mhurhangee/patent-ind-claim-en huggingface dataset:
Articulated connection system for load-bearing elements, comprising an axis , in particular a vertical cylindrical axis , and a plurality of connectors articulated around the axis , each connector comprising two connection plates facing each other, in particular two vertical and/or flat connection plates facing each other, and at least one strip , in particular at least one horizontal and/or flat ring strip , at least partially encircling the axis and connecting the two connection plates , said connection system being characterized in that it comprises at least three connectors , in that the strips, in particular the horizontal and/or flat ring strips of the at least three connectors occupy each, along the axis , in particular vertically along the axis , a different place, and in that the at least three connectors are nested in relation to each other when mounted on the axis .
A waxing apparatus comprising: a dispenser having a compartment for holding wax and a tip having an aperture for dispensing wax on a user skin, said tip including a gradually decreasing cross section in the direction towards said aperture; a heating element mounted over said compartment and over said tip and configured such that temperature inside the tip is higher than temperature inside the compartment. a dispenser having a compartment for holding wax and a tip having an aperture for dispensing wax on a user skin, said tip including a gradually decreasing cross section in the direction towards said aperture; a heating element mounted over said compartment and over said tip and configured such that temperature inside the tip is higher than temperature inside the compartment.
A computer-implemented method comprising: receiving a routing request for an aerial drone to travel to a target location located in or near a structure ; accessing map data comprising line-of-sight data for one or more privacy-sensitive features of the structure, the one or more privacy-sensitive features including one or more windows , one or more openings, or a combination thereof; calculating a privacy-sensitive route for the aerial drone to the target location based on the map data; and providing the privacy-sensitive route in response to the routing request. receiving a routing request for an aerial drone to travel to a target location located in or near a structure ; accessing map data comprising line-of-sight data for one or more privacy-sensitive features of the structure, the one or more privacy-sensitive features including one or more windows , one or more openings, or a combination thereof; calculating a privacy-sensitive route for the aerial drone to the target location based on the map data; and providing the privacy-sensitive route in response to the routing request.
A kettle comprising: a base ; a frame pivotally mounted relative to the base , the frame including first electrical contacts connectable to a power source; a vessel receivable in and removable from the frame , the vessel including an internal element in connection with second electrical contacts; and an opening in the vessel from which liquid can be poured; wherein when the vessel is received in the frame the first electrical contacts make connection with the second electrical contacts such that power is supplied to the internal element to heat water within the vessel and pivoting of the vessel and frame relative to the base allows pouring of liquid from the opening . a base ; a frame pivotally mounted relative to the base , the frame including first electrical contacts connectable to a power source; a vessel receivable in and removable from the frame , the vessel including an internal element in connection with second electrical contacts; and an opening in the vessel from which liquid can be poured; wherein when the vessel is received in the frame the first electrical contacts make connection with the second electrical contacts such that power is supplied to the internal element to heat water within the vessel and pivoting of the vessel and frame relative to the base allows pouring of liquid from the opening .
A container assembly including a container and a chime fixed to each other; the container having: - a peripheral side wall , - a top wall formed with a central neck containing a valve fitting provided with a dip tube which extends into the container, and - a bottom wall formed with a central projection , said central projection defining an internal well inside the container; and the chime having: - an inner hub with a central opening , - a plurality of legs extending outwardly from the inner hub, and - an outer skirt joined to outer ends of the plurality of legs; in which the central opening of the inner hub receives the central projection to locate the inner hub against lateral movement characterised in that - there is no fixation between the inner hub and the central projection; - the container and the chime are fixed to each other by means of an adhesive; and - a bottom end of the dip tube extends into the internal well of the central projection. - a peripheral side wall , - a top wall formed with a central neck containing a valve fitting provided with a dip tube which extends into the container, and - a bottom wall formed with a central projection , said central projection defining an internal well inside the container; - an inner hub with a central opening , - a plurality of legs extending outwardly from the inner hub, and - an outer skirt joined to outer ends of the plurality of legs; - there is no fixation between the inner hub and the central projection; - the container and the chime are fixed to each other by means of an adhesive; and - a bottom end of the dip tube extends into the internal well of the central projection.
A VCSEL illuminator package comprising: one or more VCSELs in a substrate , the one or more VCSELs operable to generate a VCSEL output radiation beam ; an encapsulant that completely encapsulates an output radiation beam emitting region of the one or more VCSELs ; an optical structure integrated in the encapsulant , the optical structure being disposed in a path of the VCSEL output radiation beam and operable to change at least one of a propagation characteristic or intensity distribution of the VCSEL output radiation beam exiting the encapsulant , and further comprising an optical reflector at a surface of the encapsulant , the optical reflector operable to re-direct the VCSEL output radiation beam generated by the one or more VCSELs in a different direction within the encapsulant toward the optical structure or the optical structure and the optical reflector form a combined optical component operable to re-direct the VCSEL output radiation beam generated by the one or more VCSELs in a different direction within the encapsulant , and wherein the optical reflector includes a curved reflecting surface of the encapsulant that is configured to modify a divergence of the VCSEL output radiation beam . one or more VCSELs in a substrate , the one or more VCSELs operable to generate a VCSEL output radiation beam ; an encapsulant that completely encapsulates an output radiation beam emitting region of the one or more VCSELs ; an optical structure integrated in the encapsulant , the optical structure being disposed in a path of the VCSEL output radiation beam and operable to change at least one of a propagation characteristic or intensity distribution of the VCSEL output radiation beam exiting the encapsulant , and further comprising an optical reflector at a surface of the encapsulant , the optical reflector operable to re-direct the VCSEL output radiation beam generated by the one or more VCSELs in a different direction within the encapsulant toward the optical structure or the optical structure and the optical reflector form a combined optical component operable to re-direct the VCSEL output radiation beam generated by the one or more VCSELs in a different direction within the encapsulant , and wherein the optical reflector includes a curved reflecting surface of the encapsulant that is configured to modify a divergence of the VCSEL output radiation beam .
An alkali metal salt of fluorosulfonyl imide represented by the following general formula (I), wherein a content of sulfate ions is 3,000 ppm by mass or less, a content of potassium ions is 10,000 ppm by mass or less, a water content is 500 ppm by mass or less, where M a represents Li, and each of R a and R b represents a fluorine atom. a content of sulfate ions is 3,000 ppm by mass or less, a content of potassium ions is 10,000 ppm by mass or less, a water content is 500 ppm by mass or less, where M a represents Li, and each of R a and R b represents a fluorine atom.
A vision system comprising: a housing with a front mounting face with an aperture aligned relative to an image sensor located within an interior of the housing, the aperture having an outer step having a first diameter; the outer step being constructed and arranged to receive a first lens type base, wherein the outer step defines female threads for mounting the first lens type and a mounting flange on the front mounting face for the first lens type base, wherein the mounting flange includes a pair of threaded holes that are on opposite sides of the mounting flange; and a lens module having a frame assembly and a lens barrel , characterized in that the frame assembly is arranged to engage the mounting flange, and in that the frame assembly further has fasteners aligned with the pair of threaded holes, whereby the lens barrel is mounted relative to the image sensor in an aligned and spaced-apart relationship, free of mating threads between the lens barrel and the housing. a housing with a front mounting face with an aperture aligned relative to an image sensor located within an interior of the housing, the aperture having an outer step having a first diameter; the outer step being constructed and arranged to receive a first lens type base, wherein the outer step defines female threads for mounting the first lens type and a mounting flange on the front mounting face for the first lens type base, wherein the mounting flange includes a pair of threaded holes that are on opposite sides of the mounting flange; and a lens module having a frame assembly and a lens barrel , characterized in that the frame assembly is arranged to engage the mounting flange, and in that the frame assembly further has fasteners aligned with the pair of threaded holes, whereby the lens barrel is mounted relative to the image sensor in an aligned and spaced-apart relationship, free of mating threads between the lens barrel and the housing.
A method of fabricating a lined molded pulp container, the method comprising: generating a molded pulp shell , the shell comprising a top opening , a sidewall , and/or a bottom to the shell so as to define a cavity within the shell ; generating a polymer blank, the blank comprising a neck and an expandable portion; at least partially inserting the expandable portion of the blank into the shell via the top opening ; and extending the expandable portion of the blank to make contact of an interior of the cavity of the pulp shell , heating at least the expandable portion of the blank, applying positive pressure to at least the interior of the expandable portion of the blank, and characterized by concurrently vacuum drawing at least the expandable portion of the blank, wherein the extended expandable portion of the blank forms a lining of the interior of the cavity of the pulp shell , wherein the expanded lining is at least partially fused with the interior of the cavity of the pulp shell . generating a molded pulp shell , the shell comprising a top opening , a sidewall , and/or a bottom to the shell so as to define a cavity within the shell ; generating a polymer blank, the blank comprising a neck and an expandable portion; at least partially inserting the expandable portion of the blank into the shell via the top opening ; and extending the expandable portion of the blank to make contact of an interior of the cavity of the pulp shell , heating at least the expandable portion of the blank, applying positive pressure to at least the interior of the expandable portion of the blank, and characterized by concurrently vacuum drawing at least the expandable portion of the blank, wherein the extended expandable portion of the blank forms a lining of the interior of the cavity of the pulp shell , wherein the expanded lining is at least partially fused with the interior of the cavity of the pulp shell . heating at least the expandable portion of the blank, applying positive pressure to at least the interior of the expandable portion of the blank, and characterized by concurrently vacuum drawing at least the expandable portion of the blank, wherein the extended expandable portion of the blank forms a lining of the interior of the cavity of the pulp shell , wherein the expanded lining is at least partially fused with the interior of the cavity of the pulp shell .
A method for disabling communication in a multiprocessor fabric, the method comprising: receiving a configuration for the multiprocessor fabric, wherein the multiprocessor fabric comprises a plurality of processors and a plurality of communication elements, wherein the configuration specifies disabling of communication paths between one or more of: one or more processors and one or more communication elements; one or more processors and one or more other processors; or one or more communication elements and one or more other communication elements; automatically configuring, in hardware, the multiprocessor fabric to disable the communication paths specified by the configuration, said automatically configuring the multiprocessor fabric comprises setting register values corresponding to one or more processors and/or one or more communication elements to disable the communication paths specified by the configuration; wherein after said automatically configuring, the disabled communication paths are not restorable via software; and operating the multiprocessor fabric to execute a software application, wherein the multiprocessor fabric operates according to the configuration. receiving a configuration for the multiprocessor fabric, wherein the multiprocessor fabric comprises a plurality of processors and a plurality of communication elements, wherein the configuration specifies disabling of communication paths between one or more of: one or more processors and one or more communication elements; one or more processors and one or more other processors; or one or more communication elements and one or more other communication elements; one or more processors and one or more communication elements; one or more processors and one or more other processors; or one or more communication elements and one or more other communication elements; automatically configuring, in hardware, the multiprocessor fabric to disable the communication paths specified by the configuration, said automatically configuring the multiprocessor fabric comprises setting register values corresponding to one or more processors and/or one or more communication elements to disable the communication paths specified by the configuration; wherein after said automatically configuring, the disabled communication paths are not restorable via software; and operating the multiprocessor fabric to execute a software application, wherein the multiprocessor fabric operates according to the configuration.
An atomiser , for use in a showerhead or tap for dispensing a liquid, in particular water or a water-based mixture, comprising a set of at least two, nozzles arranged to create colliding jets of the liquid and thereby create a spray of droplets of the liquid, and a spray shaper for guiding the spray, the atomiser comprising three or four or more nozzles ; wherein the jets of the three or four or more nozzles intersect in one point; the atomiser comprising a nozzle element comprising the nozzles ; wherein a longitudinal axis of a central nozzle of the three or four or more nozzles is coincident with a longitudinal axis of the nozzle element , characterised in that the diameter of the central nozzle is between 60% and 90% of the diameter of the nozzles other than the central nozzle . for use in a showerhead or tap for dispensing a liquid, in particular water or a water-based mixture, comprising a set of at least two, nozzles arranged to create colliding jets of the liquid and thereby create a spray of droplets of the liquid, and a spray shaper for guiding the spray, the atomiser comprising three or four or more nozzles ; wherein the jets of the three or four or more nozzles intersect in one point; the atomiser comprising a nozzle element comprising the nozzles ; wherein a longitudinal axis of a central nozzle of the three or four or more nozzles is coincident with a longitudinal axis of the nozzle element , characterised in that the diameter of the central nozzle is between 60% and 90% of the diameter of the nozzles other than the central nozzle .
A wind turbine system , wherein the wind turbine system is comprising: - a support structure including a tower , - a plurality of wind turbine modules mounted to the support structure wherein each of the plurality of wind turbine modules comprises a rotor , - a control system , wherein the control system is arranged to execute a shutdown procedure, the shutdown procedure comprising: - applying a first control command to a first subset of wind turbine modules for terminating power production therefrom resulting in a thrust force change with a reduced thrust force from the wind on a first part of the support structure carrying the said first subset of wind turbine modules , and - applying a second control command to a second subset of wind turbine modules (2") positioned at a different vertical position relative to the first subset of wind turbine modules , the second control command enabling thrust control (TC) of the second subset of wind turbine modules (2") to oppose a change in bending moment applied to the tower with respect to a horizontal axis intersecting the tower root resulting from the said thrust force change from the wind on the first part of the support structure carrying the said first subset of wind turbine modules - wherein the thrust control (TC) of the second subset of wind turbine modules (2") to oppose the thrust force change actively dampens oscillations of the first part of the support structure carrying the first subset of wind turbine modules. - a support structure including a tower , - a plurality of wind turbine modules mounted to the support structure wherein each of the plurality of wind turbine modules comprises a rotor , - a control system , - applying a first control command to a first subset of wind turbine modules for terminating power production therefrom resulting in a thrust force change with a reduced thrust force from the wind on a first part of the support structure carrying the said first subset of wind turbine modules , and - applying a second control command to a second subset of wind turbine modules (2") positioned at a different vertical position relative to the first subset of wind turbine modules , the second control command enabling thrust control (TC) of the second subset of wind turbine modules (2") to oppose a change in bending moment applied to the tower with respect to a horizontal axis intersecting the tower root resulting from the said thrust force change from the wind on the first part of the support structure carrying the said first subset of wind turbine modules - wherein the thrust control (TC) of the second subset of wind turbine modules (2") to oppose the thrust force change actively dampens oscillations of the first part of the support structure carrying the first subset of wind turbine modules.
A constituent for producing a shock-absorbing composite material, comprising: primary matrix making up 50-80 percent of the constituent by weight and comprising: 5-7 wt% vinyl acetate; 45-63 wt% ethylene / vinyl acetate copolymer; secondary matrix making up 10-40 percent of the constituent by weight and comprising: polyethylene; styrene-butadiene rubber; thermoplastic elastomer; and additive making up 1-20 percent of the constituent by weight. primary matrix making up 50-80 percent of the constituent by weight and comprising: 5-7 wt% vinyl acetate; 45-63 wt% ethylene / vinyl acetate copolymer; 5-7 wt% vinyl acetate; 45-63 wt% ethylene / vinyl acetate copolymer; secondary matrix making up 10-40 percent of the constituent by weight and comprising: polyethylene; styrene-butadiene rubber; thermoplastic elastomer; and polyethylene; styrene-butadiene rubber; thermoplastic elastomer; and additive making up 1-20 percent of the constituent by weight.
Sealing plate for a suction block for fixing work pieces to a fixing beam or fastening table via usage of underpressure, whereby the sealing plate is stretched on at least one contact surface of the suction block and has a sealing lip at its circumference; the sealing plate has a membrane and the membrane allows for air passing through, wherein the membrane is made from the same material as the rest of the sealing plate or the sealing plate is made from a two-component material, in which case the membrane is made from a material more elastic than the rest of the sealing plate , characterized in that the membrane has a joint at its edge, which joint has a smaller thickness than the thickness (d) of the membrane .
An alcoholic drink composition for shortening drunkenness time, comprising: an alcohol drink; and a plurality of gold flakes formed by a plurality of gold nanoparticles; wherein the gold flakes are mixed into the alcohol drink by a specific mixing ratio, and the specific mixing ratio being ranged between 6.6 mg/600ml to 66 mg/600ml; wherein the alcoholic drink composition is able to shorten the drunkenness time by at least 20 minutes. an alcohol drink; and a plurality of gold flakes formed by a plurality of gold nanoparticles; wherein the gold flakes are mixed into the alcohol drink by a specific mixing ratio, and the specific mixing ratio being ranged between 6.6 mg/600ml to 66 mg/600ml; wherein the alcoholic drink composition is able to shorten the drunkenness time by at least 20 minutes.
A soil sample treatment apparatus adapted to supply a soil sample or soil samples with a gas or gas mixture comprising a mixing chamber and at least one assay container mutually in fluid communication in a closed loop, said mixing chamber comprises a supply extension for primary gas, a discharge extension for secondary gas and a supply extension for secondary gas, wherein said supply extension for primary gas is attached inside the mixing chamber to a supply pipe being separable from the supply extension for primary gas by means of a blocking means , wherein an impelling means is arranged at the entrance of the discharge extension for secondary gas that impels gas or gas mixture from the mixing chamber through the discharge extension for secondary gas into a duct system, and wherein the mixing chamber is provided with a control device which is adapted to control both the blocking means and the impelling means , and at least one metering means is located inside the mixing chamber which is data-linked with said control device , wherein the supply extension for secondary gas is provided at the location before entering the mixing chamber with an additional metering means which is data-linked with said control device characterized in that a gas chamber is provided directly under a receptacle of said assay container and wherein a bottom of the receptacle as well as a bottom of the gas chamber is perforated enabling unobstructed flow of gas and/or fluid out of and into the soil sample to be treated, wherein each assay container is spaced from the bottom of the gas chamber which is arranged in a bin filled with a liquid preventing gas to leak through the perforated bottom of the gas chamber .