mhurhangee/ep-ind-claims huggingface dataset:
A light source (10, 12, 14, 16) comprising a light emitter arranged inside a translucent outer envelope (30, 32), the translucent outer envelope (30, 32) being connected to a base, and further comprising a symmetry axis, an imaginary base-plane being defined substantially perpendicular to the symmetry axis and intersecting with a connection point being part of the translucent outer envelope (30, 32), the connection point being a light transmitting part of the translucent outer envelope (30, 32) at an interface between the translucent outer envelope (30, 32) and the base at a furthest distance from a center of the translucent outer envelope (30, 32), the light emitter comprising a light emitting device and comprising a translucent inner envelope (50, 52) at least partially surrounding the light emitting device, wherein the light emitting device is arranged on a substantially flat circuit board arranged substantially parallel to the imaginary base-plane, or wherein the light source (10, 12, 14, 16) comprises a plurality of light emitting devices arranged on a plurality of circuit boards (72a, 72b) arranged at different angles with respect to the symmetry axis and/or with respect to each other, the translucent inner envelope (50, 52) comprising a diffuser for diffusing at least a part of the light emitted by the light emitting device, a diameter (d i) of the translucent inner envelope (50, 52) being smaller than a diameter (d o) of the translucent outer envelope (30, 32), the light emitter being arranged inside the translucent outer envelope (30, 32) at a distance from the imaginary base-plane, away from the base, wherein the distance between the light emitter and the imaginary base-plane is chosen to generate an emission distribution in a distribution plane of at least 220 degrees full width at half maximum (FWHM), the distribution plane being an imaginary plane intersecting with the symmetry axis, and wherein the inner envelope (50, 52) comprises a cut-out portion for accommodating the light emitting device, and wherein a diameter (d i) of the inner envelope (50, 52) is larger than a diameter (d c) of the cut-out portion, the diameter (d i) of the inner envelope (50, 52) being measured in a direction parallel to the direction for measuring the diameter (d c) of the cut-out portion.
A nacelle for turbojet engine comprising an air inlet structure capable of channeling an air flow towards a fan of the turbojet engine and a mid-structure intended to surround said fan and to which the air inlet structure is attached so as to ensure an aerodynamic continuity, the mid-structure comprising, on the one hand, a casing intended to surround the fan and, on the other hand, an outer structure, the air inlet structure comprising a longitudinal outer panel integrating an air inlet lip and which may extend until integrating at least one portion of the outer structure of the mid-section and beyond, said longitudinal outer panel being movably mounted in translation between an operation position in which the outer panel ensures the aerodynamic continuity of the outside of the nacelle, and a maintenance position in which the outer panel is spaced from the outer structure of the mid-section and the air inlet lip is spaced from the inner panel of the air inlet structure, characterized in that the longitudinal outer panel is associated to only two rails / slide type guide means, which are disposed on either side of the interface with the hooking mast, the rails / slide type guide means being structural, at least one portion of said structural guide means being positioned as close as possible to an interface with a hooking mast of the nacelle, the two rails having a cantilevered upstream portion of the mast and therefore not directly supported by the mast, the upstream ends of said rails being linked therebetween by a fitting so as to maintain the spacing between the two rails at said upstream portion.
A ferrite module matrix driver circuit comprising: a controller; a charging circuit; a plurality of ferrite modules (112a-112y) arranged in the form of a matrix; a plurality of first switches (108a-108e) driven by the controller, wherein each switch in the first plurality of switches (108a-108e) connects a respective column of said plurality of ferrite modules (112a-112y) to the charging circuit; a plurality of second switches (110a-110e) driven by the controller, wherein each switch in the second plurality of switches (110a-110e) connects a respective row of said plurality of ferrite modules (112a-112y) to ground; and one or more comparators coupled to the charging circuit and the controller, wherein one of the one or more comparators is adapted to, after a specific voltage has been reached by the charging circuit, signal to the controller, which is adapted to in turn select a specific ferrite module to be polarized by driving one of the plurality of first switches (108a-108e) and one of the plurality of second switches (110a-110e). a controller; a charging circuit; a plurality of ferrite modules (112a-112y) arranged in the form of a matrix; a plurality of first switches (108a-108e) driven by the controller, wherein each switch in the first plurality of switches (108a-108e) connects a respective column of said plurality of ferrite modules (112a-112y) to the charging circuit; a plurality of second switches (110a-110e) driven by the controller, wherein each switch in the second plurality of switches (110a-110e) connects a respective row of said plurality of ferrite modules (112a-112y) to ground; and one or more comparators coupled to the charging circuit and the controller, wherein one of the one or more comparators is adapted to, after a specific voltage has been reached by the charging circuit, signal to the controller, which is adapted to in turn select a specific ferrite module to be polarized by driving one of the plurality of first switches (108a-108e) and one of the plurality of second switches (110a-110e).
A thermoplastic polyester resin composition, comprising a thermoplastic polyester resin, and with respect to 100 parts by weight thereof, 1 to 40 parts by weight of an elastomer, 15 to 100 parts by weight of a fibrous reinforcing filler, 0.4 to 5 parts by weight of a silicone compound and 0.1 to 10 parts by weight of an epoxy compound having an epoxy equivalent of 200 to 400 g/eq.
Wound dressing in the form of a bag enclosing fly maggots with a porous wall made from plastic, characterised in that the wall has a membrane made from a totally open-pored polyurethane foam, which is reticulated and compressed and of which the pore diameter is 0.1 mm to 0.4 mm.
Surface element for an aircraft, comprising - a leading edge, - a high lift device arrangement positioned along the leading edge, - at least one add-on body (8, 10) positioned in a leading edge region, wherein the high lift device arrangement is interrupted in the region of at least one add-on body (8, 10) for preventing collision with the add-on body (8, 10), wherein the surface element comprises an arrangement of openings in a region covering the add-on body (8, 10), which openings are connected to an air conveying device (30, 38, 40, 44) for conveying air through the openings so as to harmonize the flow characteristics in the region of the interrupted high lift device arrangement, wherein the high lift device arrangement extends in spanwise direction beyond the region having the openings arranged therein, and wherein the conveying device (30, 38, 40, 44) is connected to a compressed air line (23, 46) and/or to a suction air line (23,48) and is connectable to the openings in a fluidic manner, wherein the compressed air line (23, 46) is connectable to a bleed air port. - a leading edge, - a high lift device arrangement positioned along the leading edge, - at least one add-on body (8, 10) positioned in a leading edge region, wherein the high lift device arrangement is interrupted in the region of at least one add-on body (8, 10) for preventing collision with the add-on body (8, 10),
An arrangement for a vehicle (2, 3), in particular a rail vehicle, or for a building, the arrangement comprising: • a control system, the control system being adapted to control a plurality of devices of different kind, • a cabinet having a lock that can be locked in order to prevent access to a valuable device within the cabinet, • a control unit of the control system adapted to remotely control unlocking the lock, • an electric line for supplying the lock with electric energy from an electric energy supply network of the vehicle (2, 3) or building, wherein the control system is adapted to unlock the lock automatically if a predetermined condition is fulfilled and/or to unlock the lock on demand, characterised in that the lock is operated using the electric energy supply network of the vehicle (2, 3) or building and that the lock is adapted to unlock if the electric energy supply network stops applying an electric voltage to the lock via the electric line. • a control system, the control system being adapted to control a plurality of devices of different kind, • a cabinet having a lock that can be locked in order to prevent access to a valuable device within the cabinet, • a control unit of the control system adapted to remotely control unlocking the lock, • an electric line for supplying the lock with electric energy from an electric energy supply network of the vehicle (2, 3) or building,
A computer-implemented method of configuring a cluster comprising a plurality of data processing accelerators, DPAs, the method comprising: receiving, by each of the DPAs, a same configuration policy for the plurality of DPAs from a host system, wherein the configuration policy includes configuration instructions for all DPAs as to which DPAs each DPA is to configure a communication link with; configuring, by the DPA, one or more connections between the DPA and other DPAs in the plurality of DPAs, according at least a portion of the configuration policy directed to configuring the DPA, wherein configuring a connection comprises making, or breaking, a communication path between the DPA and at least one of other DPAs; and performing a processing task received by the DPA in a first group of DPAs using one or more DPAs in the first group of DPAs, wherein the first group of DPAs is one of a plurality of groups formed from the plurality of DPAs. receiving, by each of the DPAs, a same configuration policy for the plurality of DPAs from a host system, wherein the configuration policy includes configuration instructions for all DPAs as to which DPAs each DPA is to configure a communication link with; configuring, by the DPA, one or more connections between the DPA and other DPAs in the plurality of DPAs, according at least a portion of the configuration policy directed to configuring the DPA, wherein configuring a connection comprises making, or breaking, a communication path between the DPA and at least one of other DPAs; and performing a processing task received by the DPA in a first group of DPAs using one or more DPAs in the first group of DPAs, wherein the first group of DPAs is one of a plurality of groups formed from the plurality of DPAs.
A pharmaceutical or nutraceutical preparation comprising a) a core containing a pharmaceutically or nutraceutically active substance; and b) an inner controlling layer surrounding the core comprising i) one or a mixture of a plurality of (meth)acrylate copolymers bearing a cationic group or a group that can be converted to a cationic group; and ii) one or a mixture of a plurality of polymers or copolymers bearing an anionic group or group that can be converted to an anionic group; and c) an outer controlling layer comprising one or a mixture of a plurality of polymers or copolymers bearing an anionic group or group that can be converted to an anionic group. a) a core containing a pharmaceutically or nutraceutically active substance; and b) an inner controlling layer surrounding the core comprising i) one or a mixture of a plurality of (meth)acrylate copolymers bearing a cationic group or a group that can be converted to a cationic group; and ii) one or a mixture of a plurality of polymers or copolymers bearing an anionic group or group that can be converted to an anionic group; and i) one or a mixture of a plurality of (meth)acrylate copolymers bearing a cationic group or a group that can be converted to a cationic group; and ii) one or a mixture of a plurality of polymers or copolymers bearing an anionic group or group that can be converted to an anionic group; and c) an outer controlling layer comprising one or a mixture of a plurality of polymers or copolymers bearing an anionic group or group that can be converted to an anionic group.
A method for synchronizing multiple wireless links used for duplicate packet transmission, the method comprising: in a receiver: receiving respective duplicate packets over corresponding multiple wireless links from a transmitter; generating synchronization information corresponding to a timing difference between the multiple wireless links, based at least on respective receive timings of the respective duplicate packets; and transmitting the synchronization information to the transmitter; and in the transmitter: controlling delivery timing of future respective duplicate packets to the multiple wireless links for transmission to the receiver, based on the synchronization information. in a receiver: receiving respective duplicate packets over corresponding multiple wireless links from a transmitter; generating synchronization information corresponding to a timing difference between the multiple wireless links, based at least on respective receive timings of the respective duplicate packets; and transmitting the synchronization information to the transmitter; and receiving respective duplicate packets over corresponding multiple wireless links from a transmitter; generating synchronization information corresponding to a timing difference between the multiple wireless links, based at least on respective receive timings of the respective duplicate packets; and transmitting the synchronization information to the transmitter; and in the transmitter: controlling delivery timing of future respective duplicate packets to the multiple wireless links for transmission to the receiver, based on the synchronization information.
A zoom optical system comprising: a first negative lens group having a negative refractive power; a second negative lens group disposed closer to an image than the first negative lens group; and an intermediate lens group disposed between the first negative lens group and the second negative lens group, wherein a distance between the first negative lens group and the second negative lens group changes during zooming, wherein a distance between the first negative lens group and the intermediate lens group changes, and a distance between the intermediate lens group and the second negative lens group changes during zooming, wherein the first negative lens group is movable so as to have a displacement component in a direction perpendicular to an optical axis, wherein at least part of the second negative lens group is movable along the optical axis during focusing, wherein a conditional expression, 0.50 < fGb / fGa < 2.60, is satisfied, where, fGa: a focal length of the first negative lens group, and fGb: a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc: a focal length of the intermediate lens group. a first negative lens group having a negative refractive power; a second negative lens group disposed closer to an image than the first negative lens group; and an intermediate lens group disposed between the first negative lens group and the second negative lens group, wherein a distance between the first negative lens group and the second negative lens group changes during zooming, wherein a distance between the first negative lens group and the intermediate lens group changes, and a distance between the intermediate lens group and the second negative lens group changes during zooming, wherein the first negative lens group is movable so as to have a displacement component in a direction perpendicular to an optical axis, wherein at least part of the second negative lens group is movable along the optical axis during focusing, wherein a conditional expression, 0.50 < fGb / fGa < 2.60, is satisfied, where, fGa: a focal length of the first negative lens group, and fGb: a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc: a focal length of the intermediate lens group. fGa: a focal length of the first negative lens group, and fGb: a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc: a focal length of the intermediate lens group.
A wearable audio device (100,200,300,400,500,600) that fits around, on, in, or near an ear of a user and that is configured to radiate acoustic energy into or towards the ear of the user, the wearable audio device comprising: a ground plane (106,206); an elliptically polarized spiral monopole antenna (104,204) coupled to the ground plane, the antenna comprising: a ring (108,208); and a plurality of arms (110,210), each arm of the plurality of arms being coupled between the ring and the ground plane; and an enclosure (102,202) enclosing the ground plane, and configured to be coupled to the ear of the user. a ground plane (106,206); an elliptically polarized spiral monopole antenna (104,204) coupled to the ground plane, the antenna comprising: a ring (108,208); and a plurality of arms (110,210), each arm of the plurality of arms being coupled between the ring and the ground plane; and a ring (108,208); and a plurality of arms (110,210), each arm of the plurality of arms being coupled between the ring and the ground plane; and an enclosure (102,202) enclosing the ground plane, and configured to be coupled to the ear of the user.
A drill guide system, comprising: a bone plate including a plurality of bone screw openings sized to receive bone screws; a guide block including at least two drill guide passages extending therethrough, the guide block selectively and removably engaged with the bone plate wherein the drill guide passages are substantially aligned with corresponding ones of the bone screw openings in the bone plate, each of the drill guide passages having a conically-shaped inner guide surface; a fixed angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having a conically-shaped outer guide surface matingly engaged with the conically-shaped inner guide surface of a selected drill guide passage to maintain orientation of the fixed angle drill guide at a predetermined fixed angular orientation relative to the guide block and the bone plate; and a variable angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having an outer guide surface sized smaller than the conically-shaped inner guide surface of a selected drill guide passage to permit orientation of the variable angle drill guide at a variable angular orientation relative to the guide block and the bone plate. a bone plate including a plurality of bone screw openings sized to receive bone screws; a guide block including at least two drill guide passages extending therethrough, the guide block selectively and removably engaged with the bone plate wherein the drill guide passages are substantially aligned with corresponding ones of the bone screw openings in the bone plate, each of the drill guide passages having a conically-shaped inner guide surface; a fixed angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having a conically-shaped outer guide surface matingly engaged with the conically-shaped inner guide surface of a selected drill guide passage to maintain orientation of the fixed angle drill guide at a predetermined fixed angular orientation relative to the guide block and the bone plate; and a variable angle drill guide including a distal portion selectively positioned within a selected one of the drill guide passages in the guide block and having an outer guide surface sized smaller than the conically-shaped inner guide surface of a selected drill guide passage to permit orientation of the variable angle drill guide at a variable angular orientation relative to the guide block and the bone plate.
An apparatus configured to provide a protocol that specifies a power-sourcing voltage range that indicates power sourcing capabilities and for communicating additional power sourcing capabilities using voltage variations within the power-sourcing voltage range, wherein the power-sourcing voltage range comprises one of a plurality of different non-overlapping voltage ranges that each correspond to a different maximum current level that a power-sourcing device is capable of providing, the apparatus comprising: the power-sourcing device configured to provide power to an external power-sinking device over a wired connection containing a plurality of wires, the power-sourcing device including: a voltage control circuit configured to drive a voltage over a wire of the plurality of wires; and processing circuitry configured to: communicate, using the voltage control circuit, first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit, the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range. the power-sourcing device configured to provide power to an external power-sinking device over a wired connection containing a plurality of wires, the power-sourcing device including: a voltage control circuit configured to drive a voltage over a wire of the plurality of wires; and processing circuitry configured to: communicate, using the voltage control circuit, first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit, the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range. communicate, using the voltage control circuit, first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit, the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range.