mhurhangee/ep-ind-claims huggingface dataset:
An antenna apparatus (100, 200, 300, 400, 500, 600), comprising: a circuit substrate (110, 510); a patch array antenna including an element array and having a free space wavelength of λ, the element array including a line of two or more patch antenna elements arranged on the circuit substrate (110, 510); and a radome (120, 220, 320, 420) configured to accommodate the patch array antenna, wherein a radiation vertical surface is the plane including the direction perpendicular to the circuit substrate (110, 510) from the center of the patch array antenna and the line along which the patch antenna elements are arranged, and wherein an inner wall of the radome (120, 220, 320, 420) is formed to include a region in which a radome thickness in a range in which an angle with respect to the radiation vertical surface when viewed from a center of the patch array antenna is larger than -50° and smaller than +50° is smaller than a radome thickness at a position of ±50°, characterized in that the radome (120, 220, 320, 420) is formed such that an end portion of the radome (120, 220, 320, 420) is perpendicular to the circuit substrate (110, 510), and a distance from a center of the patch array antenna to a center of the end portion in a radome thickness direction of said end portion is 0.85 λ or more and 1.15 λ or less. a circuit substrate (110, 510); a patch array antenna including an element array and having a free space wavelength of λ, the element array including a line of two or more patch antenna elements arranged on the circuit substrate (110, 510); and a radome (120, 220, 320, 420) configured to accommodate the patch array antenna, wherein a radiation vertical surface is the plane including the direction perpendicular to the circuit substrate (110, 510) from the center of the patch array antenna and the line along which the patch antenna elements are arranged, and wherein an inner wall of the radome (120, 220, 320, 420) is formed to include a region in which a radome thickness in a range in which an angle with respect to the radiation vertical surface when viewed from a center of the patch array antenna is larger than -50° and smaller than +50° is smaller than a radome thickness at a position of ±50°, characterized in that the radome (120, 220, 320, 420) is formed such that an end portion of the radome (120, 220, 320, 420) is perpendicular to the circuit substrate (110, 510), and a distance from a center of the patch array antenna to a center of the end portion in a radome thickness direction of said end portion is 0.85 λ or more and 1.15 λ or less.
High-pressure cleaner having an operating element which is arranged in a rotatable manner on a housing of the high-pressure cleaner and which serves for operation of an actuating element which is rotatable about an actuating axis of rotation, characterized in that the operating element and the actuating element are connected in a rotationally conjoint manner to one another via at least one universal joint (3, 4), and in that the at least one universal joint (3, 4) permits movement of the actuating element relative to the operating element in the direction of the actuating axis of rotation.
A method for redirecting communication requests made by user equipment to an access point in a cellular communication system wherein the access point has a shorter communication range then a macro cell in the system, the method comprising sending a communication request from user equipment to the access point; determining whether the access point has reached a maximum capacity; sending a communication rejection signal to the user equipment if the access point has reached capacity; redirecting the communication request into the macro cell in which the access point is positioned; storing the identity of a user who has had a connection request rejection when maximum capacity has been reached; and setting a time limit for the communication request to be redirected to a macro cell, characterised by wherein the communication request is redirected into the macro cell, when a further communication request is sent from the user equipment to the access point within the time limit and when the identity included in the further communication request matches with the stored identity.
A method for determining a topology of a wireless communication network, the method comprising: receiving a plurality of signal strength data respectively measured at a plurality of fixed stations in the network each with respect to its neighbouring fixed stations; receiving sensor data measured at a mobile station operable to communicate with the network, wherein the sensor data comprises signal strength data measured at the mobile station in more than one frequency or frequency bands and at least one of an acceleration data, an orientation data, a direction data, and a mobile station position data; determining positions of the plurality of fixed stations based on the signal strength data measured at the plurality of fixed stations and the sensor data measured at the mobile station; and wherein determining the topology comprises estimating at least one of a distance and a direction, using the at least one of acceleration data, orientation data, direction data, and mobile station position data, between two or more locations of a mobile station at which signal strength data has been measured, to reference positions of the fixed stations with respect to an absolute reference frame. receiving a plurality of signal strength data respectively measured at a plurality of fixed stations in the network each with respect to its neighbouring fixed stations; receiving sensor data measured at a mobile station operable to communicate with the network, wherein the sensor data comprises signal strength data measured at the mobile station in more than one frequency or frequency bands and at least one of an acceleration data, an orientation data, a direction data, and a mobile station position data; determining positions of the plurality of fixed stations based on the signal strength data measured at the plurality of fixed stations and the sensor data measured at the mobile station; and
A label separating apparatus for separating labels which are spaced apart from each other by a given distance and arranged in rows and columns on and peelably adhered to a first continuous substrate in transport, upon determining quality of labels, by transporting defective labels separately from a group of good labels, characterized in that the apparatus comprises: a primary conveyer for transporting said first continuous substrate having labels adhered thereto in rows and columns, said primary conveyer including a transport turn-back member for causing labels in each of the rows concurrently to peel off said first continuous substrate; disposed in the vicinity of said transport turn-back member of the primary conveyer, a conveyer for defective labels for receiving defective labels selectively as adhered to thereon and transporting the defective labels thereby discriminatorily; disposed in a region between said transport turn-back member of the primary conveyer and said conveyer for defective labels, a given number of air-blasting members each adapted to blast air to a label in each of the columns so that a label peeled off the continuous substrate and found defective is oriented in transport towards said conveyer for defective labels; and a label holding means (16, 31) for holding such a defective label oriented in transport by air from said air-blasting member to guide the defective label onto said conveyer for defective labels, said label holding member (16,31) being formed with an air draining vent in a surface including its label holding area. a primary conveyer for transporting said first continuous substrate having labels adhered thereto in rows and columns, said primary conveyer including a transport turn-back member for causing labels in each of the rows concurrently to peel off said first continuous substrate; disposed in the vicinity of said transport turn-back member of the primary conveyer, a conveyer for defective labels for receiving defective labels selectively as adhered to thereon and transporting the defective labels thereby discriminatorily; disposed in a region between said transport turn-back member of the primary conveyer and said conveyer for defective labels, a given number of air-blasting members each adapted to blast air to a label in each of the columns so that a label peeled off the continuous substrate and found defective is oriented in transport towards said conveyer for defective labels; and a label holding means (16, 31) for holding such a defective label oriented in transport by air from said air-blasting member to guide the defective label onto said conveyer for defective labels, said label holding member (16,31) being formed with an air draining vent in a surface including its label holding area.
A method of connecting two panoramic images, the method comprising a portable computing device performing: storing a first panoramic image and one or more further panoramic images (610, 620, 630), each of the panoramic images (300, 610, 620, 630) having associated therewith a respective location corresponding to a capture location of the respective panoramic image; whilst displaying the first panoramic image, receiving a user selection of a point on the first panoramic image, the point relating to where a connection to another panoramic image may be made; identifying a location corresponding to the user-selected point on the first image; identifying and displaying one or more further panoramic images (610, 620, 630) having a respective location proximate to the identified location; in response to receiving a user selection of one of the displayed further panoramic images, simultaneously displaying the selected panoramic image and the first panoramic image; aligning the selected panoramic image with the first panoramic image such that the selected panoramic image is oriented in the same direction as the first panoramic image, wherein the aligning comprises receiving an input from the user indicating that the simultaneously displayed selected and first panoramic images are being displayed in the same direction; storing data representing a connection between the selected panoramic image with the first panoramic image and including alignment information for the first and selected panoramic images. storing a first panoramic image and one or more further panoramic images (610, 620, 630), each of the panoramic images (300, 610, 620, 630) having associated therewith a respective location corresponding to a capture location of the respective panoramic image; whilst displaying the first panoramic image, receiving a user selection of a point on the first panoramic image, the point relating to where a connection to another panoramic image may be made; identifying a location corresponding to the user-selected point on the first image; identifying and displaying one or more further panoramic images (610, 620, 630) having a respective location proximate to the identified location; in response to receiving a user selection of one of the displayed further panoramic images, simultaneously displaying the selected panoramic image and the first panoramic image; aligning the selected panoramic image with the first panoramic image such that the selected panoramic image is oriented in the same direction as the first panoramic image, wherein the aligning comprises receiving an input from the user indicating that the simultaneously displayed selected and first panoramic images are being displayed in the same direction; storing data representing a connection between the selected panoramic image with the first panoramic image and including alignment information for the first and selected panoramic images.
Cooking chamber partition for a cooking appliance, having a hollow body, in which a heating element is preferably located, wherein the hollow body cannot be dismounted non-destructively, characterised in that the cooking chamber partition has at least one pressure relief valve and at least one vacuum valve.
A process for the production of a polyurethane foam by mixing the following to give a reaction mixture: (a) polymeric MDI with less than 40% by weight content of difunctional MDI (b) compounds having at least two hydrogen atoms reactive toward isocyanate groups, comprising at least one polyester polyol and at least one polyether polyol (c) optionally flame retardant (d) blowing agent, comprising at least one aliphatic halogenated hydrocarbon compound composed of 2 to 5 carbon atoms and of at least one hydrogen atom and of at least one fluorine and/or chlorine atom, where the compound comprises at least one carbon-carbon double bond, (e) optionally catalyst and (f) optionally auxiliaries and additional substances, spraying the reaction mixture onto a substrate and allowing said reaction mixture to harden to give the polyurethane foam, where an isocyanate component comprising polyisocyanates (a) and blowing agent, and a polyol component comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component and polyol component, and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component to polyol component is at least 1.2. (a) polymeric MDI with less than 40% by weight content of difunctional MDI (b) compounds having at least two hydrogen atoms reactive toward isocyanate groups, comprising at least one polyester polyol and at least one polyether polyol (c) optionally flame retardant (d) blowing agent, comprising at least one aliphatic halogenated hydrocarbon compound composed of 2 to 5 carbon atoms and of at least one hydrogen atom and of at least one fluorine and/or chlorine atom, where the compound comprises at least one carbon-carbon double bond, (e) optionally catalyst and (f) optionally auxiliaries and additional substances, spraying the reaction mixture onto a substrate and allowing said reaction mixture to harden to give the polyurethane foam, where an isocyanate component comprising polyisocyanates (a) and blowing agent, and a polyol component comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component and polyol component, and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component to polyol component is at least 1.2. an isocyanate component comprising polyisocyanates (a) and blowing agent, and a polyol component comprising compounds (b) having at least two hydrogen atoms reactive toward isocyanate groups are produced, and then isocyanate component and polyol component, and also optionally other compounds (c), (e) and (f) are mixed to give the reaction mixture, where the ratio by mass of isocyanate component to polyol component is at least 1.2.
A biopolymer property analysis chip comprising: - a solid state substrate having a first thin film part and a second thin film part, wherein the solid state substrate has a window where the first thin film part of the solid state substrate is exposed; - at least two electroconductive thin films (130a, 130b) disposed on the first thin film part of the solid state substrate wherein the second thin film part of the solid state substrate is disposed on the at least two electroconductive thin films (130a, 130b); and - at least one nanopore formed in the first thin film part of the solid state substrate and the second thin film part of the solid state substrate; wherein the electroconductive thin films (130a, 130b) are disposed where the at least one nanopore is formed, and wherein the electroconductive thin films (130a, 130b) have an acute-angled edge, the acute-angled edge being disposed facing the opening of the nanopore, and a biopolymer which has penetrated into the at least one nanopore is configured to generate a Raman scattered light when irradiated with an external light, wherein, when the external light is irradiated on the electroconductive thin films (130a, 130b), the electroconductive thin films are configured to generate a near field at the edge facing the opening of the nanopore, and the biopolymer which has penetrated into the at least one nanopore is configured to generate a Raman scattered light and wherein the electroconductive thin films (130a, 130b) are disposed in the middle depth of the nanopore along its central axis on the solid state substrate; wherein the biopolymer property analysis chip further comprises: - a light source; and - a one-dimensional or two-dimensional detector with frame rate of 1 kHz or more, wherein, in use, external light is irradiated on the analysis chip from the light source, and a Raman scattered light from the biopolymer at the analysis chip is detected using - a solid state substrate having a first thin film part and a second thin film part, wherein the solid state substrate has a window where the first thin film part of the solid state substrate is exposed; - at least two electroconductive thin films (130a, 130b) disposed on the first thin film part of the solid state substrate wherein the second thin film part of the solid state substrate is disposed on the at least two electroconductive thin films (130a, 130b); and - at least one nanopore formed in the first thin film part of the solid state substrate and the second thin film part of the solid state substrate; wherein - a light source; and - a one-dimensional or two-dimensional detector with frame rate of 1 kHz or more, wherein, in use, external light is irradiated on the analysis chip from the light source, and a Raman scattered light from the biopolymer at the analysis chip is detected using
An inspection apparatus comprising: a control apparatus; a tractor apparatus comprising a tractor and a drive mechanism connected together, the drive mechanism being connected with the control apparatus; characterized by comprising a tether apparatus disposed on the tractor and being movable from a retracted position toward a deployed position and from the deployed position toward the retracted position; and a buoy apparatus connected with the tether apparatus and comprising a buoy and a camera apparatus, the buoy in a condition submerged in a fluid being structured to apply a buoyant force to the camera apparatus whereby in the deployed position of the tether apparatus the buoy apparatus is in an elevated position situated relatively higher in a vertical direction than in the retracted position of the tether apparatus wherein the buoy apparatus is in another position situated relatively lower in the vertical direction, the camera apparatus being structured to provide a visual output signal to the control apparatus. a control apparatus; a tractor apparatus comprising a tractor and a drive mechanism connected together, the drive mechanism being connected with the control apparatus; characterized by comprising a tether apparatus disposed on the tractor and being movable from a retracted position toward a deployed position and from the deployed position toward the retracted position; and a buoy apparatus connected with the tether apparatus and comprising a buoy and a camera apparatus, the buoy in a condition submerged in a fluid being structured to apply a buoyant force to the camera apparatus whereby in the deployed position of the tether apparatus the buoy apparatus is in an elevated position situated relatively higher in a vertical direction than in the retracted position of the tether apparatus wherein the buoy apparatus is in another position situated relatively lower in the vertical direction, the camera apparatus being structured to provide a visual output signal to the control apparatus.
A method of making a retroreflective article by local lamination, the method comprising: bringing areas of a pre-made reflective layer into contact with portions of protruding areas of at least some transparent microspheres that are borne by a carrier layer and that are partially embedded therein; physically transferring the areas of the pre-made reflective layer to the portions of the protruding areas of the transparent microspheres with which the areas of the pre-made reflective layer are in contact, so that the transferred areas of the pre-made reflective layer are bonded to the portions of the protruding areas of the transparent microspheres; wherein during the physically transferring process the physically transferred areas of the pre-made reflective layer are detached from regions of the pre-made reflective layer that previously laterally surrounded the physically transferred areas; then, disposing a binder precursor on the carrier layer and on the protruding areas of the transparent microspheres; and solidifying the binder precursor to form a retroreflective article comprising a binder layer and in which the physically transferred areas of the pre-made reflective layer are embedded between the transparent microspheres and the binder layer. bringing areas of a pre-made reflective layer into contact with portions of protruding areas of at least some transparent microspheres that are borne by a carrier layer and that are partially embedded therein; physically transferring the areas of the pre-made reflective layer to the portions of the protruding areas of the transparent microspheres with which the areas of the pre-made reflective layer are in contact, so that the transferred areas of the pre-made reflective layer are bonded to the portions of the protruding areas of the transparent microspheres; wherein during the physically transferring process the physically transferred areas of the pre-made reflective layer are detached from regions of the pre-made reflective layer that previously laterally surrounded the physically transferred areas; then, disposing a binder precursor on the carrier layer and on the protruding areas of the transparent microspheres; and solidifying the binder precursor to form a retroreflective article comprising a binder layer and in which the physically transferred areas of the pre-made reflective layer are embedded between the transparent microspheres and the binder layer.
A cellobiohydrolase variant, comprising a variant catalytic domain corresponding to amino acids 1-443 of SEQ ID NO: 1, wherein the variant catalytic domain comprises substitutions at positions corresponding to positions 199, 240, 274, 318, 347, 349, 391, 393, and 394 of SEQ ID NO: 1, wherein the substitution at corresponding position 199 is with Pro, the substitution at corresponding position 240 is with Gly, the substitution at corresponding position 274 is with Tyr, the substitution at corresponding position 318 is with Ala, Pro, or Gly, the substitution at corresponding position 347 is with Pro, the substitution at corresponding position 349 is with Val, the substitution at corresponding position 391 is with Asp, the substitution at corresponding position 393 is with Asp, and the substitution at corresponding position 394 is with Pro, wherein the variant has cellobiohydrolase activity, wherein the variant has an increased thermal activity or increased thermostability relative to the cellobiohydrolase of SEQ ID NO: 1, and wherein the variant has at least 85%, at least 86%, at least 87%, at least 88%, at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, but less than 100%, sequence identity to the catalytic domain of SEQ ID NO: 1.