mhurhangee/patent-ind-claim-en huggingface dataset:
A suction device, comprising a body , wherein a cavity is disposed in the body , the cavity has a closed end face and an open end face , and the open end face forms an end face used for the suction device to suck a workpiece (C), wherein a tangential nozzle is disposed on a sidewall surface of the cavity , an external fluid enters the cavity through the tangential nozzle along a tangential direction of the cavity , and the open end face includes an outer edge configured to contact the workpiece (C) being sucked, characterized in that a suction hole is disposed on the closed end face of the cavity , the suction hole is connected to a suction unit , and the suction unit sucks the fluid in the cavity through the suction hole .
Dialysis treatment unit having a preparation unit for dialysis solution, having at least one connecting means by which a concentrate line of the preparation unit can be connected to a line means of a central concentrate supply system , having at least one valve in the concentrate line , by means of which the transfer of concentrate from the connecting means into the concentrate line can be controlled by the opening of the valve by a control unit of the dialysis treatment unit , characterized in that the control unit is configured to cause the transfer of concentrate from the connecting means into the concentrate line during a rinsing or cleaning process in order to prevent crystal formation in the connecting means .
A governor assembly for an elevator system, comprising: a stationary shaft ; a sheave arranged on the stationary shaft and rotatable on the stationary shaft ; a core ring arranged on one side of the sheave on the stationary shaft and associated with a safety apparatus; and characterized by a lock mechanism comprising a plurality of rockers , wherein each rocker comprises a first end pivotably connected to the sheave and a second end connected to a respective roller , the plurality of rockers are connected by connecting rods such that the plurality of rockers can be pivoted synchronously between a first position where the respective roller is separated from the core ring and a second position where the respective roller is jointed to the core ring , and in the second position, each roller rotates along with the sheave to drive the core ring , thus triggering the safety apparatus. a stationary shaft ; a sheave arranged on the stationary shaft and rotatable on the stationary shaft ; a core ring arranged on one side of the sheave on the stationary shaft and associated with a safety apparatus; and characterized by a lock mechanism comprising a plurality of rockers , wherein each rocker comprises a first end pivotably connected to the sheave and a second end connected to a respective roller , the plurality of rockers are connected by connecting rods such that the plurality of rockers can be pivoted synchronously between a first position where the respective roller is separated from the core ring and a second position where the respective roller is jointed to the core ring , and in the second position, each roller rotates along with the sheave to drive the core ring , thus triggering the safety apparatus.
A granule comprising a core and a protective coating, wherein: (a) the core comprises an amylase, a lipase, a protease a cellulase, a mannanase or a pectate lyase in an amount of 0.0005-50% active enzyme protein by weight relative to the core, and (b) the core or the coating comprises a peroxide decomposing catalyst selected from the group consisting of a catalase and a salt of V, Co, Mn, or Fe, in an amount of 0.001-5% by weight relative to the core, and (c) the core comprises a salt of a divalent or trivalent cation in an amount of 0.1-15% as anhydrous salt by weight of the core, and (d) the core or the coating comprises an acidic buffer in an amount of 0.1-10% by weight relative to the core, and (e) the coating comprises a salt wherein the coating makes up 5-70% by weight relative to the core and comprises at least 60% by weight w/w of a salt having a constant humidity at 20°C of at least 60%. (a) the core comprises an amylase, a lipase, a protease a cellulase, a mannanase or a pectate lyase in an amount of 0.0005-50% active enzyme protein by weight relative to the core, and (b) the core or the coating comprises a peroxide decomposing catalyst selected from the group consisting of a catalase and a salt of V, Co, Mn, or Fe, in an amount of 0.001-5% by weight relative to the core, and (c) the core comprises a salt of a divalent or trivalent cation in an amount of 0.1-15% as anhydrous salt by weight of the core, and (d) the core or the coating comprises an acidic buffer in an amount of 0.1-10% by weight relative to the core, and (e) the coating comprises a salt wherein the coating makes up 5-70% by weight relative to the core and comprises at least 60% by weight w/w of a salt having a constant humidity at 20°C of at least 60%.
A method of forming an isocyanate-functional polymer component, the method comprising: forming a first mixture by mixing a recycled polyurethane article in solid form and a first isocyanate component having isocyanate-functional groups; heating the first mixture to a temperature sufficient to transform the recycled polyurethane article in solid form to a recycled polyurethane article in liquid form; and reacting the recycled polyurethane component in the liquid form with the first isocyanate component at the temperature for a time sufficient to form the isocyanate-functional polymer component, and removing insoluble solid particles from the isocyanate-functional polymer component, wherein the isocyanate-functional group content (NCO content) of the isocyanate-functional polymer component is greater than zero and is less than an NCO content of the first isocyanate component, wherein the NCO content of the isocyanate-functional polymer component and the NCO content of the first isocyanate component are each determined according to ASTM D2572. forming a first mixture by mixing a recycled polyurethane article in solid form and a first isocyanate component having isocyanate-functional groups; heating the first mixture to a temperature sufficient to transform the recycled polyurethane article in solid form to a recycled polyurethane article in liquid form; and reacting the recycled polyurethane component in the liquid form with the first isocyanate component at the temperature for a time sufficient to form the isocyanate-functional polymer component, and removing insoluble solid particles from the isocyanate-functional polymer component, wherein the isocyanate-functional group content (NCO content) of the isocyanate-functional polymer component is greater than zero and is less than an NCO content of the first isocyanate component, wherein the NCO content of the isocyanate-functional polymer component and the NCO content of the first isocyanate component are each determined according to ASTM D2572.
A device , comprising: a housing ; a processor card disposed inside the housing, the processor card comprising a connector which extends from an edge of the housing; a heat sink disposed inside the housing and configured to dissipate heat from the processor card ; a fan disposed inside the housing to disperse heat from the heat sink ; and a blind mate connector arranged to provide power connection to the fan , the housing configured to install into a chassis of the computer such that, upon installation of the housing into the chassis , an edge of the processor card mates with a connector on a circuit board of the computer and the blind mate connector mates with a blind mate connector on the chassis to automatically connect the fan to a power source of the computer. a housing ; a processor card disposed inside the housing, the processor card comprising a connector which extends from an edge of the housing; a heat sink disposed inside the housing and configured to dissipate heat from the processor card ; a fan disposed inside the housing to disperse heat from the heat sink ; and a blind mate connector arranged to provide power connection to the fan , the housing configured to install into a chassis of the computer such that, upon installation of the housing into the chassis , an edge of the processor card mates with a connector on a circuit board of the computer and the blind mate connector mates with a blind mate connector on the chassis to automatically connect the fan to a power source of the computer.
A splicing screen , comprising: a flexible screen ; a hard LED screen ; a flexible circuit board , a signal line in the hard LED screen being bonded to the flexible circuit board , and a signal line in the flexible circuit board being bonded to the flexible screen , characterized in that the flexible screen has an opening running through the flexible screen , and the hard LED screen is provided in the opening . a flexible screen ; a hard LED screen ; a flexible circuit board , a signal line in the hard LED screen being bonded to the flexible circuit board , and a signal line in the flexible circuit board being bonded to the flexible screen , characterized in that the flexible screen has an opening running through the flexible screen , and the hard LED screen is provided in the opening .
Tower device for a wind turbine, comprising a hollow cylindrical tower structure , comprising: - at least one opening provided with the tower structure, - at least one marking device supporting element , which is adapted to support or supports at least one marking device for visually marking the tower structure at its outer circumference, with - the marking device supporting element being adapted to be removably attachable to the inner circumference of the tower structure by at least one attachment means , whereby - in an attached state of the marking device supporting element , the marking device supporting element is removably attached to the inner circumference of the tower structure in such a manner that the marking device is adapted to penetrate or penetrates through the opening of the tower structure so as to be disposed at the outer circumference of the tower structure , characterised in that the opening is provided with a, particularly ring-like, wall reinforcement element at least partially reinforcing the wall thickness of the tower structure so as to increase the mechanical stability of the tower structure ,wherein the marking device supporting element comprises a base body being built as a, particularly circularly or ovally shaped, plate and a mounting flange attached to the wall reinforcement element . - at least one opening provided with the tower structure, - at least one marking device supporting element , which is adapted to support or supports at least one marking device for visually marking the tower structure at its outer circumference, with - the marking device supporting element being adapted to be removably attachable to the inner circumference of the tower structure by at least one attachment means , whereby - in an attached state of the marking device supporting element , the marking device supporting element is removably attached to the inner circumference of the tower structure in such a manner that the marking device is adapted to penetrate or penetrates through the opening of the tower structure so as to be disposed at the outer circumference of the tower structure , characterised in that the opening is provided with a, particularly ring-like, wall reinforcement element at least partially reinforcing the wall thickness of the tower structure so as to increase the mechanical stability of the tower structure ,wherein the marking device supporting element comprises a base body being built as a, particularly circularly or ovally shaped, plate and a mounting flange attached to the wall reinforcement element .
An end effector assembly of a tissue-resecting device, the end effector assembly comprising: an outer shaft including a hub housing disposed about a proximal end portion thereof; an inner shaft disposed within and rotatable relative to the outer shaft , the inner shaft including a distal driver disposed about a proximal end portion thereof; a proximal driver slidably coupled to the distal driver in fixed rotational orientation relative thereto such that rotation of the proximal driver drives rotation of the distal driver ; a retainer cap defining a pocket having an open end, the retainer cap disposed about at least a portion of the proximal driver and fixedly engaged with the hub housing to thereby fix the retainer cap relative to the hub housing and the outer shaft , the retainer cap configured to selectively lock the proximal driver in fixed rotational orientation relative thereto, thereby selectively locking the inner shaft relative to the outer shaft ; and an RFID chip disposed within the pocket, wherein, with the retainer cap engaged with the hub housing , a portion of the hub housing closes the open end of the pocket to retain the RFID chip therein. an outer shaft including a hub housing disposed about a proximal end portion thereof; an inner shaft disposed within and rotatable relative to the outer shaft , the inner shaft including a distal driver disposed about a proximal end portion thereof; a proximal driver slidably coupled to the distal driver in fixed rotational orientation relative thereto such that rotation of the proximal driver drives rotation of the distal driver ; a retainer cap defining a pocket having an open end, the retainer cap disposed about at least a portion of the proximal driver and fixedly engaged with the hub housing to thereby fix the retainer cap relative to the hub housing and the outer shaft , the retainer cap configured to selectively lock the proximal driver in fixed rotational orientation relative thereto, thereby selectively locking the inner shaft relative to the outer shaft ; and an RFID chip disposed within the pocket, wherein, with the retainer cap engaged with the hub housing , a portion of the hub housing closes the open end of the pocket to retain the RFID chip therein.
Electrolysis unit for the electrochemical dissociation of water (H 2 O) into hydrogen (H 2 ) and oxygen (O 2 ) - comprising at least two electrolysis modules ; - comprising exactly one first gas separation device for a first product gas comprising oxygen, - comprising exactly one second gas separation device for a second product gas comprising hydrogen, wherein the first gas separation device is connected to each of the at least two electrolysis modules by means of a first conduit in each case and the second gas separation device is connected to each of the electrolysis modules by means of a second conduit in each case and the at least two first conduits have the same first length and the at least two second conduits have the same second length, wherein the first gas separation device and the second gas separation device are arranged inside one another, with the first or the second gas separation device being configured as an outer shell and a bottom and the other second or first gas separation device projecting as tube into the shell. - comprising at least two electrolysis modules ; - comprising exactly one first gas separation device for a first product gas comprising oxygen, - comprising exactly one second gas separation device for a second product gas comprising hydrogen,
Water jet unit for working surfaces, in particular for working a concrete surface, comprising: a lance with a mouthpiece arranged for being coupled to a line for high-pressure water, a holder for the lance, an arrangement for guiding the holder in a working path, an eccentric mechanism for the oscillation of the lance in a plane transverse to the working path in order to add width to the working, characterized by that the eccentric mechanism comprises: - a crank arm coupled to a link which is coupled to the lance in order to oscillate it, wherein the crank arm is arranged on a crank arm carrier which is rotatably supported and coupled to a rotary motor , and the crank arm carrier comprises an outer part , which carries the crank arm and is rotatably mounted on another part of the carrier, and - at least one spiral track on one of the two parts of the crank arm carrier and stop elements on the other part engaging into the spiral track to define one eccentric position when the motor rotates in the one direction and another eccentric position when the motor rotates in the other direction, wherein the two directions of rotation produce different widths of the working path. a lance with a mouthpiece arranged for being coupled to a line for high-pressure water, a holder for the lance, an arrangement for guiding the holder in a working path, an eccentric mechanism for the oscillation of the lance in a plane transverse to the working path in order to add width to the working, characterized by that the eccentric mechanism comprises: - a crank arm coupled to a link which is coupled to the lance in order to oscillate it, wherein the crank arm is arranged on a crank arm carrier which is rotatably supported and coupled to a rotary motor , and the crank arm carrier comprises an outer part , which carries the crank arm and is rotatably mounted on another part of the carrier, and - at least one spiral track on one of the two parts of the crank arm carrier and stop elements on the other part engaging into the spiral track to define one eccentric position when the motor rotates in the one direction and another eccentric position when the motor rotates in the other direction, wherein the two directions of rotation produce different widths of the working path. - a crank arm coupled to a link which is coupled to the lance in order to oscillate it, wherein the crank arm is arranged on a crank arm carrier which is rotatably supported and coupled to a rotary motor , and the crank arm carrier comprises an outer part , which carries the crank arm and is rotatably mounted on another part of the carrier, and - at least one spiral track on one of the two parts of the crank arm carrier and stop elements on the other part engaging into the spiral track to define one eccentric position when the motor rotates in the one direction and another eccentric position when the motor rotates in the other direction, wherein the two directions of rotation produce different widths of the working path.
A method of determining crystallite size distribution in a sample of a polycrystalline material, the method comprising: providing an X-ray diffractometer with an X-ray beam source and a two-dimensional X-ray detector ; positioning the sample at a first predetermined orientation relative to the X-ray beam source and detector such that crystallites in the sample produce diffraction spots on a detection surface of the detector , each diffraction spot corresponding to a different crystallite in the polycrystalline material; measuring the intensities of the diffraction spots within a defined detection window of the detector that includes a finite range of diffraction angles; rotating the sample in a rocking direction relative to the X-ray beam source and the detector and measuring the intensities of the diffraction spots at each of a plurality of different rocking angles along the rocking direction, an angular separation between adjacent rocking angles being such that each diffraction spot is measurable in the detection window at a plurality of said angles; recording a peak intensity value for each detected diffraction spot for which the detected intensities both increase to a maximum intensity and decrease across a continuous range of rocking angles; calculating a corresponding crystallite volume from each recorded peak diffraction intensity value; and determining the crystallite size distribution using said calculated crystallite volumes. providing an X-ray diffractometer with an X-ray beam source and a two-dimensional X-ray detector ; positioning the sample at a first predetermined orientation relative to the X-ray beam source and detector such that crystallites in the sample produce diffraction spots on a detection surface of the detector , each diffraction spot corresponding to a different crystallite in the polycrystalline material; measuring the intensities of the diffraction spots within a defined detection window of the detector that includes a finite range of diffraction angles; rotating the sample in a rocking direction relative to the X-ray beam source and the detector and measuring the intensities of the diffraction spots at each of a plurality of different rocking angles along the rocking direction, an angular separation between adjacent rocking angles being such that each diffraction spot is measurable in the detection window at a plurality of said angles; recording a peak intensity value for each detected diffraction spot for which the detected intensities both increase to a maximum intensity and decrease across a continuous range of rocking angles; calculating a corresponding crystallite volume from each recorded peak diffraction intensity value; and determining the crystallite size distribution using said calculated crystallite volumes.
A method comprising: receiving , by a computing device and from a plurality of mobile devices, a plurality of requests for an asset; receiving , by the computing device and from each mobile device of the plurality of mobile devices, past location information associated with the mobile device; determining , by the computing device and based on the past location information associated with the mobile devices, a first group of mobile devices, of the plurality of mobile devices, that will travel on a same predicted path; determining , by the computing device, a plurality of asset parts of the asset; causing sending , by the computing device, via an access point, and to each of the mobile devices in the first group, of a different asset part of the plurality of asset parts; and sending , by the computing device and to each of the mobile devices in the first group, one or more instructions for the first group to form an ad hoc network with other mobile devices in the first group and to retrieve missing asset parts from the other mobile devices in the first group using the ad hoc network. receiving , by a computing device and from a plurality of mobile devices, a plurality of requests for an asset; receiving , by the computing device and from each mobile device of the plurality of mobile devices, past location information associated with the mobile device; determining , by the computing device and based on the past location information associated with the mobile devices, a first group of mobile devices, of the plurality of mobile devices, that will travel on a same predicted path; determining , by the computing device, a plurality of asset parts of the asset; causing sending , by the computing device, via an access point, and to each of the mobile devices in the first group, of a different asset part of the plurality of asset parts; and sending , by the computing device and to each of the mobile devices in the first group, one or more instructions for the first group to form an ad hoc network with other mobile devices in the first group and to retrieve missing asset parts from the other mobile devices in the first group using the ad hoc network.
A pharmaceutical composition comprising 2-20 mg/mL growth hormone albumin-binder conjugate, a buffer, a preservative and 0.5 - 5.0 mg/mL poloxamer 188, wherein pH of the composition is 6.5-7.0 and wherein the growth hormone albumin binder conjugate has the following formula: A-W-B-Q-GH GH represents a growth hormone protein/compound A is an albumin binding residue B is a hydrophilic spacer Q is a chemical group linking GH and B, W is a chemical group linking B and A. and "-" is a covalent bond wherein the albumin binding residue, A, is selected from GH represents a growth hormone protein/compound A is an albumin binding residue B is a hydrophilic spacer Q is a chemical group linking GH and B, W is a chemical group linking B and A. and "-" is a covalent bond wherein the albumin binding residue, A, is selected from