mhurhangee/patent-ind-claim-en huggingface dataset:
A heat not burn consumable comprising: a tubular vapour generating member defining a channel therethrough, wherein at least an active portion of the vapour generating member has an internal surface area and includes an aerosol former and an active substance configured to produce vapour when heated by a heater, wherein: the tubular vapour generating member has an inlet to the channel at a first end of the consumable, the first end of the consumable being for cooperation with a heating device; and wherein the active portion comprises an amount of an active substance which is between 0.0005 milligrams per mm^2 and 0.015 milligrams per mm^2 of said internal surface area. the tubular vapour generating member has an inlet to the channel at a first end of the consumable, the first end of the consumable being for cooperation with a heating device; and wherein the active portion comprises an amount of an active substance which is between 0.0005 milligrams per mm^2 and 0.015 milligrams per mm^2 of said internal surface area.
A photoresponsive oxygen storage material comprising: a plurality of unit cells, wherein each of the unit cells has a shape of a cube having eight corners and six faces, the corners of each of the unit cells are composed of zirconium-oxo clusters, the faces of each of the unit cells are composed of ligands each having a porphyrin skeleton and including greater than or equal to 1 and less than or equal to 4 carboxy groups, a molybdenum ion is located at a center of the porphyrin skeleton, and at least some of the plurality of unit cells are empty. a plurality of unit cells, wherein each of the unit cells has a shape of a cube having eight corners and six faces, the corners of each of the unit cells are composed of zirconium-oxo clusters, the faces of each of the unit cells are composed of ligands each having a porphyrin skeleton and including greater than or equal to 1 and less than or equal to 4 carboxy groups, a molybdenum ion is located at a center of the porphyrin skeleton, and at least some of the plurality of unit cells are empty.
A backlight unit comprising: a front light guiding panel ; a light source which is disposed in the vicinity of the front light guiding panel ; a polymer dispersed liquid crystal layer which is disposed behind the front light guiding panel and is formed to be selectively converted to be transparent or non-transparent depending on whether an electricity is applied thereto or not; and a rear light guiding panel which is disposed behind the polymer dispersed liquid crystal layer , wherein the polymer dispersed liquid crystal layer is at least partially overlapped with the front light guiding panel in a forward/rearward direction and is separately formed to have a predetermined pattern, and wherein the polymer dispersed liquid crystal layer contacts a rear surface of the front light guiding panel , characterized in that the rear light guiding panel is spaced from the polymer dispersed liquid crystal layer , and a light scattering pattern is not formed on a portion of the rear light guiding panel which is overlapped with the polymer dispersed liquid crystal layer in a forward/rearward direction, and a light scattering portion is formed only on the other portion thereof. a front light guiding panel ; a light source which is disposed in the vicinity of the front light guiding panel ; a polymer dispersed liquid crystal layer which is disposed behind the front light guiding panel and is formed to be selectively converted to be transparent or non-transparent depending on whether an electricity is applied thereto or not; and a rear light guiding panel which is disposed behind the polymer dispersed liquid crystal layer , wherein the polymer dispersed liquid crystal layer is at least partially overlapped with the front light guiding panel in a forward/rearward direction and is separately formed to have a predetermined pattern, and wherein the polymer dispersed liquid crystal layer contacts a rear surface of the front light guiding panel , characterized in that the rear light guiding panel is spaced from the polymer dispersed liquid crystal layer , and a light scattering pattern is not formed on a portion of the rear light guiding panel which is overlapped with the polymer dispersed liquid crystal layer in a forward/rearward direction, and a light scattering portion is formed only on the other portion thereof.
An antenna connection circuit for a communication device wherein the antenna connection circuit is configurable for communication modes, comprising at least a first communication mode and a second communication mode, the antenna connection circuit comprising: - an antenna port (A) , a transmitter port (Tx), and a receiver port (Rx); - a first quarter-wave transformer (qw1) and a second quarter-wave transformer (qw2); - a first ground switch (s1), a second ground switch (s2), a resistor switch (s3), and an inverting amplifier switch (s4); - a resistor (R); - an inverting amplifier (Amp1) comprising an input port (l1) and an output port (O1); and - a first ground connection (g1), and a second ground connection (g2); wherein - the first quarter-wave transformer (qw1) is coupled between the antenna port (A) and the transmitter port (Tx); - the second quarter-wave transformer (qw2) is coupled between the antenna port (A) and the receiver port (Rx); - the first ground switch (s1) is coupled between the receiver port (Rx) and the first ground connection (g1); - the second ground switch (s2) is coupled between the transmitter port (Tx) and the second ground connection (g2); - the resistor (R) and the resistor switch (s3) are coupled in series between the receiver port (Rx) and the transmitter port (Tx); - the inverting amplifier switch (s4) is coupled between the receiver port (Rx) and the input port (l1) of the inverting amplifier (Amp1), and the output port (O1) of the inverting amplifier (Amp1) is coupled to the transmitter port (Tx). - an antenna port (A) , a transmitter port (Tx), and a receiver port (Rx); - a first quarter-wave transformer (qw1) and a second quarter-wave transformer (qw2); - a first ground switch (s1), a second ground switch (s2), a resistor switch (s3), and an inverting amplifier switch (s4); - a resistor (R); - an inverting amplifier (Amp1) comprising an input port (l1) and an output port (O1); and - a first ground connection (g1), and a second ground connection (g2); wherein - the first quarter-wave transformer (qw1) is coupled between the antenna port (A) and the transmitter port (Tx); - the second quarter-wave transformer (qw2) is coupled between the antenna port (A) and the receiver port (Rx); - the first ground switch (s1) is coupled between the receiver port (Rx) and the first ground connection (g1); - the second ground switch (s2) is coupled between the transmitter port (Tx) and the second ground connection (g2); - the resistor (R) and the resistor switch (s3) are coupled in series between the receiver port (Rx) and the transmitter port (Tx); - the inverting amplifier switch (s4) is coupled between the receiver port (Rx) and the input port (l1) of the inverting amplifier (Amp1), and the output port (O1) of the inverting amplifier (Amp1) is coupled to the transmitter port (Tx).
A method for checking containers to be filled and identifying unstable containers in a filling system , comprising the checking steps: - illuminating a container to be checked with polarized checking light, - detecting the checking light reflected or transmitted by the container to be checked by means of a change-based checking camera that has an image sensor which is configured to generate output signals solely in response to detected brightness changes, wherein the checking camera is assigned a polarizer which is oriented such that the polarization direction of the light passing through the polarizer differs from the polarization direction of the polarized checking light, - checking the output signals generated by the checking camera for the presence of local brightness changes, - determining a measure of a structural integrity of the container to be checked at least based on a detected local brightness change and based on predefined checking criteria, and - characterizing the container to be checked with respect to its stability at least based on the determined measure of the structural integrity using a checking algorithm and generating a container stability signal based thereon, wherein an event parameter that represents a respective damage event occurring during the filling of a container is possibly received from a filling apparatus of the filling system , and wherein the predefined checking criteria and/or the checking algorithm is/are adapted at least based on the possibly received event parameter. - illuminating a container to be checked with polarized checking light, - detecting the checking light reflected or transmitted by the container to be checked by means of a change-based checking camera that has an image sensor which is configured to generate output signals solely in response to detected brightness changes, wherein the checking camera is assigned a polarizer which is oriented such that the polarization direction of the light passing through the polarizer differs from the polarization direction of the polarized checking light, - checking the output signals generated by the checking camera for the presence of local brightness changes, - determining a measure of a structural integrity of the container to be checked at least based on a detected local brightness change and based on predefined checking criteria, and - characterizing the container to be checked with respect to its stability at least based on the determined measure of the structural integrity using a checking algorithm and generating a container stability signal based thereon, wherein an event parameter that represents a respective damage event occurring during the filling of a container is possibly received from a filling apparatus of the filling system , and wherein the predefined checking criteria and/or the checking algorithm is/are adapted at least based on the possibly received event parameter.
Diaphragm seat valve having a dimensionally elastic control diaphragm which separates a control chamber from a working chamber and is formed in one piece with a hollow projection (3b, 3b`, 3b") on its side facing the control chamber or the working chamber of the diaphragm seat valve and with a diaphragm valve seat on its side facing the working chamber , wherein the interior space (8, 8', 8") of the hollow projection extends into the diaphragm valve seat and the hollow projection (3b, 3b`, 3b") is connected to a fluid channel of the diaphragm seat valve and the hollow projection (3b, 3b`, 3b") being designed to be plugged into or onto an opening of the fluid channel, characterized in that the diaphragm seat valve is designed having a movable closure element which comprises a first closure means corresponding to the diaphragm valve seat .
Vacuum cleaner bag having two layers made of filter material which are connected to one another at the edges on at least three sides in order to form an inner chamber, wherein an inflow opening is formed at least in regions on a fourth side between the two layers , into which inflow opening a connector can be inserted for connection to a vacuum cleaner, and a spring element is provided at the inflow opening , which pretensions the two layers into a closed position characterized in that a hem is provided at the inflow opening on the two layers , into which a closure element and/or a spring element is/are inserted and the spring element is designed as a leaf spring which is bent through approximately 180° at the edge of the inflow opening .
A composition for forming a positive electrode for use in a secondary battery, the composition comprising a positive electrode active material and a conductive material-dispersing agent composite having a particle size distribution D 50 of 0.8 μm to 1.2 μm, the conductive material-dispersing agent composite comprising a conductive material and a dispersing agent, wherein: the conductive material includes a carbon-based material having a specific surface area of 130 m 2 /g or more measured by a nitrogen adsorption method and an oil absorption number of 220 ml/100g or more measured by the characteristic of the carbon-based material to absorb oil; the composition comprises 0.1 wt% to 2 wt%, with respect to its total weight, of the carbon-based material; and the dispersing agent includes a partially hydrogenated nitrile rubber which includes 20 to 50 wt%, with respect to the total weight of the rubber, of repeat units of a hydrogenated conjugated diene-derived structure. the conductive material includes a carbon-based material having a specific surface area of 130 m 2 /g or more measured by a nitrogen adsorption method and an oil absorption number of 220 ml/100g or more measured by the characteristic of the carbon-based material to absorb oil; the composition comprises 0.1 wt% to 2 wt%, with respect to its total weight, of the carbon-based material; and the dispersing agent includes a partially hydrogenated nitrile rubber which includes 20 to 50 wt%, with respect to the total weight of the rubber, of repeat units of a hydrogenated conjugated diene-derived structure.
A method for measuring a substance in a blood sample by an enzymatic method using an oxidizable color reagent, the method comprising bringing the blood sample into contact with a non-ionic surfactant; and then bringing the resultant sample into contact with a betaine-type amphoteric surfactant, to perform an enzymatic reaction by an oxidation enzyme specific for the substance to be measured to produce hydrogen peroxide and a color reaction by an oxidizable color reagent at the same time as the contact or after the contact; wherein the non-ionic surfactant is one kind, or two or more kinds selected from the group consisting of polyoxyethylene polyoxypropylene condensates, polyoxyethylene polyoxypropylene alkyl amine condensates, polyoxyethylene polyoxypropylene diamine condensates, polyoxyethylene alkyl ethers, polyoxyethylene alkyl phenyl ethers, and polyoxyethylene polyalcohol fatty acid esters, and wherein the substance to be measured is uric acid.
A method of fabricating a display device, the method comprising: providing a wiring substrate disposed with an electrode having a plurality of electrode lines; providing a conductive adhesive layer connected to the wiring substrate; coupling a plurality of semiconductor light emitting devices to the conductive adhesive layer , and electrically connecting said plurality of semiconductor light emitting devices to the electrode, wherein the plurality of semiconductor light emitting devices are arranged along a plurality of electrode lines; coating a first photosensitive phosphor material to cover the semiconductor light emitting devices ; curing the coated first photosensitive phosphor material using light emitted from the semiconductor light emitting devices by illumination of semiconductor light emitting devices disposed at some lines of the plurality of electrode lines; removing a non-cured portion of the coated first photosensitive phosphor material to form a phosphor layer covering one surface of at least some of the semiconductor light emitting devices ; coating a second photosensitive phosphor material having a different color from a color of the first photosensitive phosphor material on a region where the non-cured portion of the first photosensitive phosphor material was removed; and curing the second photosensitive phosphor material using light emitted from semiconductor light emitting devices disposed at a different line from the semiconductor light emitting devices disposed at the some lines. providing a wiring substrate disposed with an electrode having a plurality of electrode lines; providing a conductive adhesive layer connected to the wiring substrate; coupling a plurality of semiconductor light emitting devices to the conductive adhesive layer , and electrically connecting said plurality of semiconductor light emitting devices to the electrode, wherein the plurality of semiconductor light emitting devices are arranged along a plurality of electrode lines; coating a first photosensitive phosphor material to cover the semiconductor light emitting devices ; curing the coated first photosensitive phosphor material using light emitted from the semiconductor light emitting devices by illumination of semiconductor light emitting devices disposed at some lines of the plurality of electrode lines; removing a non-cured portion of the coated first photosensitive phosphor material to form a phosphor layer covering one surface of at least some of the semiconductor light emitting devices ; coating a second photosensitive phosphor material having a different color from a color of the first photosensitive phosphor material on a region where the non-cured portion of the first photosensitive phosphor material was removed; and curing the second photosensitive phosphor material using light emitted from semiconductor light emitting devices disposed at a different line from the semiconductor light emitting devices disposed at the some lines.
Mixing device for producing a flowable product, comprising a mixing container , which has a first inlet and an outlet , and a homogenization apparatus in the form of a rotor-stator homogenizer, a conveying apparatus with a suction side (7.1) and a pressure side (7.2), wherein the suction side (7.1) is connected to the outlet of the mixing container and the pressure side (7.2) is selectively connectable to the first inlet of the mixing container , and an addition apparatus for adding an in particular pulverulent additive, said addition apparatus being arranged between the outlet of the mixing container and the suction side (7.1) of the conveying apparatus , characterized in that the homogenization apparatus is arranged on the mixing container in the region of the outlet .
A method comprising: estimating, at an electronic device , a current pose of the electronic device based on feature descriptors of one or more spatial features representing an object in the environment of the electronic device , wherein the feature descriptors are generated based on images captured from one or more visual sensors and non-visual data from one or more non-image sensors; generating, at the electronic device , a three-dimensional representation of the environment of the electronic device based on a plurality of stored maps comprising stored feature descriptors , wherein the plurality of stored maps includes maps that were previously generated by the electronic device during prior mapping sessions; and localizing the estimated current pose based on the three-dimensional representation of the environment to generate a localized pose . estimating, at an electronic device , a current pose of the electronic device based on feature descriptors of one or more spatial features representing an object in the environment of the electronic device , wherein the feature descriptors are generated based on images captured from one or more visual sensors and non-visual data from one or more non-image sensors; generating, at the electronic device , a three-dimensional representation of the environment of the electronic device based on a plurality of stored maps comprising stored feature descriptors , wherein the plurality of stored maps includes maps that were previously generated by the electronic device during prior mapping sessions; and localizing the estimated current pose based on the three-dimensional representation of the environment to generate a localized pose .
A method of controlling a display apparatus, the method comprising: displaying a first page of a plurality of pages; based on a first touch input being sensed while the first page is displayed, displaying the first page and a preview user interface comprising a plurality of preview pages respectively corresponding to the plurality of pages; and based on a second touch input being sensed on a preview page among the plurality of preview pages, simultaneously revising a content in the preview page on which the second touch input is sensed and a content in a page of the plurality of pages corresponding to the preview page, according to the second touch input, while the first page and the preview user interface are displayed; wherein revising a content includes inserting, changing or deleting of an existing content. displaying a first page of a plurality of pages; based on a first touch input being sensed while the first page is displayed, displaying the first page and a preview user interface comprising a plurality of preview pages respectively corresponding to the plurality of pages; and based on a second touch input being sensed on a preview page among the plurality of preview pages, simultaneously revising a content in the preview page on which the second touch input is sensed and a content in a page of the plurality of pages corresponding to the preview page, according to the second touch input, while the first page and the preview user interface are displayed; wherein revising a content includes inserting, changing or deleting of an existing content.
A subsea installation for heating a multiphase effluent circulating inside a subsea shell, comprising at least one pipeline section disposed along a substantially vertical direction, the pipeline section comprising an inner tube , an outer tube disposed around the inner tube while being coaxial therewith, a thermal insulation layer disposed around the outer tube, and a system for heating by induction the outer tube disposed around the thermal insulation layer, the outer tube comprising at a lower end an intake aperture in order to allow circulation of the multiphase effluent from bottom to top in an annular space delimited between the outer tube and the inner tube, and the inner tube opening at an upper end inside the outer tube and emerging at a lower end towards a discharge outlet for the multiphase effluent in order to allow counter-current circulation of the multiphase effluent from top to bottom inside the inner tube.
A method for resource optimization executed by a network node in an Internet-of-Things, IoT, system , comprising: receiving data captured by one or more IoT devices in the IoT system , wherein the data indicates that a game action has occurred at a speed and/or in a direction; predicting , based on the received data , a likelihood that a future event will be detected by the one or more IoT devices in the IoT system under different potential resource allocation and IoT device settings, subject to resource availability constraints; and based on the predicting , adapting IoT device settings in the IoT system for a future time such that the likelihood that the future event will be detected is maximized under the resource availability constraints according to a target optimization function, wherein predicting a likelihood that the future event will be detected comprises predicting whether the future event will occur at a particular future time based on the received data. receiving data captured by one or more IoT devices in the IoT system , wherein the data indicates that a game action has occurred at a speed and/or in a direction; predicting , based on the received data , a likelihood that a future event will be detected by the one or more IoT devices in the IoT system under different potential resource allocation and IoT device settings, subject to resource availability constraints; and based on the predicting , adapting IoT device settings in the IoT system for a future time such that the likelihood that the future event will be detected is maximized under the resource availability constraints according to a target optimization function, wherein predicting a likelihood that the future event will be detected comprises predicting whether the future event will occur at a particular future time based on the received data.
An isolated human factor VIII polypeptide mutant comprising one or more amino acid substitution(s) selected from the group consisting of I86, Y105, Q117, G132, H134, M147 and L152.