mhurhangee/patent-ind-claim-en huggingface dataset:
A method for securing a first directed acyclic graph , comprising: receiving a request to create a first node in the first directed acyclic graph , wherein the request specifies a path for the first node ; creating a first unique cryptographically secure key (K4) for the first node ; creating the first node in the first directed acyclic graph ; encrypting contents of the first node in the first directed acyclic graph with the created first unique cryptographically secure key (K4) for the first node ; determining a parent node of the created first node in the first directed acyclic graph based on the specified path; creating an edge in the first directed acyclic graph from the parent node to the created first node ; traversing a path from a root node of the first directed acyclic graph to the parent node to determine a second unique cryptographically secure key (K2) that has been created for the parent node ; encrypting the first unique cryptographically secure key (K4) with the second unique cryptographically secure key (K2); and storing a result of the encrypting the first unique cryptographically secure key (K4) with the second unique cryptographically secure key (K2) on the created edge from the parent node to the created first node , wherein the first unique cryptographically secure key (K4) for the created first node is not stored on the created first node itself. receiving a request to create a first node in the first directed acyclic graph , wherein the request specifies a path for the first node ; creating a first unique cryptographically secure key (K4) for the first node ; creating the first node in the first directed acyclic graph ; encrypting contents of the first node in the first directed acyclic graph with the created first unique cryptographically secure key (K4) for the first node ; determining a parent node of the created first node in the first directed acyclic graph based on the specified path; creating an edge in the first directed acyclic graph from the parent node to the created first node ; traversing a path from a root node of the first directed acyclic graph to the parent node to determine a second unique cryptographically secure key (K2) that has been created for the parent node ; encrypting the first unique cryptographically secure key (K4) with the second unique cryptographically secure key (K2); and storing a result of the encrypting the first unique cryptographically secure key (K4) with the second unique cryptographically secure key (K2) on the created edge from the parent node to the created first node , wherein the first unique cryptographically secure key (K4) for the created first node is not stored on the created first node itself.
A method for detecting input associated with an input instrument , comprising: receiving , at a digitizer of a computer device , a signal from the input instument, the signal lacking pressure information ; detecting whether the signal from the input instrument exceeds a voltage threshold; determining that the input instrument is a pressure-less input instrument based at least on detecting that the signal exceeds the voltage threshold; and configuring the input with default pressure information based at least on determining that the input instrument is the pressure-less input instrument. detecting whether the signal from the input instrument exceeds a voltage threshold; determining that the input instrument is a pressure-less input instrument based at least on detecting that the signal exceeds the voltage threshold; and configuring the input with default pressure information based at least on determining that the input instrument is the pressure-less input instrument.
A hydraulic fluid system with a bootstrap hydraulic reservoir , the system comprising: a hydraulic pump comprising an inlet and an outlet ; a pressure line ; a device actuator fluidly connected to the outlet of the hydraulic pump via the pressure line ; the bootstrap hydraulic reservoir comprising: a bootstrap chamber adapted to hold hydraulic fluid; a piston chamber fluidly connected to the pressure line ; a piston comprising a bootstrap end portion held within the bootstrap chamber and a pressure end portion held within the piston chamber ; a hydraulic accumulator fluidly connected to the pressure line of the hydraulic fluid system such that the hydraulic accumulator is configured to accumulate pressurized hydraulic fluid from the pressure line ; and a valve fluidly connected to the pressure line between the hydraulic accumulator and the outlet of the hydraulic pump , the valve comprising a closed position, wherein the valve comprises a valve actuator adapted to selectively move the valve to an open position when the pressure line is de-pressurized. a hydraulic pump comprising an inlet and an outlet ; a pressure line ; a device actuator fluidly connected to the outlet of the hydraulic pump via the pressure line ; the bootstrap hydraulic reservoir comprising: a bootstrap chamber adapted to hold hydraulic fluid; a piston chamber fluidly connected to the pressure line ; a piston comprising a bootstrap end portion held within the bootstrap chamber and a pressure end portion held within the piston chamber ; a hydraulic accumulator fluidly connected to the pressure line of the hydraulic fluid system such that the hydraulic accumulator is configured to accumulate pressurized hydraulic fluid from the pressure line ; and a valve fluidly connected to the pressure line between the hydraulic accumulator and the outlet of the hydraulic pump , the valve comprising a closed position, wherein the valve comprises a valve actuator adapted to selectively move the valve to an open position when the pressure line is de-pressurized. a bootstrap chamber adapted to hold hydraulic fluid; a piston chamber fluidly connected to the pressure line ; a piston comprising a bootstrap end portion held within the bootstrap chamber and a pressure end portion held within the piston chamber ; a hydraulic accumulator fluidly connected to the pressure line of the hydraulic fluid system such that the hydraulic accumulator is configured to accumulate pressurized hydraulic fluid from the pressure line ; and a valve fluidly connected to the pressure line between the hydraulic accumulator and the outlet of the hydraulic pump , the valve comprising a closed position, wherein the valve comprises a valve actuator adapted to selectively move the valve to an open position when the pressure line is de-pressurized.
A cell harvesting processing kit for separating cells from fluids, and/or for washing cells, the kit comprising sealed fluid paths at least a portion of which are formed from flexible tubing suitable for being externally manipulated by mechanical elements, the kit comprising also a fluid processing reservoir and a filter suitable for retaining cells whilst permeating fluids in said paths, the kit being characterized in that the fluid paths are supported by a generally flat supporting frame such that said paths, reservoir and filter are arranged in a generally flat plane, wherein said fluid processing reservoir is in the form of a container which lies generally flat in the frame and is demountable from the frame and re-attachable to the frame in use, the kit being characterized in that said supporting frame includes through-apertures, and said flexible tubing is arranged to extend across said apertures such that the tubing is accessible from both sides of the flat supporting frame to allow said external manipulation from both sides of the frame.
A method for forming a composite tube assembly comprising: obtaining a composite tube comprising an end , wherein said composite tube is formed from fibers and resin, said tube comprising an end portion extending to the end comprising a plurality of axial slots , wherein each of the axial slots comprises a two edges at the outer surface of the said tube end extending along a length each slot, wherein said slots define a plurality of arms on said end portion; obtaining a fitting comprising a first end opposite a second end, said fitting comprising an annular tapered outer surface tapering from a first diameter at, or proximate, the first end to a second diameter, wherein the first diameter is greater than the second diameter; and placing the tapered outer surface of the fitting in the tube end portion such that the second diameter of the fitting outer surface is at, or proximate, the end of the tube and the first diameter of the fitting tapered outer surface is further into the tube than the second diameter of the fitting, characterized in that the method further comprises: radially compressing each of the arms over the fitting annular tapered outer surface; connecting or adhering each of the arms to said fitting tapered outer surface; and placing a bolstering structure or a collar over said arms for retaining said arms against said fitting tapered outer surface, wherein, after placing said bolstering structure or said collar, the two edges of each slot do not overlap each other. obtaining a composite tube comprising an end , wherein said composite tube is formed from fibers and resin, said tube comprising an end portion extending to the end comprising a plurality of axial slots , wherein each of the axial slots comprises a two edges at the outer surface of the said tube end extending along a length each slot, wherein said slots define a plurality of arms on said end portion; obtaining a fitting comprising a first end opposite a second end, said fitting comprising an annular tapered outer surface tapering from a first diameter at, or proximate, the first end to a second diameter, wherein the first diameter is greater than the second diameter; and placing the tapered outer surface of the fitting in the tube end portion such that the second diameter of the fitting outer surface is at, or proximate, the end of the tube and the first diameter of the fitting tapered outer surface is further into the tube than the second diameter of the fitting, radially compressing each of the arms over the fitting annular tapered outer surface; connecting or adhering each of the arms to said fitting tapered outer surface; and placing a bolstering structure or a collar over said arms for retaining said arms against said fitting tapered outer surface, wherein, after placing said bolstering structure or said collar, the two edges of each slot do not overlap each other.
An epoxy resin composition comprising an epoxy resin and a curing agent, the epoxy resin comprising an epoxy compound having two or more mesogenic structures, and having a loss tangent of 1 or more at 35°C before curing, and the curing agent being selected from the group consisting of 3,3'-diaminodiphenylsulfone, 4,4'-diaminodiphenylmethane, 4,4'-diaminodiphenylether, 4,4'-diamino-3,3'-dimethoxybiphenyl, 4,4'-diaminophenylbenzoate, 1,5-diaminonaphthalene, 1,3-diaminonaphthalene, 1,4-diaminonaphthalene, 1,8-diaminonaphthalene, 1,3-diaminobenzene, 1,4-diaminobenzene, 4,4'-diaminobenzanilide, and trimethylene-bis-4-aminobenzoate, wherein the loss tangent was measured with a rheometer in an oscillation mode, wherein the measurement was performed by using parallel plates with a diameter of 12 mm, under the conditions of frequency: 1 Hz, gap: 0.2 mm, distortion: 2%, by conducting a process of melting the epoxy resin at 150°C for at least 3 minutes, a process of decreasing the temperature of the epoxy resin from 150°C to 30°C at a rate of 2°C/minute, and a process of increasing the temperature of the epoxy resin from 30°C to 150°C at a rate of 2°C/minute, in this order, and wherein the loss tangent at 35°C of the epoxy resin was measured in the process of increasing the temperature.
A method for temporarily disabling a disruptive alert of an infusion pump system, comprising: receiving a request for an alert postponement period from an infusion pump system for a specified period of time; disabling disruptive alerts from the infusion pump system for the specified period of time; and re-enabling disruptive alerts after the specified period of time has passed. receiving a request for an alert postponement period from an infusion pump system for a specified period of time; disabling disruptive alerts from the infusion pump system for the specified period of time; and re-enabling disruptive alerts after the specified period of time has passed.
A recombinant polypeptide that specifically binds human von Willebrand Factor, comprising a modified extracellular domain of platelet glycoprotein Ibα, wherein: the recombinant polypeptide lacks a transmembrane domain; and the modified extracellular domain comprises at least one mutation selected from G233T, D235V, and K237V, relative to SEQ ID NO: 19, further comprising an oligomerization domain, wherein the oligomerization domain is selected from the group consisting of p53, GCN4, clathrin, and pent-tag, wherein the modified extracellular domain has at least 95% sequence identity with at least 250 consecutive amino acids of the amino acid sequence set forth in SEQ ID NO: 2; SEQ ID NO: 3; SEQ ID NO: 4; or SEQ ID NO: 5. the recombinant polypeptide lacks a transmembrane domain; and the modified extracellular domain comprises at least one mutation selected from G233T, D235V, and K237V, relative to SEQ ID NO: 19, further comprising an oligomerization domain, wherein the oligomerization domain is selected from the group consisting of p53, GCN4, clathrin, and pent-tag, wherein the modified extracellular domain has at least 95% sequence identity with at least 250 consecutive amino acids of the amino acid sequence set forth in SEQ ID NO: 2; SEQ ID NO: 3; SEQ ID NO: 4; or SEQ ID NO: 5.
A fluid handling system which can receive one or more labware components, add material to or remove material from the labware component and may perform one or more analytical or chemical operations using materials in, or added to, the labware component, the fluid handling system comprising: a support configured to receive at least one labware components at a labware site on the support, wherein the labware component is configured to receive and retain a fluid; a projector configured to provide an image of the at least one labware component onto the support at the labware site on the support where the at least one labware component is to be placed on the support; a sampling probe configured to aspirate, dispense, aerate, degas, or perform other fluid handling operations on the received fluid in the placed labware component; and a processor electrically coupled to the sampling probe and the image projector and configured to provide a digital image to the projector, wherein the projector receives the digital image from the processor and converts the digital image to the image that is projected in the position above the support at the labware site. a support configured to receive at least one labware components at a labware site on the support, wherein the labware component is configured to receive and retain a fluid; a projector configured to provide an image of the at least one labware component onto the support at the labware site on the support where the at least one labware component is to be placed on the support; a sampling probe configured to aspirate, dispense, aerate, degas, or perform other fluid handling operations on the received fluid in the placed labware component; and a processor electrically coupled to the sampling probe and the image projector and configured to provide a digital image to the projector, wherein the projector receives the digital image from the processor and converts the digital image to the image that is projected in the position above the support at the labware site.
A semiconductor device comprising: a first wiring layer formed on a semiconductor substrate; an interlayer insulating film (101-103, 333,335) formed on the first wiring layer; a hole having an opening in an upper surface of the interlayer insulating film and formed in the interlayer insulating film; a first metal layer covering an internal surface of the hole and the upper surface of the interlayer insulating film, wherein the first metal layer on the interlayer insulating film is formed as a flat structure; a second metal layer embedded into and filling the hole covered with the first metal layer; a dielectric insulating film formed on the first metal layer and the second metal layer; and a second wiring layer formed on the dielectric insulating film, wherein a capacitor having a lower electrode including the first metal layer and an upper electrode including an area of the second wiring layer, is embedded, wherein at least part of the upper electrode directly abuts the interlayer insulating film. a first wiring layer formed on a semiconductor substrate; an interlayer insulating film (101-103, 333,335) formed on the first wiring layer; a hole having an opening in an upper surface of the interlayer insulating film and formed in the interlayer insulating film; a first metal layer covering an internal surface of the hole and the upper surface of the interlayer insulating film, wherein the first metal layer on the interlayer insulating film is formed as a flat structure; a second metal layer embedded into and filling the hole covered with the first metal layer; a dielectric insulating film formed on the first metal layer and the second metal layer; and a second wiring layer formed on the dielectric insulating film, wherein a capacitor having a lower electrode including the first metal layer and an upper electrode including an area of the second wiring layer, is embedded, wherein at least part of the upper electrode directly abuts the interlayer insulating film.
Use of an electrically conductive carbon material in a catalyst layer for a fuel cell, comprising the carbon material , at least one catalytically active material and at least one ionomer , for improving a distribution of the ionomer in the catalyst layer , where the carbon material has a carbon lattice which comprises carbon atoms and nitrogen atoms , where a fraction of carbon material in the catalyst layer is 25 to 65 mass%, based on the total mass of the catalyst layer , and/or where a weight ratio of ionomer to carbon material is 0.2-1.0, and where a fraction of nitrogen in the carbon material is 0.3 to 1.0 mass%, based on the total mass of the carbon material . where a fraction of carbon material in the catalyst layer is 25 to 65 mass%, based on the total mass of the catalyst layer , and/or where a weight ratio of ionomer to carbon material is 0.2-1.0, and where a fraction of nitrogen in the carbon material is 0.3 to 1.0 mass%, based on the total mass of the carbon material .
A method of holographic projection, the method comprising: (i) receiving an image for projection; (ii) forming an image frame comprising a first image region and second image region, wherein the first image region corresponds to the image and the second image region corresponds to non-image content; (iii) applying a first gain factor to the non-image content in order to change a grey level of the non-image content of the image frame; (iv) calculating a hologram of the image frame; (v) displaying the hologram and illuminating the hologram with light from a light source to form a holographic reconstruction of the image frame; (vi) measuring a parameter representative of the luminance of the holographic reconstruction of the non-image content; (vii) scaling the measured parameter in accordance with an inverse of the first gain factor, to obtain a parameter value that is representative of a true luminance of the holographic reconstruction of the non-image content, wherein the true luminance comprises an amount of luminance that the secondary region would have exhibited, had the gain factor not being applied to the secondary image region , before the corresponding hologram was generated and illuminated; and (viii) controlling the optical power of the light illuminating the hologram until the true luminance of the holographic reconstruction of the non-image content indicates that a target luminance is met, for the holographic reconstruction of the image content of the image frame. (i) receiving an image for projection; (ii) forming an image frame comprising a first image region and second image region, wherein the first image region corresponds to the image and the second image region corresponds to non-image content; (iii) applying a first gain factor to the non-image content in order to change a grey level of the non-image content of the image frame; (iv) calculating a hologram of the image frame; (v) displaying the hologram and illuminating the hologram with light from a light source to form a holographic reconstruction of the image frame; (vi) measuring a parameter representative of the luminance of the holographic reconstruction of the non-image content; (vii) scaling the measured parameter in accordance with an inverse of the first gain factor, to obtain a parameter value that is representative of a true luminance of the holographic reconstruction of the non-image content, wherein the true luminance comprises an amount of luminance that the secondary region would have exhibited, had the gain factor not being applied to the secondary image region , before the corresponding hologram was generated and illuminated; and (viii) controlling the optical power of the light illuminating the hologram until the true luminance of the holographic reconstruction of the non-image content indicates that a target luminance is met, for the holographic reconstruction of the image content of the image frame.
Determination device for determining a scan velocity of an energy beam for an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy beam , wherein the determination device comprises a determination unit that is arrangeable or arranged in a process chamber of an apparatus for additively manufacturing three-dimensional objects, characterized in that the determination device is adapted to determine a scan velocity with which the energy beam is guided along a closed scan path based on the scan time required for guiding the energy beam along the closed scan path .
A method comprising: forming, by a user equipment, a session establishment message including an indication of at least one session management capability supported by the user equipment, the session management capability being reflective quality of service; sending, by the user equipment, the session establishment message including the indication towards a session management function ; and receiving, by the user equipment and from the session management function, a response indicative of whether the session management function enables the at least one session management capability to configure the user equipment to operate in accordance with the at least one session management capability , wherein the response includes a timer value for a timer associated with the reflective quality of service, the timer value being indicative of whether the session management function enables the reflective quality of service. forming, by a user equipment, a session establishment message including an indication of at least one session management capability supported by the user equipment, the session management capability being reflective quality of service; sending, by the user equipment, the session establishment message including the indication towards a session management function ; and receiving, by the user equipment and from the session management function, a response indicative of whether the session management function enables the at least one session management capability to configure the user equipment to operate in accordance with the at least one session management capability , wherein the response includes a timer value for a timer associated with the reflective quality of service, the timer value being indicative of whether the session management function enables the reflective quality of service.