mhurhangee/ep-ind-claims huggingface dataset:
A head-up display mirror substrate comprising a first major surface with a concave shape, a second major surface opposite to the first major surface and with a convex shape, and a minor surface connecting the first and second major surfaces (504, 506), wherein the first major surface comprises a first surface roughness Ra of 3 nm or less and a peak to valley roughness of less than 30 nm, wherein the mirror substrate comprises a glass or glass-ceramic material, wherein the minor surface comprises a cross-sectional edge profile comprising a chamfer (510, 512), wherein, the chamfer (510, 512) is a C-chamfer or an R-chamfer, wherein, when the chamfer (510, 512) is a C-chamfer, the chamfer comprises a length that is 0.1 mm or greater, and wherein, when the chamfer (510, 512) is an R-chamfer, the chamfer comprises a length that is greater than or equal to 0.5 mm. wherein the first major surface comprises a first surface roughness Ra of 3 nm or less and a peak to valley roughness of less than 30 nm, wherein the mirror substrate comprises a glass or glass-ceramic material, wherein the minor surface comprises a cross-sectional edge profile comprising a chamfer (510, 512), wherein, the chamfer (510, 512) is a C-chamfer or an R-chamfer, wherein, when the chamfer (510, 512) is a C-chamfer, the chamfer comprises a length that is 0.1 mm or greater, and wherein, when the chamfer (510, 512) is an R-chamfer, the chamfer comprises a length that is greater than or equal to 0.5 mm.
A meal detection method executed by a processor of a computer, the meal detection method comprising: acquiring first sensing data from a first sensor configured to detect a motion of an arm of a target person; acquiring second sensing data from a second sensor configured to detect a heart rate of the target person; calculating a first evaluation value indicating likelihood that a meal is performed as a degree of similarity between a first feature amount calculated from the first sensing data and a pattern of movement of the arm that occurs when eating the meal; calculating a second evaluation value indicating likelihood that the meal is performed as a degree of similarity between a second feature amount calculated from the second sensing data and a pattern of the heart rate that occurs when eating the meal; and determining (S140-S142) whether the target person has eaten the meal or not by confirming whether the first evaluation value and the second evaluation value satisfy a predetermined condition. acquiring first sensing data from a first sensor configured to detect a motion of an arm of a target person; acquiring second sensing data from a second sensor configured to detect a heart rate of the target person; calculating a first evaluation value indicating likelihood that a meal is performed as a degree of similarity between a first feature amount calculated from the first sensing data and a pattern of movement of the arm that occurs when eating the meal; calculating a second evaluation value indicating likelihood that the meal is performed as a degree of similarity between a second feature amount calculated from the second sensing data and a pattern of the heart rate that occurs when eating the meal; and determining (S140-S142) whether the target person has eaten the meal or not by confirming whether the first evaluation value and the second evaluation value satisfy a predetermined condition.
A hot dip galvanized composite high strength steel sheet excellent in shapeability and hole enlargement ability characterized by containing, by mass%, C: 0.01 to 0.3%, Si: 0.005 to 0.6%, Mn: 0.1 to 3.3%, P: 0.001 to 0.06%, S: 0.001 to 0.01%, Al: 0.25 to 1.8%, and N: 0.0005 to 0.01%, optionally one or more of Mo: 0.05 to 0.5%, V: 0.01 to 0.1%, Ti: 0.01 to 0.2%, Nb: 0.005 to 0.05%, Cu: 1.0% or less, Ni: 1.0% or less, Cr: 1.0% or less, Ca: 0.0003 to 0.005%, REM: 0.0003 to 0.005%, and B: 0.0003 to 0.002%, and having a balance of Fe and unavoidable impurities, wherein the metal structure comprises ferrite and, by area ratio, 5% to 60% of tempered martensite, and 5% or less of residual austenite, wherein the hot dip galvanized composite high strength steel sheet has tensile strength x elongation (El) ≥ 18,000 and no preplated layer.
Hand-held machine tool with a linear drive for moving a tool along a working axis and two absorbers ( 20, 21), the resonance frequencies of which differ for a movement along the working axis, wherein the resonance frequency of the first of the two absorbers lies within a frequency band, within which the stimulated second of the two absorbers oscillates with a deflection, which corresponds to at least a quarter of a deflection with resonant stimulation of the second absorber.
Method for measuring the quantity of gas introduced into a gas tank via a filling station equipped with a filling pipe comprising an upstream end connected to at least one source of pressurized gas and a downstream end connected to a tank that is to be filled, the filling pipe comprising a flow meter and at least one downstream isolation valve positioned between the flow meter and the downstream end of the filling pipe, the method comprising a step of transferring gas from the source to the tank during which step the downstream isolation valve is open, a step of interrupting the transfer of gas with closure of the downstream valve, the method comprising a step of measuring, using the flow meter, the quantity of gas transferred during the transfer step, the method comprising a step of generating a signal indicating the corrected quantity of gas transferred, the corrected quantity of gas transferred being obtained, during the transfer step, by reducing or by increasing, by a determined corrective quantity, the quantity of gas transferred as measured by the flow meter during the transfer step, the flow meter being of the type that generates electric signals in the form of successive pulses each corresponding to an elementary measured quantity of gas, the generation of a signal indicating the corrected quantity of gas transferred being obtained by a step of modifying at least one of the following: the value of the elementary quantity of gas corresponding to a pulse generated by the flow meter and/or the number of pulses generated by the flow meter and/or the frequency with which the pulses generated by the flow meter are emitted and/or the number of pulses counted from the pulses generated by the flow meter, characterized in that the modification step is performed in a way that is temporally uniformly distributed through the transfer step so as to make it possible to display and/or to charge for a quantity of gas which is closer or equal to the quantity of gas actually transferred into the tank.
A beam clamp for clamping onto a beam with a first end projecting from a back to bear against a beam and a second end projecting from the back and fitted with a fixing means (22, 23) to fix the beam clamp to the beam, characterised in that the fixing means (22, 23) is formed of a wedge and a channel-shaped abutment arranged on the second end in order to receive the wedge, and in that the ends and the back are formed of sheet metal.
A particles object freezing device, comprising: an air-permeable belt configured to support conveyance of a particles object, characterized by further comprising an injection plate which includes a plurality of injection holes configured to inject a cooling gas to the belt from below, wherein the belt includes a sliding portion configured to move while sliding on an upper surface of the injection plate in a traveling direction of the belt. an air-permeable belt configured to support conveyance of a particles object, characterized by further comprising an injection plate which includes a plurality of injection holes configured to inject a cooling gas to the belt from below, wherein the belt includes a sliding portion configured to move while sliding on an upper surface of the injection plate in a traveling direction of the belt.
A lubricant comprising a terpolymer which comprises in polymerized form - a diester selected from di(C 4 -C 22 alkyl)ester of maleic acid, fumaric acid, 2-methylmaleic acid, 2,3-dimethylmaleic acid, 2-methylfumaric acid, 2,3-dimethylfumaric acid, or mixtures thereof, - an olefin selected from linear C 6 -C 40 alky-1-ene, and - an acrylate selected from C 4 -C 40 alkyl (meth)acrylate, where the terpolymer comprises in polymerized form 5-40 mol% of the diester, 5-40 mol% of the olefin, and 20-90 mol% of the acrylate, where the amounts of the monomers sum up to 85 to 100 mol%, and where the terpolymer has a number-average molecular weight Mn from 500 to 15 000 g/mol. - a diester selected from di(C 4 -C 22 alkyl)ester of maleic acid, fumaric acid, 2-methylmaleic acid, 2,3-dimethylmaleic acid, 2-methylfumaric acid, 2,3-dimethylfumaric acid, or mixtures thereof, - an olefin selected from linear C 6 -C 40 alky-1-ene, and - an acrylate selected from C 4 -C 40 alkyl (meth)acrylate, where the terpolymer comprises in polymerized form 5-40 mol% of the diester, 5-40 mol% of the olefin, and 20-90 mol% of the acrylate, where the amounts of the monomers sum up to 85 to 100 mol%, and where the terpolymer has a number-average molecular weight Mn from 500 to 15 000 g/mol.
A lithium secondary battery comprising: a battery case whose inside is divided into one region and the other region by a separator; a positive electrode formed in the one region inside the battery case and including a positive electrode active material and positive electrode current collector particles; and a negative electrode formed in the other region inside the battery case and including a negative electrode active material and negative electrode current collector particles, wherein the positive electrode includes the positive electrode current collector particles at 1 wt% to 15 wt%, and the negative electrode includes the negative electrode current collector particles at 1 wt% to 15 wt%, wherein the current collector particles are used instead of the conventional plate-type current collector. a battery case whose inside is divided into one region and the other region by a separator; a positive electrode formed in the one region inside the battery case and including a positive electrode active material and positive electrode current collector particles; and a negative electrode formed in the other region inside the battery case and including a negative electrode active material and negative electrode current collector particles, wherein the positive electrode includes the positive electrode current collector particles at 1 wt% to 15 wt%, and the negative electrode includes the negative electrode current collector particles at 1 wt% to 15 wt%, wherein the current collector particles are used instead of the conventional plate-type current collector.
An exenatide modifier or pharmaceutically acceptable salts thereof having GLP-1 receptor agonist activity, as shown in formula: (Ex-4)-L-Y wherein, Ex-4 is Exendin-4; L is for connecting Ex-4 with Y; L' is a hydrophilic chain containing an ether group; Y is an aliphatic chain with a terminal carboxyl group, wherein the exenatide modifier is: k is any integer between 6-20.
A method comprising: causing generation of a lookup table; enabling utilization of the lookup table repeatedly during communication in a multipath communication environment to identify a selected data interface among a plurality of available data interfaces based on current performance measures associated with the plurality of available data interfaces, and using the selected data interface in communication in the multipath communication environment, characterized in that the lookup table comprises action rules defining scheduling actions relating to which available ones of the plurality of data interfaces to use, and corresponding respective different states of the plurality of the data interfaces, each state being a weighted description of the current performance measures associated with a specific data interface from among the plurality of available data interfaces. causing generation of a lookup table; enabling utilization of the lookup table repeatedly during communication in a multipath communication environment to identify a selected data interface among a plurality of available data interfaces based on current performance measures associated with the plurality of available data interfaces, and using the selected data interface in communication in the multipath communication environment, characterized in that the lookup table comprises action rules defining scheduling actions relating to which available ones of the plurality of data interfaces to use, and corresponding respective different states of the plurality of the data interfaces, each state being a weighted description of the current performance measures associated with a specific data interface from among the plurality of available data interfaces.
A method for reducing chloropropanols and a glycidol fatty acid ester thereof in a glyceride fat or oil, comprising treating a bleached and deodorized glyceride fat or oil with silica gel and/or basic activated carbon, wherein the pH of the basic activated carbon is 9 or higher.
An installation structure for a vicinity information detection sensor, comprising: the vicinity information detection sensor that is configured to be mounted on an outer panel (12; 76; 99; 108) of a vehicle body and that includes a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor (36, 38) provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a vibration absorbing member configured to be placed between the outer panel (12; 76; 99; 108) and the vicinity information detection sensor. the vicinity information detection sensor that is configured to be mounted on an outer panel (12; 76; 99; 108) of a vehicle body and that includes a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor (36, 38) provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor (36, 38) provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a vibration absorbing member configured to be placed between the outer panel (12; 76; 99; 108) and the vicinity information detection sensor.
Valve assembly for aerosol container with a valve head, a valve subassembly which comprises at least one dispensing element, one sealing ring and one compression spring, and an accommodation space for the valve subassembly, wherein an assembly opening of the accommodation space connected to the valve head is closed off by a surface which has a passthrough opening for the dispensing element, wherein the sealing ring is clamped between said surface and an annular seating surface which surrounds the assembly opening of the accommodation space and closes off an opening in the dispensing element when the dispensing element is braced axially against the sealing ring under the effect of the compression spring, wherein gas channels are arranged on the outer periphery of the accommodation space, which channels extend from the underside of the valve head to the periphery of the sealing ring, wherein a gap (s) is provided between the dispensing element and the passthrough opening which surrounds the dispensing element and ends at a frontal surface of the sealing ring and together with the gas channels forms a flow path for pressurization of an aerosol container which is closed off by the valve assembly, characterized in that the assembly opening of the accommodation space is accessible on the upper side of the valve head and the passthrough opening for the dispensing element is arranged in a cover that is fastened to the valve head and closes off the assembly opening of the accommodation space, wherein the gas channels extend to a surface of the cover. a valve head, a valve subassembly which comprises at least one dispensing element, one sealing ring and one compression spring, and an accommodation space for the valve subassembly,
Method for actuating a cut-off member included in an electric meter supervising an electrical installation of a building, the electrical installation receiving an electrical power supply from an electrical network via said electric meter, the cut-off member being able to take an open position cutting the electrical power supply of said electrical installation or a closed position allowing the electrical power supply of said electrical installation, characterized in that the method comprises the following steps implemented by the electric meter: obtaining, for each signal supplied by a system, called sensor system, a criterion of actuation of the cut-off member suited to said signal and each criterion comprises a detection value and a timer value, each signal being representative of environmental conditions of the building prevailing in a vicinity of said sensor system; for each signal supplied by the sensor system, searching for a singularity in said signal, a singularity being detected in said signal when at least one value of said signal reaches the detection value corresponding to said signal; when a singularity is detected in one said signal supplied by the sensor system, starting a measurement of a duration of said singularity; deciding, when the duration of said singularity reaches the timer value corresponding to said signal, of an instant at which the cut-off member must be actuated into the open position; and, actuating the cut-off member into the open position at the decided instant. obtaining, for each signal supplied by a system, called sensor system, a criterion of actuation of the cut-off member suited to said signal and each criterion comprises a detection value and a timer value, each signal being representative of environmental conditions of the building prevailing in a vicinity of said sensor system; for each signal supplied by the sensor system, searching for a singularity in said signal, a singularity being detected in said signal when at least one value of said signal reaches the detection value corresponding to said signal; when a singularity is detected in one said signal supplied by the sensor system, starting a measurement of a duration of said singularity; deciding, when the duration of said singularity reaches the timer value corresponding to said signal, of an instant at which the cut-off member must be actuated into the open position; and, actuating the cut-off member into the open position at the decided instant.
A mouse model of a blood clotting disorder, said disorder being characterized by the presence of blood clots in blood vessels throughout the body, said mouse model comprising an inability to breakdown recombinant human von Willebrand factor polypeptide comprising ultra-large multimers, wherein said disorder in said mouse model is caused after intravenous administration of a dosage of recombinant human VWF comprising ultra-large multimers to a mouse, wherein the dosage of recombinant human VWF is greater or equal to 500 RCoU/ kg body weight or, if the mouse is deficient in VWF polypeptide, the dosage of recombinant human VWF is greater or equal to 1000 RCoU/kg body weight, wherein the mouse model exhibits histopathological changes indicative of disseminated intravascular coagulopathy and/or thrombotic thrombocytopenic purpura, and wherein said mouse model is suitable for testing the efficacy of a therapeutic agent in the treatment of a blood clotting disorder.
A headlamp for a vehicle, the headlamp comprising a light-emitting module (300a, 300b) comprising a laser light source, a condenser lens, a microelectromechanical system, MEMS, scanner and a reflection unit, whereby the headlamp is characterized in that said a-condenser lens defines an optical axis through a center of the condenser lens and is configured to focus light incident on a rear surface of the condenser lens; said laser light source is located behind the condenser lens and that-is configured to generate light toward the condenser lens; said microelectromechanical system, MEMS, scanner is located in front of the condenser lens, is configured to reflect, toward the condenser lens, light generated by the laser light source, and is configured to scan light generated by the laser light source by moving horizontally and vertically; and said reflection unit is located behind the condenser lens and is configured to reflect, toward the condenser lens, light reflected by the MEMS scanner.
A package assembly for the storage, transportation and display of products comprising: an outer container; an inner container received within the outer container for holding products, the inner container being closed at a lower end and open at an upper end and movable relative to the outer container between a storage position for the storage and transportation of products and a display position in which the inner container at least partly projects from the outer container for the display of products; and a support structure for retaining the inner container in the display position relative to the outer container; characterised in that the outer container is open at a lower end, the support structure comprising at least one support flap (22, 22', 24, 24') formed integrally with a respective edge of the outer container at its open lower end, the or each support flap being operable to automatically engage the inner container to hold the inner container in its display position relative to the outer container upon movement of the inner container from the storage position to the display position; and in that prior to opening of the package assembly, the upper end of the outer container is closed and the inner container is in the storage position relative to the outer container such that the inner and outer containers form a complete enclosure for products located in the inner container. an outer container; an inner container received within the outer container for holding products, the inner container being closed at a lower end and open at an upper end and movable relative to the outer container between a storage position for the storage and transportation of products and a display position in which the inner container at least partly projects from the outer container for the display of products; and a support structure for retaining the inner container in the display position relative to the outer container; characterised in that the outer container is open at a lower end, the support structure comprising at least one support flap (22, 22', 24, 24') formed integrally with a respective edge of the outer container at its open lower end, the or each support flap being operable to automatically engage the inner container to hold the inner container in its display position relative to the outer container upon movement of the inner container from the storage position to the display position; and in that prior to opening of the package assembly, the upper end of the outer container is closed and the inner container is in the storage position relative to the outer container such that the inner and outer containers form a complete enclosure for products located in the inner container.