mhurhangee/ep-ind-claims huggingface dataset:
Periscopic device for examining an eye of a person having an inwardly squinting eye, the periscopic device comprising: - a single tube, - a first mirror arranged inside a first end of the tube which end is adapted to be placed near the person's one eye, and - a second mirror arranged inside a second end of the tube, wherein the periscopic device is dimensioned and shaped so that, when in use, the person can look through the periscopic device from the first end of the tube only with the one eye, while the other eye is exposed for being examined, wherein the line of sight of the one eye is reflected in the first mirror and towards the second mirror, and reflected in the second mirror, wherein: - the first and the second mirrors (5,7) are each arranged so that the first and the second mirrors (5,7) each deflects the line of sight of the person by an angle of approximately 90°, and the periscopic device further comprises a base out prism arranged in front of the first mirror so that, during use of the periscopic device, the line of sight of the one eye is deflected towards the first mirror, or - the first and the second mirrors (5,7) are arranged non-parallel to each other. - a single tube, - a first mirror arranged inside a first end of the tube which end is adapted to be placed near the person's one eye, and - a second mirror arranged inside a second end of the tube, - the first and the second mirrors (5,7) are each arranged so that the first and the second mirrors (5,7) each deflects the line of sight of the person by an angle of approximately 90°, and the periscopic device further comprises a base out prism arranged in front of the first mirror so that, during use of the periscopic device, the line of sight of the one eye is deflected towards the first mirror, or - the first and the second mirrors (5,7) are arranged non-parallel to each other.
A kit for whitening teeth comprising a first composition and a second composition, the first composition comprising an oxidizing agent and the second composition comprising the dyes Azorubine and Tartrazine, and an oxidation catalyst.
A method for use in identifying and outputting locations of electrodes on a display, comprising: defining relative positions of physical electrodes (33 1 -33 4) in a catheter shape model, wherein the relative positions correspond to spacings of the physical electrodes of a physical catheter; predicting locations of model electrodes (30 1 -30 4) in a patient reference frame by utilizing the catheter shape model including locations of model electrodes (30 1 -30 4) and a model magnetic sensor (28 1) in a catheter reference frame, wherein the model electrodes (30 1 -30 4) and model magnetic sensor (28 1) correspond to a set of the physical electrodes (33 1 -33 4) and a magnetic sensor (28 2) of the physical catheter disposed within the patient reference frame; generating predicted impedance responses (31 1 -31 4) for the predicted model electrode locations by applying an impedance model of an applied electrical potential field to the model electrode locations, wherein the impedance model transforms each model electrode location to a predicted impedance response; measuring impedance responses (35 1 -35 4) for the physical electrodes (33 1 -33 4) of the physical catheter in response to the applied electrical potential field; and based at least on the predicted impedance responses (31 1 -31 4) and the measured impedance responses (35 1 -35 4), generating calculated locations (37 1 -37 4) of the physical electrodes; and outputting the calculated locations of the physical electrodes (33 1 -33 4) to the display. defining relative positions of physical electrodes (33 1 -33 4) in a catheter shape model, wherein the relative positions correspond to spacings of the physical electrodes of a physical catheter; predicting locations of model electrodes (30 1 -30 4) in a patient reference frame by utilizing the catheter shape model including locations of model electrodes (30 1 -30 4) and a model magnetic sensor (28 1) in a catheter reference frame, wherein the model electrodes (30 1 -30 4) and model magnetic sensor (28 1) correspond to a set of the physical electrodes (33 1 -33 4) and a magnetic sensor (28 2) of the physical catheter disposed within the patient reference frame; generating predicted impedance responses (31 1 -31 4) for the predicted model electrode locations by applying an impedance model of an applied electrical potential field to the model electrode locations, wherein the impedance model transforms each model electrode location to a predicted impedance response; measuring impedance responses (35 1 -35 4) for the physical electrodes (33 1 -33 4) of the physical catheter in response to the applied electrical potential field; and based at least on the predicted impedance responses (31 1 -31 4) and the measured impedance responses (35 1 -35 4), generating calculated locations (37 1 -37 4) of the physical electrodes; and outputting the calculated locations of the physical electrodes (33 1 -33 4) to the display.
A method comprising: receiving, by a wireless device, parameters comprising: a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; receiving, based on the RNTI, a group common downlink control information, DCI, scheduling a transport block, TB, of the MBS session; based on the group common DCI being received based on the RNTI, determining a scrambling identity for the TB being equal to the first scrambling identity; and receiving the TB being scrambled with a scrambling sequence initialized by: the determined scrambling identity; and the RNTI. receiving, by a wireless device, parameters comprising: a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; receiving, based on the RNTI, a group common downlink control information, DCI, scheduling a transport block, TB, of the MBS session; based on the group common DCI being received based on the RNTI, determining a scrambling identity for the TB being equal to the first scrambling identity; and receiving the TB being scrambled with a scrambling sequence initialized by: the determined scrambling identity; and the RNTI. the determined scrambling identity; and the RNTI.
Method for evaluating the quality of a longitudinally moving strand-shaped material, in particular a yarn, comprising the steps applying of polychromatic, preferably white light to the material; detection of a measurement signal which represents the red, green and blue (Ra, bG, cB) colour component of light reflected from the material; transforming of the red, green and blue colour components (Ra, bG, cB) into an evaluation colour space, in which the measurement points of the measurement signal are represented by a first (a*) and a second coordinate (b*) representing the colour, and by a third coordinate (L*) that represents the brightness; characterized in that, the evaluation of the quality of the material is carried out based upon the first (a*), second (b*) and third (L*) coordinates of the measurement points in the evaluation colour space. applying of polychromatic, preferably white light to the material; detection of a measurement signal which represents the red, green and blue (Ra, bG, cB) colour component of light reflected from the material; transforming of the red, green and blue colour components (Ra, bG, cB) into an evaluation colour space, in which the measurement points of the measurement signal are represented by a first (a*) and a second coordinate (b*) representing the colour, and by a third coordinate (L*) that represents the brightness; characterized in that, the evaluation of the quality of the material is carried out based upon the first (a*), second (b*) and third (L*) coordinates of the measurement points in the evaluation colour space.
A composition comprising a compound of a lactic acid polyester resin according to Formula 1 and an acrylic acid ester wherein: R is selected from the group consisting of a di,-tri-, tetra-, penta- and hexavalent polyol; n is an integer from 1-50; and m is an integer from 1-6; and wherein the lactic acid polyester resin according to Formula I has an acid value of 5 to 50 mg KOH/g; and wherein the lactic acid polyester resin exhibits a number average molecular weight of > 3000 Daltons and a weight average molecular weight of > 6000 Daltons. R is selected from the group consisting of a di,-tri-, tetra-, penta- and hexavalent polyol; n is an integer from 1-50; and m is an integer from 1-6; and wherein the lactic acid polyester resin according to Formula I has an acid value of 5 to 50 mg KOH/g; and wherein the lactic acid polyester resin exhibits a number average molecular weight of > 3000 Daltons and a weight average molecular weight of > 6000 Daltons.
A power transmission device comprising: a first rotary member; a second rotary member; a ring gear coupled to the first rotary member for rotation therewith, the ring gear comprising a plurality of ring gear teeth; a carrier assembly coupled to the second rotary member for rotation therewith, the carrier assembly comprising a plurality of pump assemblies; and a first fluid conduit (130, 134) coupled to a first side of the pump assemblies and adapted to couple a suction side of the pump assemblies to a supply of hydraulic fluid when the pump assemblies are operated in a first rotational direction; a second fluid conduit (132, 136) coupled to a second side of the pump assemblies and adapted to receive pressurized fluid from the pump assemblies when the pump assemblies are operated in the first rotational direction; and a valve coupled to at least one of the first and second fluid conduits (134, 136), the valve having a valve element for controlling fluid flow through the valve, the valve element being movable between a first position and a second position; characterized in that the pump assemblies comprise gerotor-type pumps whereby each of the pump assemblies comprises a rotor pin, an inner rotor rotatably received on the rotor pin, and an outer rotor that is rotatably received over the inner rotor, each of the outer rotors having a plurality of planet gear teeth that are meshingly engaged with the ring gear teeth. a first rotary member; a second rotary member; a ring gear coupled to the first rotary member for rotation therewith, the ring gear comprising a plurality of ring gear teeth; a carrier assembly coupled to the second rotary member for rotation therewith, the carrier assembly comprising a plurality of pump assemblies; and a first fluid conduit (130, 134) coupled to a first side of the pump assemblies and adapted to couple a suction side of the pump assemblies to a supply of hydraulic fluid when the pump assemblies are operated in a first rotational direction; a second fluid conduit (132, 136) coupled to a second side of the pump assemblies and adapted to receive pressurized fluid from the pump assemblies when the pump assemblies are operated in the first rotational direction; and a valve coupled to at least one of the first and second fluid conduits (134, 136), the valve having a valve element for controlling fluid flow through the valve, the valve element being movable between a first position and a second position; characterized in that the pump assemblies comprise gerotor-type pumps whereby each of the pump assemblies comprises a rotor pin, an inner rotor rotatably received on the rotor pin, and an outer rotor that is rotatably received over the inner rotor, each of the outer rotors having a plurality of planet gear teeth that are meshingly engaged with the ring gear teeth.
A parallel slide gate valve construction, comprising - a housing with a cover part for closing the housing, - a slide plate that can be moved in the housing, - a piston rod that can be moved through a cover part opening and which is connected or connectable to the slide plate, wherein the piston rod is guided through a cover part seal, wherein the slide plate can be moved by the piston rod and can assume at least one open and one closed position, wherein a rear housing part receives the slide plate in the open position, characterised in that the rear housing part can be filled from both sides of the slide plate in the closed position. - a housing with a cover part for closing the housing, - a slide plate that can be moved in the housing, - a piston rod that can be moved through a cover part opening and which is connected or connectable to the slide plate, wherein the piston rod is guided through a cover part seal, wherein the slide plate can be moved by the piston rod and can assume at least one open and one closed position, wherein a rear housing part receives the slide plate in the open position,
A method to determine analyte concentration in a blood sample, the method comprising: depositing a blood sample in a test chamber of a test strip having at least first and second electrodes (10, 12, 14) in contact with a reagent and third and fourth electrodes (19a, 20a) not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes to cause a reaction between glucose present in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary analyte concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes; determining a first estimated hematocrit based on a impedance from output signals of the third and fourth electrodes; applying a second oscillating input signal at a second frequency higher than the first frequency to the third and fourth electrodes; ascertaining a second estimated hematocrit based on a phase angle of output signals from the third and fourth electrodes; estimating a hematocrit of the blood sample based on the first and second estimated hematocrits; and deriving a final analyte concentration based on the preliminary analyte concentration and the hematocrit from the estimating step. depositing a blood sample in a test chamber of a test strip having at least first and second electrodes (10, 12, 14) in contact with a reagent and third and fourth electrodes (19a, 20a) not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes to cause a reaction between glucose present in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary analyte concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes; determining a first estimated hematocrit based on a impedance from output signals of the third and fourth electrodes; applying a second oscillating input signal at a second frequency higher than the first frequency to the third and fourth electrodes; ascertaining a second estimated hematocrit based on a phase angle of output signals from the third and fourth electrodes; estimating a hematocrit of the blood sample based on the first and second estimated hematocrits; and deriving a final analyte concentration based on the preliminary analyte concentration and the hematocrit from the estimating step.
An isolated bacteria Lactobacillus brevis deposited with the National Collection of Industrial and Marine Bacteria Limited (NCIMB) on 28 November 2011 and accorded the accession number NCIMB 41903, the bacteria being characterised in that it is capable of producing γ-aminobutyric acid (GABA).
A near-eye display, comprising: a waveguide; a holographic element comprising a plurality of holographic components (1209, 1217) in different positions along the waveguide; a light field projector configured to project a first light field into the waveguide via an optical coupler for propagation to the holographic components (1209, 1217); and a controller coupled to the light field projector, wherein the controller is configured to determine the first light field and to cause the light field projector to project the first light field into the waveguide as a plurality of propagating modes, wherein each of the holographic components (1209, 1217) redirects a different one of the propagating modes of the first light field from the different positions along the waveguide to form a second light field directed into an eyebox, and wherein the second light field is perceptible within the eyebox by a viewer's eye as a virtual image at a distance from the eye and the holographic element. a waveguide; a holographic element comprising a plurality of holographic components (1209, 1217) in different positions along the waveguide; a light field projector configured to project a first light field into the waveguide via an optical coupler for propagation to the holographic components (1209, 1217); and a controller coupled to the light field projector, wherein the controller is configured to determine the first light field and to cause the light field projector to project the first light field into the waveguide as a plurality of propagating modes, wherein each of the holographic components (1209, 1217) redirects a different one of the propagating modes of the first light field from the different positions along the waveguide to form a second light field directed into an eyebox, and wherein the second light field is perceptible within the eyebox by a viewer's eye as a virtual image at a distance from the eye and the holographic element.
Device for intermittently injecting high-pressure fuel into the combustion chamber of an internal combustion engine, having a fuel injection valve, which has a housing that has a high-pressure inlet with a conical sealing surface, a recess and a high-pressure space, having a check valve, which allows flow of the fuel from the high-pressure inlet through the fuel passage into the high-pressure space with as little hindrance as possible and at least restricts said flow in the opposite direction, having a feed line for feeding fuel to the fuel injection valve, and having a fastening element, which loads the feed line in a direction toward the high-pressure inlet, characterized by a valve carrier which has a fuel passage, having a conical outer sealing surface on an outer circumferential surface, which outer sealing surface rests sealingly on the conical sealing surface of the high-pressure inlet, and the fastening element presses the feed line against the valve carrier, and presses the latter against the high-pressure inlet.
A butterfly valve, comprising: a valve body including a valve bore passing through the valve body and a shaft bore; a valve shaft located in the shaft bore and extending through the valve bore; at least one compression ring located within the shaft bore, with the at least one compression ring substantially sealing the valve shaft to an actuator-side shaft bore, characterized in that a thermal conductor ring is fitted over an end of the valve shaft such that heat present in the valve shaft can be conducted to an actuator housing. a valve body including a valve bore passing through the valve body and a shaft bore; a valve shaft located in the shaft bore and extending through the valve bore; at least one compression ring located within the shaft bore, with the at least one compression ring substantially sealing the valve shaft to an actuator-side shaft bore, characterized in that a thermal conductor ring is fitted over an end of the valve shaft such that heat present in the valve shaft can be conducted to an actuator housing.
A computer-implemented method for localizing data from at least one of two or more data sets, the method comprising: receiving first drive data from a given road segment as a first data set and one of second drive data or map data from the given road segment as a second data set, wherein each of the first and the second drive data (i) is derived from data collected from one or more sensors onboard a vehicle driving along the given road segment and (ii) identifies the location of each of a plurality of features on or along the given road segment; creating a first synthetic image from the first data set and a second synthetic image from the second data set, wherein creating the first and second synthetic images comprises rasterizing representations (32, 34) of one or more of the plurality of features from the first and second data sets, respectively; the method characterized by: determining a transformation between the first and second synthetic images based upon a phase correlation between the first and second synthetic images, wherein the transformation provides for improved localization of the data from at least one of the first or second data sets; generating a report that defines the transformation; and correcting a positional difference between the first and the second data sets based upon the transformation. receiving first drive data from a given road segment as a first data set and one of second drive data or map data from the given road segment as a second data set, wherein each of the first and the second drive data (i) is derived from data collected from one or more sensors onboard a vehicle driving along the given road segment and (ii) identifies the location of each of a plurality of features on or along the given road segment; creating a first synthetic image from the first data set and a second synthetic image from the second data set, wherein creating the first and second synthetic images comprises rasterizing representations (32, 34) of one or more of the plurality of features from the first and second data sets, respectively; the method characterized by: determining a transformation between the first and second synthetic images based upon a phase correlation between the first and second synthetic images, wherein the transformation provides for improved localization of the data from at least one of the first or second data sets; generating a report that defines the transformation; and correcting a positional difference between the first and the second data sets based upon the transformation.
An information processing apparatus comprising: an acquisition control unit configured to acquire information on function extension from an external object, the information on the function extension including attribute information indicating one or more functions of one or more devices and connection information relating to a connection to the one or more devices; and a function control unit configured to extend a function of the information processing apparatus based on the acquired attribute information, connect to a device among the one or more devices corresponding to the extended function based on the acquired connection information, and enable the extended function; characterized in that the function control unit is further configured to set a priority level to the one or more devices and to select a device for extending the function and connecting to the device based on the priority level. an acquisition control unit configured to acquire information on function extension from an external object, the information on the function extension including attribute information indicating one or more functions of one or more devices and connection information relating to a connection to the one or more devices; and a function control unit configured to extend a function of the information processing apparatus based on the acquired attribute information, connect to a device among the one or more devices corresponding to the extended function based on the acquired connection information, and enable the extended function; characterized in that the function control unit is further configured to set a priority level to the one or more devices and to select a device for extending the function and connecting to the device based on the priority level.