mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing myo-inositol or a myo-inositol derivative, comprising: 1) a step of preparing a transformant of a microorganism that does not express endogenous inositol-1-phosphate synthase, the transformant containing at least an inositol-1-phosphate synthase-encoding exogenous gene introduced expressibly into the transformant, and the transformant having a gene recombination to induce overproduction of functional inositol monophosphatase within the transformant, wherein the microorganism that does not express endogenous inositol-1-phosphate synthase is a prokaryote and has an endogenous inositol monophosphatase gene, and wherein the overproduction of inositol monophosphatase is induced by introducing an exogenous inositol monophosphatase gene into the microorganism; and 2) a step of bringing the transformant into contact with a carbon source that can be converted into myo-inositol or the myo-inositol derivative by the transformant under conditions suited to growth and/or maintenance of the transformant, wherein said myo-inositol derivative is a compound represented by the following structural formula: 1) a step of preparing a transformant of a microorganism that does not express endogenous inositol-1-phosphate synthase, the transformant containing at least an inositol-1-phosphate synthase-encoding exogenous gene introduced expressibly into the transformant, and the transformant having a gene recombination to induce overproduction of functional inositol monophosphatase within the transformant, wherein the microorganism that does not express endogenous inositol-1-phosphate synthase is a prokaryote and has an endogenous inositol monophosphatase gene, and wherein the overproduction of inositol monophosphatase is induced by introducing an exogenous inositol monophosphatase gene into the microorganism; and 2) a step of bringing the transformant into contact with a carbon source that can be converted into myo-inositol or the myo-inositol derivative by the transformant under conditions suited to growth and/or maintenance of the transformant, wherein said myo-inositol derivative is a compound represented by the following structural formula:
A method of configuring a contactless communication circuit hosting at least two applications compatible with different communication protocols, comprising the steps of: initializing an identifier (SAK) of a communication protocol to a first value; in case of failure of a transaction with a proximity coupling device, incrementing a counter (F); and when the counter value reaches a threshold (TH), changing the value of the identifier for a second value. initializing an identifier (SAK) of a communication protocol to a first value; in case of failure of a transaction with a proximity coupling device, incrementing a counter (F); and when the counter value reaches a threshold (TH), changing the value of the identifier for a second value.
An attachment device for attaching and removing a distance measuring instrument to and from a telescope of a theodolite , wherein said distance measuring instrument emits a distance measuring light and performs a distance measurement by receiving a reflected light from an object to be measured, wherein said attachment device comprises a base unit for fixing said distance measuring instrument, and a fixing unit which is fixed on said telescope of said theodolite and which is adapted for fixing said base unit , characterized in that said attachment device includes a rhombic prism provided to cover between an optical axis of said distance measuring instrument and an optical axis of said telescope, and an alignment unit for performing alignment so that said distance measuring light entering said rhombic prism concurs with the optical axis of said telescope, wherein said rhombic prism has two reflection surfaces each on an upper end and at a lower end respectively and is arranged such that said distance measuring light emitted from said distance measuring instrument is deflected downward so as to perpendicularly cross a sighting optical axis of said telescope by the reflection surface of the upper end, and then, said distance measuring light is deflected on the reflection surface of the lower end in parallel direction so as to concur with the sighting optical axis of said telescope unit .
A floating structure installation system for installing a floating structure including a first portion having a submersible section to be located under a water surface during installation and a second portion connectable to the first portion , the floating structure installation system comprising: a body capable of traveling on water; a first holding part capable of holding the first portion on the body ; wherein the first holding part includes a first lifting unit for lifting and lowering the first portion , characterized in that a first cradle includes the first holding part , and the floating structure installation system comprises a second cradle including a second holding part capable of holding the second portion on the body , and a moving device configured to move at least one of the first cradle or the second cradle on the body to connect the first portion held by the first holding part and the second portion held by the second holding part , wherein the second cradle is configured to cover the first cradle from above when the second cradle is moved to the same position as the first cradle so that the first cradle is placed inside the second cradle . a body capable of traveling on water; a first holding part capable of holding the first portion on the body ; wherein the first holding part includes a first lifting unit for lifting and lowering the first portion , characterized in that a first cradle includes the first holding part , and the floating structure installation system comprises a second cradle including a second holding part capable of holding the second portion on the body , and a moving device configured to move at least one of the first cradle or the second cradle on the body to connect the first portion held by the first holding part and the second portion held by the second holding part , wherein the second cradle is configured to cover the first cradle from above when the second cradle is moved to the same position as the first cradle so that the first cradle is placed inside the second cradle .
Method of joining a first element in composite material with a second element in composite material to define a structural component of an aircraft, the method comprising the steps of: a) arranging the first element in contact on the second element ; b) applying a non-rigid heating layer on the first element ; c) applying a layer of shape memory thermoplastic polymer , pre-loaded in a compressed non-equilibrium condition, onto the heating layer ; d) applying a vacuum bag to the assembly thus obtained; e) sealing the vacuum bag to define a vacuum chamber housing the first element , at least part of the second element , the heating layer and the shape memory layer ; f) applying vacuum inside the vacuum chamber ; g) applying heat to the first element , to the second element and to the shape memory layer by activating the heating layer ; h) expanding the shape memory layer from the compressed non-equilibrium condition to an expanded equilibrium condition by means of the step g) of applying heat; i) applying pressure to the first element for compacting it against the second element by means of the step h) of expanding. a) arranging the first element in contact on the second element ; b) applying a non-rigid heating layer on the first element ; c) applying a layer of shape memory thermoplastic polymer , pre-loaded in a compressed non-equilibrium condition, onto the heating layer ; d) applying a vacuum bag to the assembly thus obtained; e) sealing the vacuum bag to define a vacuum chamber housing the first element , at least part of the second element , the heating layer and the shape memory layer ; f) applying vacuum inside the vacuum chamber ; g) applying heat to the first element , to the second element and to the shape memory layer by activating the heating layer ; h) expanding the shape memory layer from the compressed non-equilibrium condition to an expanded equilibrium condition by means of the step g) of applying heat; i) applying pressure to the first element for compacting it against the second element by means of the step h) of expanding.
A method for synchronizing user data, comprising: when user subscription data of a User equipment, UE, at an old mobility management unit and in an idle state are changed and a related activated bearer modification is to be triggered, storing only, by the old mobility management unit, the updated user subscription data and recording, by the old mobility management unit, an identification to indicate that a bearer modification procedure is triggered, by the old mobility management unit, when the UE enters a connected state (S401); when the UE moves into a coverage area of a new mobility management unit, sending (S402), by the old mobility management unit, an indication of whether the bearer modification procedure is to be triggered to the new mobility management unit; wherein the indication comprises the identification to indicate that the bearer modification procedure is triggered ; and determining (S403), by the new mobility management unit, whether to trigger the bearer modification procedure according to the indication. when user subscription data of a User equipment, UE, at an old mobility management unit and in an idle state are changed and a related activated bearer modification is to be triggered, storing only, by the old mobility management unit, the updated user subscription data and recording, by the old mobility management unit, an identification to indicate that a bearer modification procedure is triggered, by the old mobility management unit, when the UE enters a connected state (S401); when the UE moves into a coverage area of a new mobility management unit, sending (S402), by the old mobility management unit, an indication of whether the bearer modification procedure is to be triggered to the new mobility management unit; wherein the indication comprises the identification to indicate that the bearer modification procedure is triggered ; and determining (S403), by the new mobility management unit, whether to trigger the bearer modification procedure according to the indication.
A system for processing a whole slide image, WSI, of a biopsy, comprising a processor which is adapted to: detect tissue present in the WSI relating to one biopsy; create a skeleton of the shape of the detected tissue; select a skeleton path as the longest continuous path through the tissue; determine tissue pathologies of the detected tissue; and generate an image comprising: a line representing the skeleton path with different line representations along the line representing different tissue pathologies; and a pathology summary for the overall line, wherein the pathology summary comprises a biopsy length and a fraction of the line occupied by a particular type of tissue pathology. detect tissue present in the WSI relating to one biopsy; create a skeleton of the shape of the detected tissue; select a skeleton path as the longest continuous path through the tissue; determine tissue pathologies of the detected tissue; and generate an image comprising: a line representing the skeleton path with different line representations along the line representing different tissue pathologies; and a pathology summary for the overall line, wherein the pathology summary comprises a biopsy length and a fraction of the line occupied by a particular type of tissue pathology. a line representing the skeleton path with different line representations along the line representing different tissue pathologies; and a pathology summary for the overall line, wherein the pathology summary comprises a biopsy length and a fraction of the line occupied by a particular type of tissue pathology.
A method of making an oxysterol, the method comprising reacting a diol having the formula: with a borane compound to form the oxysterol or a pharmaceutically acceptable salt, hydrate or solvate thereof having the formula: wherein R 1 is a straight chain alkyl, and R 2 is a straight chain alkyl, and, optionally, the borane compound is reacted with the diol at a temperature of less than 5 °C.
A computing device comprising: one or more memory resources ; a functional resource interface application configured to access one or more functional resources provided on, or available to the computing device ; and one or more processors coupled to the memory resources , the one or more processors to: receive a request , from a web-based programmatic resource that is executed within a browser of the computing device , the request specifying a functional resource of the one or more functional resources and a document for printing, wherein the functional resource is not otherwise accessible to the web-based programmatic resource through a browser object model of the browser, retrieve the document and create, by the functional resource interface application , a rasterized version of the document according to the request, and communicate to a web service , by the functional resource interface application , the rasterized version of the document for further processing. one or more memory resources ; a functional resource interface application configured to access one or more functional resources provided on, or available to the computing device ; and one or more processors coupled to the memory resources , the one or more processors to: receive a request , from a web-based programmatic resource that is executed within a browser of the computing device , the request specifying a functional resource of the one or more functional resources and a document for printing, wherein the functional resource is not otherwise accessible to the web-based programmatic resource through a browser object model of the browser, retrieve the document and create, by the functional resource interface application , a rasterized version of the document according to the request, and communicate to a web service , by the functional resource interface application , the rasterized version of the document for further processing. receive a request , from a web-based programmatic resource that is executed within a browser of the computing device , the request specifying a functional resource of the one or more functional resources and a document for printing, wherein the functional resource is not otherwise accessible to the web-based programmatic resource through a browser object model of the browser, retrieve the document and create, by the functional resource interface application , a rasterized version of the document according to the request, and communicate to a web service , by the functional resource interface application , the rasterized version of the document for further processing.
A computer-implemented method for locating code image regions in an initial image of a code-bearing object , wherein first candidates for code image regions are determined in a first segmentation method using a method of classical image processing without machine learning, characterized in that second candidates for code image regions are determined in a second segmentation method using machine learning, and in that the first and second candidates are combined to find the code image regions.
Method for controlling an internal combustion engine comprising at least one cylinder , at least one intake valve for admitting into the said cylinder and at least one exhaust valve for exhausting the burnt gases from the said cylinder , the said engine being equipped with an exhaust gas recirculation circuit and with variable valve timing means, the said variable valve timing means consisting of a first actuator actuating the said intake valve and of a second actuator actuating the said exhaust valve, characterized in that it comprises the following steps: - acquiring a setpoint T q sp for the torque of the said engine; - determining a setpoint VVT int for the position of the said first actuator and a setpoint VVT exh for the position of the said second actuator by applying a burnt gas flow model (MEGB) which connects the setpoints for the positions of the said actuators to the setpoint T q sp for the torque of the engine, the said burnt gas flow model (MEGB) comprising a cylinder filling model (MR) and characterizing the flow of the burnt gases in the said external exhaust gas recirculation (EGR) and internal exhaust gas recirculation (IGR) circuit as a result of the variable valve timing (VVT); and - controlling the fraction of burnt gases in the said cylinder by applying the position setpoints VVT int and VVT exh to the said variable valve timing means (8; 9). - acquiring a setpoint T q sp for the torque of the said engine; - determining a setpoint VVT int for the position of the said first actuator and a setpoint VVT exh for the position of the said second actuator by applying a burnt gas flow model (MEGB) which connects the setpoints for the positions of the said actuators to the setpoint T q sp for the torque of the engine, the said burnt gas flow model (MEGB) comprising a cylinder filling model (MR) and characterizing the flow of the burnt gases in the said external exhaust gas recirculation (EGR) and internal exhaust gas recirculation (IGR) circuit as a result of the variable valve timing (VVT); and - controlling the fraction of burnt gases in the said cylinder by applying the position setpoints VVT int and VVT exh to the said variable valve timing means (8; 9).
A data transmission method performed by a terminal device , comprising: determining , when a data duplication function of a packet data convergence protocol PDCP layer is switched from an activated state to an inactivated state, a first entity used for transmitting a protocol data unit PDU of the PDCP layer out of two different radio link control RLC entities (a, b), wherein the two different RLC entities are mapped to different physical layer carriers, and are used for transmitting PDCP PDU and duplicated PDCP PDU generated by the PDCP layer in the activated state; and when the data duplication function of the PDCP layer is in the activated state, an RLC entity of the two different RLC entities is mapped onto a logical channel group LCG, while another RLC entity of the two different RLC entities is not mapped onto the LCG; and sending the PDU to a network device via the first entity, wherein the determining a first entity used for transmitting a PDU of the PDCP layer comprises: determining the RLC entity mapped onto the LCG as the first entity. determining , when a data duplication function of a packet data convergence protocol PDCP layer is switched from an activated state to an inactivated state, a first entity used for transmitting a protocol data unit PDU of the PDCP layer out of two different radio link control RLC entities (a, b), wherein the two different RLC entities are mapped to different physical layer carriers, and are used for transmitting PDCP PDU and duplicated PDCP PDU generated by the PDCP layer in the activated state; and when the data duplication function of the PDCP layer is in the activated state, an RLC entity of the two different RLC entities is mapped onto a logical channel group LCG, while another RLC entity of the two different RLC entities is not mapped onto the LCG; and sending the PDU to a network device via the first entity, wherein the determining a first entity used for transmitting a PDU of the PDCP layer comprises: determining the RLC entity mapped onto the LCG as the first entity.
A pulverized coal injecting apparatus of a melting furnace , the pulverized coal injecting apparatus comprising: at least one pulverized coal injecting burner which is installed at an upper portion of a bed of a melting furnace ; a control unit which controls an injecting amount of pulverized coal supplied to the pulverized coal injecting burner; and at least one dust burner which is provided below the pulverized coal injecting burner to selectively and additionally inject the pulverized coal into the upper portion of the bed of the melting furnace, wherein the pulverized coal injecting burner is connected to pulverized coal producing equipment to be supplied with pulverized coal or is connected to a pulverized coal distributing valve which is installed between the pulverized coal producing equipment and a tuyere installed in the melting furnace to be supplied with the pulverized coal, characterized in that the at least one pulverized coal injecting burner is provided at an upper portion of the at least one dust burner . at least one pulverized coal injecting burner which is installed at an upper portion of a bed of a melting furnace ; a control unit which controls an injecting amount of pulverized coal supplied to the pulverized coal injecting burner; and at least one dust burner which is provided below the pulverized coal injecting burner to selectively and additionally inject the pulverized coal into the upper portion of the bed of the melting furnace, wherein the pulverized coal injecting burner is connected to pulverized coal producing equipment to be supplied with pulverized coal or is connected to a pulverized coal distributing valve which is installed between the pulverized coal producing equipment and a tuyere installed in the melting furnace to be supplied with the pulverized coal, characterized in that the at least one pulverized coal injecting burner is provided at an upper portion of the at least one dust burner .
Method for manufacturing a coating by means of laser pulses, characterized in that - a target of a desired shape is manufactured from two different materials by means of pressure and/or temperature by compacting, in which the ablation threshold (J/cm 2 ) of the first material of the target is lower than that of the second material; in which the first material functions as a coating for the particles of the second material which is a powdery substance, the first and the second material thus together forming a coated powder before compacting; and in which the first material is metallic, inorganic or organic material; - laser pulses are directed to the target for detaching the materials and for forming particles with a desired size and material distribution, in which the difference in the ablation thresholds between the first material and the second material intensifies selective ablation and the controlled dispersion of the material into particles, in which the duration of an individual laser pulse is between 0.5 ps - 10 ns; and - the materials detached from the target are directed towards the substrate to form a coating on the surface or part of the surface of the substrate. - a target of a desired shape is manufactured from two different materials by means of pressure and/or temperature by compacting, in which the ablation threshold (J/cm 2 ) of the first material of the target is lower than that of the second material; in which the first material functions as a coating for the particles of the second material which is a powdery substance, the first and the second material thus together forming a coated powder before compacting; and in which the first material is metallic, inorganic or organic material; - laser pulses are directed to the target for detaching the materials and for forming particles with a desired size and material distribution, in which the difference in the ablation thresholds between the first material and the second material intensifies selective ablation and the controlled dispersion of the material into particles, in which the duration of an individual laser pulse is between 0.5 ps - 10 ns; and - the materials detached from the target are directed towards the substrate to form a coating on the surface or part of the surface of the substrate.