mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: a positioning module arranged on a user electronic device; a communication interface , on the user electronic device, to provide a communicative interaction with an aerosol generation device; a data storage module, wherein the data storage module is configured to store a position determined by the positioning module, and wherein the stored position is associated with a most recent communicative interaction with the aerosol generation device, indicative of the last known position of the aerosol generation device; and a display arranged on the user electronic device, wherein the display is configured to provide an indication of the stored position on a map to aid a user in locating the aerosol generation device based on its last known position. a positioning module arranged on a user electronic device; a communication interface , on the user electronic device, to provide a communicative interaction with an aerosol generation device; a data storage module, wherein the data storage module is configured to store a position determined by the positioning module, and wherein the stored position is associated with a most recent communicative interaction with the aerosol generation device, indicative of the last known position of the aerosol generation device; and a display arranged on the user electronic device, wherein the display is configured to provide an indication of the stored position on a map to aid a user in locating the aerosol generation device based on its last known position.
An engineered human T Cell Receptor Knock Out (TCR KO) cell endowed with a Chimeric Antigen Receptor (CAR) specific for CD22 (UCART 22), a safety switch, preferably expressed at the cell surface, said anti-CD22 CAR (CD22 CAR) comprising: i) at least one extracellular domain comprising : - a hinge domain from CD8alpha, - an antigen binding domain specific for CD22, optionally a leader sequence, ii) a transmembrane domain from CD8alpha, and iii) an intracellular signaling domain; said CD22 CAR having a polypeptide sequence with at least 80% identity with SEQ ID N°15, said safety switch comprising : - a RQR8 temporarily linked to the CD22 CAR by a peptide 2A, or - at least two rituximab mAb-specific epitopes, preferably located between the VH and the Hinge domain, or 3 rituximab mAb-specific epitopes or 3 rituximab mAb-specific epitopes and a QBEN-10 mAb-specific epitopes linked to the CD22 CAR. i) at least one extracellular domain comprising : - a hinge domain from CD8alpha, - an antigen binding domain specific for CD22, optionally a leader sequence, - a hinge domain from CD8alpha, - an antigen binding domain specific for CD22, optionally a leader sequence, ii) a transmembrane domain from CD8alpha, and iii) an intracellular signaling domain; said CD22 CAR having a polypeptide sequence with at least 80% identity with SEQ ID N°15, said safety switch comprising : - a RQR8 temporarily linked to the CD22 CAR by a peptide 2A, or - at least two rituximab mAb-specific epitopes, preferably located between the VH and the Hinge domain, or 3 rituximab mAb-specific epitopes or 3 rituximab mAb-specific epitopes and a QBEN-10 mAb-specific epitopes linked to the CD22 CAR. - a RQR8 temporarily linked to the CD22 CAR by a peptide 2A, or - at least two rituximab mAb-specific epitopes, preferably located between the VH and the Hinge domain, or 3 rituximab mAb-specific epitopes or 3 rituximab mAb-specific epitopes and a QBEN-10 mAb-specific epitopes linked to the CD22 CAR.
A coating composition comprising (A) inorganic oxide fine particles containing at least one element selected from the group consisting of Ti, Zr, Sn and Sb, (B) a hydrolysable group-containing organic silicon compound, and (C1) a surfactant having an HLB value of 8 or less and (C2) a surfactant having an HLB value of more than 8 as (C) surfactants, wherein the mass ratio (C1/C2) of the surfactant having an HLB value of 8 or less (C1) and the surfactant having an HLB value of more than 8 (C2) is 0.3 to 1.0.
A backlight unit , comprising: a plurality of light sources ; a plurality of light guide plates being arranged alternately with the light sources so that light emitted from the light sources is incident thereupon; and a chassis receiving the light sources and the light guide plates; characterized in that the plurality of light guide plates are disposed to be spaced apart from each other, being symmetrical to each other in order to face the central region of the chassis, a pair of light guide plates opposed to each other on the central region being connected to each other so that the light therefrom is mixed; and each of the plurality of light sources is disposed between two adjacent of the light guide plates spaced apart from each other and includes a substrate having circuit wiring and a plurality of LED packages , each of the plurality of LED packages having an LED chip vertically mounted on the substrate so that the LED chip is placed between opposing side surfaces of the two adjacent light guide plates. a plurality of light sources ; a plurality of light guide plates being arranged alternately with the light sources so that light emitted from the light sources is incident thereupon; and a chassis receiving the light sources and the light guide plates; characterized in that the plurality of light guide plates are disposed to be spaced apart from each other, being symmetrical to each other in order to face the central region of the chassis, a pair of light guide plates opposed to each other on the central region being connected to each other so that the light therefrom is mixed; and each of the plurality of light sources is disposed between two adjacent of the light guide plates spaced apart from each other and includes a substrate having circuit wiring and a plurality of LED packages , each of the plurality of LED packages having an LED chip vertically mounted on the substrate so that the LED chip is placed between opposing side surfaces of the two adjacent light guide plates.
An accommodating intraocular lens for placement within a lens capsule of a subject, the accommodating intraocular lens comprising: a first component having an inner region and an outer region ; a second component having an inner region and an outer region, the second component being coupled to the first component; a fluid chamber defined between inner surfaces of the inner regions of the first and second components (4840a and 4840b); a fluid reservoir defined between inner surfaces of the outer regions of the first and second components, the fluid reservoir being in fluid communication with the fluid chamber to transfer fluid between the fluid chamber and the fluid reservoir in response to shape changes of the lens capsule to provide optical power changes to the accommodating intraocular lens; and a third component having an optical power and being releasably coupled to the first or second component (4840a and 4840b), the third component having an inner surface facing and adjacent to an outer surface of the first or second component to which the third component is coupled. a first component having an inner region and an outer region ; a second component having an inner region and an outer region, the second component being coupled to the first component; a fluid chamber defined between inner surfaces of the inner regions of the first and second components (4840a and 4840b); a fluid reservoir defined between inner surfaces of the outer regions of the first and second components, the fluid reservoir being in fluid communication with the fluid chamber to transfer fluid between the fluid chamber and the fluid reservoir in response to shape changes of the lens capsule to provide optical power changes to the accommodating intraocular lens; and a third component having an optical power and being releasably coupled to the first or second component (4840a and 4840b), the third component having an inner surface facing and adjacent to an outer surface of the first or second component to which the third component is coupled.
An apparatus for real time detection of elution of one or more analytes comprising: a separation conduit ; an integrated detector including an excitation source and a sensor, both located immediately adjacent to the separation conduit, wherein the integrated detector is configured to move along a length of the separation conduit; and a driver moving the integrated detector along the length of the separation conduit; wherein the integrated detector scans the separation conduit and detects analyte as it moves through the separation conduit; a stationary base , wherein the separation conduit is mounted on the base; a carriage movably supported on the base and supporting the integrated detector, wherein the carriage is configured to move the integrated detector along the length of the separation conduit; wherein the driver moves the carriage and the integrated detector along the length of the separation conduit. a separation conduit ; an integrated detector including an excitation source and a sensor, both located immediately adjacent to the separation conduit, wherein the integrated detector is configured to move along a length of the separation conduit; and a driver moving the integrated detector along the length of the separation conduit; wherein the integrated detector scans the separation conduit and detects analyte as it moves through the separation conduit; a stationary base , wherein the separation conduit is mounted on the base; a carriage movably supported on the base and supporting the integrated detector, wherein the carriage is configured to move the integrated detector along the length of the separation conduit; wherein the driver moves the carriage and the integrated detector along the length of the separation conduit. a carriage movably supported on the base and supporting the integrated detector, wherein the carriage is configured to move the integrated detector along the length of the separation conduit; wherein the driver moves the carriage and the integrated detector along the length of the separation conduit.
A method of managing communication between network nodes (300.1,...300.n) in a network , comprising: identifying, using a database management system, DBMS, directory, a local data element from a plurality of data elements stored in a plurality of physical storage units associated with a plurality of network nodes, wherein the local data element is stored in a local physical storage unit associated with a first network node of said plurality of network nodes, and the DBMS directory indexes the plurality of data elements; identifying, using said DBMS directory, a remote data element from said plurality of data elements, wherein the remote data element is stored in a remote physical storage unit associated with a second network node of said plurality of network nodes; instructing the updating of said remote data element according to remote function execution instructions, wherein the remote function execution instructions cause a remote network function to be executed by said second network node; and instructing the updating of said local data element according to local network function execution instructions, wherein the local network function execution instructions cause a local network function to be executed by a component of said first network node. identifying, using a database management system, DBMS, directory, a local data element from a plurality of data elements stored in a plurality of physical storage units associated with a plurality of network nodes, wherein the local data element is stored in a local physical storage unit associated with a first network node of said plurality of network nodes, and the DBMS directory indexes the plurality of data elements; identifying, using said DBMS directory, a remote data element from said plurality of data elements, wherein the remote data element is stored in a remote physical storage unit associated with a second network node of said plurality of network nodes; instructing the updating of said remote data element according to remote function execution instructions, wherein the remote function execution instructions cause a remote network function to be executed by said second network node; and instructing the updating of said local data element according to local network function execution instructions, wherein the local network function execution instructions cause a local network function to be executed by a component of said first network node.
An aerodynamic device for a vehicle , comprising: an upper surface; first and second radomes , the first radome comprising a first antenna element and the second radome comprising a second antenna element , wherein the first and second antenna elements are oriented to extend from the upper surface, wherein both of the first and second antenna elements are generally aligned with a first axis and the first and second antenna elements are spaced apart along a second axis perpendicular to the first axis , and a conductive layer arranged generally perpendicular to the orientation of the first and second antenna elements , wherein the first and second antenna elements extend upwardly from the conductive layer and the conductive layer provides a common ground plane for the first and second antenna elements . an upper surface; first and second radomes , the first radome comprising a first antenna element and the second radome comprising a second antenna element , wherein the first and second antenna elements are oriented to extend from the upper surface, wherein both of the first and second antenna elements are generally aligned with a first axis and the first and second antenna elements are spaced apart along a second axis perpendicular to the first axis , and a conductive layer arranged generally perpendicular to the orientation of the first and second antenna elements , wherein the first and second antenna elements extend upwardly from the conductive layer and the conductive layer provides a common ground plane for the first and second antenna elements .
A wavelength-swept light source apparatus comprising: a light source that is configured to emit a wavelength-swept light of which wavelength varies in a predetermined cycle; a light splitting element that is configured to split the wavelength-swept light emitted from the light source into two; a first optical path that is configured to pass one of the split wavelength-swept light; a second optical path that is configured to pass the other of the split wavelength-swept light; a combining element that is configured to combine the one of the wavelength-swept light that has passed through the first optical path and the other of the wavelength-swept light that has passed through the second optical path thereby to generate an interference light; a light receiving element that is configured to detect an interference signal based on the interference light; a mode hop detector that is configured to detect a mode hop of the wavelength-swept light emitted from the light source based on detecting a discontinuity in a time change of a signal strength in the interference signal as compared with a case where the mode hop has not occurred; and a control unit that is configured to control at least one of a parameter that defines a specified period having a predetermined fixed or variable time length provided in the predetermined cycle and a control parameter of the light source, thereby to set an occurrence timing of the mode hop outside of the specified period in the predetermined cycle. a light source that is configured to emit a wavelength-swept light of which wavelength varies in a predetermined cycle; a light splitting element that is configured to split the wavelength-swept light emitted from the light source into two; a first optical path that is configured to pass one of the split wavelength-swept light; a second optical path that is configured to pass the other of the split wavelength-swept light; a combining element that is configured to combine the one of the wavelength-swept light that has passed through the first optical path and the other of the wavelength-swept light that has passed through the second optical path thereby to generate an interference light; a light receiving element that is configured to detect an interference signal based on the interference light; a mode hop detector that is configured to detect a mode hop of the wavelength-swept light emitted from the light source based on detecting a discontinuity in a time change of a signal strength in the interference signal as compared with a case where the mode hop has not occurred; and a control unit that is configured to control at least one of a parameter that defines a specified period having a predetermined fixed or variable time length provided in the predetermined cycle and a control parameter of the light source, thereby to set an occurrence timing of the mode hop outside of the specified period in the predetermined cycle.
A thermo-shrinkable polyester film comprising a first resin layer comprising polyester resin comprising residues of dicarboxylic acid components comprising aromatic dicarboxylic acid, and residues of diol components comprising 4-(hydroxymethyl)cyclohexylmethyl 4'-(hydroxymethyl)cyclohexanecarboxylate, and 4,4-(oxybis(methylene)bis)cyclohexane methanol; and a second resin layer comprising the polyester resin and a UV absorber, formed on at least one side of the first layer.
A bucket for a construction vehicle intended to load, move, transport, tip and spread a bulk material, the bucket includes two lateral panels extending on each side of a loading panel , said loading panel includes a loading edge and an unloading edge , the bucket also includes: - a support panel of an adjustment system adapted to adjust the thickness of the layer of the bulk material to be spread on a ground, said support panel being located on the other side of the bucket relative to the loading panel , - an opening panel including a hatch including an opening edge, when the hatch is in the closed position, the opening edge is adjacent to the unloading edge of the loading panel , said closed position is intended to retain the bulk material, when the hatch is in the open position, the opening edge is moved away from the unloading edge of the loading panel and an opening is created, said opening is intended to let the bulk material pour out, characterised in that the bucket includes: - the adjustment system includes a rotationally movable roller located at the rear and under the bucket, adapted to rotate in the direction of rotation of the wheels of the vehicle and to rest on the ground during the spreading operation, - a fastening attachment intended to be fastened to the vehicle, said attachment being housed within a space movable in vertical translation configured to leave a vertical translation clearance and said fastening attachment is rotationally movable about an axis of rotation perpendicular to the support panel so as to rotate the bucket relative to the ground. - a support panel of an adjustment system adapted to adjust the thickness of the layer of the bulk material to be spread on a ground, said support panel being located on the other side of the bucket relative to the loading panel , - an opening panel including a hatch including an opening edge, when the hatch is in the closed position, the opening edge is adjacent to the unloading edge of the loading panel , said closed position is intended to retain the bulk material, when the hatch is in the open position, the opening edge is moved away from the unloading edge of the loading panel and an opening is created, said opening is intended to let the bulk material pour out, - the adjustment system includes a rotationally movable roller located at the rear and under the bucket, adapted to rotate in the direction of rotation of the wheels of the vehicle and to rest on the ground during the spreading operation, - a fastening attachment intended to be fastened to the vehicle, said attachment being housed within a space movable in vertical translation configured to leave a vertical translation clearance and said fastening attachment is rotationally movable about an axis of rotation perpendicular to the support panel so as to rotate the bucket relative to the ground.
A system for detecting a biological target comprising: a processor; a liquid handling system comprising a first liquid input for providing a first liquid and a second liquid input for providing a second liquid; at least one mixer in fluid communication with the first liquid input and the second liquid input, wherein the mixer is configured to segment the first liquid into at least one first liquid droplet and the second liquid into at least one second liquid droplet and to create a mixed droplet from the first liquid droplet and the second liquid droplet; and a diagnostic system comprising at least one detector, wherein the detector is configured to monitor light from the mixed droplet for determining the presence or absence of the at least one first liquid droplet and the at least one second liquid droplet in the mixed droplet, wherein the diagnostic system is configured to provide a first intensity of light from the sample droplet and a second intensity of light from the sample droplet; and the processor is configured to determine based on the first and second intensities of light whether the first liquid droplet and the second liquid droplet are both present in the mixed droplet, and to cause, on condition that both liquid droplets are not present in the mixed droplet, the liquid handling system to re-sample the first and second liquid via the first and second liquid inputs. a processor; a liquid handling system comprising a first liquid input for providing a first liquid and a second liquid input for providing a second liquid; at least one mixer in fluid communication with the first liquid input and the second liquid input, wherein the mixer is configured to segment the first liquid into at least one first liquid droplet and the second liquid into at least one second liquid droplet and to create a mixed droplet from the first liquid droplet and the second liquid droplet; and a diagnostic system comprising at least one detector, wherein the detector is configured to monitor light from the mixed droplet for determining the presence or absence of the at least one first liquid droplet and the at least one second liquid droplet in the mixed droplet, wherein the diagnostic system is configured to provide a first intensity of light from the sample droplet and a second intensity of light from the sample droplet; and the processor is configured to determine based on the first and second intensities of light whether the first liquid droplet and the second liquid droplet are both present in the mixed droplet, and to cause, on condition that both liquid droplets are not present in the mixed droplet, the liquid handling system to re-sample the first and second liquid via the first and second liquid inputs.