mhurhangee/patent-ind-claim-en huggingface dataset:
A medical apparatus for preventing leakage of an injected therapeutic agent from a target site of injection inside the body of a subject, wherein the medical apparatus comprises: an injection device for injecting a therapeutic agent into a target site of injection inside the body of a subject, wherein the injection of the therapeutic agent creates an unwanted or artificially-created space or cavity inside the body of a subject; a filling device that can be delivered to the unwanted or artificially-created space or cavity, wherein the filling device is adapted to take the shape that can substantially fill the unwanted or artificially-created space or cavity or substantially close the unwanted or artificially-created space or cavity, wherein the filling device is made of biocompatible material comprising photochemically crosslinked type I collagen matrix, collagen and glycosaminoglycan (GAG) composite, or a combination thereof; wherein the filling device is an annulus plug; and wherein the filling device is in dehydrated state. an injection device for injecting a therapeutic agent into a target site of injection inside the body of a subject, wherein the injection of the therapeutic agent creates an unwanted or artificially-created space or cavity inside the body of a subject; a filling device that can be delivered to the unwanted or artificially-created space or cavity, wherein the filling device is adapted to take the shape that can substantially fill the unwanted or artificially-created space or cavity or substantially close the unwanted or artificially-created space or cavity, wherein the filling device is made of biocompatible material comprising photochemically crosslinked type I collagen matrix, collagen and glycosaminoglycan (GAG) composite, or a combination thereof; wherein the filling device is an annulus plug; and wherein the filling device is in dehydrated state.
A balloon coating method for forming a coating layer on an outer surface of a balloon of a balloon catheter , the balloon coating method comprising: a pulling step (a) of pulling an inner tube to which the balloon is adhered on a distal side, and which inner tube has a core member inserted and held in an axial direction of the balloon to thereby straighten a bend of the balloon ; or a pulling step (b) comprising pulling the distal-side end portion of the balloon that is adhered to an inner tube, wherein said inner tube has a core member inserted and held in an axial direction of the balloon to thereby straighten a bend of the balloon ; and a coating step of rotating the balloon about an axis of the balloon , with the balloon maintained in a bend-straightened state, and coating the outer surface of the balloon with a coating liquid (R) containing a drug. a pulling step (a) of pulling an inner tube to which the balloon is adhered on a distal side, and which inner tube has a core member inserted and held in an axial direction of the balloon to thereby straighten a bend of the balloon ; or a pulling step (b) comprising pulling the distal-side end portion of the balloon that is adhered to an inner tube, wherein said inner tube has a core member inserted and held in an axial direction of the balloon to thereby straighten a bend of the balloon ; and a coating step of rotating the balloon about an axis of the balloon , with the balloon maintained in a bend-straightened state, and coating the outer surface of the balloon with a coating liquid (R) containing a drug.
A maize plant, maize plant part or maize seed having in its genome a genomic window comprising at least one transgenic target site for site specific integration (SSI) integrated into at least one double-strand-break target site, wherein said genomic window is flanked by: a) at least a first marker comprising SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:6 or SEQ ID NO:12; and, b) at least a second marker comprising SEQ ID NO:2, SEQ ID NO:6 or SEQ ID NO:12; and wherein said double-strand-break target site is a Cas9 endonuclease target site selected from the group consisting of SEQ ID NO: 3-5 or 7-11 or an active variant, capable of being recognized and cleaved by a double strand break-inducing agent, with at least 95% sequence identity to said Cas9 endonuclease target site. a) at least a first marker comprising SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:6 or SEQ ID NO:12; and, b) at least a second marker comprising SEQ ID NO:2, SEQ ID NO:6 or SEQ ID NO:12; and
A prosthetic heart valve comprising a composite material comprised in a leaflet (140; 400; 600) comprising fibers embedded in a polymer matrix , wherein the leaflet (140; 400; 600) comprises a belly region having a bottom edge , a first side edge , a second side edge , and a free edge , the leaflet further comprising two sleeve portions that extend outwardly from the belly portion , wherein the fibers include radially-directed fibers that extend from the free edge to the bottom edge and at least one curvilinear fiber that begins at one side edge of the leaflet belly region and ends at an opposite side edge extending along a U-shape contour therebetween, characterized in that the fibers further include circumferentially-directed fibers that extend from one side edge to the opposite side edge of the sleeve portions and in that each of the fibers has a plurality of undulations . .
A series of retention index standards for use in liquid chromatography, the series of retention index standards comprising two or more neutrally charged homologous compounds, each compound comprising a different 1-alkylpyridinesulfonic acid of Formula (II): where n is an integer from 0 to 23, and where each compound in the series has a different value for n, and wherein the liquid chromatography comprises liquid chromatography-mass spectrometry or wherein the liquid chromatography is liquid chromatography with an ultraviolet absorbance detection system.
Locking pin arrangement with a basic element for receiving an insert and a locking pin for fixing the insert in the basic element , wherein the locking pin is at least partially inserted into a borehole of the basic element and is pressed towards an insertion opening of the borehole by a spring positioned between a first end of the locking pin and a bearing surface of the borehole , a second end of the locking pin being shaped for fixing the insert ; wherein the borehole extends along an axis; wherein the locking pin has a guiding surface for axial guidance in the borehole , the inner wall of the borehole together with the guiding surface of the locking pin defining a cylindrical fit so that the locking pin is axially movable between a locking position and an opening position, characterized in that the locking pin further has an outer thread and a constriction arranged axially between the outer thread and the guiding surface , the outer thread being positioned axially between the first end of the locking pin and the constriction , the diameter of the outer thread is smaller than the diameter of the guiding surface and the diameter of the locking pin on the constriction is smaller than the diameter of the outer thread , and in that in an assembled configuration an inner thread extends from the inner wall of the borehole into the space formed by the constriction ; wherein the inner thread is configured to match the outer thread in order to allow the locking pin to be screwed in through the inner thread during assembly until the threads are free again; the outer thread preventing the locking pin from falling outside when the locking pin is not pressed inwardly.
A developer container comprising: a body in which a plurality of developer chambers that store developer are arranged, each developer chamber having a first opening configured to allow the developer to pass therethrough and a second opening ; and a plurality of covers that are fixed to the body by welding or adhesive and seal the second openings of the plurality of developer chambers , the plurality of covers being separately provided to correspond to the second openings of the plurality of developer chambers .
A wireless communication device comprising: a communication unit configured to perform data transmission to a different device via one of a plurality of frequency channels classified into a plurality of groups, said plurality of groups including a first group and a second group; and a control unit configured to select one of the frequency channels for the data transmission from the first group or the second group on the basis of a result of detection of a reference signal transmitted from the different device via one of the frequency channels belonging to the first group, wherein the control unit is configured to compare the reception power of the reference signal received via one of the frequency channels belonging to the first group to a threshold and to determine whether to select the corresponding frequency channel on the basis of a result of the comparison. a communication unit configured to perform data transmission to a different device via one of a plurality of frequency channels classified into a plurality of groups, said plurality of groups including a first group and a second group; and a control unit configured to select one of the frequency channels for the data transmission from the first group or the second group on the basis of a result of detection of a reference signal transmitted from the different device via one of the frequency channels belonging to the first group, wherein the control unit is configured to compare the reception power of the reference signal received via one of the frequency channels belonging to the first group to a threshold and to determine whether to select the corresponding frequency channel on the basis of a result of the comparison.
A radio network node comprising processing circuitry and an interface configured to: transmit to a core network node a first message that includes a Transport Network Layer, TNL, address for a downlink tunnel in a protocol data unit, PDU, session, which PDU session being split in a user plane function, UPF, into two transport tunnels; and receive from the core network node a reply message that includes an uplink, UL, transport layer address corresponding to the TNL address for the downlink tunnel; wherein the processing circuitry and interface are further configured to receive in the reply message from the core network node an indication of a mapping of TNL addresses to corresponding UL transport layer addresses for identification of said two transport tunnels. transmit to a core network node a first message that includes a Transport Network Layer, TNL, address for a downlink tunnel in a protocol data unit, PDU, session, which PDU session being split in a user plane function, UPF, into two transport tunnels; and receive from the core network node a reply message that includes an uplink, UL, transport layer address corresponding to the TNL address for the downlink tunnel; wherein the processing circuitry and interface are further configured to receive in the reply message from the core network node an indication of a mapping of TNL addresses to corresponding UL transport layer addresses for identification of said two transport tunnels.
A method for identifying faulty event transmissions, comprising: at a receiver at a second location , receiving event signal data from an alarm panel at a first location ; processing the event signal data at the receiver; recording the event signal data in memory associated with the receiver; determining whether the event signal data conforms to a predefined parameter or protocol; identifying the recorded event signal data as data to be overwritten if the event signal is recognized by the receiver; and identifying the recorded event signal data as data to be saved if the event signal is not recognized by the receiver. at a receiver at a second location , receiving event signal data from an alarm panel at a first location ; processing the event signal data at the receiver; recording the event signal data in memory associated with the receiver; determining whether the event signal data conforms to a predefined parameter or protocol; identifying the recorded event signal data as data to be overwritten if the event signal is recognized by the receiver; and identifying the recorded event signal data as data to be saved if the event signal is not recognized by the receiver.
An electromagnetically insulated superconducting qubit device comprising an electrical conductor having a substantially planar face and an artificial magnetic conductor having a substantially planar face facing the face of said electrical conductor , and one or more qubits made on or in one of said electrical conductor and said artificial magnetic conductor , the dimensions of the elements forming the artificial magnetic conductor and the distance separating the face of said electrical conductor and the face of said artificial magnetic conductor being chosen so as to make an electromagnetic band gap structure which comprises the frequencies of said qubits , the artificial magnetic conductor comprising a substantially planar electrically conductive base from which a plurality of projections project in a direction substantially orthogonal to the electrically conductive base together forming a bed of nails, and the distance separating the face of said electrical conductor and the base of said artificial magnetic conductor at the base of the projections being substantially less than the effective speed of light between the face of said artificial magnetic conductor and the face of said electrical conductor divided by twice the highest frequency among said one or more qubits.
A method, comprising: receiving , from a host device (110; 310) at a memory device (120; 200; 300), a trim parameter indicating an operating condition for the memory device (120; 200; 300) and a command to store the trim parameter in a first entry of a first register accessible by the host device (110; 310); writing the trim parameter in the first entry of the first register based at least in part on receiving the trim parameter and the command; identifying a second entry of a second register inaccessible by the host device (110; 310) based at least in part on writing the trim parameter, wherein the first entry of the first register is linked to the second entry of the second register based at least in part on an entry of a translation register that is inaccessible to the host device (110; 310), wherein the entry of the translation register is configured to match the first entry of the first register to second entry of the second register; and updating the trim parameter in the second entry of the second register based at least in part on identifying the second entry. receiving , from a host device (110; 310) at a memory device (120; 200; 300), a trim parameter indicating an operating condition for the memory device (120; 200; 300) and a command to store the trim parameter in a first entry of a first register accessible by the host device (110; 310); writing the trim parameter in the first entry of the first register based at least in part on receiving the trim parameter and the command; identifying a second entry of a second register inaccessible by the host device (110; 310) based at least in part on writing the trim parameter, wherein the first entry of the first register is linked to the second entry of the second register based at least in part on an entry of a translation register that is inaccessible to the host device (110; 310), wherein the entry of the translation register is configured to match the first entry of the first register to second entry of the second register; and updating the trim parameter in the second entry of the second register based at least in part on identifying the second entry.
A method for producing skeletal muscle precursor cells, comprising the steps of: culturing pluripotent stem cells in adhesion culture in a medium containing a GSK3β inhibitor for 1-4 days; culturing the cells obtained in the step in adhesion culture in a medium containing an ALK inhibitor for 1-4 days; and culturing the cells obtained in the step in adhesion culture in a medium containing a cAMP inducer for 9-26 days. culturing pluripotent stem cells in adhesion culture in a medium containing a GSK3β inhibitor for 1-4 days; culturing the cells obtained in the step in adhesion culture in a medium containing an ALK inhibitor for 1-4 days; and culturing the cells obtained in the step in adhesion culture in a medium containing a cAMP inducer for 9-26 days.
A processing method of a software application on a computer system having a plurality of processing elements for independently executing instructions, some common hardware resources in the system being accessed by and shared among the processing elements , the method comprising: compiling source code of the application to obtain a sequence of executable instructions for each processing element by analysing the source code; automatically identifying, on the basis of analysing the source code, at least one resource contention among the processing elements predicted to result from combinations of accesses to one or more of the common hardware resources to be executed by the processing elements, and inserting, in the sequence of executable instructions obtained by analysing the source code, an additional instruction the presence of which in the sequence at least identifies the resource contention and indicates a specific type of contention; providing resource contention mitigation means including a plurality of contention status registers each representing a type of resource contention, and contention control means; and executing the sequence of executable instructions by said processing elements to perform operations in said computer system, wherein the contention control means, in response to execution of a said additional instruction, reads the contention status register for the contention type specified in the instruction to determine whether a threshold for action in respect of the contention type concerned has been reached and if so, takes a mitigation strategy for the contention type including accessing said one or more of the common hardware resources in a predefined manner. compiling source code of the application to obtain a sequence of executable instructions for each processing element by analysing the source code; automatically identifying, on the basis of analysing the source code, at least one resource contention among the processing elements predicted to result from combinations of accesses to one or more of the common hardware resources to be executed by the processing elements, and inserting, in the sequence of executable instructions obtained by analysing the source code, an additional instruction the presence of which in the sequence at least identifies the resource contention and indicates a specific type of contention; providing resource contention mitigation means including a plurality of contention status registers each representing a type of resource contention, and contention control means; and executing the sequence of executable instructions by said processing elements to perform operations in said computer system, wherein the contention control means, in response to execution of a said additional instruction, reads the contention status register for the contention type specified in the instruction to determine whether a threshold for action in respect of the contention type concerned has been reached and if so, takes a mitigation strategy for the contention type including accessing said one or more of the common hardware resources in a predefined manner.
Use of a porous carbon network which comprises chemically interconnected carbon-nanofibres, in an anti-static, electrostatic dissipative or conductive layer with a thickness of less than 1000 μm, wherein the carbon network is an intraparticle porous network wherein the carbon nanofibers are interconnected to other carbon nanofibers in the network by chemical bonds via junctions, wherein the pores in the network have an intraparticle pore diameter size of 5-150 nm using Mercury Intrusion Porosimetry according to ASTM D4404-10, wherein at least 20 wt% of the carbon in the carbon networks is in crystalline form, and the carbon nanofibers have an average aspect ratio of fibre length-to-thickness of at least 2.
A gas turbine engine comprising: a high speed shaft , the high speed shaft including a compressor and a turbine ; a combustor between the compressor and the turbine ; a low speed shaft , the low speed shaft including a fan and an integrated starter/generator , the low speed shaft being collinear with the high speed shaft but not rotating within the high speed shaft ; and a speed reduction gear box connecting the low speed shaft to the high speed shaft , wherein air flows into the fan and exits as a bypass air flow and a core flow, the core flow entering the compressor , then flowing to the combustor to burn with a fuel, and then flowing through the turbine , the turbine driving the low speed shaft through the speed reduction gear box , the high speed shaft being supported by a first bearing located between the speed reduction gear box and the compressor and a second bearing located aft of the turbine , and the low speed shaft being supported by a third bearing located between the fan and the integrated starter/generator and a fourth bearing located between the integrated starter/generator and the speed reduction gear box . a high speed shaft , the high speed shaft including a compressor and a turbine ; a combustor between the compressor and the turbine ; a low speed shaft , the low speed shaft including a fan and an integrated starter/generator , the low speed shaft being collinear with the high speed shaft but not rotating within the high speed shaft ; and a speed reduction gear box connecting the low speed shaft to the high speed shaft , wherein air flows into the fan and exits as a bypass air flow and a core flow, the core flow entering the compressor , then flowing to the combustor to burn with a fuel, and then flowing through the turbine , the turbine driving the low speed shaft through the speed reduction gear box , the high speed shaft being supported by a first bearing located between the speed reduction gear box and the compressor and a second bearing located aft of the turbine , and the low speed shaft being supported by a third bearing located between the fan and the integrated starter/generator and a fourth bearing located between the integrated starter/generator and the speed reduction gear box .