mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting anomalies associated with a gas appliance, the gas appliance comprising at least a gas inlet, at least one gas burner and gas distribution means coupling the gas inlet with said at least one gas burner, the method comprising the steps of: - gathering information regarding the gas flow or the operational state based on detection means (5.1, 5.2), said detection means (5.1, 5.2) comprising a flowmeter included in the gas appliance and a thermocouple associated with said at least one gas burner; - evaluating said gathered information in order to detect gas flow anomalies or operational anomalies, thereby obtaining evaluation information; - providing alert information from a communication interface of the gas appliance to a user device depending on said evaluation information wherein information provided by said flowmeter and by said thermocouple is evaluated in order to detect gas flow anomalies or operational anomalies and wherein a gas flow anomaly is detected if said flowmeter information indicates gas flow through the gas appliance and said information provided by the thermocouple indicates that the gas burner is switched off, and/or operational anomaly is detected if said flowmeter information indicates gas flow through the gas appliance, said information provided by the thermocouple indicates that the gas burner is switched on and the period of time during which said information is present exceeds a certain time threshold. - gathering information regarding the gas flow or the operational state based on detection means (5.1, 5.2), said detection means (5.1, 5.2) comprising a flowmeter included in the gas appliance and a thermocouple associated with said at least one gas burner; - evaluating said gathered information in order to detect gas flow anomalies or operational anomalies, thereby obtaining evaluation information; - providing alert information from a communication interface of the gas appliance to a user device depending on said evaluation information
An oxidation composition for oxidative hair treatment, containing - 50-96 wt.%, preferably 70-93 wt.%, particularly preferably 80-90 wt.%, water, - 0.5-20 wt.% hydrogen peroxide, - at least one polyethylene glycol ether of a monoester of glycerol and a C12-C22 carboxylic acid having 110-500 ethylene oxide units in the molecule according to the following formula where the sum of the indices x + y + z represents a number in the range of from 110 to 500 and R represents an alkyl functional group which has 11 to 21 C atoms and can be saturated or unsaturated, linear or branched, where all the amounts stated are based on the weight of the oxidation composition. - 50-96 wt.%, preferably 70-93 wt.%, particularly preferably 80-90 wt.%, water, - 0.5-20 wt.% hydrogen peroxide, - at least one polyethylene glycol ether of a monoester of glycerol and a C12-C22 carboxylic acid having 110-500 ethylene oxide units in the molecule according to the following formula where the sum of the indices x + y + z represents a number in the range of from 110 to 500 and R represents an alkyl functional group which has 11 to 21 C atoms and can be saturated or unsaturated, linear or branched, where all the amounts stated are based on the weight of the oxidation composition.
Robot arm having a wrist joint and a fastening flange, and having the following features: - the wrist joint comprises a first adjusting device, which comprises at least an input gearwheel and an output gearwheel; - the robot arm comprises a first shaft, wherein the input gearwheel is connected to the first shaft in a rotationally coupled manner, wherein the first shaft extends away from the wrist joint; - the output gearwheel is rotationally coupled to the fastening flange, wherein a rotation of the input gearwheel results in a rotation of the output gearwheel and thus results in a rotation of the fastening flange; - the wrist joint comprises a second adjusting device, which is designed to move the output gearwheel on a circle segment about a centre point; - the wrist joint comprises a third adjusting device, which comprises a main body and has an axis of rotation that runs coaxially to the axis of rotation of the input gearwheel of the first adjusting device; - the third adjusting device is designed to displace the first and the second adjusting device (5, 12) by means of a third motor assembly in such a manner that the circle segment transitions from running in a first plane to running in a second plane about the centre point, wherein the first plane and the second plane are arranged perpendicular to one another; characterized in that - the main body is screw-fastened to an adapter plate of the third motor assembly. - the wrist joint comprises a first adjusting device, which comprises at least an input gearwheel and an output gearwheel; - the robot arm comprises a first shaft, wherein the input gearwheel is connected to the first shaft in a rotationally coupled manner, wherein the first shaft extends away from the wrist joint; - the output gearwheel is rotationally coupled to the fastening flange, wherein a rotation of the input gearwheel results in a rotation of the output gearwheel and thus results in a rotation of the fastening flange; - the wrist joint comprises a second adjusting device, which is designed to move the output gearwheel on a circle segment about a centre point; - the wrist joint comprises a third adjusting device, which comprises a main body and has an axis of rotation that runs coaxially to the axis of rotation of the input gearwheel of the first adjusting device; - the third adjusting device is designed to displace the first and the second adjusting device (5, 12) by means of a third motor assembly in such a manner that the circle segment transitions from running in a first plane to running in a second plane about the centre point, wherein the first plane and the second plane are arranged perpendicular to one another; characterized in that - the main body is screw-fastened to an adapter plate of the third motor assembly.
A packing box, wherein the packing box comprises a basal surface, side surfaces and containing spaces; the side surfaces are arranged around the basal surface, and form a one-piece planar structure with the basal surface, the side surfaces and the basal surface form first folding marks used to fold along the first folding marks and form a space for the packing box; a plurality of holes are opened on the basal surface, and the containing spaces are fixed on the basal surface, with the holes used as openings thereof; characterized in that each containing space is surrounded by a plurality of wall surfaces, the wall surfaces unparallel to the basal surface when the containing spaces are expanded are defined as unparallel wall surfaces, the other wall surfaces are parallel wall surfaces, and a plurality of second folding marks are formed on the unparallel wall surfaces to be used to fold and expand the corresponding wall surfaces; wherein, when the unparallel wall surfaces are folded, the internal cavities of the containing spaces disappear and the containing spaces are retracted, and when the unparallel wall surfaces are expanded, the containing spaces are expanded; and, wherein the wall surfaces of each containing space comprise first wall surfaces and a second wall surface, wherein the first wall surfaces are the unparallel wall surfaces, the second wall surface is connected with the first wall surfaces and is the parallel wall surface, and second folding marks parallel to the basal surface are arranged on the first wall surfaces.
A method for creating myopia-safe video signals comprising: (a) receiving an input video signal comprising, for at least one pixel, an input red component, an input green component, and an input blue component; (b) determining, for the at least one pixel, (i) that a magnitude of the input red component is greater than a magnitude of the input green component and (ii) a differential between the magnitude of the input red component and the magnitude of the input green component; and, whenever the magnitude of the input red component is greater than the magnitude of the input green component, or whenever the magnitude of the input red component is greater than the magnitude of the input green component by at least a predetermined threshold, (c) sending an output video signal for the at least one pixel consisting of an output red component, an output green component, and an output blue component, wherein: (i) the output red component is decreased by a fractional amount relative to the input red component for the at least one pixel based on the differential; and (ii) the output green component is increased by a fractional amount relative to the input green component for the at least one pixel based on the differential, and the output blue component is increased by a fractional amount relative to the input blue component for the at least one pixel based on the differential. (a) receiving an input video signal comprising, for at least one pixel, an input red component, an input green component, and an input blue component; (b) determining, for the at least one pixel, (i) that a magnitude of the input red component is greater than a magnitude of the input green component and (ii) a differential between the magnitude of the input red component and the magnitude of the input green component; and, whenever the magnitude of the input red component is greater than the magnitude of the input green component, or whenever the magnitude of the input red component is greater than the magnitude of the input green component by at least a predetermined threshold, (c) sending an output video signal for the at least one pixel consisting of an output red component, an output green component, and an output blue component, wherein: (i) the output red component is decreased by a fractional amount relative to the input red component for the at least one pixel based on the differential; and (ii) the output green component is increased by a fractional amount relative to the input green component for the at least one pixel based on the differential, and the output blue component is increased by a fractional amount relative to the input blue component for the at least one pixel based on the differential. (i) the output red component is decreased by a fractional amount relative to the input red component for the at least one pixel based on the differential; and (ii) the output green component is increased by a fractional amount relative to the input green component for the at least one pixel based on the differential, and the output blue component is increased by a fractional amount relative to the input blue component for the at least one pixel based on the differential.
A method for controlling operation of a hydraulic power system coupled to a torque wrench, the hydraulic power system including a motor, a valve, and a controller, the method comprising: defining a user set pressure; starting a cycle in response to receiving an actuation at a button; advancing a fluid actuator of the torque wrench toward the user set pressure, the torque wrench applying torque to a work piece; calculating a change in pressure per unit time during an initial advance operation of the fluid actuator below the user set pressure; characterized by storing the calculated change in pressure per unit time as a reference pressure slope; during a subsequent advance of the fluid actuator,measuring a change in pressure of fluid in the fluid actuator of the torque wrench; comparing the measured change in pressure per unit time to the reference pressure slope; and retracting the fluid actuator of the torque wrench when the change in pressure is greater than the stored reference pressure slope. defining a user set pressure; starting a cycle in response to receiving an actuation at a button; advancing a fluid actuator of the torque wrench toward the user set pressure, the torque wrench applying torque to a work piece; calculating a change in pressure per unit time during an initial advance operation of the fluid actuator below the user set pressure; characterized by storing the calculated change in pressure per unit time as a reference pressure slope; during a subsequent advance of the fluid actuator,measuring a change in pressure of fluid in the fluid actuator of the torque wrench; comparing the measured change in pressure per unit time to the reference pressure slope; and retracting the fluid actuator of the torque wrench when the change in pressure is greater than the stored reference pressure slope.
Pressure control valve, in particular for a high-pressure storage body or a high-pressure feed pump of a fuel injection system, comprising - a valve housing (2, 2a, 2b) having an axial valve tappet bore for receiving a valve tappet and with a recess running around the valve tappet bore for receiving a magnetic coil, - an anchor plate connected to the valve tappet, and - a poppet valve operatively connected to the valve tappet, wherein the magnetic circuit of the magnetic coil, which is formed by the region of the valve housing (2, 2a, 2b) which receives the magnetic coil and by the anchor plate, has at least one magnetic constriction (26, 26', 26", 17, 31), characterised in that the magnetic constriction (26, 26', 26") is designed as a local reduction of the radial cross-section in the region of the recess which receives the magnetic coil, and the reduction of the cross-section for the magnetic constriction (26', 26") in the region radially adjoining the recess towards the exterior by means of a circumferential groove (26") on the external circumferential surface of the valve housing (2, 2a, 2b) in the region of the magnet coil. - a valve housing (2, 2a, 2b) having an axial valve tappet bore for receiving a valve tappet and with a recess running around the valve tappet bore for receiving a magnetic coil, - an anchor plate connected to the valve tappet, and - a poppet valve operatively connected to the valve tappet, wherein the magnetic circuit of the magnetic coil, which is formed by the region of the valve housing (2, 2a, 2b) which receives the magnetic coil and by the anchor plate, has at least one magnetic constriction (26, 26', 26", 17, 31),
A method for controlling the temperature of a liquefied compressed gas in a storage vessel comprising a. passing a liquefied compressed gas into a storage vessel; b. positioning a temperature measuring means onto the wall of the compressed gas storage vessel; c. positioning at least one heating means proximate to the storage vessel; d. monitoring the temperature of the compressed gas within the storage vessel by monitoring the surface temperature of the vessel with the temperature measuring means and monitoring the pressure of the compressed gas within the storage vessel; and e. adjusting the output of the heating means to heat the liquefied compressed gas in the storage vessel to convert the liquefied compressed gas to a vapor, characterized in that the output of the heating means is adjusted in response to the temperature output of the temperature measuring means to confine the liquid boiling in free convection or nucleate boiling regime, wherein the temperature of the heating means is increased when a decrease in the pressure is found in combination with a constant surface temperature or decreasing surface temperature found by the temperature measuring means, and wherein the temperature of the heating means is reduced when an increase in the surface temperature with decreasing pressure is found. a. passing a liquefied compressed gas into a storage vessel; b. positioning a temperature measuring means onto the wall of the compressed gas storage vessel; c. positioning at least one heating means proximate to the storage vessel; d. monitoring the temperature of the compressed gas within the storage vessel by monitoring the surface temperature of the vessel with the temperature measuring means and monitoring the pressure of the compressed gas within the storage vessel; and e. adjusting the output of the heating means to heat the liquefied compressed gas in the storage vessel to convert the liquefied compressed gas to a vapor, characterized in that the output of the heating means is adjusted in response to the temperature output of the temperature measuring means to confine the liquid boiling in free convection or nucleate boiling regime, wherein the temperature of the heating means is increased when a decrease in the pressure is found in combination with a constant surface temperature or decreasing surface temperature found by the temperature measuring means, and wherein the temperature of the heating means is reduced when an increase in the surface temperature with decreasing pressure is found.
Process for obtaining modified inorganic particles having a layered structure, characterized by the steps of a1) Providing an organic and/or aqueous solution or suspension comprising at least one first amino compound in a first vessel T1 and protonating the at least one first amino compound by using at least one acid; b) Providing a homogenous suspension comprising at least one inorganic particle having a layered structure in at least one organic solvent or a mixture of water and at least one organic solvent in a second vessel T2; c1) addition of the organic and/or aqueous solution or suspension of the at least one first protonated amino compound from the first vessel T1 to the homogenous suspension comprising at least one inorganic particle having a layered structure in the second vessel T2; d) removal and work up of the modified inorganic particles. a1) Providing an organic and/or aqueous solution or suspension comprising at least one first amino compound in a first vessel T1 and protonating the at least one first amino compound by using at least one acid; b) Providing a homogenous suspension comprising at least one inorganic particle having a layered structure in at least one organic solvent or a mixture of water and at least one organic solvent in a second vessel T2; c1) addition of the organic and/or aqueous solution or suspension of the at least one first protonated amino compound from the first vessel T1 to the homogenous suspension comprising at least one inorganic particle having a layered structure in the second vessel T2; d) removal and work up of the modified inorganic particles.
An antibody or an Fc fusion protein comprising an Fc variant of a wild-type human IgG1 Fc region, wherein the Fc variant of the wild-type human IgG1 Fc region contains amino acid substitutions P329G, L234A and L235A, wherein the residues are numbered according to the EU index of Kabat.
An intra-frame predictive coding method based on template matching, comprising: determining N predicted pixel values of a to-be-predicted unit, wherein N is an integer greater than or equal to 3, wherein the determining comprises determining an i th predicted pixel value by using a template of an i th shape, i=1, 2,..., N, wherein the to-be-predicted unit is adjacent to the template of the i th shape; and selecting a predicted pixel value from among the N predicted pixel values of the to-be-predicted unit which meets a preset condition as an optimal predicted pixel value of the to-be-predicted unit, wherein the optimal predicted pixel value of the to-be-predicted unit is used for coding, wherein the determining an i th predicted pixel value of a to-be-predicted unit by using a template of an i th shape comprises: determining a predicted pixel value of a subunit sj in the to-be-predicted unit by using a template ix of the i th shape, wherein the subunit sj is a region that is in the to-be-predicted unit, characterized in that the region has a same shape as the template ix and is adjacent to the template ix; j=1, 2,..., M; x=1, 2,..., M; M is an integer greater than or equal to 2; s1∪s2∪...∪sM is equal to the to-be-predicted unit; the subunits s 1, s 2,..., sM are successively away from an adjacent reconstructed region; and each template ix has a different size, wherein templates of at least three shapes are separately used to calculate a predicted pixel value of a to-be-predicted unit, and wherein the template of each shape represents a neighborhood texture direction of the to-be-predicted unit. determining N predicted pixel values of a to-be-predicted unit, wherein N is an integer greater than or equal to 3, wherein the determining comprises determining an i th predicted pixel value by using a template of an i th shape, i=1, 2,..., N, wherein the to-be-predicted unit is adjacent to the template of the i th shape; and selecting a predicted pixel value from among the N predicted pixel values of the to-be-predicted unit which meets a preset condition as an optimal predicted pixel value of the to-be-predicted unit, wherein the optimal predicted pixel value of the to-be-predicted unit is used for coding, wherein the determining an i th predicted pixel value of a to-be-predicted unit by using a template of an i th shape comprises: determining a predicted pixel value of a subunit sj in the to-be-predicted unit by using a template ix of the i th shape, wherein the subunit sj is a region that is in the to-be-predicted unit, characterized in that the region has a same shape as the template ix and is adjacent to the template ix; j=1, 2,..., M; x=1, 2,..., M; M is an integer greater than or equal to 2; s1∪s2∪...∪sM is equal to the to-be-predicted unit; the subunits s 1, s 2,..., sM are successively away from an adjacent reconstructed region; and each template ix has a different size, wherein templates of at least three shapes are separately used to calculate a predicted pixel value of a to-be-predicted unit, and wherein the template of each shape represents a neighborhood texture direction of the to-be-predicted unit.
A method for operating a reader device that communicates via inductive coupling, the method comprising: - generating, by a transmitter unit of the reader device, a transmitted field; - receiving, by a receiver unit of the reader device, a response from a tag device, wherein the tag device responds using load modulation on the transmitted field; - detecting, by a sensing unit of the reader device, the response from the tag device, wherein detecting the response from the tag device indicates that the response can be demodulated, wherein the sensing unit further determines a signal quality information associated with the response from the tag device; - controlling, by a transmitter control unit of the reader device, a strength of the transmitted field based on the signal quality information. - generating, by a transmitter unit of the reader device, a transmitted field; - receiving, by a receiver unit of the reader device, a response from a tag device, wherein the tag device responds using load modulation on the transmitted field; - detecting, by a sensing unit of the reader device, the response from the tag device, wherein detecting the response from the tag device indicates that the response can be demodulated, wherein the sensing unit further determines a signal quality information associated with the response from the tag device; wherein detecting the response from the tag device indicates that the response can be demodulated, wherein the sensing unit further determines a signal quality information associated with the response from the tag device; - controlling, by a transmitter control unit of the reader device, a strength of the transmitted field based on the signal quality information.