mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing a context rule engine in execution upon a microprocessor of an electronic device, the context rule engine comprising a plurality of context rules and a plurality of user interface dashboards, each context rule determining a user interface dashboard of the plurality of user interface dashboards to display in dependence upon a predetermined set of conditions being met; installing a software application upon the electronic device comprising at least the microprocessor, the software application comprising first data relating to the software application and second data relating a new context rule or a modification to a context rule and to modifying a context of displaying the software application in the user interface dashboard to a user of the electronic device; and updating the context rule engine with the new context rule or modifying said context rule of said user interface dashboard in dependence upon the second data. establishing a context rule engine in execution upon a microprocessor of an electronic device, the context rule engine comprising a plurality of context rules and a plurality of user interface dashboards, each context rule determining a user interface dashboard of the plurality of user interface dashboards to display in dependence upon a predetermined set of conditions being met; installing a software application upon the electronic device comprising at least the microprocessor, the software application comprising first data relating to the software application and second data relating a new context rule or a modification to a context rule and to modifying a context of displaying the software application in the user interface dashboard to a user of the electronic device; and updating the context rule engine with the new context rule or modifying said context rule of said user interface dashboard in dependence upon the second data.
A method of treating hair comprising applying to hair a personal care composition comprising a silicone polyether copolymer having an average formula A-R 2 SiO(R 2 SiO) x SiR 2 -[[R 1 O(C m H 2m O) y R 1][R 2 SiO(R 2 SiO) x]R 2 Si] n -A where A is an amino functional endblocking group of the formula R A CH 2 CH CH 2 OR 2 - wherein R A is an amino functional group x is ≥ 0, m is from 2 to 4 inclusive, y is ≥ 4, n is ≥ 1 R is independently a monovalent hydrocarbon group containing 1 to 30 carbons, R 1 is a divalent hydrocarbon containing 2 to 30 carbons. wherein R A is an amino functional group x is ≥ 0, m is from 2 to 4 inclusive, y is ≥ 4, n is ≥ 1 R is independently a monovalent hydrocarbon group containing 1 to 30 carbons, R 1 is a divalent hydrocarbon containing 2 to 30 carbons.
An orthodontic appliance comprising: an archwire having a configuration that fits within a human mouth and containing multiple male connectors; multiple orthodontic brackets, each have a configuration that facilitates attaching the orthodontic bracket to a single tooth and that allows one of the male connectors to be: locked into the orthodontic bracket with a snapping action, the male connector being unable to slide with respect to the orthodontic bracket after being locked in the orthodontic bracket; and unlocked from the orthodontic bracket by a manual unlocking action that allows the male connector to disengage from the orthodontic bracket, characterized in that each multiple orthodontic bracket comprises a bracket body, a bridge on a non-tooth side of the bracket body, an access port on the bridge, a base, and a springboard comprising a movable springboard body and a free end, wherein the manual unlocking action comprises depressing the movable springboard body of the springboard with an instrument inserted through the access port of the bridge. an archwire having a configuration that fits within a human mouth and containing multiple male connectors; multiple orthodontic brackets, each have a configuration that facilitates attaching the orthodontic bracket to a single tooth and that allows one of the male connectors to be: locked into the orthodontic bracket with a snapping action, the male connector being unable to slide with respect to the orthodontic bracket after being locked in the orthodontic bracket; and unlocked from the orthodontic bracket by a manual unlocking action that allows the male connector to disengage from the orthodontic bracket, characterized in locked into the orthodontic bracket with a snapping action, the male connector being unable to slide with respect to the orthodontic bracket after being locked in the orthodontic bracket; and unlocked from the orthodontic bracket by a manual unlocking action that allows the male connector to disengage from the orthodontic bracket, characterized in that each multiple orthodontic bracket comprises a bracket body, a bridge on a non-tooth side of the bracket body, an access port on the bridge, a base, and a springboard comprising a movable springboard body and a free end, wherein the manual unlocking action comprises depressing the movable springboard body of the springboard with an instrument inserted through the access port of the bridge.
A method of operating a tractor for performing off-road working operations, the tractor having a frame structure carrying a ground engaging structure whereby the tractor may travel over the ground, the ground engaging structure including a pair of steerable wheels (14a, 14b), which, with the tractor travelling in a travelling direction, are front wheels, where each may be braked by a respective brake device (45a, 45b) and a pair of rear wheels (15a, 15b) which may each independently be braked by the operation of respective brake devices (45c, 45d), the tractor further including a controller which is capable of providing signals independently to the brake devices (45c, 45d) of the rear wheels (15a, 15b) to effect application and release of a selected brake, and the method including sensing the tractor travelling speed and providing a first input of the controller, sensing steering of the tractor by the operator and providing a second input to the controller, and where the travelling speed is below a threshold speed and depending on the direction of steering of the tractor, the controller applying one of the brakes, wherein the method includes applying the brake device (45c, 45d) of the rear wheel (15a, 15b) only on the side of the tractor to which the tractor is being steered, to a degree depending upon the magnitude of the angle through which the tractor is being steered and/or the tractor speed, the rear wheels (15a, 15b) being driven whilst one only of the brake devices (45c, 45d) of the rear wheels (15a, 15b) is operated and characterised in that the method further includes disabling the operation of applying one of the brake devices (45c, 45d) of the rear wheels (15a, 15b) in response to an input from a sensor sensing a front or rear towing linkage position.
A display panel, comprising: an array substrate and at least one image sensor, wherein a non-display region of the array substrate is provided with an installation hole in which the image sensor is installed, and the image sensor is embedded in the installation hole, wherein a lead is provided on the array substrate so as to connect the image sensor with a PCB, characterised in that the lead on the array substrate for connecting the image sensor with a PCB is arranged on the same layer as a data signal line on the array substrate. an array substrate and at least one image sensor, wherein a non-display region of the array substrate is provided with an installation hole in which the image sensor is installed, and the image sensor is embedded in the installation hole, wherein a lead is provided on the array substrate so as to connect the image sensor with a PCB, characterised in that the lead on the array substrate for connecting the image sensor with a PCB is arranged on the same layer as a data signal line on the array substrate.
A method comprising: - constructing a transmission code matrix, and - transmitting said transmission code matrix, at least partially in parallel, using substantially orthogonal signalling resources and at least three different transmit antenna paths, wherein each row of the transmission code matrix corresponds to one of the transmit antenna paths and each column of the transmission code matrix corresponds to one of the substantially orthogonal signalling resources, wherein the transmission code matrix is a construction using at least two transformed transmit diversity code matrices (X1, X2), wherein the at least two transformed transmit diversity code matrices (X1, X2) are linear transformations of at least two transmit diversity code matrices (C1, C2), and wherein the at least two transmit diversity code matrices (C1, C2), at least one of which is of dimension greater than one, are modulations of at least two at least partially different streams of complex symbols (x1, x2; x3, x4) obtainable from a single stream of complex symbols (x1, x2, x3, x4) by conversion (S/P) characterized in that both matrix dimensions of the transmission code matrix are greater than the corresponding matrix dimensions of the at least two transformed transmit diversity code matrices (X1, X2) and in that the at least two transformed transmit diversity code matrices (X1, X2) are defined based on a transformation matrix applied to the at least two transmit diversity code matrices (C1, C2), wherein the transformation matrix is a Kronecker product of a unitary matrix and an identity matrix. - constructing a transmission code matrix, and - transmitting said transmission code matrix, at least partially in parallel, using substantially orthogonal signalling resources and at least three different transmit antenna paths, wherein each row of the transmission code matrix corresponds to one of the transmit antenna paths and each column of the transmission code matrix corresponds to one of the substantially orthogonal signalling resources, wherein the transmission code matrix is a construction using at least two transformed transmit diversity code matrices (X1, X2), wherein the at least two transformed transmit diversity code matrices (X1, X2) are linear transformations of at least two transmit diversity code matrices (C1, C2), and wherein the at least two transmit diversity code matrices (C1, C2), at least one of which is of dimension greater than one, are modulations of at least two at least partially different streams of complex symbols (x1, x2; x3, x4) obtainable from a single stream of complex symbols (x1, x2, x3, x4) by conversion (S/P) characterized in that both matrix dimensions of the transmission code matrix are greater than the corresponding matrix dimensions of the at least two transformed transmit diversity code matrices (X1, X2) and in that the at least two transformed transmit diversity code matrices (X1, X2) are defined based on a transformation matrix applied to the at least two transmit diversity code matrices (C1, C2), wherein the transformation matrix is a Kronecker product of a unitary matrix and an identity matrix.
An auxiliary artificial heart pump drive device for driving an auxiliary artificial heart pump, the pump drive device comprising: first and second pump control parts arranged in duplexed configuration, each pump control part controlling the auxiliary artificial heart pump by outputting a drive signal to the auxiliary artificial heart pump, wherein said each pump control part has a means which, when a failure is detected in the pump control part, electrically cuts off a path through which the drive signal is outputted to the auxiliary artificial heart pump. first and second pump control parts arranged in duplexed configuration, each pump control part controlling the auxiliary artificial heart pump by outputting a drive signal to the auxiliary artificial heart pump, wherein said each pump control part has a means which, when a failure is detected in the pump control part, electrically cuts off a path through which the drive signal is outputted to the auxiliary artificial heart pump.
Tear-off packaging comprising a first packaging material and a second packaging material which are interconnected at a separable sealing seam, wherein at the separable sealing seam a sealing layer of the first packaging material is connected to a directly adjacent substrate layer of the second packaging material, wherein the substrate layer comprises as main component aluminium, paper or a polymer selected from the group polyethylene terephthalate, polystyrene, polyvinyl chloride, polycarbonate, polylactide and polyamide and wherein the sealing layer has a surface modified by a physical surface treatment method adjacent to the substrate layer, characterized in that the polymeric components of the sealing layer form a blend with 2 to 25 wt.% polybutene, 60 to 98 wt.% polyethylene and less than 20 wt.% remainder.
An optical analysis device which detects light from a light-emitting particle dispersed and moving at random in a sample solution by using an optical system (2 - 17) of a confocal microscope or a multiphoton microscope, the device comprising: a light detection region moving portion (7, 17) which moves the position of the light detection region of the optical system (2 - 17) in the sample solution by changing the optical path of the optical system (2 - 17); a light detecting portion which detects light from the light detection region; and a signal processing portion which measures time series light intensity data of the light from the light detection region detected by the light detecting portion during moving the position of the light detection region in the sample solution, characterized in that the signal processing portion detects an individual light signal from each light-emitting particle by detecting individually in the time series light intensity data, as the light signal of one light-emitting particle, the variation in time of the light intensity having a light intensity profile to which one light-emitting particle which moves relatively to the light detection region in the inside of the light detection region corresponds. a light detection region moving portion (7, 17) which moves the position of the light detection region of the optical system (2 - 17) in the sample solution by changing the optical path of the optical system (2 - 17); a light detecting portion which detects light from the light detection region; and a signal processing portion which measures time series light intensity data of the light from the light detection region detected by the light detecting portion during moving the position of the light detection region in the sample solution, characterized in that the signal processing portion detects an individual light signal from each light-emitting particle by detecting individually in the time series light intensity data, as the light signal of one light-emitting particle, the variation in time of the light intensity having a light intensity profile to which one light-emitting particle which moves relatively to the light detection region in the inside of the light detection region corresponds.
A precision alloy for die-casting consisting of 40% by mass or more and 45% by mass or less of aluminum, 2% by mass or more and 8% by mass or less of silicon, 0.1 % by mass or more and 0.2% by mass or less of copper, 0.01% by mass or more and 0.1 % by mass or less of magnesium, and the balance of zinc and inevitable impurities.
A coated detergent particle having maximum perpendicular dimensions x, y and z, wherein x is from 1 to 2 mm, y is from 2 to 8mm, and z is from 2 to 8 mm, wherein the particle comprises: (i) from 40 to 90 wt % surfactant selected from: anionic surfactant; and, non-ionic surfactant; (ii) from 1 to 40 wt % water soluble inorganic salts; and, (iii) from 0.0001 to 0.1 wt % dye, wherein the dye is selected: from anionic dyes; and non-ionic dyes, wherein the inorganic salts are present on the detergent particle as a coating and the surfactant and the dye are present as a core. (i) from 40 to 90 wt % surfactant selected from: anionic surfactant; and, non-ionic surfactant; (ii) from 1 to 40 wt % water soluble inorganic salts; and, (iii) from 0.0001 to 0.1 wt % dye, wherein the dye is selected: from anionic dyes; and non-ionic dyes,
A system for determining a distance to a region of interest comprising: a first camera configured to have a first field of view; a second camera configured to have a second field of view that overlaps at least a portion of the first field of view; a third camera that is configured to have a third field of view; a control device configured to allow a user to select a region of interest in the at least a portion of the first field of view that overlaps the second field of view, wherein the selected region of interest is a point or a collection of points, and wherein the selected region of interest corresponds with a region of interest in the third field of view; and a processor configured to calculate a distance of the selected region of interest relative to a location by comparing a position of the selected region of interest in the first field of view with a position of the selected region of interest in the second field of view, wherein the location is the position of the third camera, wherein a focus of the third camera is settable based on the calculated distance. a first camera configured to have a first field of view; a second camera configured to have a second field of view that overlaps at least a portion of the first field of view; a third camera that is configured to have a third field of view; a control device configured to allow a user to select a region of interest in the at least a portion of the first field of view that overlaps the second field of view, wherein the selected region of interest is a point or a collection of points, and wherein the selected region of interest corresponds with a region of interest in the third field of view; and a processor configured to calculate a distance of the selected region of interest relative to a location by comparing a position of the selected region of interest in the first field of view with a position of the selected region of interest in the second field of view, wherein the location is the position of the third camera, wherein a focus of the third camera is settable based on the calculated distance.
A SOC estimating apparatus, comprising: a measuring unit configured to measure a current and voltage of a battery cell and output the measured current information and the measured voltage information; and a control unit configured to receive the current information and the voltage information from the measuring unit, calculate a charging and discharging time during which the battery cell is charged or discharged and a charging and discharging interruption time during which the charging and discharging is interrupted, estimate a first SOC of the battery cell according to the current information during the charging and discharging time, determine whether or not to estimate a second SOC of the battery cell according to the voltage information based on a comparison result of the charging and discharging interruption time and a preset reference time, estimate the second SOC of the battery cell when it is determined that the second SOC should be estimated, estimate a third SOC by performing a weighted summation to the first SOC and the second SOC based on the charging and discharging interruption time when the second SOC is estimated, and determine the estimated third SOC as the SOC of the battery cell. a measuring unit configured to measure a current and voltage of a battery cell and output the measured current information and the measured voltage information; and a control unit configured to receive the current information and the voltage information from the measuring unit, calculate a charging and discharging time during which the battery cell is charged or discharged and a charging and discharging interruption time during which the charging and discharging is interrupted, estimate a first SOC of the battery cell according to the current information during the charging and discharging time, determine whether or not to estimate a second SOC of the battery cell according to the voltage information based on a comparison result of the charging and discharging interruption time and a preset reference time, estimate the second SOC of the battery cell when it is determined that the second SOC should be estimated, estimate a third SOC by performing a weighted summation to the first SOC and the second SOC based on the charging and discharging interruption time when the second SOC is estimated, and determine the estimated third SOC as the SOC of the battery cell.
A method for reducing neutral oil losses during a neutralization step comprising the following steps: mixing an acid-treated vegetable oil with a base to neutralize (a) free fatty acid and (b) added acid in the acid-treated vegetable oil to obtain a pretreated mixture; subjecting the pretreated mixture to at least two cycles of localized shear effects, said cycles being arranged in succession, each cycle comprising a step of forcing the pretreated mixture at a pressure through one or more nozzles, each cycle of localized shear effects having a shear duration time of less than 5×10 -5 seconds and a shear rate of at least about 6000 sec -1. mixing an acid-treated vegetable oil with a base to neutralize (a) free fatty acid and (b) added acid in the acid-treated vegetable oil to obtain a pretreated mixture; subjecting the pretreated mixture to at least two cycles of localized shear effects, said cycles being arranged in succession, each cycle comprising a step of forcing the pretreated mixture at a pressure through one or more nozzles, each cycle of localized shear effects having a shear duration time of less than 5×10 -5 seconds and a shear rate of at least about 6000 sec -1.