mhurhangee/patent-ind-claim-en huggingface dataset:
A method for bearing a multicast virtual private network, VPN, comprising: assigning , by a bit-forwarding ingress router (BFIR) accessing a multicast virtual private network routing forwarding , VRF, a global VPN identifier for the multicast VRF, and carrying the global VPN identifier to notify a route to a bit-forwarding egress router (BFER) accessing the multicast VRF; and after receiving a packet of the multicast VRF, encapsulating , by the BFIR, the packet with a bit indexed explicit replication (BIER) header and forwarding the packet, wherein the forwarded packet carries the global VPN identifier, wherein the method further comprising: creating, by the BFIR, an instance of the multicast VRF, and in a route of a multicast VRF routing table corresponding to the instance, using an extended tunnel type to indicate that a tunnel is based on the BIER header using the global VPN identifier; and after receiving the packet of the multicast VRF, searching, by the BFIR, for a route matched with the packet from the multicast VRF routing table, and pressing the global VPN identifier into the packet in response to that it is determined that the tunnel type of the route is the extended tunnel type; and then, encapsulating the packet with the BIER header and forwarding the packet. assigning , by a bit-forwarding ingress router (BFIR) accessing a multicast virtual private network routing forwarding , VRF, a global VPN identifier for the multicast VRF, and carrying the global VPN identifier to notify a route to a bit-forwarding egress router (BFER) accessing the multicast VRF; and after receiving a packet of the multicast VRF, encapsulating , by the BFIR, the packet with a bit indexed explicit replication (BIER) header and forwarding the packet, wherein the forwarded packet carries the global VPN identifier, wherein the method further comprising: creating, by the BFIR, an instance of the multicast VRF, and in a route of a multicast VRF routing table corresponding to the instance, using an extended tunnel type to indicate that a tunnel is based on the BIER header using the global VPN identifier; and after receiving the packet of the multicast VRF, searching, by the BFIR, for a route matched with the packet from the multicast VRF routing table, and pressing the global VPN identifier into the packet in response to that it is determined that the tunnel type of the route is the extended tunnel type; and then, encapsulating the packet with the BIER header and forwarding the packet. creating, by the BFIR, an instance of the multicast VRF, and in a route of a multicast VRF routing table corresponding to the instance, using an extended tunnel type to indicate that a tunnel is based on the BIER header using the global VPN identifier; and after receiving the packet of the multicast VRF, searching, by the BFIR, for a route matched with the packet from the multicast VRF routing table, and pressing the global VPN identifier into the packet in response to that it is determined that the tunnel type of the route is the extended tunnel type; and then, encapsulating the packet with the BIER header and forwarding the packet.
A method for obtaining mesenchymal stem cell (MSC)-derived cells of chondro-osteoblastic lineage from MSC, the method comprising: (a) culturing MSC recovered from a biological sample of a subject in a culture medium comprising fibroblast growth factor-2 (FGF-2), transforming growth factor beta (TGFβ) and heparin or a derivative or analogue thereof at a concentration of at least 0.01 IU/ml, thereby obtaining mesenchymal stem cell (MSC)-derived cells; (b) passaging the MSC-derived cells for a first time and further culturing the MSC-derived cells in a medium as defined in (a); and (c) passaging the MSC-derived cells for a second time and further culturing the MSC-derived cells in a medium as defined in (a), thereby obtaining the MSC-derived cells of chondro-osteoblastic lineage, wherein the MSC-derived cells are cultured in step (b) for a period of x days, wherein day x is the last day on which at least 20% of the MSC-derived cells are proliferating. (a) culturing MSC recovered from a biological sample of a subject in a culture medium comprising fibroblast growth factor-2 (FGF-2), transforming growth factor beta (TGFβ) and heparin or a derivative or analogue thereof at a concentration of at least 0.01 IU/ml, thereby obtaining mesenchymal stem cell (MSC)-derived cells; (b) passaging the MSC-derived cells for a first time and further culturing the MSC-derived cells in a medium as defined in (a); and (c) passaging the MSC-derived cells for a second time and further culturing the MSC-derived cells in a medium as defined in (a), thereby obtaining the MSC-derived cells of chondro-osteoblastic lineage,
A sanitizing system comprising: an ultraviolet (UV) lamp configured to emit UV light into a target space ; an occupancy sensor configured to monitor the target space and generate sensor signals indicative of an occupancy of the target space by at least one person; and a control unit comprising one or more processors operably connected to the occupancy sensor and the UV lamp , the control unit configured to receive the sensor signals generated by the occupancy sensor and to modulate an irradiance of the UV light emitted by the UV lamp over time based on the occupancy of the target space , wherein the control unit is configured to analyze historical occupancy data that includes the sensor signals that are generated by the occupancy sensor over a first time period to determine a periodic occupancy trend for the target space , the control unit configured to modulate the irradiance of the UV light emitted by the UV lamp during a second time period based on the periodic occupancy trend, wherein the first time period has a longer duration than the second time period and ends prior to a start of the second time period. an ultraviolet (UV) lamp configured to emit UV light into a target space ; an occupancy sensor configured to monitor the target space and generate sensor signals indicative of an occupancy of the target space by at least one person; and a control unit comprising one or more processors operably connected to the occupancy sensor and the UV lamp , the control unit configured to receive the sensor signals generated by the occupancy sensor and to modulate an irradiance of the UV light emitted by the UV lamp over time based on the occupancy of the target space , wherein the control unit is configured to analyze historical occupancy data that includes the sensor signals that are generated by the occupancy sensor over a first time period to determine a periodic occupancy trend for the target space , the control unit configured to modulate the irradiance of the UV light emitted by the UV lamp during a second time period based on the periodic occupancy trend, wherein the first time period has a longer duration than the second time period and ends prior to a start of the second time period.
A hydraulic drive device for a motor vehicle with four drive wheels (2a - 2d), comprising a hydraulic translation unit coupling a hydrostatic pump with hydraulic drive wheels (2a - 2d), namely a left front drive wheel , a right front drive wheel , a left rear drive wheel and a right rear drive wheel , characterized in that the device comprises limited differential blocking and slipping means (14a - 14c, 15a - 15c) and in that the hydraulic translation unit comprises, in at least one so-called "forward" operating mode, two flow dividers positioned downstream from the hydrostatic pump , between the drive wheels (2a - 2d) and the hydrostatic pump , said flow dividers being configured to supply one the left drive wheels , the other , the right drive wheels , each flow divider (11a; 11b) having, at the outlet, two branches (21a, 21c; 21b, 21d) configured to supply, on the side supplied by said flow divider (11a; 11b), one (21a; 21b) the front drive wheel (2a; 2b), the other (21c; 21d) the rear drive wheel (2c; 2d).
A method for controlling an autonomous driving apparatus of a vehicle , the method comprising: receiving (S1210) a destination for setting a driving route; obtaining (S1220) driving history of a user and traffic information; determining (S1230) a driving route to the destination based on input data comprising information regarding the destination, information regarding the driving history, and the traffic information, wherein the input data is provided to a model trained through an artificial intelligence algorithm as input data; wherein the artificial intelligence algorithm is embodied as a hardware or software module in a data training unit that uses data including destination information, driving history, traffic information, pre-stored map information, state information of the vehicle , or state information of the surroundings of the vehicle as training data to generate or train the model; and performing (S 1240) autonomous driving along the determined driving route; based on a user input for changing a driving route being received while the vehicle drives based on the determined driving route, determining a new driving route to the destination by inputting, to the neural network model, the input data and information regarding a driving route change corresponding to the user input; and performing autonomous driving based on the determined new driving route. receiving (S1210) a destination for setting a driving route; obtaining (S1220) driving history of a user and traffic information; determining (S1230) a driving route to the destination based on input data comprising information regarding the destination, information regarding the driving history, and the traffic information, wherein the input data is provided to a model trained through an artificial intelligence algorithm as input data; wherein the artificial intelligence algorithm is embodied as a hardware or software module in a data training unit that uses data including destination information, driving history, traffic information, pre-stored map information, state information of the vehicle , or state information of the surroundings of the vehicle as training data to generate or train the model; and performing (S 1240) autonomous driving along the determined driving route; based on a user input for changing a driving route being received while the vehicle drives based on the determined driving route, determining a new driving route to the destination by inputting, to the neural network model, the input data and information regarding a driving route change corresponding to the user input; and performing autonomous driving based on the determined new driving route.
A tool arrangement for cold metal working, comprising a tool which has at least one forming surface , which is arranged to form a workpiece during a working process according to a three-dimensional pattern or shape comprising a double curvature surface, wherein the forming surface of the tool is provided with a protective layer which is situated between the forming surface and the workpiece in order to protect the tool and/or the workpiece during the working process, wherein the protective layer comprises bonded non-woven fiber fabric, wherein the bonded non-woven fiber fabric forming the protective layer comprises UHMW-PE (Ultra High Molecular Weight PolyEthylene) fibers.
A uracil compound represented by the general formula (I) or a pharmaceutically acceptable salt thereof for use in potentiation of anti-tumor effects: wherein X represents a C 1-5 alkylene group and one of the methylene groups constituting the alkylene group is optionally replaced with an oxygen atom; R 1 represents a hydrogen atom or a C 1-6 alkyl group; R 2 represents a hydrogen atom or a halogen atom; and R 3 represents a C 1-6 alkyl group, a C 2-6 alkenyl group, a C 3-6 cycloalkyl group, a (C 3-6 cycloalkyl) C 1-6 alkyl group, a halogeno-C 1-6 alkyl group or a saturated heterocyclic group. X represents a C 1-5 alkylene group and one of the methylene groups constituting the alkylene group is optionally replaced with an oxygen atom; R 1 represents a hydrogen atom or a C 1-6 alkyl group; R 2 represents a hydrogen atom or a halogen atom; and R 3 represents a C 1-6 alkyl group, a C 2-6 alkenyl group, a C 3-6 cycloalkyl group, a (C 3-6 cycloalkyl) C 1-6 alkyl group, a halogeno-C 1-6 alkyl group or a saturated heterocyclic group.
A method in a wireless device for monitoring system information in a wireless communications network, the method comprising: selecting a first location-independent downlink signal carrying uplink access configuration information, from among two or more candidate downlink signals carrying uplink access configuration information, based at least in part on signal quality measurements performed on the first downlink signal; selecting a second downlink signal carrying tracking area information, from among two or more candidate downlink signals carrying tracking area information, based at least in part on signal quality measurements performed on the second downlink signal, wherein the selection of the second downlink signal is independent of the selection of the first downlink signal; camping on the selected first downlink signal to monitor for uplink access configuration information, while, over respective periods that at least partially overlap, camping on the selected second downlink signal to monitor for tracking area information. selecting a first location-independent downlink signal carrying uplink access configuration information, from among two or more candidate downlink signals carrying uplink access configuration information, based at least in part on signal quality measurements performed on the first downlink signal; selecting a second downlink signal carrying tracking area information, from among two or more candidate downlink signals carrying tracking area information, based at least in part on signal quality measurements performed on the second downlink signal, wherein the selection of the second downlink signal is independent of the selection of the first downlink signal; camping on the selected first downlink signal to monitor for uplink access configuration information, while, over respective periods that at least partially overlap, camping on the selected second downlink signal to monitor for tracking area information.
A constant velocity joint boot comprising: a boot-can having an axially extending main cylindrical body ; a radially extending transition portion ; an axially extending and generally cylindrical mounting portion , wherein the radially extending transition portion intersects the axially extending main cylindrical body and the generally cylindrical mounting portion ; characterised in that a flexible boot member is overmoulded to the boot-can along an inner surface of at least two of the cylindrical body , the transition portion and the mounting portion at a coupling region , wherein the coupling region has at least one axially extending surface and at least one radially extending surface intersecting the axially extending surface at an angle. a boot-can having an axially extending main cylindrical body ; a radially extending transition portion ; an axially extending and generally cylindrical mounting portion , wherein the radially extending transition portion intersects the axially extending main cylindrical body and the generally cylindrical mounting portion ; characterised in that a flexible boot member is overmoulded to the boot-can along an inner surface of at least two of the cylindrical body , the transition portion and the mounting portion at a coupling region , wherein the coupling region has at least one axially extending surface and at least one radially extending surface intersecting the axially extending surface at an angle.
A method for refurbishing a sorbent cartridge including H + ZP within a casing that has been used for treatment comprising: refurbishing the H + ZP while maintained within the casing via regenerating the non-disinfected H + ZP by flowing an acid solution through the casing, rinsing the regenerated H + ZP while maintained within the casing, disinfecting the regenerated and rinsed H + ZP by flowing a disinfecting agent through the casing, and rinsing the regenerated and disinfected H + ZP while maintained within the casing. regenerating the non-disinfected H + ZP by flowing an acid solution through the casing, rinsing the regenerated H + ZP while maintained within the casing, disinfecting the regenerated and rinsed H + ZP by flowing a disinfecting agent through the casing, and rinsing the regenerated and disinfected H + ZP while maintained within the casing.
A joint for connecting a first arm to a second arm of a shower door frame; the joint comprising: a tapered hook connectable to the first arm ; a tapered aperture which is formed in a bracket connectable to the second arm ; a fastener connectable to the second arm ; wherein the tapered hook comprises a notch ; such that the tapered hook is arranged to mate with the tapered aperture , and the fastener is arranged to mate with the notch ; wherein the tapered aperture is defined by an inner surface, such that in use, the tapered hook contacts at least part of the inner surface when the tapered hook mates with the tapered aperture ; wherein the inner surface comprises at least one projection; characterized in that the at least one projection comprises at least one deformable projection.
A two-stator and two-rotor motor, comprising a motor shell , two rotors and two stators , wherein the stators and the rotors are arranged in the motor shell , wherein each stator comprises a plurality of circularly distributed stator cores , and the stator cores are wound with magnetic induction lines passing through the coils at both radial sides of the stator core , wherein each rotor comprises an outer rotor part , an inner rotor part and a flange , wherein the outer rotor part is arranged outside the cylindrical inner rotor part , and the outer rotor part and the inner rotor part are connected by flange , wherein an inner stator zone is formed between the outer rotor part and the inner rotor part , and one of the stators is arranged in the inner stator zone of the rotor ; an outer stator zone is formed between the outer rotor part and the motor shell , and the other of the stator is arranged in the outer stator zone , wherein the inner side of the outer rotor part and the outer side of the inner rotor part are provided with a plurality of circularly distributed permanent magnet modules , and two adjacent permanent magnet modules have opposite polarity, characterized in that each of the permanent magnet modules comprises a plurality of permanent magnets, wherein the permanent magnets of the permanent magnet module of the inner rotor part are mounted in circumferential direction on the outer side of the inner rotor and straightly arranged in axial direction, wherein the permanent magnets of the permanent magnet module of the outer rotor part are mounted in circumferential direction on the inner side of the outer rotor part and arranged in a staggered manner in axial direction along the rotor axis; or, the permanent magnets of the permanent magnet module of the inner rotor part are mounted in circumferential direction on the outer side of the inner rotor part and arranged in a staggered manner in axial direction along the rotor axis, wherein the permanent magnets of the permanent magnet module of the outer rotor part are mounted in circumferential direction on the inner side of the outer rotor and straightly arranged in axial direction.
A sport ball comprising: a plurality of panels defining a first surface forming a majority of an exterior surface of the ball ; an interior layer secured on an interior side of the panels and forming substantially all of the interior surface of the ball wherein the interior layer extends between the panels to join the panels together and the interior layer is bonded at seams between each of the panels , wherein said interior layer forms a sealed structure within the ball for retaining a pressurized fluid; and a valve secured to the interior layer . a plurality of panels defining a first surface forming a majority of an exterior surface of the ball ; an interior layer secured on an interior side of the panels and forming substantially all of the interior surface of the ball wherein the interior layer extends between the panels to join the panels together and the interior layer is bonded at seams between each of the panels , wherein said interior layer forms a sealed structure within the ball for retaining a pressurized fluid; and a valve secured to the interior layer .
A process for obtaining a native rapeseed protein isolate comprising the steps of: i) mixing cold-pressed rapeseed oil meal with an aqueous liquid at a temperature of from 45 to 65°C; ii) separation of the aqueous liquid from the mixture obtained in step i); iii) decreaming of the aqueous liquid obtained in step ii); iv) adjusting the pH of the decreamed aqueous liquid obtained in step iii) to a value between pH 6.0 and pH 8.0 by adding acid or base, and mixing with a precipitant to obtain a precipitate, wherein said precipitant comprises a salt of magnesium, zinc, iron or calcium; v) removing the precipitate obtained in step iv) to obtain an aqueous liquid; vi) concentrating and washing the aqueous liquid obtained in step v); vii) isolating native rapeseed protein isolate from the concentrated and washed aqueous liquid obtained in step vi) by means of drying. i) mixing cold-pressed rapeseed oil meal with an aqueous liquid at a temperature of from 45 to 65°C; ii) separation of the aqueous liquid from the mixture obtained in step i); iii) decreaming of the aqueous liquid obtained in step ii); iv) adjusting the pH of the decreamed aqueous liquid obtained in step iii) to a value between pH 6.0 and pH 8.0 by adding acid or base, and mixing with a precipitant to obtain a precipitate, wherein said precipitant comprises a salt of magnesium, zinc, iron or calcium; v) removing the precipitate obtained in step iv) to obtain an aqueous liquid; vi) concentrating and washing the aqueous liquid obtained in step v); vii) isolating native rapeseed protein isolate from the concentrated and washed aqueous liquid obtained in step vi) by means of drying.
Sealing device for sealing a feedthrough for a shaft of a medical instrument, comprising: a fastening region for fastening the sealing device to a tube or another medical device; an annular sealing lip with an inner edge which is provided and designed to bear in a fluid-tight manner on an outer surface of a shaft inserted into the sealing device , wherein the sealing lip is non-rotationally symmetrical to the longitudinal axis of a shaft inserted in the intended central position and orientation into the sealing device , wherein, in the mechanically tension-free state of the sealing lip , the centroid of the area limited by the inner edge of the sealing lip is spaced apart from the centroid limited by the outer edge of the sealing lip . a fastening region for fastening the sealing device to a tube or another medical device; an annular sealing lip with an inner edge which is provided and designed to bear in a fluid-tight manner on an outer surface of a shaft inserted into the sealing device , wherein the sealing lip is non-rotationally symmetrical to the longitudinal axis of a shaft inserted in the intended central position and orientation into the sealing device , wherein, in the mechanically tension-free state of the sealing lip , the centroid of the area limited by the inner edge of the sealing lip is spaced apart from the centroid limited by the outer edge of the sealing lip .