mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a magnesium-based thermoelectric conversion material, comprising: a raw material-forming step of forming a raw material for sintering by adding silicon oxide in an amount within a range equal to or greater than 0.5 mol% and equal to or smaller than 13.0 mol% to a magnesium-based compound; and a sintering step of heating the raw material for sintering at a temperature within a range equal to or higher than 750°C and equal to or lower than 950°C while applying pressure equal to or higher than 10 MPa to the raw material for sintering so as to form a sintered substance, wherein the magnesium-based compound is any one of Mg x Si y , Mg 2 Si 1-x Ge x , and Mg 2 Si 1-x Sn x . a raw material-forming step of forming a raw material for sintering by adding silicon oxide in an amount within a range equal to or greater than 0.5 mol% and equal to or smaller than 13.0 mol% to a magnesium-based compound; and a sintering step of heating the raw material for sintering at a temperature within a range equal to or higher than 750°C and equal to or lower than 950°C while applying pressure equal to or higher than 10 MPa to the raw material for sintering so as to form a sintered substance, wherein the magnesium-based compound is any one of Mg x Si y , Mg 2 Si 1-x Ge x , and Mg 2 Si 1-x Sn x .
An X-ray system comprising an electron-impact X-ray source configured to generate an X-ray beam; a radiation-shielded housing having an X-ray outlet port; an X-ray optical element arranged within said radiation-shielded housing configured to direct said X-ray beam toward said outlet port; and a shutter arranged at said outlet port, said shutter being movable between an open position at which X-ray output through the outlet port is allowed, and a closed position at which X-ray output through the outlet port is prevented; and a detector arranged within said radiation-shielded housing and configured to detect X-ray radiation from the X-ray source directed towards said outlet port; wherein said detector is configured to detect X-ray radiation within a first energy range. an electron-impact X-ray source configured to generate an X-ray beam; a radiation-shielded housing having an X-ray outlet port; an X-ray optical element arranged within said radiation-shielded housing configured to direct said X-ray beam toward said outlet port; and a shutter arranged at said outlet port, said shutter being movable between an open position at which X-ray output through the outlet port is allowed, and a closed position at which X-ray output through the outlet port is prevented; and a detector arranged within said radiation-shielded housing and configured to detect X-ray radiation from the X-ray source directed towards said outlet port; wherein said detector is configured to detect X-ray radiation within a first energy range.
A reticle pod (100/300), comprising: an inner portion (124/324) including a cover (108/322) and a baseplate (106/320), wherein the cover includes one or more cover reticle contacts (112/326) joined to the cover and the baseplate includes one or more movable reticle contacts (110/204/318), the one or more movable reticle contacts each configured to be movable in a direction having a component perpendicular to the plane of the baseplate; and an outer portion (122/302) including a pod dome (102/304/402) and a pod door (104/306/404), wherein the pod door includes one or more movable posts (114/314) and one or more latches configured to drive the one or more movable posts, wherein when the inner portion is located within the outer portion and the pod door is fixed to the pod dome, the one or more movable posts contact the one or more movable reticle contacts such that the one or more movable reticle contacts are moved towards the cover.
A method for enabling calibration of a dose delivery of a radiotherapy treatment plan, comprising the steps of: (a) providing a dose-volume histogram - DVH- of the treatment plan for a structure with a volume V 0 , and a reference dose A , the DVH comprising a plurality n of data points, each data point comprising a dose of radiation x i corresponding to a percentage of volume δy i ; (b) determining a calibration parameter M(A) , based on the DVH , to quantify the dose delivery of the treatment plan, wherein the calibration parameter M(A) is calculated using the following equation: M A = ∑ i = 1 n x i − A × δy i V 0 ; and (c) refining the treatment plan based on said calculated calibration parameter M(A) value; wherein the calibration of the treatment plan is separate from administration of the treatment plan to a patient. (a) providing a dose-volume histogram - DVH- of the treatment plan for a structure with a volume V 0 , and a reference dose A , the DVH comprising a plurality n of data points, each data point comprising a dose of radiation x i corresponding to a percentage of volume δy i ; (b) determining a calibration parameter M(A) , based on the DVH , to quantify the dose delivery of the treatment plan, wherein the calibration parameter M(A) is calculated using the following equation: M A = ∑ i = 1 n x i − A × δy i V 0 ; and (c) refining the treatment plan based on said calculated calibration parameter M(A) value; wherein the calibration of the treatment plan is separate from administration of the treatment plan to a patient.
One or more non-transitory computer-readable media comprising instructions which, when executed by one or more hardware processors , cause: determining , during lexical scoping by an integrated development environment or a compiler or an associated tool that evaluates source code or compiled code, that a first code segment in a sequence of same-level code segments encapsulates a first lower-level lexical scope , wherein lexical scoping comprises determining at least one lexical scope in which one or more variables are available to use based on at least one lexical construct that encapsulates one or more code segments in which the one or more variables are declared, wherein the first code segment comprises, in a condition part of a conditional statement or a case part of a switch statement, a condition and one or more uninitialized variables , wherein execution of the first code segment , if performed, causes the condition to be evaluated and, if the condition is satisfied, causes the one or more uninitialized variables to be initialized and made available only within the first lower-level lexical scope ; determining that a second code segment of the conditional statement or the switch statement (a) references the one or more uninitialized variables and (b) is in the sequence of same-level code segments or in a second lower-level lexical scope outside of the first lower-level lexical scope ; and presenting an error message indicating that the one or more uninitialized variables is out of scope for the second code segment . determining , during lexical scoping by an integrated development environment or a compiler or an associated tool that evaluates source code or compiled code, that a first code segment in a sequence of same-level code segments encapsulates a first lower-level lexical scope , wherein lexical scoping comprises determining at least one lexical scope in which one or more variables are available to use based on at least one lexical construct that encapsulates one or more code segments in which the one or more variables are declared, wherein the first code segment comprises, in a condition part of a conditional statement or a case part of a switch statement, a condition and one or more uninitialized variables , wherein execution of the first code segment , if performed, causes the condition to be evaluated and, if the condition is satisfied, causes the one or more uninitialized variables to be initialized and made available only within the first lower-level lexical scope ; determining that a second code segment of the conditional statement or the switch statement (a) references the one or more uninitialized variables and (b) is in the sequence of same-level code segments or in a second lower-level lexical scope outside of the first lower-level lexical scope ; and presenting an error message indicating that the one or more uninitialized variables is out of scope for the second code segment .
A composition of matter comprising: an antibody; a polymeric network formed from 2-methacryloyloxyethyl phosphorylcholine and configured to form a nanocapsule that encapsulates the antibody; a hydrolysable crosslinking moiety comprising a glycerol dimethacrylate and/or a Poly(DL-lactide)-b-Poly(ethylene glycol)-b-Poly(DL-lactide)-diacrylate triblock copolymer coupled to polymers forming the polymeric network; and a targeting agent comprising CXCL13 coupled to the polymeric network; wherein: the nanocapsule is formed in situ on the antibody; constituents and ratios of the antibody, the polymeric network, the hydrolysable crosslinking moiety and the targeting agent are disposed in a three-dimensional architecture so that: the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule. an antibody; a polymeric network formed from 2-methacryloyloxyethyl phosphorylcholine and configured to form a nanocapsule that encapsulates the antibody; a hydrolysable crosslinking moiety comprising a glycerol dimethacrylate and/or a Poly(DL-lactide)-b-Poly(ethylene glycol)-b-Poly(DL-lactide)-diacrylate triblock copolymer coupled to polymers forming the polymeric network; and a targeting agent comprising CXCL13 coupled to the polymeric network; wherein: the nanocapsule is formed in situ on the antibody; constituents and ratios of the antibody, the polymeric network, the hydrolysable crosslinking moiety and the targeting agent are disposed in a three-dimensional architecture so that: the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule. the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule.
A frozen confection dispensing apparatus comprising: a freezer section including a base product; a dispensing section connected to the freezer section, the dispensing section including a mixing cylinder and a plunger movably positioned within the mixing cylinder, the mixing cylinder including at least one injection port; a user interface allowing a user to select a desired flavor; a flavoring section including a plurality of flavor syrups linked with a syrup pump and connected to the at least one injection port; a mixing motor assembly including a motor attached to a shaft, the shaft terminating at a terminal end in the mixing cylinder, the terminal end including a mixing blade attached thereon; a stepper motor connected to the plunger and moving the plunger within the mixing cylinder; a control mechanism connected with the stepper motor and syrup pump selectively moving the plunger wherein a syrup dispense rate and timing is sequenced by the control mechanism with the stepper motor driven plunger wherein mixing of the base product and flavor syrup within the mixing cylinder is precisely controlled improving a product quality at a beginning and end of a dispense cycle eliminating carryover of flavor syrup during a dispensing cycle. a freezer section including a base product; a dispensing section connected to the freezer section, the dispensing section including a mixing cylinder and a plunger movably positioned within the mixing cylinder, the mixing cylinder including at least one injection port; a user interface allowing a user to select a desired flavor; a flavoring section including a plurality of flavor syrups linked with a syrup pump and connected to the at least one injection port; a mixing motor assembly including a motor attached to a shaft, the shaft terminating at a terminal end in the mixing cylinder, the terminal end including a mixing blade attached thereon; a stepper motor connected to the plunger and moving the plunger within the mixing cylinder; a control mechanism connected with the stepper motor and syrup pump selectively moving the plunger wherein a syrup dispense rate and timing is sequenced by the control mechanism with the stepper motor driven plunger wherein mixing of the base product and flavor syrup within the mixing cylinder is precisely controlled improving a product quality at a beginning and end of a dispense cycle eliminating carryover of flavor syrup during a dispensing cycle.
An electrode such as an anode, the electrode comprising: a current collector; and a composite material on the current collector, the composite material comprising one or more types of carbon phases as a substantially continuous phase with micrometer-sized silicon particles distributed throughout the composite material, wherein the current collector comprises stainless steel, wherein the composite material is formed on the current collector and adhered to the current collector by pyrolysing, on the current collector, a mixture comprising a precursor and micrometer-sized silicon particles to convert the precursor into the one or more types of carbon phases. a current collector; and a composite material on the current collector, the composite material comprising one or more types of carbon phases as a substantially continuous phase with micrometer-sized silicon particles distributed throughout the composite material, wherein the current collector comprises stainless steel, wherein the composite material is formed on the current collector and adhered to the current collector by pyrolysing, on the current collector, a mixture comprising a precursor and micrometer-sized silicon particles to convert the precursor into the one or more types of carbon phases.
A system, comprising a plurality of battery packs , characterised by : a plurality of battery pack trays , each battery pack tray including a battery charging circuit and one or more receptacles for receiving one or more of the battery packs ; and a kiosk comprising a storage unit configured to receive and store the plurality of battery pack trays , a power module configured to deliver power to the battery pack trays (200, and a controller that is configured to control dispensing of the battery pack trays and the battery packs from the kiosk , wherein each battery pack tray is configured to be alternatively powered by the power module in the kiosk or by an external power source apart from the kiosk to enable the charging circuit in the battery pack tray to charge each of the battery packs that is received in each receptacle . a plurality of battery pack trays , each battery pack tray including a battery charging circuit and one or more receptacles for receiving one or more of the battery packs ; and a kiosk comprising a storage unit configured to receive and store the plurality of battery pack trays , a power module configured to deliver power to the battery pack trays (200, and a controller that is configured to control dispensing of the battery pack trays and the battery packs from the kiosk , wherein each battery pack tray is configured to be alternatively powered by the power module in the kiosk or by an external power source apart from the kiosk to enable the charging circuit in the battery pack tray to charge each of the battery packs that is received in each receptacle .
Coupling apparatus for a gearshift lever of a motor vehicle gearshift lever apparatus, the coupling apparatus comprising a movable sliding element with a receptacle for receiving a section of the gearshift lever ; and a guide for guiding a two-dimensional movement of the sliding element , the guide having at least one guide element , with which the sliding element is in engagement; and it being possible, in the engaged state, for the sliding element to be moved along two movement axes (A, B), which are different from one another, with respect to the at least one guide element , characterized in that the guide has a further guide element , with which the sliding element is in engagement, the guide element and the further guide element being arranged so as to lie opposite one another with the sliding element being positioned in between.
A heat-resistant alloy characterized by consisting of first phase being a W metal phase, a second phase of Mo 5 SiB 2 , and a third phase of a titanium carbonitride phase, and a balance being inevitable compounds and inevitable impurities, wherein the inevitable compounds are MoB, Mo 3 Si, Mo 5 Si 3 and Mo 2 C, wherein a composition of the titanium carbonitride is expressed by TiC x N 1-x , wherein x is from 0.3 to 0.7; wherein the content of the titanium carbonitride is 0.5 mass % or more and 75 mass % or less; wherein the content of the Mo 5 SiB 2 is 5 mass % or more and 75 mass % or less.
A method of wireless communication at a wireless device , the method comprising: establishing a connection with an access node, AN, of a local area network, LAN; transmitting a query to the AN for an indication of one or more protocol end points for an authentication; receiving the indication of the one or more protocol end points for the authentication, wherein the one or more protocol end points comprise a non-access stratum, NAS, layer, a radio resource control, RRC, layer, or a combination thereof; determining to perform the authentication via a particular authentication end point based at least in part on the received indication of the one or more protocol end points; transmitting an authentication indication comprising the determination to perform the authentication; and performing the authentication via the connection established with the AN and the particular authentication end point, based at least in part on the determination to perform the authentication. establishing a connection with an access node, AN, of a local area network, LAN; transmitting a query to the AN for an indication of one or more protocol end points for an authentication; receiving the indication of the one or more protocol end points for the authentication, wherein the one or more protocol end points comprise a non-access stratum, NAS, layer, a radio resource control, RRC, layer, or a combination thereof; determining to perform the authentication via a particular authentication end point based at least in part on the received indication of the one or more protocol end points; transmitting an authentication indication comprising the determination to perform the authentication; and performing the authentication via the connection established with the AN and the particular authentication end point, based at least in part on the determination to perform the authentication.
A delivery system for delivering a heart valve prosthesis comprising: a heart valve prosthesis ; and a delivery catheter having no capsule covering a full length of the heart valve prosthesis, the delivery catheter including, a capsule segment configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment and the cinch mechanism are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter is in a delivery configuration. a heart valve prosthesis ; and a delivery catheter having no capsule covering a full length of the heart valve prosthesis, the delivery catheter including, a capsule segment configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment and the cinch mechanism are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter is in a delivery configuration. a capsule segment configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment and the cinch mechanism are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter is in a delivery configuration.