mhurhangee/patent-ind-claim-en huggingface dataset:
A protective device for an electrical grid , comprising at least one variable choke which includes a conductor having at least one turn and a core which is arranged at least in sections within the at least one turn , the core including a magnetically soft part and at least one source magnet , the source magnet being configured such that it biases the magnetically soft part in a bias direction (M V ), the protective device being an overvoltage protective device which includes a coarse protection means and a fine protection means , and the variable choke being arranged between the coarse protection means and the fine protection means , characterized in that the protective device includes two variable chokes , wherein each of the two variable chokes has an intended functional current direction (R F ) of a current (I) through the conductor of the respective variable choke , wherein the source magnet of the respective variable choke is arranged such that the bias direction (Mv) runs opposite a current magnetic field direction (M S ), wherein the current magnetic field direction (M S ) is the direction of a current magnetic field that is generated by a current (I) flowing in the functional current direction (R F ) through the at least one turn of the respective variable choke , and wherein the functional current directions (R F ) of the two variable chokes are opposed. the core including a magnetically soft part and at least one source magnet , the source magnet being configured such that it biases the magnetically soft part in a bias direction (M V ), the protective device being an overvoltage protective device which includes a coarse protection means and a fine protection means , and the variable choke being arranged between the coarse protection means and the fine protection means , characterized in that the protective device includes two variable chokes , wherein each of the two variable chokes has an intended functional current direction (R F ) of a current (I) through the conductor of the respective variable choke , wherein the source magnet of the respective variable choke is arranged such that the bias direction (Mv) runs opposite a current magnetic field direction (M S ), wherein the current magnetic field direction (M S ) is the direction of a current magnetic field that is generated by a current (I) flowing in the functional current direction (R F ) through the at least one turn of the respective variable choke , and wherein the functional current directions (R F ) of the two variable chokes are opposed.
A method of making a weld filler metal for use in a welding process with a superalloy, the method comprising: enclosing a welding rod in a first foil layer ; and sintering the welding rod and the first foil layer ; wherein the welding rod comprises MarM247, IN738, R80, IN939, R142, R195, H188, H25, FSX414, RN2, or GTD111; wherein the first foil layer includes at least 1% by weight of at least one of boron, silicon, and germanium; wherein a composition of the weld filler metal includes between 0.1% by weight and 2.0% by weight of at least one of boron, silicon, and germanium; and wherein the first foil layer includes an adhesive layer . enclosing a welding rod in a first foil layer ; and sintering the welding rod and the first foil layer ; wherein the welding rod comprises MarM247, IN738, R80, IN939, R142, R195, H188, H25, FSX414, RN2, or GTD111; wherein the first foil layer includes at least 1% by weight of at least one of boron, silicon, and germanium; wherein a composition of the weld filler metal includes between 0.1% by weight and 2.0% by weight of at least one of boron, silicon, and germanium; and wherein the first foil layer includes an adhesive layer .
A base editing method for a non-human mammalian embryonic cell, the method comprising: directly injecting 1) a ribonucleoprotein complex or mixture, the ribonucleoprotein complex or mixture comprising a cytidine deaminase, an RNA-guided nuclease, and a guide RNA, or 2) a mixture of a cytidine deaminase-encoding mRNA, an RNA-guided nuclease-encoding mRNA, and a guide RNA, into the non-human mammalian embryonic cell without using a recombinant vector. directly injecting 1) a ribonucleoprotein complex or mixture, the ribonucleoprotein complex or mixture comprising a cytidine deaminase, an RNA-guided nuclease, and a guide RNA, or 2) a mixture of a cytidine deaminase-encoding mRNA, an RNA-guided nuclease-encoding mRNA, and a guide RNA, into the non-human mammalian embryonic cell without using a recombinant vector.
An induction heating device, comprising: a first working coil disposed to correspond to a first heating area ; a second working coil disposed to correspond to a second heating area ; an inner coil and an outer coil corresponding to a third heating area and disposed to share a central point; a first power module configured to supply power for driving at least one of the first working coil and the inner coil ; a second power module configured to supply power for driving at least one of the second working coil and the outer coil ; and a control unit configured to control supply of power by the first power module and the second power module , characterized in that the control unit is configured to cut off supply of power to the outer coil when an instruction for heating at least one of the first heating area and the second heating area , and an instruction for heating the third heating area are input. a first working coil disposed to correspond to a first heating area ; a second working coil disposed to correspond to a second heating area ; an inner coil and an outer coil corresponding to a third heating area and disposed to share a central point; a first power module configured to supply power for driving at least one of the first working coil and the inner coil ; a second power module configured to supply power for driving at least one of the second working coil and the outer coil ; and a control unit configured to control supply of power by the first power module and the second power module , characterized in that the control unit is configured to cut off supply of power to the outer coil when an instruction for heating at least one of the first heating area and the second heating area , and an instruction for heating the third heating area are input.
A turbine shroud segment adapted for use in a gas turbine engine , the turbine shroud segment comprising a carrier segment comprising metallic materials, a blade track segment comprising ceramic matrix composite materials, the blade track segment formed to include a runner shaped to extend partway around a central axis and an attachment portion that extends radially outward from the runner, and a mounting system configured to couple the blade track segment to the carrier segment, the mounting system including a brace formed to include a bracket that engages the attachment portion of the blade track segment and a threaded shaft that extends from the bracket through the carrier segment to couple the blade track segment to the carrier segment, wherein the bracket of the brace includes a support body from which the threaded shaft extends, a track-location arm that engages the attachment portion of the blade track segment and provides rigid loading points for the blade track segment, wherein the bracket of the brace further comprises a load-reaction arm that engages the carrier segment, characterised in that the track-location arm includes a cantilevered boom that extends axially in a first direction from the support body and the load-reaction arm includes a cantilevered boom that extends axially in a second direction, opposite the first direction, from the support body, the load-reaction arm arranged to carry reaction loads induced when pressure is applied to push the blade track segment radially inward during use of the turbine shroud segment in a gas turbine engine. a carrier segment comprising metallic materials, a blade track segment comprising ceramic matrix composite materials, the blade track segment formed to include a runner shaped to extend partway around a central axis and an attachment portion that extends radially outward from the runner, and a mounting system configured to couple the blade track segment to the carrier segment, the mounting system including a brace formed to include a bracket that engages the attachment portion of the blade track segment and a threaded shaft that extends from the bracket through the carrier segment to couple the blade track segment to the carrier segment, wherein the bracket of the brace includes a support body from which the threaded shaft extends, a track-location arm that engages the attachment portion of the blade track segment and provides rigid loading points for the blade track segment, wherein the bracket of the brace further comprises a load-reaction arm that engages the carrier segment, characterised in that the track-location arm includes a cantilevered boom that extends axially in a first direction from the support body and the load-reaction arm includes a cantilevered boom that extends axially in a second direction, opposite the first direction, from the support body, the load-reaction arm arranged to carry reaction loads induced when pressure is applied to push the blade track segment radially inward during use of the turbine shroud segment in a gas turbine engine.
A method of controlling an image forming apparatus comprising: determining whether a transfer roller mounted in the image forming apparatus is new; and upon determining that the transfer roller is new, transferring a developing agent to a surface of the transfer roller and filling a plurality of cells formed at the surface of the transfer roller with the developing agent to initialize the transfer roller . determining whether a transfer roller mounted in the image forming apparatus is new; and upon determining that the transfer roller is new, transferring a developing agent to a surface of the transfer roller and filling a plurality of cells formed at the surface of the transfer roller with the developing agent to initialize the transfer roller .
A method for imparting the sensory characteristics of a more matured distilled spirit to a distilled spirit, the steps being comprised of: introducing a distilled spirit having an alcohol content of 40% to 57% to a container; adding wood chips at a ratio of 10 to 120 grams per 750 mL of the raw distilled spirit to the container; sealing the container; and increasing an internal pressure of the container to a maximum of 68.9 to 137.9 kPa (10 psi to 20 psi) such that when a maximum predetermined pressure is achieved within the container, the pressure is then released and the internal pressure is reduced back to a predetermined lower pressure, wherein the increasing step is performed more than once; and filtering the distilled spirit from the wood chips in the container; wherein the total process time of the method is less than 24 hours. introducing a distilled spirit having an alcohol content of 40% to 57% to a container; adding wood chips at a ratio of 10 to 120 grams per 750 mL of the raw distilled spirit to the container; sealing the container; and increasing an internal pressure of the container to a maximum of 68.9 to 137.9 kPa (10 psi to 20 psi) such that when a maximum predetermined pressure is achieved within the container, the pressure is then released and the internal pressure is reduced back to a predetermined lower pressure, wherein the increasing step is performed more than once; and filtering the distilled spirit from the wood chips in the container; wherein the total process time of the method is less than 24 hours.
An apparatus for facilitating access to metadata from a device (PDA_1, PDA_2, PDA_3), said apparatus comprising a data store and a wireless communicator , said apparatus being configured to generate a metadata resource associated with an item of audio/video material, to store said metadata resource in said data store , to make said stored metadata resource accessible to said device (PDA_1, PDA_2, PDA_3) using said wireless communicator , to transmit an alert string to said device (PDA_1, PDA_2, PDA_3) identifying said item of audio/video material for which said metadata resource is available, to receive, using said wireless communicator , a query string identifying said item of audio/video material from said device (PDA_1, PDA_2, PDA_3), and to transmit a metadata string describing the content or attributes of an item of said audio/video material to said device (PDA_1, PDA_2, PDA_3), using said wireless communicator , wherein the metadata string includes a resource identifier providing a location address of said stored metadata resource to said device (PDA_1, PDA_2, PDA_3), said metadata resource being a proxy version of the audio/video material and said proxy version of the audio/video material able to be accessed by the device (PDA_1, PDA_2, PDA_3) from said location address.
A degassing unit intended to regulate a flow of fluid in a storage installation of this fluid, this unit having an elongated shape along a main axis (X'X) and at least one external face portion extending longitudinally, said unit being characterized in that the external face portion is equipped with substantially parallel longitudinal ribs (8; 81, 82), this degassing unit having a transverse intermediate section having a larger perimeter , the external face portion forming a frustoconical portion resting on the section having larger perimeter as a base, and the ribs (8; 81, 82), regularly distributed, resting on at least one fraction of the section having larger perimeter .
A bioabsorbable stent comprising: a first tubular unit containing a plurality of cells coupled to each other, each of the cells formed from substantially linear parts and a substantially circular arc part and having a substantially U shape which opens to one end in the axial direction of the stent; and a second tubular unit having the same shape as that of the first tubular unit, the second tubular unit containing a plurality of cells each of which has a substantially U shape which opens to a direction opposite to the opening direction of the opposing first cell, wherein the first tubular unit and the second tubular unit are alternately arranged in sequence so as to surround a central axis of the stent; and wherein coupling members couple substantially linear parts in some of the opposing cells in the respective neighboring tubular units; a ratio of a width (w T ) of the cell line at the top of the circular arc part of the substantially U-shaped cell to a width (w S ) of the cell line at the substantially linear part of the same cell is selected within a range defined by the following formula ; a ratio of a height (h) between neighboring top and bottom of the cell to a width (w) between the top and the bottom of the cell is selected within a range defined by the following formula ; and a maximum principal stress (σ max ) at the time of expansion is selected to fall within a range defined by the following formula ; and all of the cells constituting the first and second tubular units contain a bioabsorbable metal. 1.1 < width w T of the cell line at the top of the circular arc part / width w S of the cell line at the substantially linear part < 1 .5 0.12 < cell height h / cell width w < 1.3 in the case of a nominal diameter Maximum principal stress σ max at the time of stent expansion < tensile stregth S of a cell constituting material
A method of estimating position and orientation states of an image-capturing device comprising: (A) obtaining an integer N number of preceding frames by using said image-capturing device; each of said preceding frames including image data; (B) identifying at least a minimum number of common key-points included in each of said preceding frames by using said image data; (C) using an image-processing algorithm to estimate previous position and orientation states of said image-capturing device by using said key points; characterized by (D) estimating, using a sequential least squares algorithm involving state and covariance matrices, current position and orientation states of said image-capturing device by, for each new frame obtained by using said image-capturing device, removing from said state and covariance matrices rows and columns associated with image data obtained by using an oldest of said N number of preceding frames and adding to said state and covariance matrices data associated to said obtained new frame. (A) obtaining an integer N number of preceding frames by using said image-capturing device; each of said preceding frames including image data; (B) identifying at least a minimum number of common key-points included in each of said preceding frames by using said image data; (C) using an image-processing algorithm to estimate previous position and orientation states of said image-capturing device by using said key points; characterized by (D) estimating, using a sequential least squares algorithm involving state and covariance matrices, current position and orientation states of said image-capturing device by, for each new frame obtained by using said image-capturing device, removing from said state and covariance matrices rows and columns associated with image data obtained by using an oldest of said N number of preceding frames and adding to said state and covariance matrices data associated to said obtained new frame.
A method for managing a shared resource in a network including a plurality of nodes , the method comprising: in response to joining the network , broadcasting, by a node , an identification message inclusive of a network address to the network ; and receiving, by the node , a token data structure continuously traveling among the plurality of nodes and including computational data including a threshold total resource consumption value of the plurality of nodes , current resource consumption values of respective nodes , and current utility function values of the respective nodes , wherein the utility functions are monotonic functions mapping resource quantity to its utility, and, while the node is the token owner: measuring, by the node , its own consumption of the shared resource to find a measured consumption, and adjusting, by the node , its own consumption of the shared resource using the computational data and the measured consumption. in response to joining the network , broadcasting, by a node , an identification message inclusive of a network address to the network ; and receiving, by the node , a token data structure continuously traveling among the plurality of nodes and including computational data including a threshold total resource consumption value of the plurality of nodes , current resource consumption values of respective nodes , and current utility function values of the respective nodes , wherein the utility functions are monotonic functions mapping resource quantity to its utility, and, while the node is the token owner: measuring, by the node , its own consumption of the shared resource to find a measured consumption, and adjusting, by the node , its own consumption of the shared resource using the computational data and the measured consumption. measuring, by the node , its own consumption of the shared resource to find a measured consumption, and adjusting, by the node , its own consumption of the shared resource using the computational data and the measured consumption.
An aerosol generating system comprising: a heater assembly , and a manually operated pump , comprising a hollow member with an inlet portion and an outlet portion and a volume modifier with a moveable element , the volume modifier being configured to change the internal volume of the hollow member, wherein the inlet portion of the hollow member is configured to be connected with a liquid storage portion , the outlet portion of the hollow member is in fluid connection with a dispensing assembly , for dispensing the liquid aerosol-forming onto a heater assembly , the inlet portion and the outlet portion each comprise a one way valve , wherein the one-way valve at the inlet portion allows liquid to flow from the liquid storage portion into the hollow member, only, and wherein the one-way valve at the outlet portion allows liquid to flow from the hollow member to the dispensing assembly, only; and wherein the manually operated pump is operable to pump a liquid aerosol-forming substrate from the liquid storage portion via the dispensing assembly onto the heater assembly. a heater assembly , and a manually operated pump , comprising a hollow member with an inlet portion and an outlet portion and a volume modifier with a moveable element , the volume modifier being configured to change the internal volume of the hollow member, wherein the inlet portion of the hollow member is configured to be connected with a liquid storage portion , the outlet portion of the hollow member is in fluid connection with a dispensing assembly , for dispensing the liquid aerosol-forming onto a heater assembly , the inlet portion and the outlet portion each comprise a one way valve , wherein the one-way valve at the inlet portion allows liquid to flow from the liquid storage portion into the hollow member, only, and wherein the one-way valve at the outlet portion allows liquid to flow from the hollow member to the dispensing assembly, only; and wherein the manually operated pump is operable to pump a liquid aerosol-forming substrate from the liquid storage portion via the dispensing assembly onto the heater assembly.
A film bag having a bag body and having an additional film portion to be provided with an imprint, which film portion is arranged on a bag outer side on the bag body , wherein the bag body has at least two mutually opposite front walls made of a bag film, which are delimited by an upper edge, a lower edge and lateral edges and wherein the film portion and the bag film are not joined together all over, wherein the film portion is arranged on at least one of the front walls with a spacing from the upper bag edge and the lower bag edge, characterized in that the film portion has a thickness between 20 μm and 100 μm and that the ratio of the thickness of the bag film to the thickness of the film portion is greater than 2:1, wherein the bag film has a density between 0.89 g/cm 3 and 0.95 g/cm 3 .