mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a service entity for a service supporting service capabilities through a set of application programming interfaces, APIs, in a network, the method comprising: receiving, from an application entity via the network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service entity for the service in the network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the another service entity , a response to the requested data analytics operation on the data. receiving, from an application entity via the network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service entity for the service in the network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the another service entity , a response to the requested data analytics operation on the data.
A method for optimizing a process in an automatic control and automation system across both a continuous conversion of initial components into a plurality of blending components and a non-continuous conversion of the plurality of blending components into a plurality of desired fuel products, the method comprising: receiving constraints on each of the initial components; receiving constraints on each of the plurality of blending components, wherein the constraints on each of the plurality of blending components include: a lower production limit for a particular blending component as well as an upper production limit for that particular blending component, and available storage space for one or more of the blending components; receiving information on the plurality of desired fuel products to be produced from the plurality of blending components including a quantity of each of the plurality of desired fuel products to be produced and a recipe that specifies how the plurality of blending components are to be combined to form each of the plurality of desired fuel products; performing an optimization that includes both the continuous conversion of the initial components into the plurality of blending components and the subsequent non-continuous conversion of the plurality of desired fuel products, subject to the constraints on each of one or more of the initial components, the constraints on each of the plurality of blending components, the recipe for each of the plurality of desired fuel products, and the quantity of each of the plurality of desired fuel products to be produced receiving constraints on each of the initial components; receiving constraints on each of the plurality of blending components, wherein the constraints on each of the plurality of blending components include: a lower production limit for a particular blending component as well as an upper production limit for that particular blending component, and available storage space for one or more of the blending components; a lower production limit for a particular blending component as well as an upper production limit for that particular blending component, and available storage space for one or more of the blending components; receiving information on the plurality of desired fuel products to be produced from the plurality of blending components including a quantity of each of the plurality of desired fuel products to be produced and a recipe that specifies how the plurality of blending components are to be combined to form each of the plurality of desired fuel products; performing an optimization that includes both the continuous conversion of the initial components into the plurality of blending components and the subsequent non-continuous conversion of the plurality of desired fuel products, subject to the constraints on each of one or more of the initial components, the constraints on each of the plurality of blending components, the recipe for each of the plurality of desired fuel products, and the quantity of each of the plurality of desired fuel products to be produced
A method of forming a ceramic matrix composite component comprising an integral fastener , comprising the steps of: (a) forming a fiber preform (130; 230) with an opening (110; 210) that has a wide portion at one surface of the fiber preform and a narrow portion at an opposite surface of the fiber preform, and rigidizing the fiber preform with a non-polymer-based material to provide a rigid preform structure and machining the opening in the rigid preform structure subsequent to rigidizing the preform; (b) forming a fiber fastener to comprise a fastener body extending from a first end to a second end, and forming the fiber fastener to have a foot portion at the second end that has a smaller width than a head portion at the first end, and including machining the opening in the rigid preform structure to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion ; (c) inserting the fiber fastener into the opening (110; 210) to form a dry fiber preform and fiber fastener assembly, wherein the fastener body extends through the dry fiber preform such that the head portion formed in step (b) is received within the wide portion of the opening; (d) infiltrating a matrix material into the fiber preform (130; 230) and fiber fastener to form a ceramic matrix composite component with an integral fastener ; and wherein the method further includes removing the non-polymer based material from the rigid preform structure prior to step (d), and machining the foot portion of the fiber fastener to receive a connecting structure subsequent to the step of infiltrating a matrix material into the rigid preform structure and fiber fastener . (a) forming a fiber preform (130; 230) with an opening (110; 210) that has a wide portion at one surface of the fiber preform and a narrow portion at an opposite surface of the fiber preform, and rigidizing the fiber preform with a non-polymer-based material to provide a rigid preform structure and machining the opening in the rigid preform structure subsequent to rigidizing the preform; (b) forming a fiber fastener to comprise a fastener body extending from a first end to a second end, and forming the fiber fastener to have a foot portion at the second end that has a smaller width than a head portion at the first end, and including machining the opening in the rigid preform structure to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion ; (c) inserting the fiber fastener into the opening (110; 210) to form a dry fiber preform and fiber fastener assembly, wherein the fastener body extends through the dry fiber preform such that the head portion formed in step (b) is received within the wide portion of the opening; (d) infiltrating a matrix material into the fiber preform (130; 230) and fiber fastener to form a ceramic matrix composite component with an integral fastener ; and
An indoor unit for an air-conditioning apparatus, comprising: a plastic design panel that pivots about an upper part to open and close as a result of shafts being engaged with pivot support parts ; and a reinforcement member disposed at a lower part of a back surface of the design panel , wherein the design panel includes a front panel part having a rectangular shape in front view, and a flange part projecting toward a back surface from a lower longitudinal edge of the front panel part , and wherein the reinforcement member has a shape extending in a longitudinal direction of the front panel part across a middle part of the design panel and is fixed to the design panel so as to be in contact with a back surface of the front panel part and an inner surface of the flange part characterized in that the design panel has two touch-preventing walls at positions respectively adjacent to a one end and an other end of the reinforcement member so as to project and extend over the back surface of the front panel part and the inner surface of the flange part , so that the edges of the one end and the other end are prevented from being exposed. a plastic design panel that pivots about an upper part to open and close as a result of shafts being engaged with pivot support parts ; and a reinforcement member disposed at a lower part of a back surface of the design panel , wherein the design panel includes a front panel part having a rectangular shape in front view, and a flange part projecting toward a back surface from a lower longitudinal edge of the front panel part , and a front panel part having a rectangular shape in front view, and a flange part projecting toward a back surface from a lower longitudinal edge of the front panel part , and wherein the reinforcement member has a shape extending in a longitudinal direction of the front panel part across a middle part of the design panel and is fixed to the design panel so as to be in contact with a back surface of the front panel part and an inner surface of the flange part characterized in that the design panel has two touch-preventing walls at positions respectively adjacent to a one end and an other end of the reinforcement member so as to project and extend over the back surface of the front panel part and the inner surface of the flange part , so that the edges of the one end and the other end are prevented from being exposed.
Docking station for an electronic hand stamp having an inkjet printhead, the docking station comprising: a body having a rest surface for receiving a substantially flat bottom side of an electronic hand stamp and a border at least partially framing the rest surface , wherein the docking station comprises at least one wiper element that is connected to the body and that projects on one side from the body and comprises a wiper blade for manually sweeping across an inkjet printhead, wherein the wiper element is supported moveable relative to the body , characterized in that the wiper element is retractable in the body . a body having a rest surface for receiving a substantially flat bottom side of an electronic hand stamp and a border at least partially framing the rest surface , wherein the docking station comprises at least one wiper element that is connected to the body and that projects on one side from the body and comprises a wiper blade for manually sweeping across an inkjet printhead, wherein the wiper element is supported moveable relative to the body , characterized in that the wiper element is retractable in the body .
A system for iterative ray tracing, comprising: receiving a first input comprising data indicative of an oblique incidence, OI, ionogram at an image processing module ; reducing at least one of noise and other spurious signals in the data, with the image processing module to programically produce a first output comprising first output data; autoscaling the first output data received from the image processing module, with an autoscaling and extraction module to programically produce a second output comprising data indicative of a separated O- trace and an X- trace; and iteratively processing the second output received from the autoscaling and extraction module, with an inversion module , to programically predict an electron density profile over a measurement region. receiving a first input comprising data indicative of an oblique incidence, OI, ionogram at an image processing module ; reducing at least one of noise and other spurious signals in the data, with the image processing module to programically produce a first output comprising first output data; autoscaling the first output data received from the image processing module, with an autoscaling and extraction module to programically produce a second output comprising data indicative of a separated O- trace and an X- trace; and iteratively processing the second output received from the autoscaling and extraction module, with an inversion module , to programically predict an electron density profile over a measurement region.
A gas generator, comprising: a water tank accommodating electrolyzed water, wherein the electrolyzed water comprises an electrolyte; an electrolysis device having an electrolyze tank _disposed within the water tank, the electrolysis device configured to electrolyze the electrolyzed water to generate a hydrogen-oxygen mixed gas; a condensate filter connected to the electrolysis device for condensing the hydrogen-oxygen mixed gas and filtering the electrolyte in the hydrogen-oxygen mixed gas to generate a filtered hydrogen-oxygen mixed gas and a filtered electrolyte; a humidification device accommodating a supplementary water and coupled to the condensate filter for humidifying the filtered hydrogen-oxygen mixed gas; and a pump device coupled to the water tank for generating a negative pressure in the water tank such that the supplementary water is pumped from the humidification device through the condensate filter to the water tank, and the filtered electrolyte in the condensate filter is flushed back to the water tank; characterized in that the gas generator further comprises a humidification filter coupled to the condensate filter and the humidification device to filter the filtered hydrogen-oxygen mixed gas ; wherein the gas generator is configured such that the generated flow rate of the hydrogen-oxygen mixed gas is between 360 to 600 liter per hour, and the loss of the electrolyte is less than 3g to 5g after the gas generator is operated between 40 to 60 hours. a water tank accommodating electrolyzed water, wherein the electrolyzed water comprises an electrolyte; an electrolysis device having an electrolyze tank _disposed within the water tank, the electrolysis device configured to electrolyze the electrolyzed water to generate a hydrogen-oxygen mixed gas; a condensate filter connected to the electrolysis device for condensing the hydrogen-oxygen mixed gas and filtering the electrolyte in the hydrogen-oxygen mixed gas to generate a filtered hydrogen-oxygen mixed gas and a filtered electrolyte; a humidification device accommodating a supplementary water and coupled to the condensate filter for humidifying the filtered hydrogen-oxygen mixed gas; and a pump device coupled to the water tank for generating a negative pressure in the water tank such that the supplementary water is pumped from the humidification device through the condensate filter to the water tank, and the filtered electrolyte in the condensate filter is flushed back to the water tank; characterized in that the gas generator further comprises a humidification filter coupled to the condensate filter and the humidification device to filter the filtered hydrogen-oxygen mixed gas ; wherein the gas generator is configured such that the generated flow rate of the hydrogen-oxygen mixed gas is between 360 to 600 liter per hour, and the loss of the electrolyte is less than 3g to 5g after the gas generator is operated between 40 to 60 hours.
A prosthetic limb socket comprising: a rigid support member comprising a distal base portion , a first cantilevered support portion extending around a majority of a circumference of the socket and a second cantilevered support portion opposite the first cantilevered support portion and defining a pair of windows between lateral edges of the first and second cantilevered support portions; first and second adjustable panels, each panel being disposed in one of the pair of windows between the first and second cantilevered support portions ; and means for adjusting a radial position of the panels relative to the support portions , wherein the panels are held in position between the cantilevered support portions by the means for adjusting. a rigid support member comprising a distal base portion , a first cantilevered support portion extending around a majority of a circumference of the socket and a second cantilevered support portion opposite the first cantilevered support portion and defining a pair of windows between lateral edges of the first and second cantilevered support portions; first and second adjustable panels, each panel being disposed in one of the pair of windows between the first and second cantilevered support portions ; and means for adjusting a radial position of the panels relative to the support portions , wherein the panels are held in position between the cantilevered support portions by the means for adjusting.
A repair length determination method comprising: an image acquiring step for acquiring, by an image acquiring unit , an image obtained by imaging a crack repair target region in a structure; a detection step for detecting, by a crack detecting unit , a crack from the acquired image; a display step for displaying, by a display control unit , the crack detected in the detection step; and a pointing step for pointing a plurality of points including two points at both ends of the crack in response to an instruction from a user, through an operation unit ; characterized by an interpolation curve creating step for creating, by an interpolation curve creating unit , an interpolation curve by using the points pointed in the pointing step; a repair length determining step for detecting, by a repair length determining unit , a length of the interpolation curve and determining the length of the interpolation curve as the repair length; and an output step for outputting, by an output unit , information of a width of the crack and a length of the interpolation curve corresponding to the width, as well as information of a repair method corresponding to the width. an image acquiring step for acquiring, by an image acquiring unit , an image obtained by imaging a crack repair target region in a structure; a detection step for detecting, by a crack detecting unit , a crack from the acquired image; a display step for displaying, by a display control unit , the crack detected in the detection step; and a pointing step for pointing a plurality of points including two points at both ends of the crack in response to an instruction from a user, through an operation unit ; characterized by an interpolation curve creating step for creating, by an interpolation curve creating unit , an interpolation curve by using the points pointed in the pointing step; a repair length determining step for detecting, by a repair length determining unit , a length of the interpolation curve and determining the length of the interpolation curve as the repair length; and an output step for outputting, by an output unit , information of a width of the crack and a length of the interpolation curve corresponding to the width, as well as information of a repair method corresponding to the width.
Earthwork method in which, starting from an underground cavity in the ground, a blind hole is formed by means of a boring device and a pipe with a closed wall is arranged in the blind hole and a drainage pipe is arranged in the pipe , wherein at least at the front face of its closed end , the blind hole is closed against the ingress of liquid from the ground, characterized in that the boring device comprises a down-the-hole hammer , which is driven by an operating device arranged in the cavity via a power transmission device in the form of a shaft . at least at the front face of its closed end , the blind hole is closed against the ingress of liquid from the ground, characterized in that the boring device comprises a down-the-hole hammer , which is driven by an operating device arranged in the cavity via a power transmission device in the form of a shaft .
Connection device comprising: - a socket body qualified according to a first standard as satisfying the requirements for withstanding harsh environments, the socket body being hollow and intended to be attached to a panel of on-board equipment , the socket body comprising an attachment plate ; - an external connector rigidly housed in the socket body , the external connector being defined according to a second standard that is different from the first standard, said external connector not being qualified as satisfying the requirements of the first standard; - an internal connector linked to the external connector , said internal connector being adapted to be connected to a board of the on-board equipment ; - a flexible, impedance-matched transition housed at least partially in the socket body and positioned between the external connector and the internal connector , which is configured, when in operation, to match the impedance of the lines passing between the internal connector and the external connector , the transition comprising a flexible circuit connecting, by means of controlled impedance lines, a first printed circuit supporting the external connector and a second circuit supporting the internal connector ; - a support plate supporting the first circuit , said support plate being attached to the attachment plate of the socket body , said flexible circuit extending from the support plate to the internal connector . - a socket body qualified according to a first standard as satisfying the requirements for withstanding harsh environments, the socket body being hollow and intended to be attached to a panel of on-board equipment , the socket body comprising an attachment plate ; - an external connector rigidly housed in the socket body , the external connector being defined according to a second standard that is different from the first standard, said external connector not being qualified as satisfying the requirements of the first standard; - an internal connector linked to the external connector , said internal connector being adapted to be connected to a board of the on-board equipment ; - a flexible, impedance-matched transition housed at least partially in the socket body and positioned between the external connector and the internal connector , which is configured, when in operation, to match the impedance of the lines passing between the internal connector and the external connector , the transition comprising a flexible circuit connecting, by means of controlled impedance lines, a first printed circuit supporting the external connector and a second circuit supporting the internal connector ; - a support plate supporting the first circuit , said support plate being attached to the attachment plate of the socket body , said flexible circuit extending from the support plate to the internal connector .
A process of preparing Ixazomib citrate of formula I: characterized by reaction of the boroester of formula VII : wherein R1 to R4 can be independently hydrogen, a C1 to C5 alkyl, R2 and R3 can form together a hydrocarbon cycle (C5 to C7), or possibly bi- or tricyclic substituents with the total number of carbon atoms C6 to C10, with boric acid and citric acid, producing Ixazomib citrate of formula I. R1 to R4 can be independently hydrogen, a C1 to C5 alkyl, R2 and R3 can form together a hydrocarbon cycle (C5 to C7), or possibly bi- or tricyclic substituents with the total number of carbon atoms C6 to C10,