mhurhangee/patent-ind-claim-en huggingface dataset:
Cassette filter having a plurality of filter media packs , wherein two filter media packs in each case are arranged in a v-shape, and a gas flows through (L) the filter media packs from a dirty gas side (A) of the filter to a clean gas side (B) of the filter in order to clean said gas, having a frame for receiving the filter media packs , and having protective grids , wherein a respective protective grid is arranged on each filter media pack on the clean gas side (A), characterized in that the protective grids have a grid structure with closed curves of different sizes arranged centrically around at least one centre of the protective grid and with a multiplicity of connectors , which are oriented radially with respect to the centre of the protective grid and connect the closed curves to one another and in that the closed curves are designed as concentric ovals, in particular as circles or ellipses. the protective grids have a grid structure with closed curves of different sizes arranged centrically around at least one centre of the protective grid and with a multiplicity of connectors , which are oriented radially with respect to the centre of the protective grid and connect the closed curves to one another and in that the closed curves are designed as concentric ovals, in particular as circles or ellipses.
Utility vehicle having a power supply unit , wherein the power supply unit has - an electrical energy store ; - a generator , - an interface to at least one electrical load of the utility vehicle ; - a power line unit designed to connect the energy store and the generator to the interface , wherein the power line unit has a switch for electrically isolating the generator from the interface ; and - a sensor unit designed to detect a fault in the electrical energy store and/or in at least one line of the power line unit and/or in the generator and to respond to the detected fault by actuating the switch in order to isolate the generator from the interface , in particular wherein the electrical energy store remains electrically connected to the interface , characterized in that the utility vehicle has two steerable axles the deflection of which is caused in each case by means of a steering transmission motor , wherein a steering transmission motor of a first of the steerable axle is supplied with electrical energy by the generator when the switch is open, and a steering transmission motor of the second of the steerable axles is electrically coupled to the electrical energy store . - an electrical energy store ; - a generator , - an interface to at least one electrical load of the utility vehicle ; - a power line unit designed to connect the energy store and the generator to the interface , wherein the power line unit has a switch for electrically isolating the generator from the interface ; and - a sensor unit designed to detect a fault in the electrical energy store and/or in at least one line of the power line unit and/or in the generator and to respond to the detected fault by actuating the switch in order to isolate the generator from the interface , in particular wherein the electrical energy store remains electrically connected to the interface ,
A plated steel sheet having a fine and even plating texture, the plated steel sheet comprising: a Zn-based plating layer formed on a steel sheet by hot-dipping, then contact-type pressure cooling, wherein the Zn-based plating layer includes a Zn single-phase structure having an average size of more than 0 to 5 μm or less, a Zn single-phase distribution B/A in the plating layer satisfies a condition of being 0.5 to 1.0, and thus the Zn single-phase is formed having an even distribution with respect to a thickness direction of the plating layer, wherein A is a fraction of the entire Zn single-phase with respect to the thickness direction of the plating layer and B is a fraction of the Zn single-phase in an outer surface layer portion of the plating layer, wherein the outer surface layer portion may mean a region within about 1/2 the entire thickness of the plating layer on the outer surface of the plating layer along the thickness direction of the plating layer, wherein the fraction of the Zn single-phase of the plating layer is 15 to 40% by area, and wherein the Zn-based plating layer consists of 0.1 to 7 wt% of Mg, 1 to 9 wt% of Al, and the balance of Zn, and wherein the Zn-based layer has a thickness of 5 to 50 μm, wherein the fraction of Zn single-phase is determined by calculating a surface fraction of the Zn single-phase through an image analyzer from an image of the cross-sectional of the plating layer observed using an optical microscope. a Zn-based plating layer formed on a steel sheet by hot-dipping, then contact-type pressure cooling, wherein the Zn-based plating layer includes a Zn single-phase structure having an average size of more than 0 to 5 μm or less, a Zn single-phase distribution B/A in the plating layer satisfies a condition of being 0.5 to 1.0, and thus the Zn single-phase is formed having an even distribution with respect to a thickness direction of the plating layer, wherein A is a fraction of the entire Zn single-phase with respect to the thickness direction of the plating layer and B is a fraction of the Zn single-phase in an outer surface layer portion of the plating layer, wherein the outer surface layer portion may mean a region within about 1/2 the entire thickness of the plating layer on the outer surface of the plating layer along the thickness direction of the plating layer, wherein the fraction of the Zn single-phase of the plating layer is 15 to 40% by area, and wherein the Zn-based plating layer consists of 0.1 to 7 wt% of Mg, 1 to 9 wt% of Al, and the balance of Zn, and wherein the Zn-based layer has a thickness of 5 to 50 μm, wherein the fraction of Zn single-phase is determined by calculating a surface fraction of the Zn single-phase through an image analyzer from an image of the cross-sectional of the plating layer observed using an optical microscope.
A sole , comprising: an outer sole assembly including a plurality of outer sole members spaced apart from each other by a plurality of gaps ; a middle sole assembly defining a plurality of grooves ; and an intermediate layer comprising an elastomer, wherein the intermediate layer is disposed between the outer sole assembly and the middle sole assembly , and the intermediate layer connects the middle sole assembly to the outer sole assembly ; wherein one of the plurality of gaps is vertically aligned with a respective one of the plurality of grooves , wherein the intermediate layer is more elastic than each of the plurality of outer sole members ; the intermediate layer is more elastic than the middle sole assembly ; characterized in that the intermediate layer includes a continuous medial side and a plurality of finger-like portions extending from the continuous medial side toward a lateral side of sole. an outer sole assembly including a plurality of outer sole members spaced apart from each other by a plurality of gaps ; a middle sole assembly defining a plurality of grooves ; and an intermediate layer comprising an elastomer, wherein the intermediate layer is disposed between the outer sole assembly and the middle sole assembly , and the intermediate layer connects the middle sole assembly to the outer sole assembly ; wherein one of the plurality of gaps is vertically aligned with a respective one of the plurality of grooves , wherein the intermediate layer is more elastic than each of the plurality of outer sole members ; the intermediate layer is more elastic than the middle sole assembly ; characterized in that the intermediate layer includes a continuous medial side and a plurality of finger-like portions extending from the continuous medial side toward a lateral side of sole.
A method of capturing content on an erasable board or surface, the method comprising: Inputting camera data for a succession of image frames, wherein the camera data is from a camera configured to capture images of the erasable board or surface and the image frames comprise successive images of the erasable board or surface from the camera ; processing data from the image frames to remove parts of the image frames corresponding to parts of a user or corresponding to arts of a user pen, to determine a succession of processed images of content on the board or surface, wherein the user or the user pen is writing or drawing on the erasable board or surface; then determining a content metric for each processed image; determining key frame capture times from the content metrics for the processed images; and capturing processed images at the key frame capture times, characterized in that the content metric is a metric of the amount of content in the processed image, and wherein the content metric comprises a measure of pixel values in the processed image. Inputting camera data for a succession of image frames, wherein the camera data is from a camera configured to capture images of the erasable board or surface and the image frames comprise successive images of the erasable board or surface from the camera ; processing data from the image frames to remove parts of the image frames corresponding to parts of a user or corresponding to arts of a user pen, to determine a succession of processed images of content on the board or surface, wherein the user or the user pen is writing or drawing on the erasable board or surface; then determining a content metric for each processed image; determining key frame capture times from the content metrics for the processed images; and capturing processed images at the key frame capture times, characterized in that the content metric is a metric of the amount of content in the processed image, and wherein the content metric comprises a measure of pixel values in the processed image.
A wearable environmental sensor device comprising: a housing including a sealed section , a protective structure , and a housing wall which separates the sealed section and the protective structure from each other and which is configured to be in contact with an environment; a sensor substrate ; an environmental sensor mounted on a front face of the sensor substrate ; and an attaching part for attaching the sensor substrate to the housing wall , wherein the environmental sensor and the sensor substrate are arranged within the protective structure , the protective structure includes a plurality of ventilating holes , the environmental sensor is arranged to face an opening of at least one of the plurality of ventilating holes , and the attaching part comes into contact only with an edge and a portion of a back face of the sensor substrate . a housing including a sealed section , a protective structure , and a housing wall which separates the sealed section and the protective structure from each other and which is configured to be in contact with an environment; a sensor substrate ; an environmental sensor mounted on a front face of the sensor substrate ; and an attaching part for attaching the sensor substrate to the housing wall , wherein the environmental sensor and the sensor substrate are arranged within the protective structure , the protective structure includes a plurality of ventilating holes , the environmental sensor is arranged to face an opening of at least one of the plurality of ventilating holes , and the attaching part comes into contact only with an edge and a portion of a back face of the sensor substrate .
A control device comprising an air bubble controller configured to control a blow mechanism configured to blow an air bubble (B) out through an air outlet formed in a hull , wherein the hull includes a main engine configured to cause a propeller to rotate; characterized by a resistance calculator configured to calculate a hull resistance of the hull , wherein the resistance calculator is configured to calculate the hull resistance based on at least one of a ship velocity of the hull , information on weather and oceanic conditions the hull is confronting, a draft of the hull , and a rudder angle of the hull , and based further on an output from the main engine at present, and the air bubble controller is configured to start blowing the air bubble (B) outward or to increase an amount of the air bubble (B) blown outward when the hull resistance calculated by the resistance calculator is higher than a reference value (R1). an air bubble controller configured to control a blow mechanism configured to blow an air bubble (B) out through an air outlet formed in a hull , wherein the hull includes a main engine configured to cause a propeller to rotate; characterized by a resistance calculator configured to calculate a hull resistance of the hull , wherein the resistance calculator is configured to calculate the hull resistance based on at least one of a ship velocity of the hull , information on weather and oceanic conditions the hull is confronting, a draft of the hull , and a rudder angle of the hull , and based further on an output from the main engine at present, and the air bubble controller is configured to start blowing the air bubble (B) outward or to increase an amount of the air bubble (B) blown outward when the hull resistance calculated by the resistance calculator is higher than a reference value (R1).
Cable drive device of an adjustment system , in particular of a window lifter, of a motor vehicle, having an actuating drive and a cable drive housing in which a cable drum which is coupled, or able to be coupled, to the actuating drive and rotatable about a rotation axis (D) and onto which a traction cable is wound, or able to be wound, is received; - wherein the cable drum for receiving the traction cable has a drum casing having a helical or spiral cable groove which on at least one end side of the cable drum opens into a nipple chamber for receiving a cable nipple fastened to the end side of the traction cable ; - wherein the nipple chamber has a chamber opening as well as chamber walls that run in the axial direction (A) and are mutually spaced apart in the radial direction (R); - wherein the nipple chamber on at least one of the chamber walls has a delimiting element , the cable nipple when introduced into the nipple chamber by way of the chamber opening engaging below said delimiting element ; and - wherein the available width (w) between the chamber walls in the region of the delimiting element is smaller than the diameter or than the spacing between opposite nipple faces of the cable nipple ; and - characterized in that the delimiting element in the region of the chamber opening in the tangential direction (T) subdivides the nipple chamber into two chamber regions of which the tangential extent (L T1 , L T2 ) is smaller than the length (Ls) of the cable nipple . - wherein the cable drum for receiving the traction cable has a drum casing having a helical or spiral cable groove which on at least one end side of the cable drum opens into a nipple chamber for receiving a cable nipple fastened to the end side of the traction cable ; - wherein the nipple chamber has a chamber opening as well as chamber walls that run in the axial direction (A) and are mutually spaced apart in the radial direction (R); - wherein the nipple chamber on at least one of the chamber walls has a delimiting element , the cable nipple when introduced into the nipple chamber by way of the chamber opening engaging below said delimiting element ; and - wherein the available width (w) between the chamber walls in the region of the delimiting element is smaller than the diameter or than the spacing between opposite nipple faces of the cable nipple ; and - characterized in that
A pharmaceutical composition for use in a method for reducing the risk of a major adverse cardiovascular event (MACE) in subjects with type 2 diabetes mellitus and high cardiovascular risk, wherein said MACE is selected from the group consisting of a. cardiovascular (CV) death, b. non-fatal myocardial infarction (MI), c. non-fatal stroke, d. revascularisation, e. hospitalisation for heart failure, and f. hospitalisation for unstable angina pectoris; and said pharmaceutical composition consists of semaglutide and one or more pharmaceutically acceptable excipients. a. cardiovascular (CV) death, b. non-fatal myocardial infarction (MI), c. non-fatal stroke, d. revascularisation, e. hospitalisation for heart failure, and f. hospitalisation for unstable angina pectoris; and
An insulation unit for a passage section between adjacent vehicles in an articulated vehicle, comprising: - a plurality of fixing devices, each fixing device comprising a first and a second fixing element, each first and second fixing element having a body comprising a seat and a pin , - at least a first structure comprising a plurality of first slats and a laminar element connected to the plurality of first slats , each first slat having at least a first and a second cavities , - at least a second structure comprising a plurality of second slats and a laminar element connected to the plurality of second slats , each second slat having at least a first and a second cavities , wherein each second slat can be coupled to the respective first slat by means of a fixing device in the plurality of fixing devices, the pins of the first and second fixing elements being insertable, freely passing through, respectively, inside the first and second cavities of the first and second slat and reversibly coupled to the seats respectively of the second and first fixing elements. - a plurality of fixing devices, each fixing device comprising a first and a second fixing element, each first and second fixing element having a body comprising a seat and a pin , - at least a first structure comprising a plurality of first slats and a laminar element connected to the plurality of first slats , each first slat having at least a first and a second cavities , - at least a second structure comprising a plurality of second slats and a laminar element connected to the plurality of second slats , each second slat having at least a first and a second cavities ,
A medical system for short-term replacement and/or repair of a native heart valve comprising an artificial valve , a catheter , a device for collecting and arranging chordae and/or leaflets to hold and/or stabilize an artificial valve in a desired position, the device comprising a unit for grasping a plurality of chordae and/or leaflets and arranging the plurality of chordae towards the artificial valve , characterized in that the device includes a clip forming a helix, wherein the clip is deployable from the catheter to surround the artificial valve and to lock the chordae in position towards the artificial valve . an artificial valve , a catheter , a device for collecting and arranging chordae and/or leaflets to hold and/or stabilize an artificial valve in a desired position, the device comprising a unit for grasping a plurality of chordae and/or leaflets and arranging the plurality of chordae towards the artificial valve , characterized in that the device includes a clip forming a helix, wherein the clip is deployable from the catheter to surround the artificial valve and to lock the chordae in position towards the artificial valve .
A method for collecting data to predict an infant's risk of developing an allergy to an allergen in infancy by quantitatively measuring each of IgG1 and IgE antibody titers against the allergen in a sample collected from the infant; and referring to an evaluation criterion established based on a level of immunoglobulin class switching from IgG1 to IgE, which has been previously statistically processed, the method comprising the following steps (a) to (d): (a) quantitatively measuring each of IgG1 and IgE antibody titers against the allergen in the sample collected from the infant; (b) creating a scattergram by plotting the IgG1 antibody titer on an X axis and the IgE antibody titer on a Y axis; (c) calculating a correlation between the IgG1 antibody titer and the IgE antibody titer by regression analysis into: linear function 1 (Y1 = aX1 - b wherein a > 0, b > 0) applied to data of an infant having a low risk of developing an allergy to the allergen; and/or linear function 2 (Y2 = cX2 - d wherein c > a) applied to data of an infant having a high risk of developing an allergy to the allergen; and (d) predicting that an infant belonging to a block to which linear function 1 is applied has a low risk of developing an allergy to the allergen and an infant belonging to a block to which linear function 2 is applied has a high risk of developing an allergy to the allergen. (a) quantitatively measuring each of IgG1 and IgE antibody titers against the allergen in the sample collected from the infant; (b) creating a scattergram by plotting the IgG1 antibody titer on an X axis and the IgE antibody titer on a Y axis; (c) calculating a correlation between the IgG1 antibody titer and the IgE antibody titer by regression analysis into: linear function 1 (Y1 = aX1 - b wherein a > 0, b > 0) applied to data of an infant having a low risk of developing an allergy to the allergen; and/or linear function 2 (Y2 = cX2 - d wherein c > a) applied to data of an infant having a high risk of developing an allergy to the allergen; and (d) predicting that an infant belonging to a block to which linear function 1 is applied has a low risk of developing an allergy to the allergen and an infant belonging to a block to which linear function 2 is applied has a high risk of developing an allergy to the allergen.
A method of wireless communication at a user equipment, UE, , comprising: obtaining information configuring an uplink data transmission and a repetition of the uplink data transmission; sending the uplink data transmission to a base station; and terminating the repetition of the uplink data transmission in response to reception of downlink information in a downlink control channel, wherein the repetition is terminated after a time gap following a control resource set, CORESET, where the downlink control channel is received; wherein the downlink information indicates a hybrid automatic repeat request, HARQ, acknowledgment, HARQ-ACK; and the method is characterized in : wherein the downlink information includes a frequency domain resource assignment, FDRA, a modulation and coding scheme, MCS, and other parameters, and the HARQ-ACK is indicated by a first preconfigured bit value of the FDRA or of the MCS and a second preconfigured bit value of the other parameters, the second preconfigured bit value being different than the first preconfigured bit value. obtaining information configuring an uplink data transmission and a repetition of the uplink data transmission; sending the uplink data transmission to a base station; and terminating the repetition of the uplink data transmission in response to reception of downlink information in a downlink control channel, wherein the repetition is terminated after a time gap following a control resource set, CORESET, where the downlink control channel is received; wherein the downlink information indicates a hybrid automatic repeat request, HARQ, acknowledgment, HARQ-ACK; and the method is characterized in : wherein the downlink information includes a frequency domain resource assignment, FDRA, a modulation and coding scheme, MCS, and other parameters, and the HARQ-ACK is indicated by a first preconfigured bit value of the FDRA or of the MCS and a second preconfigured bit value of the other parameters, the second preconfigured bit value being different than the first preconfigured bit value.