mhurhangee/patent-ind-claim-en huggingface dataset:
A dishwasher for treating dishes according to an automatic cycle of operation, the dishwasher comprising: a chassis ; a tub mounted to the chassis ; and a water supply circuit comprising: a household inlet fitting carried by the chassis , a conduit fluidly coupling the inlet fitting to the tub , and an actuatable valve fluidly controlling liquid flow through the conduit , and having a volumetric flow limiter that shuts off the flow of water through the valve after the passing of a predetermined volume of water through the valve upon an actuation of the actuatable valve , wherein the volumetric flow limiter comprises a flow meter, an actuator, and a stopper , with the flow meter operably coupled to the actuator and the actuator operably coupled to the stopper , whereby upon the flow meter determining the passing of the predetermined volume, the actuator effects movement of the stopper, the stopper being in the form of a wedge having a shaft protruding therefrom, said stopper being configured to fluidly close the valve and wherein the flow meter comprises a turbine located within the valve and rotated by the water passing through the valve ; characterised in that the actuator comprises a threaded output shaft that is rotated with the turbine and the wedge is provided circumferentially about and threadably mounted to the threaded output shaft . a chassis ; a tub mounted to the chassis ; and a water supply circuit comprising: a household inlet fitting carried by the chassis , a conduit fluidly coupling the inlet fitting to the tub , and an actuatable valve fluidly controlling liquid flow through the conduit , and having a volumetric flow limiter that shuts off the flow of water through the valve after the passing of a predetermined volume of water through the valve upon an actuation of the actuatable valve , a household inlet fitting carried by the chassis , a conduit fluidly coupling the inlet fitting to the tub , and an actuatable valve fluidly controlling liquid flow through the conduit , and having a volumetric flow limiter that shuts off the flow of water through the valve after the passing of a predetermined volume of water through the valve upon an actuation of the actuatable valve , wherein the volumetric flow limiter comprises a flow meter, an actuator, and a stopper , with the flow meter operably coupled to the actuator and the actuator operably coupled to the stopper , whereby upon the flow meter determining the passing of the predetermined volume, the actuator effects movement of the stopper, the stopper being in the form of a wedge having a shaft protruding therefrom, said stopper being configured to fluidly close the valve and wherein the flow meter comprises a turbine located within the valve and rotated by the water passing through the valve ; characterised in that the actuator comprises a threaded output shaft that is rotated with the turbine and the wedge is provided circumferentially about and threadably mounted to the threaded output shaft .
A pressure sensor for capturing pressures of up to 1000 bar comprising a) a sensor assembly , b) a housing sleeve for accommodating the sensor assembly , c) a diaphragm in operative connection with said sensor assembly for transmitting a pressure, said diaphragm being mechanically connected to the housing sleeve , wherein said diaphragm hermetically seals a lower end of the housing sleeve by means of a housing sleeve welded joint , d) wherein in an axial direction of the pressure sensor the pressure acts onto the diaphragm and wherein in a radial direction of the pressure sensor the pressure acts onto the housing sleeve ; wherein the housing sleeve comprises a constriction , said constriction being located in the area of the mechanical connection of the diaphragm and the housing sleeve ; characterized in that said constriction is formed as a recess and/or groove extending along an inner perimeter of the housing sleeve , wherein said constriction increases the elasticity of the housing sleeve in the area of the connection, wherein at high pressures of more than 300 bar the locally increased elasticity of the housing sleeve results in a reversible change in length of the housing sleeve both in the radial and axial directions. a) a sensor assembly , b) a housing sleeve for accommodating the sensor assembly , c) a diaphragm in operative connection with said sensor assembly for transmitting a pressure, said diaphragm being mechanically connected to the housing sleeve , wherein said diaphragm hermetically seals a lower end of the housing sleeve by means of a housing sleeve welded joint , d) wherein in an axial direction of the pressure sensor the pressure acts onto the diaphragm and wherein in a radial direction of the pressure sensor the pressure acts onto the housing sleeve ; wherein the housing sleeve comprises a constriction , said constriction being located in the area of the mechanical connection of the diaphragm and the housing sleeve ; characterized in that said constriction is formed as a recess and/or groove extending along an inner perimeter of the housing sleeve , wherein said constriction increases the elasticity of the housing sleeve in the area of the connection, wherein at high pressures of more than 300 bar the locally increased elasticity of the housing sleeve results in a reversible change in length of the housing sleeve both in the radial and axial directions.
A composition comprising at least one low molecular weight hyaluronic acid and at least one high molecular weight hyaluronic acid characterized in that : - said low molecular weight hyaluronic acid is 600kDa or less than 600 KDa, and - said high molecular weight hyaluronic acid is 4000 KDa or above 4000 KDa, wherein: - the ratio of low molecular weight hyaluronic acid to high molecular weight hyaluronic acid is 2:3 and wherein the total concentration is 2.2% to 2.8%, and further comprising: i) an anticoagulant and/or a thixotropic gel. - said low molecular weight hyaluronic acid is 600kDa or less than 600 KDa, and - said high molecular weight hyaluronic acid is 4000 KDa or above 4000 KDa, - the ratio of low molecular weight hyaluronic acid to high molecular weight hyaluronic acid is 2:3 and wherein the total concentration is 2.2% to 2.8%, and further comprising: i) an anticoagulant and/or a thixotropic gel. i) an anticoagulant and/or a thixotropic gel.
A composition for use in a method of preventing or reducing the risk or severity of anaphylaxis in an individual, wherein said composition is selected from the group consisting of N-(1',2-dihydroxy-1,2'-binaphthalen-4'-yl)-4-methoxybenzenesulfonamide, N-(3,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(4,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(5,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(6,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(7,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(8,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, 4-Bromo-N-(1,6'-dihydroxy- binaphthalenyl-4-yl)-benzenesulfonamide, and combinations thereof; and wherein said method comprises the step of providing to the individual an effective amount of one or more of said compositions. wherein said composition is selected from the group consisting of N-(1',2-dihydroxy-1,2'-binaphthalen-4'-yl)-4-methoxybenzenesulfonamide, N-(3,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(4,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(5,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(6,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(7,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, N-(8,1'-Dihydroxy- binaphthalenyl-4'-yl)-4-methoxy-benzenesulfonamide, 4-Bromo-N-(1,6'-dihydroxy- binaphthalenyl-4-yl)-benzenesulfonamide, and combinations thereof; and wherein said method comprises the step of providing to the individual an effective amount of one or more of said compositions.
Method for manufacturing a three-dimensional article , comprising the steps of a) successively building up said article from a metallic base material , which is a high temperature Fe based or Ni based or Co based alloy, by means of an additive manufacturing process, said additive manufacturing process is one of selective laser melting (SLM), selective laser sintering (SLS) or electron beam melting (EBM), and a metallic base material of powder form or in form of a suspension is used, thereby creating an article with a substantial anisotropy of its properties; and b) heat treating said manufactured article , wherein said heat treatment consists of multiple steps, wherein at least one of said heat treatment steps is conducted at a temperature and at a hold time t such to recrystallize and/or grain coarse the base material , thereby creating an article with a significantly reduced anisotropy, each of said heat treatment multiple steps representing a specific combination of heating rate, hold temperature, hold time and cooling rate, wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to partially or completely dissolve intermetallic phases, carbides or nitrides in the microstructure of said manufactured article , and wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to modify the volume fraction, size, shape and distribution of precipitations of any of metal-carbides, metal-nitrides or metal-carbonitrides, intermetallic phases or metal-borides. a) successively building up said article from a metallic base material , which is a high temperature Fe based or Ni based or Co based alloy, by means of an additive manufacturing process, said additive manufacturing process is one of selective laser melting (SLM), selective laser sintering (SLS) or electron beam melting (EBM), and a metallic base material of powder form or in form of a suspension is used, thereby creating an article with a substantial anisotropy of its properties; and b) heat treating said manufactured article , wherein said heat treatment consists of multiple steps, wherein at least one of said heat treatment steps is conducted at a temperature and at a hold time t such to recrystallize and/or grain coarse the base material , thereby creating an article with a significantly reduced anisotropy, each of said heat treatment multiple steps representing a specific combination of heating rate, hold temperature, hold time and cooling rate, wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to partially or completely dissolve intermetallic phases, carbides or nitrides in the microstructure of said manufactured article , and wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to modify the volume fraction, size, shape and distribution of precipitations of any of metal-carbides, metal-nitrides or metal-carbonitrides, intermetallic phases or metal-borides.
Method for producing moulded hollow bodies from elastomeric material, wherein the method has at least the following working steps, specifically a) pushing a prefabricated blank onto a mandrel , wherein the mandrel has at least one region with a wall that is designed to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall ; b) incorporating the mandrel with the blank pushed onto the former into an autoclave known per se; c 1 ) impinging the autoclave with pressure and temperature, wherein air enclosed between the blank and the mandrel is forced through the regions with an air-permeable wall into the respective air chamber , the blanks being vulcanized in the process; d) destressing the autoclave and cooling; e) retrieving the mandrels with completely vulcanized and moulded hollow bodies ; f 2 ) removing the hollow bodies from the mandrels , characterized in that at least one valve which permits passage of air from the outside into the interior of the corresponding air chamber and from the corresponding air chamber to the outside is disposed in the at least one region with an air-permeable wall . a) pushing a prefabricated blank onto a mandrel , wherein the mandrel has at least one region with a wall that is designed to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with an air-permeable wall ; b) incorporating the mandrel with the blank pushed onto the former into an autoclave known per se; c 1 ) impinging the autoclave with pressure and temperature, wherein air enclosed between the blank and the mandrel is forced through the regions with an air-permeable wall into the respective air chamber , the blanks being vulcanized in the process; d) destressing the autoclave and cooling; e) retrieving the mandrels with completely vulcanized and moulded hollow bodies ; f 2 ) removing the hollow bodies from the mandrels , characterized in that at least one valve which permits passage of air from the outside into the interior of the corresponding air chamber and from the corresponding air chamber to the outside is disposed in the at least one region with an air-permeable wall .
A method of controlling a voltage source converter of a power supporting arrangement to act as a virtual synchronous machine, the method comprising: obtaining a measured power level (P) of the converter , processing the measured power level using a differential equation of the angular velocity of the virtual synchronous machine in order to obtain a control contribution (ωvsm), providing the phase angle (θvsm) of a physical quantity (Vvsm) used to control the converter based on the control contribution, monitoring the ability of the converter to act as a virtual synchronous machine, and adjusting the control contribution based on the monitoring of the capability is deemed insufficient, wherein the differential equation is a swing equation defining the change in the angular velocity of the virtual synchronous machine over time comprising a moment of inertia term (M) and a damping term (Kf) and, characterised in that the adjusting comprises increasing the damping term and/or decreasing the moment of inertia term, if the ability of the converter to act as a virtual synchronous machine is deemed insufficient. obtaining a measured power level (P) of the converter , processing the measured power level using a differential equation of the angular velocity of the virtual synchronous machine in order to obtain a control contribution (ωvsm), providing the phase angle (θvsm) of a physical quantity (Vvsm) used to control the converter based on the control contribution, monitoring the ability of the converter to act as a virtual synchronous machine, and adjusting the control contribution based on the monitoring of the capability is deemed insufficient, wherein the differential equation is a swing equation defining the change in the angular velocity of the virtual synchronous machine over time comprising a moment of inertia term (M) and a damping term (Kf) and, characterised in that the adjusting comprises increasing the damping term and/or decreasing the moment of inertia term, if the ability of the converter to act as a virtual synchronous machine is deemed insufficient.
A method of manufacturing a silicone ring via compression molding comprising: forming a first outer-band half of a silicone ring and a second outer-band half of a silicone ring with a first compression mold containing a base plate and a top plate press ; placing the first outer-band half of the silicone ring in a second compression mold ; placing a spacer-insert mold over the second compression mold ; placing a silicone rubber through a cavity in the spacer-insert mold and onto a cavity platform on the second mold ; placing the second outer-band half of the rings in a third mold ; placing the third mold over the spacer-insert mold ; inserting the second mold , the spacer-insert mold , and the third mold into a compression chamber, wherein the silicone rubber is compression molded and vulcanized to form an inner-band , and the first and second outer-band halves form a complete silicone ring , and a symmetrical inner-band is formed in between the first and second outer-band halves . forming a first outer-band half of a silicone ring and a second outer-band half of a silicone ring with a first compression mold containing a base plate and a top plate press ; placing the first outer-band half of the silicone ring in a second compression mold ; placing a spacer-insert mold over the second compression mold ; placing a silicone rubber through a cavity in the spacer-insert mold and onto a cavity platform on the second mold ; placing the second outer-band half of the rings in a third mold ; placing the third mold over the spacer-insert mold ; inserting the second mold , the spacer-insert mold , and the third mold into a compression chamber, wherein the silicone rubber is compression molded and vulcanized to form an inner-band , and the first and second outer-band halves form a complete silicone ring , and a symmetrical inner-band is formed in between the first and second outer-band halves .
A securing boot controller for an embedded system , the embedded system further comprising an operational module incorporating an operational function of the system , and a verification module incorporating a function of verifying various components of the system ; the controller being configured to: - upon cold start of the system , to make the verification function executable to perform a functional verification at boot up, including a verification of the authenticity and integrity of the operational function; - upon successful completion of the functional verification, at each warm start following said cold start of the system , to make the operational function executable at boot up, wherein cold start corresponds to a reboot of the system after a power failure leading to a loss of at least a portion of data contained in a random-access memory of the system , the controller being further configured to consult the status of a startup register modifiable by a power controller of the embedded system to determine the boot type selected, between a hot startup and a cold startup. - upon cold start of the system , to make the verification function executable to perform a functional verification at boot up, including a verification of the authenticity and integrity of the operational function; - upon successful completion of the functional verification, at each warm start following said cold start of the system , to make the operational function executable at boot up, wherein cold start corresponds to a reboot of the system after a power failure leading to a loss of at least a portion of data contained in a random-access memory of the system , the controller being further configured to consult the status of a startup register modifiable by a power controller of the embedded system to determine the boot type selected, between a hot startup and a cold startup.
A method of fabricating a fan case for a gas turbine engine, the method comprising: defining a metallic ring including an outer surface and an inner surface ; assembling a first composite material about the outer surface of the metallic ring ; assembling a second composite material about the first composite material ; curing the first composite material and the second composite material about the metallic ring within a tool to form a first subassembly ; and removing the first subassembly from the tool . defining a metallic ring including an outer surface and an inner surface ; assembling a first composite material about the outer surface of the metallic ring ; assembling a second composite material about the first composite material ; curing the first composite material and the second composite material about the metallic ring within a tool to form a first subassembly ; and removing the first subassembly from the tool .
A method comprising: at a chassis management controller device in a chassis unit comprising a plurality of blade servers, storing policy information for the chassis unit, wherein the policy information comprises: blade server priority information that indicates an assignment of each of the blade servers to one of a plurality of blade server priority classes having different priorities, and a power budget for the chassis unit that is based on the blade server priority classes of the plurality of blade servers, such that chassis units with more blade servers assigned to higher priority classes are budgeted more power relative to other chassis units with fewer blade servers assigned to higher blade server priority classes; at the chassis management controller device, distributing power to the plurality of blade servers based on the blade server priority class for each of the plurality of blade servers and the power budget for the chassis unit; at the chassis management controller device, determining an actual power consumption of each of the plurality of blade servers; and at the chassis management controller device, redistributing power to the plurality of blade servers based on the actual power consumption and the policy information. at a chassis management controller device in a chassis unit comprising a plurality of blade servers, storing policy information for the chassis unit, wherein the policy information comprises: blade server priority information that indicates an assignment of each of the blade servers to one of a plurality of blade server priority classes having different priorities, and a power budget for the chassis unit that is based on the blade server priority classes of the plurality of blade servers, such that chassis units with more blade servers assigned to higher priority classes are budgeted more power relative to other chassis units with fewer blade servers assigned to higher blade server priority classes; blade server priority information that indicates an assignment of each of the blade servers to one of a plurality of blade server priority classes having different priorities, and a power budget for the chassis unit that is based on the blade server priority classes of the plurality of blade servers, such that chassis units with more blade servers assigned to higher priority classes are budgeted more power relative to other chassis units with fewer blade servers assigned to higher blade server priority classes; at the chassis management controller device, distributing power to the plurality of blade servers based on the blade server priority class for each of the plurality of blade servers and the power budget for the chassis unit; at the chassis management controller device, determining an actual power consumption of each of the plurality of blade servers; and at the chassis management controller device, redistributing power to the plurality of blade servers based on the actual power consumption and the policy information.