mhurhangee/patent-ind-claim-en huggingface dataset:
A node of a communications network comprising a plurality of interconnected nodes, the node comprising: a memory storing information about the topology of the network, information about configuration data comprising attributes of the network, and information about a routing protocol of the network; the memory storing a comparison function derived from a best path definition of the routing protocol; and a path finding component which is adapted to compute at a processor, for an individual one of the nodes, a routing table specifying which neighbors of the individual node incoming data received at the individual node is to be routed to, where computing the routing table comprises searching for optimal paths between the nodes, using the information about the topology of the network and the configuration data, and using the comparison function to guide the search; and wherein optimal paths between the nodes are optimal with respect to one or more of the attributes; wherein the path finding component comprises a queue of network export messages about sub-networks of the communications network being considered in paths searched by the path finding component, and wherein the path finding component is adapted to order the network export messages in the queue using the comparison function and to explore paths from individual sub-networks of network export messages of the queue in an exploration order which follows the queue order. a memory storing information about the topology of the network, information about configuration data comprising attributes of the network, and information about a routing protocol of the network; the memory storing a comparison function derived from a best path definition of the routing protocol; and a path finding component which is adapted to compute at a processor, for an individual one of the nodes, a routing table specifying which neighbors of the individual node incoming data received at the individual node is to be routed to, where computing the routing table comprises searching for optimal paths between the nodes, using the information about the topology of the network and the configuration data, and using the comparison function to guide the search; and wherein optimal paths between the nodes are optimal with respect to one or more of the attributes; wherein the path finding component comprises a queue of network export messages about sub-networks of the communications network being considered in paths searched by the path finding component, and wherein the path finding component is adapted to order the network export messages in the queue using the comparison function and to explore paths from individual sub-networks of network export messages of the queue in an exploration order which follows the queue order.
A device for separation and collection of tissue from an effluent stream of tissue and carrier fluid generated in a medical procedure, the device comprising a housing having an upper wall , a lower wall , a circumferential wall extending between the upper wall and lower wall, an inlet aperture for receiving the effluent stream and an outlet aperture for discharge of filtered fluid, the inlet aperture and the outlet aperture being located in said lower wall of the device, wherein the housing encloses a filter member positioned between said upper wall and said lower wall and comprising at least one filter receptacle , the or each filter receptacle comprises a recess having an upper opening in an upper surface of the filter member and opposed to said upper wall , communicating with a lower filtration region having a fluid-permeable floor comprising a plurality of apertures for allowing passage of the fluid, the upper wall comprises a viewing window for viewing tissue collected in the filter member , the inlet aperture is located beneath the filter member , and the device comprises a fluid pathway for delivering effluent stream received through the inlet aperture into a said filter receptacle from above the filter member .
A system for non-invasively tracking a particle in a sample, comprising: a particle-holding device with the particle coupled to the particle-holding device, the particle-holding device being coupled to a stage with X-Y and Z position control; a tracking module comprising: a tracking excitation laser configured to generate a tracking excitation laser beam, X-Y radiation-gathering components configured to detect deviations of the particle in an X-Y direction; Z radiation-gathering components configured to detect deviations of the particle in a Z direction, and a processor coupled to the X-Y and Z radiation gathering components , configured to generate control signals to drive the stage X-Y and Z position controls to track movement of the particle, characterized in that the system further comprises a 2-photon or confocal laser scanning microscope, LSM, configured to scan the sample, comprising a plurality of scanning mirrors ; and a detector ; and a synchronization module configured to synchronize the LSM and tracking module by: receiving current scanning mirror positions and detector readouts from the LSM ; receiving a current stage position from the tracking module ; and generating an LSM pixel stamped with a stage position. a particle-holding device with the particle coupled to the particle-holding device, the particle-holding device being coupled to a stage with X-Y and Z position control; a tracking module comprising: a tracking excitation laser configured to generate a tracking excitation laser beam, X-Y radiation-gathering components configured to detect deviations of the particle in an X-Y direction; Z radiation-gathering components configured to detect deviations of the particle in a Z direction, and a processor coupled to the X-Y and Z radiation gathering components , configured to generate control signals to drive the stage X-Y and Z position controls to track movement of the particle, a tracking excitation laser configured to generate a tracking excitation laser beam, X-Y radiation-gathering components configured to detect deviations of the particle in an X-Y direction; Z radiation-gathering components configured to detect deviations of the particle in a Z direction, and a processor coupled to the X-Y and Z radiation gathering components , configured to generate control signals to drive the stage X-Y and Z position controls to track movement of the particle, characterized in that the system further comprises a 2-photon or confocal laser scanning microscope, LSM, configured to scan the sample, comprising a plurality of scanning mirrors ; and a detector ; and a plurality of scanning mirrors ; and a detector ; and a synchronization module configured to synchronize the LSM and tracking module by: receiving current scanning mirror positions and detector readouts from the LSM ; receiving a current stage position from the tracking module ; and generating an LSM pixel stamped with a stage position. receiving current scanning mirror positions and detector readouts from the LSM ; receiving a current stage position from the tracking module ; and generating an LSM pixel stamped with a stage position.
An aircraft nacelle arrangement, comprising: a first half comprising a first engagement feature , and a second half comprising a second engagement feature , wherein the first half and the second half are rotatable about a hinge between a closed position in which the first half and the second half enclose a portion of an aircraft engine , and an open position in which the first half and the second half are separated and allow access to the portion of the aircraft engine ; and a compression rod comprising a first end and a second end , wherein in response to the aircraft nacelle arrangement being in the closed position, the first end is in contact with the first engagement feature and the second end is in contact with the second engagement feature ; characterised in that the aircraft nacelle arrangement further comprises: an exhaust nozzle flange of the aircraft engine and a first mounting bracket coupled directly to the exhaust nozzle flange of the aircraft engine , wherein the compression rod extends through the first mounting bracket . a first half comprising a first engagement feature , and a second half comprising a second engagement feature , wherein the first half and the second half are rotatable about a hinge between a closed position in which the first half and the second half enclose a portion of an aircraft engine , and an open position in which the first half and the second half are separated and allow access to the portion of the aircraft engine ; and a compression rod comprising a first end and a second end , wherein in response to the aircraft nacelle arrangement being in the closed position, the first end is in contact with the first engagement feature and the second end is in contact with the second engagement feature ; characterised in that the aircraft nacelle arrangement further comprises: an exhaust nozzle flange of the aircraft engine and a first mounting bracket coupled directly to the exhaust nozzle flange of the aircraft engine , wherein the compression rod extends through the first mounting bracket .
Transport apparatus for transferring workpieces in a processing device (M) comprising at least two stations , especially in a forming device, having at least two gripping tools , each for gripping one workpiece (W), which gripping tools are arranged on a gripping tool support which is movable back and forth between the stations of the processing device (M), characterised in that the gripping tool support is on the one hand movably mounted so as to be linearly guided and on the other hand mounted so as to be displaceable transversely with respect to its linearly guided movability, and, for the linearly guided movement and transverse displacement of the gripping tool support , the transport apparatus comprises a gripping tool support drive (51-56) having at least one gripping tool support drive motor .
A safe comprising: a lock actuator configured to lock or unlock a mechanical or electronic lock of the safe ; a control system communicatively connected with the lock actuator , the control system comprising: a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe ; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe ; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe , wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe . a lock actuator configured to lock or unlock a mechanical or electronic lock of the safe ; a control system communicatively connected with the lock actuator , the control system comprising: a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe ; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe ; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe , wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe . a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe ; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe ; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe , wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe .
Pedicle screw having a receiving sleeve and a screw head , which has a preferably spherical, distal pivot section , which is pivotably insertable or inserted in the receiving sleeve , and a proximal holding section of the screw head which is insertable or inserted in a fixed position in the receiving sleeve , which are integrally connected to each other via at least one preferably elastically and/or plastically deformable web , in particular manufactured in one piece, in such a way that they are pivotable relative to each other about a pivot axis (S) running transversely to a longitudinal axis (L) of the screw, characterized in that the at least one web is a material section arranged between two slots or wedges recessed in the pivot section or in the holding section .
Method for filling surface imperfections on a surface of a wing of an aircraft , said filling method comprising: - a scanning step during which a control unit commands a first displacement system to displace a scanner facing the surface of the wing to be filled and the activation of the scanner which scans said surface and transmits the collected data to the control unit , - a calculation step during which the control unit calculates a digitized surface from said duly transmitted data, - a determination step during which the control unit determines each surface imperfection by comparison of the reference surface and the digitized surface, - a generation step during which the control unit generates, for each surface imperfection , a digital model of the patch intended to fill said surface imperfection , and - a printing step during which the control unit commands a second displacement system to displace a 3D printer facing each surface imperfection to be filled and the activation of the 3D printer to make it print the patch in said surface imperfection from the duly generated digital model. - a scanning step during which a control unit commands a first displacement system to displace a scanner facing the surface of the wing to be filled and the activation of the scanner which scans said surface and transmits the collected data to the control unit , - a calculation step during which the control unit calculates a digitized surface from said duly transmitted data, - a determination step during which the control unit determines each surface imperfection by comparison of the reference surface and the digitized surface, - a generation step during which the control unit generates, for each surface imperfection , a digital model of the patch intended to fill said surface imperfection , and - a printing step during which the control unit commands a second displacement system to displace a 3D printer facing each surface imperfection to be filled and the activation of the 3D printer to make it print the patch in said surface imperfection from the duly generated digital model.
A pressure vessel comprising: a liner including a cylindrical section and paired dome sections ; and a reinforcement layer formed outside the liner and made of a fiber reinforced resin material, wherein the reinforcement layer includes: bulging sections formed respectively in shoulder sections of the paired dome sections by high-angle helical winding to bulge in a radial direction of the liner ; wherein each of the bulging sections is continuously formed from and integrally formed with a high-angle helical winding layer covering the cylindrical section of the liner , each of the bulging sections is formed in a mountain shape locally having an increased thickness in the radial direction of the liner by winding strands of the high-angle helical winding such that the strands overlap one another in a circumferential direction densely and without gaps to bulge in the radial direction of the liner , while in the cylindrical section the strands are wound adjacent to one another and are tightly packed; and an intermediate section formed outside of the high angle helical winding layer with respect to the radial direction of the liner, across the portion between vertices of the bulging sections , by hoop winding or near-hoop winding in which winding is performed at a higher angle than the high-angle helical winding. a liner including a cylindrical section and paired dome sections ; and a reinforcement layer formed outside the liner and made of a fiber reinforced resin material, wherein the reinforcement layer includes: bulging sections formed respectively in shoulder sections of the paired dome sections by high-angle helical winding to bulge in a radial direction of the liner ; wherein each of the bulging sections is continuously formed from and integrally formed with a high-angle helical winding layer covering the cylindrical section of the liner , each of the bulging sections is formed in a mountain shape locally having an increased thickness in the radial direction of the liner by winding strands of the high-angle helical winding such that the strands overlap one another in a circumferential direction densely and without gaps to bulge in the radial direction of the liner , while in the cylindrical section the strands are wound adjacent to one another and are tightly packed; and an intermediate section formed outside of the high angle helical winding layer with respect to the radial direction of the liner, across the portion between vertices of the bulging sections , by hoop winding or near-hoop winding in which winding is performed at a higher angle than the high-angle helical winding.
A silver-nano electronic-ink print heating element separation-type electric thermotherapy apparatus comprising: two or more silver-nano electronic-ink print heating elements emitting heat using a power source applied from a power source unit ; and a control unit which receives the power source from the power source unit to output a power source on-off signal and a temperature signal for controlling the two or more silver-nano electronic-ink print heating elements , wherein the silver-nano electronic-ink print heating elements comprise: patterns constituted on two or more substrates using a conductive silver ink and generating heat in accordance with the power source and a temperature applied from the control unit; a pair of electrodes formed on each silver paste; and characterized in that the silver-nano electronic-ink print heating elements further comprise: a PTC(positive temperature coefficient) ink for gravure printed on the substrates , the patterns and the electrodes. two or more silver-nano electronic-ink print heating elements emitting heat using a power source applied from a power source unit ; and a control unit which receives the power source from the power source unit to output a power source on-off signal and a temperature signal for controlling the two or more silver-nano electronic-ink print heating elements , wherein the silver-nano electronic-ink print heating elements comprise: patterns constituted on two or more substrates using a conductive silver ink and generating heat in accordance with the power source and a temperature applied from the control unit; a pair of electrodes formed on each silver paste; and characterized in that the silver-nano electronic-ink print heating elements further comprise: a PTC(positive temperature coefficient) ink for gravure printed on the substrates , the patterns and the electrodes. patterns constituted on two or more substrates using a conductive silver ink and generating heat in accordance with the power source and a temperature applied from the control unit; a pair of electrodes formed on each silver paste; and characterized in that the silver-nano electronic-ink print heating elements further comprise: a PTC(positive temperature coefficient) ink for gravure printed on the substrates , the patterns and the electrodes.
A bioreactor for modulating lymphocytes and suppressing autoreactive T cells, comprising: a chamber having at least one positively charged and hydrophobic substrate surface; a population of stem cells that is not derived from the inner cell mass of a blastocyst attached to the substrate surface, wherein the stem cells are characterized by : (a) displaying embryonic stem cell characteristics; (b) displaying hematopoietic cell characteristics as being positive for leukocyte common antigen CD45; (c) not expressing the CD34 marker; (d) displaying low immunogenicity; or (e) expressing autoimmune regulator; an inlet conduit for introducing lymphocytes into the chamber for co-culturing with the stem cells, and the lymphocytes are free from plasma before being introduced into the chamber, and an outlet conduit for extracting treated lymphocytes following co-culturing with the stem cells, wherein the stem cells are capable of, and configured for, modulating the lymphocytes and suppressing autoreactive T cells by co-culturing with the introduced lymphocytes that are free from plasma. a chamber having at least one positively charged and hydrophobic substrate surface; a population of stem cells that is not derived from the inner cell mass of a blastocyst attached to the substrate surface, wherein the stem cells are characterized by : (a) displaying embryonic stem cell characteristics; (b) displaying hematopoietic cell characteristics as being positive for leukocyte common antigen CD45; (c) not expressing the CD34 marker; (d) displaying low immunogenicity; or (e) expressing autoimmune regulator; an inlet conduit for introducing lymphocytes into the chamber for co-culturing with the stem cells, and the lymphocytes are free from plasma before being introduced into the chamber, and an outlet conduit for extracting treated lymphocytes following co-culturing with the stem cells, wherein the stem cells are capable of, and configured for, modulating the lymphocytes and suppressing autoreactive T cells by co-culturing with the introduced lymphocytes that are free from plasma.
A film comprising: a base film; a polymer layer consisting essentially of EVOH-based polymer, PVOH-based polymer, or blends thereof, said polymer layer being coextruded with the base film or applied as a coating layer to the base film; a metal oxide layer on the polymer layer, wherein the metal oxide layer has an optical density of equal to or less than 0.5 and a thickness of from 0.1 nm through 100 nm; and one or more overcoatings on the metal oxide layer; wherein the film has a total thickness of 5 μm to 50 μm; characterised in that at least one of the one or more overcoatings is functionalized and has a seal strength of at least 400 g/25mm at 150°C as measured by the procedure ASTM F88. a base film; a polymer layer consisting essentially of EVOH-based polymer, PVOH-based polymer, or blends thereof, said polymer layer being coextruded with the base film or applied as a coating layer to the base film; a metal oxide layer on the polymer layer, wherein the metal oxide layer has an optical density of equal to or less than 0.5 and a thickness of from 0.1 nm through 100 nm; and one or more overcoatings on the metal oxide layer; wherein the film has a total thickness of 5 μm to 50 μm; characterised in that at least one of the one or more overcoatings is functionalized and has a seal strength of at least 400 g/25mm at 150°C as measured by the procedure ASTM F88.