mhurhangee/patent-ind-claim-en huggingface dataset:
A device marking method for use in a terminal, the method comprising: receiving a marking request forwarded by a gateway device having the terminal bound therewith in advance, when a preset physical button is triggered at a target smart device in a case where the target smart device accesses the gateway device for a first time; and marking the target smart device in a device list currently displayed, according to the marking request, wherein the marking request requests the terminal to mark the target smart device in the device list and the marking request carries a device identification of the target smart device, and the device list contains information of at least one smart device added into a device list of a target device, and after marking the target smart device in the device list currently displayed, stopping marking the target smart device, when the target smart device has been marked for a preset time length. receiving a marking request forwarded by a gateway device having the terminal bound therewith in advance, when a preset physical button is triggered at a target smart device in a case where the target smart device accesses the gateway device for a first time; and marking the target smart device in a device list currently displayed, according to the marking request, wherein the marking request requests the terminal to mark the target smart device in the device list and the marking request carries a device identification of the target smart device, and the device list contains information of at least one smart device added into a device list of a target device, and after marking the target smart device in the device list currently displayed, stopping marking the target smart device, when the target smart device has been marked for a preset time length.
A compound selected from the group consisting of the following CinNp-1 to CinNp-13.
An ecological remediation method for water bodies rich in high-turbidity colloidal particles, characterized by comprising the following steps: Preparing composite flocculant by the following method: Performing the ultrasonic treatment on the mixed solution of starch, Dimethyl Diallyl Ammonium Chloride and NaOH, then mixing and stirring it evenly with acidified chitosan to acquire the cationic starch flocculant, and blending the said cationic starch flocculant with diatomite to prepare the said composite flocculant; the mass ratio of cationic starch flocculant and diatomite thereof is 0.5-1.5:1, preferably 0.9-1.2:1; spreading the composite flocculant on the water surface and stirring it; When the water transparency is greater than or equal to 60 cm after flocculation and sedimentation, adding clay minerals to the water bodies for formation of a thin overlaying layer; After formation of a thin overlaying layer, transplanting submerged plant turf as a whole underwater, so as to restore the submerged plant community; wherein the submerged plant turf is grown separately and then transplanted to the water body. Preparing composite flocculant by the following method: Performing the ultrasonic treatment on the mixed solution of starch, Dimethyl Diallyl Ammonium Chloride and NaOH, then mixing and stirring it evenly with acidified chitosan to acquire the cationic starch flocculant, and blending the said cationic starch flocculant with diatomite to prepare the said composite flocculant; the mass ratio of cationic starch flocculant and diatomite thereof is 0.5-1.5:1, preferably 0.9-1.2:1; spreading the composite flocculant on the water surface and stirring it; When the water transparency is greater than or equal to 60 cm after flocculation and sedimentation, adding clay minerals to the water bodies for formation of a thin overlaying layer; After formation of a thin overlaying layer, transplanting submerged plant turf as a whole underwater, so as to restore the submerged plant community; wherein the submerged plant turf is grown separately and then transplanted to the water body.
An X-ray examination station comprising: a first source of X-ray radiation for whole body scanning of a human body; a first collimator near the first source of X-ray radiation for forming a first fan beam of X-ray radiation; a first vertical linear radiation detector configured to detect the first fan beam; a second source of X-ray radiation installed at mid-height of a person being examined, for scanning a central portion of the human body; a second collimator near the second source of X-ray radiation for forming a second fan beam of X-ray radiation; a second vertical detector of X-ray radiation configured to detect the second fan beam; and, a control unit configured to turn on each of the X-ray radiation sources, wherein the first and the second radiation fan beams are emitted in parallel planes. a first source of X-ray radiation for whole body scanning of a human body; a first collimator near the first source of X-ray radiation for forming a first fan beam of X-ray radiation; a first vertical linear radiation detector configured to detect the first fan beam; a second source of X-ray radiation installed at mid-height of a person being examined, for scanning a central portion of the human body; a second collimator near the second source of X-ray radiation for forming a second fan beam of X-ray radiation; a second vertical detector of X-ray radiation configured to detect the second fan beam; and, a control unit configured to turn on each of the X-ray radiation sources, wherein the first and the second radiation fan beams are emitted in parallel planes.
A turbocharger having a swing vane nozzle assembly , said turbocharger comprising a turbine housing and a bearing housing , and wherein said swing vane nozzle assembly is configured to control an exhaust gas flow to a turbine arranged inside the turbine housing , said swing vane nozzle assembly comprising a front nozzle ring , a rear nozzle ring , and a plurality of pivotable gas flow control vanes arranged between the front nozzle ring and the rear nozzle ring , wherein the rear nozzle ring is radially guided by the turbine housing , a radially outer portion of the front nozzle ring is clamped between the bearing housing and the turbine housing thus forming an axial guidance of the front nozzle ring , wherein the interface between the bearing housing and the turbine housing forms a recess in which the radially outer portion of the front nozzle ring is received, characterized in that the turbine housing has a cylindrical portion arranged radially outside the turbine , the outer periphery of the cylindrical portion forms a supporting surface for the rear nozzle ring , the radial guidance of the rear nozzle ring secures the radial position of the swing vane nozzle assembly , the axial guidance of the front nozzle ring secures the axial position of the swing vane nozzle assembly , and in that an inner periphery of the front nozzle ring is arranged at a distance from the bearing housing such that no radial guidance of the front nozzle ring is provided.
A wear-resistant stave cooler subject to a combination of abrasion, impacts, metallic, corrosion, heat and other effects during its use in a furnace, comprising: a cast copper body in which are cast and to which are bonded at least two uniform circuits of liquid coolant piping , and including a hot face subject to wear during use; a single steel collar embedded, or otherwise anchored or locked into a backside of the cast copper body , and laterally positioned such that the stave cooler will hang straight, and in which all external piping connections of the liquid coolant piping within are collected together as a single group and routed through the single steel collar and an open space inside; and a wear protection barrier disposed on the hot face and that is limited to include at least one of horizontal rows of ribs and channels to retain metal inserts, refractory or refractory bricks, or include pockets that assist in the retention of castable cement and/or accretions frozen in place from a melt, or include an application of an area of hardfacing that is welded on, wherein the single steel collar comprises a carbon steel portion welded midpoint to a stainless steel portion, and the stainless steel portion only is embedded, or otherwise anchored into the backside of the cast copper body . a cast copper body in which are cast and to which are bonded at least two uniform circuits of liquid coolant piping , and including a hot face subject to wear during use; a single steel collar embedded, or otherwise anchored or locked into a backside of the cast copper body , and laterally positioned such that the stave cooler will hang straight, and in which all external piping connections of the liquid coolant piping within are collected together as a single group and routed through the single steel collar and an open space inside; and a wear protection barrier disposed on the hot face and that is limited to include at least one of horizontal rows of ribs and channels to retain metal inserts, refractory or refractory bricks, or include pockets that assist in the retention of castable cement and/or accretions frozen in place from a melt, or include an application of an area of hardfacing that is welded on, wherein the single steel collar comprises a carbon steel portion welded midpoint to a stainless steel portion, and the stainless steel portion only is embedded, or otherwise anchored into the backside of the cast copper body .
A guide RNA for use with a Cas13 protein, wherein the guide RNA target site is a sequence comprised by a SARS-CoV-2 genome, wherein the guide RNA sequence comprises a sequence selected from the group consisting of SEQ ID NOs: 4, 7, 11, 15, 23, 27, 31.
An airbag module (100 ; 200), comprising: an airbag cushion that is folded or wound; an inflator equipped in the airbag cushion ; and a case-shaped housing (110 ; 210) where the airbag cushion is stowed, wherein the housing includes four side walls and an opening formed in an upper side of the housing (110 ; 210); wherein two of the four side walls include an extendable wall section (120a, 120b ; 220a, 220b) respectively, and each of the extendable wall sections (120a, 120b ; 220a, 220b) is positioned and connected on one side wall of four side walls and the two side walls perpendiculary positioned and connected on both sides of the one side wall; wherein the two extendable wall sections (120a, 120b ; 220a, 220b) are in a folded state prior to expansion and deployment of the airbag cushion and are in an extended state when the airbag cushion expands and deploys, and wherein, in the folded state of the extendable wall sections (120a, 120b ; 220a, 220b), the opening of the housing (110 ; 210) is open and in the extended state of the extendable wall sections, a size of the opening formed in the upper side of the housing (110 ; 210) is increased. an airbag cushion that is folded or wound; an inflator equipped in the airbag cushion ; and a case-shaped housing (110 ; 210) where the airbag cushion is stowed, wherein the housing includes four side walls and an opening formed in an upper side of the housing (110 ; 210); wherein two of the four side walls include an extendable wall section (120a, 120b ; 220a, 220b) respectively, and each of the extendable wall sections (120a, 120b ; 220a, 220b) is positioned and connected on one side wall of four side walls and the two side walls perpendiculary positioned and connected on both sides of the one side wall; wherein the two extendable wall sections (120a, 120b ; 220a, 220b) are in a folded state prior to expansion and deployment of the airbag cushion and are in an extended state when the airbag cushion expands and deploys, and wherein, in the folded state of the extendable wall sections (120a, 120b ; 220a, 220b), the opening of the housing (110 ; 210) is open and in the extended state of the extendable wall sections, a size of the opening formed in the upper side of the housing (110 ; 210) is increased.
Method for producing a test body for mechanically destructively testing a materially bonded joining connection, wherein the method comprises the following steps: - providing an areal substrate , - applying at least one test fabric and an adhesive to a substrate surface of the areal substrate , and - curing the adhesive , and therefore a materially bonded joining connection is produced between the test fabric and the substrate surface by way of the cured adhesive , characterized in that a Dutch-weave fabric and/or a calendered square-mesh fabric is provided as the test fabric . - providing an areal substrate , - applying at least one test fabric and an adhesive to a substrate surface of the areal substrate , and - curing the adhesive , and therefore a materially bonded joining connection is produced between the test fabric and the substrate surface by way of the cured adhesive ,
Electrode for energy storage device comprising an electrochromic material as active material and metal nanowires as electricity conducting additive, that is deposited on a transparent substrate.
A heat dissipating structure comprising a plurality of heat dissipating members connected for enhancing heat dissipation from a heat source and a fixation member , characterized in that each of the heat dissipating members comprises a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet , the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet , and a through passage penetrating in a winding direction of the heat conduction sheet , wherein the fixation member fixes the heat dissipating members , is orthogonally arranged to a longitudinal direction of the heat dissipating member and fixes at least one longitudinal end of each of the heat dissipating members , and includes a frame that surrounds the heat dissipating members both in the longitudinal direction and a direction in which the heat dissipating members are arranged. a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet , the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet , and a through passage penetrating in a winding direction of the heat conduction sheet , wherein the fixation member fixes the heat dissipating members , is orthogonally arranged to a longitudinal direction of the heat dissipating member and fixes at least one longitudinal end of each of the heat dissipating members , and includes a frame that surrounds the heat dissipating members both in the longitudinal direction and a direction in which the heat dissipating members are arranged.
An electronic device suitable for performing automatic zoom, comprising: a processor configured to: obtain a plurality of images ; determine global motion between at least two of the plurality of images; determine motion of a tracked object (t n ) between the at least two of the plurality of images based on a full field of view of a camera input; determine a digital zoom region that includes the tracked object (t n ) based on the global motion and the motion of the tracked object, wherein the determined digital zoom region is a sub-region of the full field of view of the camera input; and provide the determined digital zoom region to a display for presentation, characterized in that continued motion determination of the tracked object operates on the whole field of view of a camera input and is not limited to the view within the determined digital zoom region. obtain a plurality of images ; determine global motion between at least two of the plurality of images; determine motion of a tracked object (t n ) between the at least two of the plurality of images based on a full field of view of a camera input; determine a digital zoom region that includes the tracked object (t n ) based on the global motion and the motion of the tracked object, wherein the determined digital zoom region is a sub-region of the full field of view of the camera input; and provide the determined digital zoom region to a display for presentation, characterized in that continued motion determination of the tracked object operates on the whole field of view of a camera input and is not limited to the view within the determined digital zoom region.
Rod for link supports, in particular for absorbing axial tensile and compressive forces and torques, comprising: - a wire portion made from metal having a substantially prismatic, preferably cylindrical, circumferential surface ; and - profiles integrally formed on both rod end regions suitable for securing coupling parts made from plastic or light metal, preferably by injection moulding; - an envelope curve bounding the profiles of the rod end region having a diameter that is at least 6% bigger than the diameter of an envelope curve bounding the prismatic middle rod region ; - characterised in that - the profiles have a profile depth of at least 0.5 mm, preferably approximately 1 mm, at least in certain regions; and the profiles of each rod end region are formed by at least one spindle groove extending around the rod in a spindle shape and this groove extends in the same direction of inclination at both rod end regions ; - and the intermediate region lying between the envelope curve diameter and the profiles of each rod end region has a profile volume of at least 250 mm 3 . - a wire portion made from metal having a substantially prismatic, preferably cylindrical, circumferential surface ; and - profiles integrally formed on both rod end regions suitable for securing coupling parts made from plastic or light metal, preferably by injection moulding; - an envelope curve bounding the profiles of the rod end region having a diameter that is at least 6% bigger than the diameter of an envelope curve bounding the prismatic middle rod region ; - characterised in that - the profiles have a profile depth of at least 0.5 mm, preferably approximately 1 mm, at least in certain regions; and the profiles of each rod end region are formed by at least one spindle groove extending around the rod in a spindle shape and this groove extends in the same direction of inclination at both rod end regions ; - and the intermediate region lying between the envelope curve diameter and the profiles of each rod end region has a profile volume of at least 250 mm 3 .
Encoder configured to perform noise filling on a spectrum of an audio signal by filling the spectrum with noise so as to obtain a noise filled spectrum by generating an intermediary noise signal; identifying contiguous spectral zero-portions of the audio signal's spectrum; determining a function for each contiguous spectral zero-portion depending on the respective contiguous spectral zero-portion's width so that the function is confined to the respective contiguous spectral zero-portion, the respective contiguous spectral zero-portion's spectral position so that a scaling of the function depends on the respective contiguous spectral zero-portion's spectral position such that an amount of the scaling monotonically increases or decreases with increasing frequency of the respective contiguous spectral zero-portion's spectral position; and spectrally shaping, for each contiguous spectral zero-portion, the intermediary noise signal using the function determined for the respective contiguous spectral zero-portion such that the noise exhibits a spectrally global tilt having a negative slope. the respective contiguous spectral zero-portion's width so that the function is confined to the respective contiguous spectral zero-portion, the respective contiguous spectral zero-portion's spectral position so that a scaling of the function depends on the respective contiguous spectral zero-portion's spectral position such that an amount of the scaling monotonically increases or decreases with increasing frequency of the respective contiguous spectral zero-portion's spectral position; and
Medical device for percutaneous or venous access for administering a fluid to a patient or sampling from one, comprising a tubular body from which there projects a cannula supported at a distal end of a cannula holder , a proximal end of said cannula holder being attached to a tube in which said fluid can circulate, said cannula holder being able to move within said body of the device under the force of a resilient thrust element , a stop member of one piece with said body and able to impede said movement of the cannula holder being provided and activating means being provided to allow such movement associated with body of the device acting together with activating counter-means of one piece with said cannula holder , characterised in that said cannula holder has a yielding part between its said distal end and said proximal end , said yielding part allowing said cannula holder to flex within the body of the device when said activating means are activated so as to separate said cannula holder from said stop member to allow axial movement of the cannula holder in the body of the device and disappearing retraction of the cannula needle into this body.
A method, comprising: capturing an image by an image sensor of a payload , the payload being releasably coupled to a carrier ; identifying, by a tracking unit of the payload , a target from the image; detecting, by one or more processors of the payload , a deviation of the target from an expected target position within the image; deriving an angular velocity with respect to a rotation axis of the carrier from the detected deviation of the target; and generating, by the one or more processors, one or more control signals for the carrier based on the detected deviation of the target, the one or more control signals causing the carrier to change a pose of the payload so as to reduce the detected deviation in a subsequent image captured by the image sensor , wherein the one or more control signals include the angular velocity. capturing an image by an image sensor of a payload , the payload being releasably coupled to a carrier ; identifying, by a tracking unit of the payload , a target from the image; detecting, by one or more processors of the payload , a deviation of the target from an expected target position within the image; deriving an angular velocity with respect to a rotation axis of the carrier from the detected deviation of the target; and generating, by the one or more processors, one or more control signals for the carrier based on the detected deviation of the target, the one or more control signals causing the carrier to change a pose of the payload so as to reduce the detected deviation in a subsequent image captured by the image sensor , wherein the one or more control signals include the angular velocity.