imaging mode; wherein the intersection region is an annular intersection region surrounding a center of the pixel array.
Metal-air battery, preferably an aluminium-air battery, comprising - a cathode, - an anode and - an electrolyte disposed between the cathode and the anode, which electrolyte consists of an aqueous acid or an aqueous lye including at least one halogen and at least one surfactant, characterised in that the anode comprises an anode body which in a matrix of sodium includes particles of an aluminium alloy. - a cathode, - an anode and - an electrolyte disposed between the cathode and the anode, which electrolyte consists of an aqueous acid or an aqueous lye including at least one halogen and at least one surfactant,
Method for the computer-assisted performance analysis of a data processing system, wherein program code with a plurality of code parts is running, in which - a plurality of different code parts are repeatedly subjected to a different variation in each case using a functionality generating a variance, which is formed by an instrumentation of the code, with regard to the runtime and/or the resource consumption; - the program code is executed a number of times on the data processing system with the varied code parts, wherein on each execution a variance of the runtime and/or of the resource consumption of the varied code parts, or of all code parts of the program code, with respect to the unmodified program code is determined; and - a covariance resulting from the variance is subjected to a multivariant analysis. - a plurality of different code parts are repeatedly subjected to a different variation in each case using a functionality generating a variance, which is formed by an instrumentation of the code, with regard to the runtime and/or the resource consumption; - the program code is executed a number of times on the data processing system with the varied code parts, wherein on each execution a variance of the runtime and/or of the resource consumption of the varied code parts, or of all code parts of the program code, with respect to the unmodified program code is determined; and - a covariance resulting from the variance is subjected to a multivariant analysis.
An apparatus comprising: a modulator (9, 91, 9Q) comprising a first input for receiving a data signal (27, 27I, 27Q) and a second input for receiving an output signal from a phase locked loop wherein the modulator (9, 9I, 9Q) is configured for modulating the output signal from the phase locked loop using the data signal (27, 27I, 27Q) and providing a modulated signal (31, 31I, 31Q) to an output for connection to an amplifier (13, 15); and a phase shifter (11, 11I, 11Q), characterised in that: the phase shifter (11, 11I, 11Q) is configured to result in a predetermined phase shift to the modulated signal (31, 31I, 31Q) wherein the phase shifter (11, 11I, 11Q) is configured to add the predetermined phase shift to the data signal (27, 27I, 27Q) which is provided to the modulator (9, 9I, 9Q); wherein the predetermined phase shift is dependent upon the measured temperature of the apparatus. a modulator (9, 91, 9Q) comprising a first input for receiving a data signal (27, 27I, 27Q) and a second input for receiving an output signal from a phase locked loop wherein the modulator (9, 9I, 9Q) is configured for modulating the output signal from the phase locked loop using the data signal (27, 27I, 27Q) and providing a modulated signal (31, 31I, 31Q) to an output for connection to an amplifier (13, 15); and a phase shifter (11, 11I, 11Q), the phase shifter (11, 11I, 11Q) is configured to result in a predetermined phase shift to the modulated signal (31, 31I, 31Q) wherein the phase shifter (11, 11I, 11Q) is configured to add the predetermined phase shift to the data signal (27, 27I, 27Q) which is provided to the modulator (9, 9I, 9Q); wherein the predetermined phase shift is dependent upon the measured temperature of the apparatus.
A gas analyzer comprising: light emitting means for emitting light having a light directivity lower than that of laser light toward an ionizing region situated inside an internal electrode (38b, 138b); ion separating means for separating, according to a mass-to-charge ratio, ions of a gas ionized by the light emitting means; and ion detecting means for detecting the ions separated by the ion separating means, wherein: the light emitting means is arranged to emit either ultraviolet light or vacuum ultraviolet light; the gas analyzer comprises said internal electrode (38b, 138b) paired with either a mesh shaped outer electrode wherein said internal electrode is spiral shaped, or a plate shaped outer electrode with an internal space containing said internal electrode, said electrodes (38a, 38b, 138a, 138b) being capable of taking a potential state for accelerating secondary electrons generated by a photo-irradiation of the light emitting means in a direction away from the ionizing region, and the gas analyzer comprises heating means for heating a sample, which is the target of gas analysis. light emitting means for emitting light having a light directivity lower than that of laser light toward an ionizing region situated inside an internal electrode (38b, 138b); ion separating means for separating, according to a mass-to-charge ratio, ions of a gas ionized by the light emitting means; and ion detecting means for detecting the ions separated by the ion separating means, wherein: the light emitting means is arranged to emit either ultraviolet light or vacuum ultraviolet light; the gas analyzer comprises said internal electrode (38b, 138b) paired with either a mesh shaped outer electrode wherein said internal electrode is spiral shaped, or a plate shaped outer electrode with an internal space containing said internal electrode, said electrodes (38a, 38b, 138a, 138b) being capable of taking a potential state for accelerating secondary electrons generated by a photo-irradiation of the light emitting means in a direction away from the ionizing region, and the gas analyzer comprises heating means for heating a sample, which is the target of gas analysis. the light emitting means is arranged to emit either ultraviolet light or vacuum ultraviolet light; the gas analyzer comprises said internal electrode (38b, 138b) paired with either a mesh shaped outer electrode wherein said internal electrode is spiral shaped, or a plate shaped outer electrode with an internal space containing said internal electrode, said electrodes (38a, 38b, 138a, 138b) being capable of taking a potential state for accelerating secondary electrons generated by a photo-irradiation of the light emitting means in a direction away from the ionizing region, and the gas analyzer comprises heating means for heating a sample, which is the target of gas analysis.