mhurhangee/ep-ind-claims huggingface dataset:
A carrier assembly for supporting a mattress, and comprising side members and end members, which jointly form a frame that extends and defines an outer periphery along first and second directions (X, Y), and which are mutually connected in corner regions of the frame; wherein the carrier assembly is adapted to receive a valance, such that a main sheet of the valance extends along a first side of the frame, and that a fringing sheet of the valance extends along the outer periphery of the frame; characterized in that at least one of the corner regions comprises a biasing member that protrudes from the corner region and predominantly in the third direction towards a second side of the frame, and in that the biasing member is sufficiently stiff to hold the fringing sheet of the valance under outward tension in the first and second directions (X, Y) when the valance is at rest, but is sufficiently elastic to temporarily and reversibly flex and allow the fringing sheet to deflect as long as the fringing sheet is subjected to an additional force along at least one of the first and second directions (X, Y).
Tyre for a heavy vehicle of the civil engineering type comprising a tread, two sidewalls extending radially inwards from the ends of the tread, two beads (10, 20, 30) extending the sidewalls radially inwards and each comprising a bead wire core (12, 22, 32), a carcass reinforcement extending between the beads and comprising at least one carcass reinforcement layer (11, 21, 31) consisting of metal reinforcement elements wound in each bead, from the inside to the outside of the tyre, around the bead wire core, in order to form a carcass reinforcement upturn (111, 211, 311) extending radially outwards to a carcass reinforcement upturn end (E 1, E 2, E 3), the carcass reinforcement upturn comprising two respectively axially inner (111a, 211a, 311a) and axially outer (111b, 211b, 311b) faces of carcass reinforcement upturn, characterized in that a binding element (23, 33), consisting of at least two superposed binding layers consisting of reinforcement elements made of textile material, is folded in continuous contact around the end of the carcass reinforcement upturn (211, 311) between a first point of contact (A 2, A 3) on the axially inner face (211a, 311a) of carcass reinforcement upturn, corresponding to a first end (I 2, I 3) of the binding element, and a last point of contact (B 2, B 3) on the axially outer face (211b, 311b) of carcass reinforcement upturn.
Alternator comprising: - a stator case containing a stator winding and a rotor, the latter inserted coaxially inside said stator winding; - a rear shield and a front shield both removably fixed to said stator case by means of removable connection means; - a rotation shaft identifying a longitudinal axis, coaxially associated with said rotor; - a cooling fan provided with a plurality of blades and keyed to a first end of said rotation shaft, said fan having the outer diameter greater than the outer diameter of said stator case and being protruding from said stator case, characterized in that in said front shield there is a plurality of slits which are configured to allow the passage of said blades of said fan when said front shield is first positioned so that each slit is aligned with a corresponding blade and then shifted axially towards said fan according to said longitudinal direction so that each blade passes through the corresponding slit so that said fan is received in said front shield and that said front shield is finally fixed to said stator case by means of said removable connection means. - a stator case containing a stator winding and a rotor, the latter inserted coaxially inside said stator winding; - a rear shield and a front shield both removably fixed to said stator case by means of removable connection means; - a rotation shaft identifying a longitudinal axis, coaxially associated with said rotor; - a cooling fan provided with a plurality of blades and keyed to a first end of said rotation shaft, said fan having the outer diameter greater than the outer diameter of said stator case and being protruding from said stator case,
Refrigeration appliance with an electrical component (107-1, 107-2), which emits noise during operation, a noise sensor (109-1, 109-2) for detecting an intensity of the noise emitted by the electrical component (107-1, 107-2) and a controller for operating the electrical component (107-1, 107-2) in a normal operating power range, wherein the controller is configured to change an operating power of the electrical component (107-1, 107-2) within the normal operating power range and to determine a minimum for the noise intensity detected by the noise sensor (109-1, 109-2) and to determine a noise-reduced operating power, in order to operate the electrical component (107-1, 107-2) with the noise-reduced operating power, wherein the electrical component (107-1, 107-2) has a maximum operating power within the normal operating power range, wherein the controller is configured to determine a plurality of minima for the noise intensity detected by the noise sensor (109-1, 109-2) within the normal operating power range and wherein the controller is configured to determine the noise-reduced operating power based on the minimum that corresponds to an operating power of the electrical component (107-1, 107-2), which is within a tolerance range of the maximum operating power.
Device for managing light pulses for measuring the reaction of a sample exposed to a first light pulse called the "pump" pulse, the measurement being performed by analysis of a signal emitted by the sample subjected to a second light pulse, called the "probe" pulse, shifted with respect to the "pump" pulse by a determined time interval, comprising: • two pulsed laser sources (1, 3) of ultra-short pulses; • two optical detectors (21, 23) suited to detecting the pulses of two light beams emitted by the two pulsed laser sources (1, 3) of ultra-short pulses respectively, the first beam being called the "pump" beam and the second beam being called the "probe" beam, each source emitting pulses with respective repetition frequencies that are different and arbitrary in the direction of said sample; the detectors being connected to • a computer suited to determining the time interval between two pulses coming from the first and the second beam, respectively, and constituting the "pump" and "probe" pulses for measuring the reaction of the sample; and • an acquisition system for analysing the measurement of the reaction of the sample, having as input parameter the time interval determined by the computer for the measurement involving the two pulses; • said computer comprising a connector to the acquisition system, characterized in that the repetition frequencies of the sources are stable over a determined period (Δt) and in that the computer uses an algorithm making use of the stability of the repetition frequencies to determine said time interval on the basis of measurement of the phase laws of the sources, the computer being suited to detecting time coincidences between a pulse of the first beam and a pulse of the second beam, and to counting the number of pulses produced by each beam between two coincidences in order to determine the law of evolution for the time interval between two pulses by interpolation or extrapolation. • two pulsed laser sources (1, 3) of ultra-short pulses; • two optical detectors (21, 23) suited to detecting the pulses of two light beams emitted by the two pulsed laser sources (1, 3) of ultra-short pulses respectively, the first beam being called the "pump" beam and the second beam being called the "probe" beam, each source emitting pulses with respective repetition frequencies that are different and arbitrary in the direction of said sample; the detectors being connected to • a computer suited to determining the time interval between two pulses coming from the first and the second beam, respectively, and constituting the "pump" and "probe" pulses for measuring the reaction of the sample; and • an acquisition system for analysing the measurement of the reaction of the sample, having as input parameter the time interval determined by the computer for the measurement involving the two pulses; • said computer comprising a connector to the acquisition system,
A zoom optical system comprising, in the order from an object side: a first lens group having a positive refracting power; a second lens group having a negative refracting power; a third lens group having a positive refracting power; a fourth lens group having a negative refracting power; and a fifth lens group having a positive refracting power, wherein the fourth lens group has a cemented lens of a negative lens and a positive lens in the order from the object side, and wherein the following expression is satisfied: vp > 30.0, where νp denotes the Abbe number of said positive lens and wherein the following expression is further satisfied: 1.0 < f5/(-f4) < 2.0 where f4 denotes the focal length of the fourth lens group and f5 denotes the focal length of the fifth lens group, characterized in that the positive lens in the cemented lens has an object-side lens surface being convex on the object side, wherein the following expression is satisfied: 0.25 < Rs / − f 4 < 0.45, where Rs denotes the radius of curvature of the cemented surface of the cemented lens a first lens group having a positive refracting power; a second lens group having a negative refracting power; a third lens group having a positive refracting power; a fourth lens group having a negative refracting power; and a fifth lens group having a positive refracting power, wherein the fourth lens group has a cemented lens of a negative lens and a positive lens in the order from the object side, and wherein the following expression is satisfied: vp > 30.0, where νp denotes the Abbe number of said positive lens and wherein the following expression is further satisfied: 1.0 < f5/(-f4) < 2.0 where f4 denotes the focal length of the fourth lens group and f5 denotes the focal length of the fifth lens group,
Fan blade of a bypass turbine engine, comprising at least one shank and a vane having a leading edge and a trailing edge, which blade has, for at least one aerofoil of the vane in the vicinity of the shank, a maximum camber defining a point of a skeleton of the aerofoil extending from the leading edge to the trailing edge of the vane at which a distance with a chord of the aerofoil extending from the leading edge to the trailing edge of the vane is maximum, characterised in that said maximum camber is associated with a position along said chord corresponding to a relative chord length of at least 55%, with an offset of this maximum camber toward the trailing edge.
A thermosensitive recording material having a thermosensitive recording layer containing at least a leuco dye and a developer on a support; the thermosensitive recording material containing, as the developer, a sulfonamide compound represented by general formula below: in formula, R1 and R2 may be the same or different and each independently represent a hydrogen atom, an alkyl group having from 1 to 4 carbons, an alkoxy group having from 1 to 4 carbons, or a halogen atom; the thermosensitive recording material further having a protective layer on the thermosensitive recording layer; the protective layer containing at least one type of adhesive agent selected from the group consisting of diacetone-modified polyvinyl alcohol having a degree of polymerization from 400 to 3000, and acetoacetyl-modified polyvinyl alcohol having a degree of polymerization from 1500 to 3000 and a degree of saponification from 95 to 99 mol%; at least one of the thermosensitive recording layer or the protective layer containing a water resistance-imparting agent; and the thermosensitive recording material having a layer containing a reaction product of the adhesive agent and the water resistance-imparting agent, wherein the water resistance-imparting agent is at least one type selected from the group consisting of glyoxal, formalin, glycine, glycidyl ester, glycidyl ether, dimethylolurea, ketene dimer, dialdehyde starch, melamine resins, polyamide resins, polyamine/polyamide resins, epichlorohydrin resins, polyamide-polyamine-epichlorohydrin resins, ketone-aldehyde resins, borax, boric acid, ammonium zirconium carbonate, epoxy-based compounds, hydrazide compounds, oxazoline group-containing compounds, and glyoxylates. in formula, R1 and R2 may be the same or different and each independently represent a hydrogen atom, an alkyl group having from 1 to 4 carbons, an alkoxy group having from 1 to 4 carbons, or a halogen atom; the thermosensitive recording material further having a protective layer on the thermosensitive recording layer; the protective layer containing at least one type of adhesive agent selected from the group consisting of diacetone-modified polyvinyl alcohol having a degree of polymerization from 400 to 3000, and acetoacetyl-modified polyvinyl alcohol having a degree of polymerization from 1500 to 3000 and a degree of saponification from 95 to 99 mol%; at least one of the thermosensitive recording layer or the protective layer containing a water resistance-imparting agent; and the thermosensitive recording material having a layer containing a reaction product of the adhesive agent and the water resistance-imparting agent, wherein the water resistance-imparting agent is at least one type selected from the group consisting of glyoxal, formalin, glycine, glycidyl ester, glycidyl ether, dimethylolurea, ketene dimer, dialdehyde starch, melamine resins, polyamide resins, polyamine/polyamide resins, epichlorohydrin resins, polyamide-polyamine-epichlorohydrin resins, ketone-aldehyde resins, borax, boric acid, ammonium zirconium carbonate, epoxy-based compounds, hydrazide compounds, oxazoline group-containing compounds, and glyoxylates.
A method of wireless communication, comprising: receiving, by a user equipment, UE, operating as a transmitter UE of a sidelink communication link, a sidelink feedback signal from a UE operating as a receiver UE of the sidelink communication link; and implementing, by the transmitter UE, sidelink feedback signaling processing for avoiding an impending collision with respect to forwarding the sidelink feedback signaling to a base station over a network communication link and other uplink signaling to the base station over the network communication link, wherein the implementing sidelink feedback signaling processing comprises: determining to drop or communicate the sidelink feedback signaling based at least in part on a sidelink data retransmission priority of the sidelink transmission. receiving, by a user equipment, UE, operating as a transmitter UE of a sidelink communication link, a sidelink feedback signal from a UE operating as a receiver UE of the sidelink communication link; and implementing, by the transmitter UE, sidelink feedback signaling processing for avoiding an impending collision with respect to forwarding the sidelink feedback signaling to a base station over a network communication link and other uplink signaling to the base station over the network communication link, wherein the implementing sidelink feedback signaling processing comprises: determining to drop or communicate the sidelink feedback signaling based at least in part on a sidelink data retransmission priority of the sidelink transmission.
A robot cleaner for removing foreign matter from a floor while traveling on the floor, comprising a body with a bottom; a main brush unit: a plurality of auxiliary cleaning units (100, 100a, 100b) mounted to the bottom such that the auxiliary cleaning units are extendable and retractable; an obstacle sensor adapted to sense an obstacle in a cleaning region of the robot cleaner; and a control unit adapted to extend the auxiliary cleaning units while travelling in a wall tracing manner along the periphery of the cleaning region, and to retract the auxiliary cleaning units while the robot cleaner travels in an inner portion of the cleaning region when traveling of the periphery of the cleaning region is finished, characterized in that the control unit is adapted to extend only the auxiliary cleaning unit (100, 100a, b) present on the wall surface among the auxiliary cleaning units, when the robot cleaner travels in a wall tracing manner. a plurality of auxiliary cleaning units (100, 100a, 100b) mounted to the bottom such that the auxiliary cleaning units are extendable and retractable; an obstacle sensor adapted to sense an obstacle in a cleaning region of the robot cleaner; and a control unit adapted to extend the auxiliary cleaning units while travelling in a wall tracing manner along the periphery of the cleaning region, and to retract the auxiliary cleaning units while the robot cleaner travels in an inner portion of the cleaning region when traveling of the periphery of the cleaning region is finished, characterized in that the control unit is adapted to extend only the auxiliary cleaning unit (100, 100a, b) present on the wall surface among the auxiliary cleaning units, when the robot cleaner travels in a wall tracing manner.
A process for producing coated carbon particles, characterized in that electrically conductive carbon particles are coated with elemental doped or undoped silicon in a reaction space by chemical vapor deposition of at least one gaseous silane in an oxygen-free gas atmosphere, wherein the electrically conductive carbon particles are constantly in motion during the vapor deposition and wherein carbon particles having a BET surface area of from 5 to 700 m 2 /g are used.
A group communication method, comprising: determining, by the broadcast server based on a service identifier, a first group identifier corresponding to the service identifier and at least one cell identity corresponding to the first group identifier; establishing, by the broadcast server based on the service identifier, at least one broadcast session used to transmit group communication data between the broadcast server and at least one cell indicated by the at least one cell identity; receiving, by a base station, a bearer request message sent by the broadcast server, wherein the bearer request message carries the first group identifier and the service identifier,; and sending, by the base station, the first group identifier and the service identifier to user equipment served by the base station, wherein the group communication method further comprises: receiving, by the base station, the group communication data that is sent by the broadcast server and corresponding to both the service identifier and the first group identifier; and sending, by the base station, the group communication data to the user equipment served by the base station. determining, by the broadcast server based on a service identifier, a first group identifier corresponding to the service identifier and at least one cell identity corresponding to the first group identifier; establishing, by the broadcast server based on the service identifier, at least one broadcast session used to transmit group communication data between the broadcast server and at least one cell indicated by the at least one cell identity; receiving, by a base station, a bearer request message sent by the broadcast server, wherein the bearer request message carries the first group identifier and the service identifier,; and sending, by the base station, the first group identifier and the service identifier to user equipment served by the base station, wherein the group communication method further comprises: receiving, by the base station, the group communication data that is sent by the broadcast server and corresponding to both the service identifier and the first group identifier; and sending, by the base station, the group communication data to the user equipment served by the base station. receiving, by the base station, the group communication data that is sent by the broadcast server and corresponding to both the service identifier and the first group identifier; and sending, by the base station, the group communication data to the user equipment served by the base station.
A patient shuttle system for particle therapy, comprising: a patient table on which a patient is placed; a drive device configured to cause the patient table to move parallel and/or rotate; a drive control device configured to control parallel movement and/or rotation of the patient table by the drive device; a base on which the patient table, the drive device, and the drive control device are placed, wherein the base has a plurality of casters for moving; and a base lock mechanism configured to engage with a lock receiving member provided on a floor, a wall or the like in the treatment room for particle therapy and fix the patient shuttle system to the treatment room for particle therapy so that the patient shuttle system 10 does not move, wherein the drive control device is configured to control the parallel movement and/or rotation of the patient table by the drive device in accordance with a parallel movement amount and/or a rotation amount of the patient table that are received from a patient positioning system provided in a treatment room for particle therapy, and the base lock mechanism is configured to be housed in the base so that the base lock mechanism does not get in the way at a time of the patient shuttle system 10 moving, and the base lock mechanism is configured to protrude from the base at a time of engaging with the lock receiving member, wherein the patient shuttle system is applicable to transporting a patient to the treatment room for particle therapy and/or to transporting a patient from the treatment room for particle therapy. a patient table on which a patient is placed; a drive device configured to cause the patient table to move parallel and/or rotate; a drive control device configured to control parallel movement and/or rotation of the patient table by the drive device; a base on which the patient table, the drive device, and the drive control device are placed, wherein the base has a plurality of casters for moving; and a base lock mechanism configured to engage with a lock receiving member provided on a floor, a wall or the like in the treatment room for particle therapy and fix the patient shuttle system to the treatment room for particle therapy so that the patient shuttle system 10 does not move, wherein the drive control device is configured to control the parallel movement and/or rotation of the patient table by the drive device in accordance with a parallel movement amount and/or a rotation amount of the patient table that are received from a patient positioning system provided in a treatment room for particle therapy, and the base lock mechanism is configured to be housed in the base so that the base lock mechanism does not get in the way at a time of the patient shuttle system 10 moving, and the base lock mechanism is configured to protrude from the base at a time of engaging with the lock receiving member, wherein the patient shuttle system is applicable to transporting a patient to the treatment room for particle therapy and/or to transporting a patient from the treatment room for particle therapy.
A frameless copper-releasing contraceptive IUD or a hormone-releasing contraceptive IUS, comprising a retaining thread, such as suture thread, supporting the active component(s) (2, 6) and an anchor insertable into the wall of an uterus with a specially designed applicator or inserter in order to secure the IUD/IUS in the uterine cavity, said anchor consisting of a knot made at one end of the thread characterized by a tiny metal tube threaded onto the thread and fixed immediately below or above the anchoring knot to make the insertable anchor visible in the uterine wall on ultrasound and/or x-ray.