mhurhangee/ep-ind-claims huggingface dataset:
A rotary-wing drone comprising: - a drone body; and - two front linking arms (24, 26) and two rear linking arms (28, 30) extending from the drone body and comprising at their distal end a propulsion unit, the front and rear positions of the linking arms being defined with respect to the main direction of flight of said drone, said drone linking arms being adapted to be folded over along the body of said drone, the points of fixation of the two front linking arms to the drone body and the points of fixation of the two rear linking arms to the drone body being located at different respective heights with respect to the horizontal median plane of the drone body, characterized in that the two front linking arms of the drone form a first angle of inclination with respect to the horizontal median plane of the drone body and the two rear linking arms form a second angle of inclination with respect to the horizontal median plane of the drone body, different from the first angle. - a drone body; and - two front linking arms (24, 26) and two rear linking arms (28, 30) extending from the drone body and comprising at their distal end a propulsion unit, the front and rear positions of the linking arms being defined with respect to the main direction of flight of said drone, said drone linking arms being adapted to be folded over along the body of said drone,
A nanoparticle drug carrier comprising: a silica nanoparticle having a surface and defining a plurality of pores that are suitable to receive molecules therein; a phospholipid bilayer coating the surface; a protonating agent disposed within the plurality of pores where said protonating agent comprises triethylammonium sucrose octasulfate (TEAsSOS); and a cargo comprising a drug, wherein said drug consists of irinotecan, and where the cargo is associated with the protonating agent in the plurality of pores; wherein the nanoparticle drug carrier has a submicron structure which has a maximum dimension of less than one micron, and wherein the phospholipid bilayer stably seals the plurality of pores. a silica nanoparticle having a surface and defining a plurality of pores that are suitable to receive molecules therein; a phospholipid bilayer coating the surface; a protonating agent disposed within the plurality of pores where said protonating agent comprises triethylammonium sucrose octasulfate (TEAsSOS); and a cargo comprising a drug, wherein said drug consists of irinotecan, and where the cargo is associated with the protonating agent in the plurality of pores; wherein the nanoparticle drug carrier has a submicron structure which has a maximum dimension of less than one micron, and wherein the phospholipid bilayer stably seals the plurality of pores.
A container arrangement (20, 21, 21', 22, 22', 23) of an outer container and an inner container mounted for thermal insulation in the outer container, wherein an annular installation space is defined between the inner container and the outer container, wherein a single fixed bearing (30, 31, 32, 33, 34, 35, 36) transmitting forces acting in space in all directions is provided comprising rod-shaped fixed bearing securing elements which engage, on the one hand, the outer container and, on the other hand, the inner container and which can be stressed in tension and in compression, wherein the fixed bearing securing elements distributed within the installation space, preferably in the area of the circumference of the inner container, engage the inner container, wherein the fixed bearing securing elements distributed in the annular installation space, preferably distributed in the area of the circumference of the outer container, engage the outer container, wherein the contact points of the fixed bearing securing elements at the inner container are radially located closer to the circumference of the inner container than to the longitudinal axis of the inner container and the contact points of the fixed bearing securing elements at the outer container are radially located closer to the circumference of the outer container than to the longitudinal axis of the outer container, wherein the fixed bearing securing elements are oblique to the longitudinal axis of the inner container and in particular neither parallel nor normal to the longitudinal axis of the inner container, wherein preferably the fixed bearing securing elements are mirrored, always in pairs, at a plane (x) including the longitudinal axis of the inner container, characterized in that the rod-shaped fixed bearing securing elements are firmly connected to the inner container as well as the outer container.
A method for managing Multiprotocol Label Switching traffic engineering, MPLS-TE, loading, comprising: monitoring a utilization level of a label switch router, LSR, associated with one or more label switched path, LSPs; in response to a determination of said utilization level being indicative of a MPLS-TE overload condition being imminent, transmitting an overload message toward an Interior Gateway Protocol, IGP, router, said overload message adapted to cause the IGP router to advertise said overload condition, wherein the IGP advertised overload condition is adapted to cause other LSRs to reroute existing LSPs around said LSR, or to inhibit LSRs from routing new LSPs through said LSR, wherein said LSR is overloaded; in response to a determination that said utilization level is no longer indicative of a MPLS-TE overload condition being imminent, transmitting a non-overload message toward the Interior Gateway Protocol, IGP, router, said non-overload message adapted to cause the IGP router to advertise said non-overload condition; said, by the IGP router, advertised non-overload condition being adapted to cause the other LSRs to again route existing or new LSPs through the LSR which was previously overloaded; and wherein said utilization level is associated with any of a number of received resource reservation protocol, RSVP, packets, a rate of RSVP packet reception and a number of dropped RSVP packets and a rate of dropped RSVP packets. monitoring a utilization level of a label switch router, LSR, associated with one or more label switched path, LSPs; in response to a determination of said utilization level being indicative of a MPLS-TE overload condition being imminent, transmitting an overload message toward an Interior Gateway Protocol, IGP, router, said overload message adapted to cause the IGP router to advertise said overload condition, wherein the IGP advertised overload condition is adapted to cause other LSRs to reroute existing LSPs around said LSR, or to inhibit LSRs from routing new LSPs through said LSR, wherein said LSR is overloaded; in response to a determination that said utilization level is no longer indicative of a MPLS-TE overload condition being imminent, transmitting a non-overload message toward the Interior Gateway Protocol, IGP, router, said non-overload message adapted to cause the IGP router to advertise said non-overload condition; said, by the IGP router, advertised non-overload condition being adapted to cause the other LSRs to again route existing or new LSPs through the LSR which was previously overloaded; and wherein said utilization level is associated with any of a number of received resource reservation protocol, RSVP, packets, a rate of RSVP packet reception and a number of dropped RSVP packets and a rate of dropped RSVP packets.
A rotating x-ray anode with an annular focal track, the surface of the focal track having a directed ground structure (18; 22), wherein over the circumference of the annular focal track and over the radial extent of the focal track, the alignment of the ground structure (18; 22) is inclined in relation to a tangential reference direction in the respective surface portion in each case by an angle in the range from and including 15° up to and including 90°.
An enteric pellet of panaxatriol saponins, comprising: a) a drug core consisting of panaxatriol saponins and a pharmaceutically acceptable carrier; and b) an enteric coating layer coating the drug core; wherein, the panaxatriol saponins, the pharmaceutically acceptable carrier and the enteric coating layer are in a weight ratio of 100::; the panaxatriol saponins per 100 mg comprise at least 50 mg of ginsenoside Rg1 (C 42 H 72 O 14), at least 6 mg of ginsenoside Re (C 48 H 82 O 18), at least 11 mg of notoginsenoside R1 (C 47 H 81 O 20); and the drug core has a diameter of 20-24 mesh. a) a drug core consisting of panaxatriol saponins and a pharmaceutically acceptable carrier; and b) an enteric coating layer coating the drug core;
An edge-gated injection molding apparatus comprising: an injection manifold assembly for distributing a melt stream of moldable material to a plurality of mold cavities that are aligned on opposing sides of the injection manifold assembly, the injection manifold assembly having an injection manifold with a plurality of slots that define two rows of finger portions, the injection manifold having a keyed opening, a plurality of melt outlets with each melt outlet suitable for being in fluid communication with a respective mold cavity of the plurality of mold cavities, wherein each finger portion includes one of the plurality of melt outlets of the injection manifold assembly, and a plurality of nozzle seals for receiving the melt stream from the plurality of melt outlets of the injection manifold assembly and delivering the melt stream to the plurality of mold cavities, characterized in that an upstream end of each nozzle seal is slidably disposed against a respective melt outlet of the injection manifold assembly, and the injection manifold assembly includes a plurality of biasing components secured to the injection manifold assembly with each biasing component being disposed between a pair of melt outlets for biasing at least one of the pair of melt outlets outward from a centerline of the injection manifold assembly toward its respective mold cavity, wherein the outward biasing of the melt outlet by its respective biasing component applies a preload to a respective nozzle seal. an injection manifold assembly for distributing a melt stream of moldable material to a plurality of mold cavities that are aligned on opposing sides of the injection manifold assembly, the injection manifold assembly having an injection manifold with a plurality of slots that define two rows of finger portions, the injection manifold having a keyed opening, a plurality of melt outlets with each melt outlet suitable for being in fluid communication with a respective mold cavity of the plurality of mold cavities, wherein each finger portion includes one of the plurality of melt outlets of the injection manifold assembly, and a plurality of nozzle seals for receiving the melt stream from the plurality of melt outlets of the injection manifold assembly and delivering the melt stream to the plurality of mold cavities, characterized in that an upstream end of each nozzle seal is slidably disposed against a respective melt outlet of the injection manifold assembly, and the injection manifold assembly includes a plurality of biasing components secured to the injection manifold assembly with each biasing component being disposed between a pair of melt outlets for biasing at least one of the pair of melt outlets outward from a centerline of the injection manifold assembly toward its respective mold cavity, wherein the outward biasing of the melt outlet by its respective biasing component applies a preload to a respective nozzle seal.
An ultrasound diagnosis apparatus comprising: a probe comprising an ultrasound transducer with a plurality of transducer elements; a display; and a controller configured to obtain an ultrasound image and a first contrast image of an object by using the ultrasound transducer, wherein the controller is configured to determine a region of interest in at least one image of the ultrasound image and the first contrast image, control the probe to transmit a flash pulse from transducer elements corresponding to the ROI among the plurality of transducer elements to destroy contrast agent in the ROI, obtain a second contrast image of contrast agent re-introduced into the ROI, and control the display to display the second contrast image showing a flow of the contrast agent re-introduced into the ROI, characterized in that the controller is configured to receive a user input that adjusts a mechanical index of the flash pulse, wherein the transmitted flash pulse has the adjusted mechanical index, and, when the ROI is determined, display an expected contrast image that is expected to be obtained when the flash pulse with the adjusted mechanical index is transmitted to the determined ROI. a probe comprising an ultrasound transducer with a plurality of transducer elements; a display; and a controller configured to obtain an ultrasound image and a first contrast image of an object by using the ultrasound transducer, wherein the controller is configured to determine a region of interest in at least one image of the ultrasound image and the first contrast image, control the probe to transmit a flash pulse from transducer elements corresponding to the ROI among the plurality of transducer elements to destroy contrast agent in the ROI, obtain a second contrast image of contrast agent re-introduced into the ROI, and control the display to display the second contrast image showing a flow of the contrast agent re-introduced into the ROI, characterized in that the controller is configured to receive a user input that adjusts a mechanical index of the flash pulse, wherein the transmitted flash pulse has the adjusted mechanical index, and, when the ROI is determined, display an expected contrast image that is expected to be obtained when the flash pulse with the adjusted mechanical index is transmitted to the determined ROI.
An electronic device, comprising a magnetic medium, a coil that encircles a side of the magnetic medium, and a processor connected to both ends of the coil, wherein the magnetic medium is configured to: when the electronic device detects connection of an electronic component, be magnetized by a first magnetic field generated by the electronic component, and be connected to the electronic component under an effect of a magnetic force of the first magnetic field, wherein the electronic component accommodates or is connected to a target connection component; the coil is configured to: under an effect of the first magnetic field, generate a first electric signal according to a change of a magnetic flux in the coil, wherein the first electric signal is used to drive the processor to determine whether identification information of the target connection component accommodated in or connected to the electronic component is the same as a preset identifier; and the processor is configured to detect the change of the magnetic flux; and is further configured to: if a change of the first electric signal induced by the magnetic flux meets a first preset model, wherein the first preset model is a coordinates diagram of the change of the first electric signal, or a line graph of a change rate of the first electric signal, determine whether the identification information of the target connection component is the same as the preset identifier; and is further configured to: if the identification information of the target connection component is different from the preset identifier, drive the electronic component to be disconnected from the electronic device; wherein the processor is specifically configured to: if the identification information is different from the preset identifier, generate a second control signal; and the coil is specifically configured to generate a third electric signal according to the second control signal, and generate the second magnetic field by using the third electric signal, wherein the magnetic force of the second magnetic field is used to drive the electronic component to be disconnected from the electronic device; and wherein the processor is further configured to detect whether a change of the third electric signal meets a second preset model, wherein the second preset model is a coordinates diagram of the change of the first electric signal, or a line graph of a change rate of the first electric signal, and if the change of the third electric signal meets the second preset model, drive the coil to stop generating the third electric signal.
A slip resistant footwear having an outsole, said footwear comprising: an upper secured to an outsole; and the outsole including a forefoot portion, a midfoot portion and a heel portion, at least one of said portions,, including a tread portion constructed from a polymeric material, said tread portion being positioned on the forefoot portion and being particularly suited for channeling liquid from a floor surface, said tread portion including a plurality of lugs, each lug comprising a pedestal at a proximal end thereof and a plurality of protuberances at a distal end thereof, said pedestals being arranged in a generally rectangular array and being separated by grooves between adjacent lugs, said protuberances on a said lug being arranged in a generally rectangular array and adjacent said protuberances being separated by sipes between adjacent said protuberances on a respective said lug, said sipes dividing said lug into a 5 by 5 array, where two corner protuberances replace three corner protuberances, said sipes being in flow communication with adjacent grooves, said grooves being deeper than said sipes, wherein two of said protuberances at each corner of the array are separated by a diagonal sipe connecting interior sipes to the grooves. an upper secured to an outsole; and the outsole including a forefoot portion, a midfoot portion and a heel portion, at least one of said portions,, including a tread portion constructed from a polymeric material, said tread portion being positioned on the forefoot portion and being particularly suited for channeling liquid from a floor surface, said tread portion including a plurality of lugs, each lug comprising a pedestal at a proximal end thereof and a plurality of protuberances at a distal end thereof, said pedestals being arranged in a generally rectangular array and being separated by grooves between adjacent lugs, said protuberances on a said lug being arranged in a generally rectangular array and adjacent said protuberances being separated by sipes between adjacent said protuberances on a respective said lug, said sipes dividing said lug into a 5 by 5 array, where two corner protuberances replace three corner protuberances, said sipes being in flow communication with adjacent grooves, said grooves being deeper than said sipes, wherein two of said protuberances at each corner of the array are separated by a diagonal sipe connecting interior sipes to the grooves.
A flexible display device comprising: a flexible display panel; an integrated circuit chip configured to drive the display panel; a flexible printed circuit board (103, 203) extending from the flexible display panel and provided to connect the integrated circuit chip and the display panel, the integrated circuit chip being mounted on a first surface of the flexible printed circuit board (103, 203); a protection member attached to a rear surface of the display panel; a bracket provided to enclose at least the protection member on the rear surface of the display panel; and an accommodation recess formed in the bracket, wherein the integrated circuit chip is accommodated in the accommodation recess, wherein the flexible printed circuit board (103, 203) is partially interposed between the integrated circuit chip and the protection member and the flexible printed circuit board is at least partially interposed between the bracket and the protection member, and wherein the flexible printed circuit board includes: a first printed circuit pattern formed on the first surface and directly connected to the integrated circuit chip and a second printed circuit pattern formed on a second surface of the flexible printed circuit board, connected to the display panel and electrically connected to the first printed circuit pattern. a flexible display panel; an integrated circuit chip configured to drive the display panel; a flexible printed circuit board (103, 203) extending from the flexible display panel and provided to connect the integrated circuit chip and the display panel, the integrated circuit chip being mounted on a first surface of the flexible printed circuit board (103, 203); a protection member attached to a rear surface of the display panel; a bracket provided to enclose at least the protection member on the rear surface of the display panel; and an accommodation recess formed in the bracket, wherein the integrated circuit chip is accommodated in the accommodation recess, wherein the flexible printed circuit board (103, 203) is partially interposed between the integrated circuit chip and the protection member and the flexible printed circuit board is at least partially interposed between the bracket and the protection member, and wherein the flexible printed circuit board includes: a first printed circuit pattern formed on the first surface and directly connected to the integrated circuit chip and a second printed circuit pattern formed on a second surface of the flexible printed circuit board, connected to the display panel and electrically connected to the first printed circuit pattern. a first printed circuit pattern formed on the first surface and directly connected to the integrated circuit chip and a second printed circuit pattern formed on a second surface of the flexible printed circuit board, connected to the display panel and electrically connected to the first printed circuit pattern.
An in vitro method for differentiating monocytes into dendritic cells, comprising: introducing into the monocytes an expression construct encoding human VentX polypeptide, wherein the VentX polypeptide is overexpressed in the monocytes, and culturing the monocytes under conditions allowing differentiation of the monocytes into dendritic cells, whereby the monocytes differentiate into dendritic cells. introducing into the monocytes an expression construct encoding human VentX polypeptide, wherein the VentX polypeptide is overexpressed in the monocytes, and culturing the monocytes under conditions allowing differentiation of the monocytes into dendritic cells, whereby the monocytes differentiate into dendritic cells.