mhurhangee/ep-ind-claims huggingface dataset:
A method in a network unit for monitoring a fiber line between a radio base station and a radio head in a Fiber to the Radio head communications network, which Fiber to the Radio head communications network comprises a ring architecture or a tree architecture of fiber, with Subcarrier Multiplexing, SCM, downstream transmissions and Wavelength Division Multiplexing, WDM, upstream transmissions, wherein the monitoring comprises the steps of: - comparing a transmit power of a laser diode in a Radio over Fiber master against a threshold value; - when the transmit power exceeds the threshold value, checking that the laser diode in the Radio over Fiber master is working properly, - detecting an indication of a fault along the fiber line based on monitoring power, wherein the detecting is based on read receiver power from a photo diode in a Radio over Fiber master; - in response to detect the indication, initiating an Optical x Domain Reflectometry, OxDR, measurement over the fiber line; and - analyzing a trace from the OxDR measurement for localizing the fault along the fiber line or for deciding that the indicated fault is not a fault along the fiber line, - when the trace indicate no fault along the fiber line, checking a photo diode at the radio base station or the network unit and/or a laser diode of a receiving unit connected to the radio head in the communications network to determine whether the photo diode and/or the laser diode is working properly, and - reporting the fiber fault when the trace indicates fault to an operator of the network unit or a node. - comparing a transmit power of a laser diode in a Radio over Fiber master against a threshold value; - when the transmit power exceeds the threshold value, checking that the laser diode in the Radio over Fiber master is working properly, - detecting an indication of a fault along the fiber line based on monitoring power, wherein the detecting is based on read receiver power from a photo diode in a Radio over Fiber master; - in response to detect the indication, initiating an Optical x Domain Reflectometry, OxDR, measurement over the fiber line; and - analyzing a trace from the OxDR measurement for localizing the fault along the fiber line or for deciding that the indicated fault is not a fault along the fiber line, - when the trace indicate no fault along the fiber line, checking a photo diode at the radio base station or the network unit and/or a laser diode of a receiving unit connected to the radio head in the communications network to determine whether the photo diode and/or the laser diode is working properly, and - reporting the fiber fault when the trace indicates fault to an operator of the network unit or a node.
A method for the stratification of a multiple myeloma patient disposed to respond favorably to an anti-BCMA antibody therapy, comprising determining whether B-cells, preferably malignant B-cells of said patient express BCMA protein on the surface of said B-cells, wherein said patient is disposed to respond favorably to said anti-BCMA antibody therapy, if said B-cells express BCMA protein on their surface.
A torque sensor comprising a ring-shaped and axially-magnetized magnet (120,130) connected to one of an input shaft of a steering wheel and an output shaft; and a ring-shaped stator including an upper stator and a lower stator, said upper and lower stators being connected to the other one of said input shaft and said output shaft, wherein the magnet includes an upper magnet and a bottom magnet each connected by a plurality of magnet pieces each in arc shape and axially magnetized, the upper stator is disposed on an upper side of the upper magnet and the bottom stator is disposed on a bottom side of the bottom magnet, respectively, characterized in that each of the upper and the bottom stators (200, 300) includes a ring-shaped plated body (210, 310) and a plurality of holes (220,320) vertically penetrating the body (210, 310) and facing a pole of the magnet (120, 130), the body (210, 310) includes a ring-shaped outer peripheral unit and a ring-shaped inner peripheral unit, where the outer and inner peripheral units form a lateral surface of each hole (220, 320) and are mutually connected by a radially extended extension unit, such that measurement of magnetic change is performed by a magnetic flux formed in an axial direction.
A pneumatic tire comprising: a tread portion having a pair of central block rows arranged on both sides of a tire equator, each of the central block rows comprising a plurality of central blocks arranged in a circumferential direction of the tire; each of the central blocks comprising a ground contacting face having an axially inner block edge facing the tire equator; characterized in that the inner block edge comprises a first inclined edge and a second inclined edge inclined in an opposite direction to the first inclined edge so that the inner block edge protrudes toward the tire equator; and the first inclined edge comprises a first circular arc portion having a center located on the side of the tire equator. a tread portion having a pair of central block rows arranged on both sides of a tire equator, each of the central block rows comprising a plurality of central blocks arranged in a circumferential direction of the tire; each of the central blocks comprising a ground contacting face having an axially inner block edge facing the tire equator; characterized in that the inner block edge comprises a first inclined edge and a second inclined edge inclined in an opposite direction to the first inclined edge so that the inner block edge protrudes toward the tire equator; and the first inclined edge comprises a first circular arc portion having a center located on the side of the tire equator.
A method of wireless communication performed by an apparatus, comprising: receiving a first broadcast signal; determining whether at least a portion of the first broadcast signal was successfully decoded using a first coverage enhancement, CE, level; and if at least a portion of the first broadcast signal was successfully decoded using the first CE level, performing the following steps: receiving a subsequent broadcast signal; determining whether at least a portion of the subsequent broadcast signal was successfully decoded using the first CE level; and communicating according to the first coverage enhancement, CE, level or a second CE level based at least in part on whether the subsequent broadcast signal was successfully decoded using the first CE level. receiving a first broadcast signal; determining whether at least a portion of the first broadcast signal was successfully decoded using a first coverage enhancement, CE, level; and if at least a portion of the first broadcast signal was successfully decoded using the first CE level, performing the following steps: receiving a subsequent broadcast signal; determining whether at least a portion of the subsequent broadcast signal was successfully decoded using the first CE level; and communicating according to the first coverage enhancement, CE, level or a second CE level based at least in part on whether the subsequent broadcast signal was successfully decoded using the first CE level. receiving a subsequent broadcast signal; determining whether at least a portion of the subsequent broadcast signal was successfully decoded using the first CE level; and communicating according to the first coverage enhancement, CE, level or a second CE level based at least in part on whether the subsequent broadcast signal was successfully decoded using the first CE level.
Use of a particle to absorb and retain odiferous compounds, wherein the particle comprises:- (a) a solid core comprising a first hydrophobic polymer, and (b) a shell comprising a second hydrophobic polymer wherein the Tg of the first hydrophobic polymer is lower than the Tg of the second hydrophobic polymer; wherein the particles have a mean particle size of less than 1 micron, preferably from 0.1 to 0.3 microns, and wherein the odiferous compound is a malodour compound. (a) a solid core comprising a first hydrophobic polymer, and (b) a shell comprising a second hydrophobic polymer
A suspension device, comprising: an active suspension unit that includes an actuator of linear-motion type and a first fluid pressure damper that is connected to the actuator to extend and retract in the same direction as the actuator; a second fluid pressure damper arranged in parallel with the active suspension unit; and a fluid pressure damper including the first fluid pressure damper and the second fluid pressure damper integrated with each other; wherein the fluid pressure damper includes a cylinder, a piston inserted inside of the cylinder slidably and defining first and second pressure chambers (R1,R2) inside of the cylinder, a piston rod having one end coupled to the piston, a hollow rod slidably inserted inside of the cylinder and installed at the outer circumference of the piston rod, and a reservoir provided in communication with the second pressure chamber; wherein the first fluid pressure damper includes the cylinder, the piston inserted inside of the cylinder slidably, and the piston rod having one end coupled to the piston, and the other end of the piston rod is connected to one of extension-reaction operation ends of the actuator; and wherein the second fluid pressure damper includes the hollow rod that has one end connected to the other extension-reaction operation end of the actuator, is movably inserted inside of the cylinder, and is installed at an outer circumference of the piston rod movably. an active suspension unit that includes an actuator of linear-motion type and a first fluid pressure damper that is connected to the actuator to extend and retract in the same direction as the actuator; a second fluid pressure damper arranged in parallel with the active suspension unit; and a fluid pressure damper including the first fluid pressure damper and the second fluid pressure damper integrated with each other; wherein the fluid pressure damper includes a cylinder, a piston inserted inside of the cylinder slidably and defining first and second pressure chambers (R1,R2) inside of the cylinder, a piston rod having one end coupled to the piston, a hollow rod slidably inserted inside of the cylinder and installed at the outer circumference of the piston rod, and a reservoir provided in communication with the second pressure chamber; wherein the first fluid pressure damper includes the cylinder, the piston inserted inside of the cylinder slidably, and the piston rod having one end coupled to the piston, and the other end of the piston rod is connected to one of extension-reaction operation ends of the actuator; and wherein the second fluid pressure damper includes the hollow rod that has one end connected to the other extension-reaction operation end of the actuator, is movably inserted inside of the cylinder, and is installed at an outer circumference of the piston rod movably.
A biodegradable medical device which is made of at least one biodegradable material comprising at least one homopolymer, copolymer, or a polymer blend and has an initial shape and at least one evolved shape, the evolved shape being different from the initial shape, the initial shape having an ability to undergo a dimensional change and to change towards the evolved shape due to an external stimulus and reach the evolved shape or a predetermined shape between the initial shape and the evolved shape, characterized in that the medical device has a predetermined tension level and the medical device is capable of restoring its tension to the predetermined tension level for at least 2 weeks in the physiological conditions, or conditions simulating the physiological conditions, the external stimulus being given by the physiological conditions, meaning aqueous environments and the temperatures at the range of 35°C to 42°C.
A peeling apparatus configured to peel a first substrate from a second substrate comprising: a vacuum plate; a vacuum attachment member; and an arm supporting the vacuum attachment member and a trailing end pivotally attached relative to the vacuum plate, wherein the arm is configured to extend across the vacuum plate, and wherein the vacuum attachment member is configured to be moved away from the vacuum plate while the arm pivots relative to the vacuum plate, characterized in that the vacuum attachment member is configured to pivot relative to the arm. a vacuum plate; a vacuum attachment member; and an arm supporting the vacuum attachment member and a trailing end pivotally attached relative to the vacuum plate, wherein the arm is configured to extend across the vacuum plate, and wherein the vacuum attachment member is configured to be moved away from the vacuum plate while the arm pivots relative to the vacuum plate, characterized in that
An impact tool comprising: an impact mechanism comprising a hammer and an anvil, the hammer being configured to rotate about a first axis and to periodically impact the anvil to drive rotation of the anvil about the first axis; an electric motor comprising a rotor that is directly coupled to the impact mechanism, the electric motor being configured to drive rotation of the hammer about the first axis; wherein the motor rotates the hammer in a first direction, and the hammer causes the rotor to periodically stop rotating in the first direction when the hammer periodically impacts the anvil; and a control circuit that supplies a current to the electric motor and limits the current supplied to the electric motor by disabling the supply of current when the current exceeds a threshold; characterised in that the control circuit further comprises an electronic controller to determine a desired parameter of the impact mechanism and to adjust the threshold to a level associated with achieving the desired parameter of the impact mechanism, wherein the desired parameter is at least one of a rotational speed achieved by the hammer, a torque delivered by the hammer to the anvil upon impact, a rebound angle of the hammer after impacting the anvil, or a frequency at which the hammer impacts the anvil. an impact mechanism comprising a hammer and an anvil, the hammer being configured to rotate about a first axis and to periodically impact the anvil to drive rotation of the anvil about the first axis; an electric motor comprising a rotor that is directly coupled to the impact mechanism, the electric motor being configured to drive rotation of the hammer about the first axis; wherein the motor rotates the hammer in a first direction, and the hammer causes the rotor to periodically stop rotating in the first direction when the hammer periodically impacts the anvil; and a control circuit that supplies a current to the electric motor and limits the current supplied to the electric motor by disabling the supply of current when the current exceeds a threshold; characterised in that the control circuit further comprises an electronic controller to determine a desired parameter of the impact mechanism and to adjust the threshold to a level associated with achieving the desired parameter of the impact mechanism, wherein the desired parameter is at least one of a rotational speed achieved by the hammer, a torque delivered by the hammer to the anvil upon impact, a rebound angle of the hammer after impacting the anvil, or a frequency at which the hammer impacts the anvil.
A coated substrate comprising: (a) an organic antireflective composition comprising: (i) one or more Si-resins; (ii) one or more resins distinct from the one or more Si-resins, the one or more distinct resins being polyesters, wherein the organic antireflective composition has a Si content of at least 20 weight percent based on total solids of the composition, and wherein the organic antireflective composition contains a component that comprises one or more chromophore groups that can effectively absorb exposure radiation used to pattern a overlying photoresist layer; and b) a photoresist layer over the antireflective composition. (a) an organic antireflective composition comprising: (i) one or more Si-resins; (ii) one or more resins distinct from the one or more Si-resins, the one or more distinct resins being polyesters, wherein the organic antireflective composition has a Si content of at least 20 weight percent based on total solids of the composition, and wherein the organic antireflective composition contains a component that comprises one or more chromophore groups that can effectively absorb exposure radiation used to pattern a overlying photoresist layer; and (i) one or more Si-resins; (ii) one or more resins distinct from the one or more Si-resins, the one or more distinct resins being polyesters, b) a photoresist layer over the antireflective composition.
An operating method for a clothes treating apparatus comprising: a drum configured to accommodate therein an object to be dried; an air exhaustion duct configured to form a flow path of air exhausted from the drum; a main fan configured to exhaust air to the air exhaustion duct from the drum; an air suction duct configured to form a flow path of air introduced into the drum; an auxiliary fan configured to introduce air into the air suction duct; and a heat pump system including: a condenser configured to heat air to be sucked into the drum through the air suction duct; an evaporator configured to cool air exhausted from the drum through the air exhaustion duct; a compressor; and an expander, characterized in that the method comprising: measuring a discharge side pressure (Pd) of the compressor; determining that the auxiliary fan operates in an abnormal state if the measured pressure (Pd) of the refrigerant is higher than a preset maximum value; and increasing a rotation speed of the main fan if it is determined that the auxiliary fan operates in an abnormal state. a drum configured to accommodate therein an object to be dried; an air exhaustion duct configured to form a flow path of air exhausted from the drum; a main fan configured to exhaust air to the air exhaustion duct from the drum; an air suction duct configured to form a flow path of air introduced into the drum; an auxiliary fan configured to introduce air into the air suction duct; and a heat pump system including: a condenser configured to heat air to be sucked into the drum through the air suction duct; an evaporator configured to cool air exhausted from the drum through the air exhaustion duct; a compressor; and an expander, characterized in that the method comprising: measuring a discharge side pressure (Pd) of the compressor; determining that the auxiliary fan operates in an abnormal state if the measured pressure (Pd) of the refrigerant is higher than a preset maximum value; and increasing a rotation speed of the main fan if it is determined that the auxiliary fan operates in an abnormal state. measuring a discharge side pressure (Pd) of the compressor; determining that the auxiliary fan operates in an abnormal state if the measured pressure (Pd) of the refrigerant is higher than a preset maximum value; and increasing a rotation speed of the main fan if it is determined that the auxiliary fan operates in an abnormal state.
A method, comprising: obtaining geometric information associated with a physical environment of a communication device participating in a multi-user communication session; characterised by determining an activity type for the multi-user communication session; determining a recommended avatar placement based on the geometric information and the activity type; and displaying an indication of the recommended avatar placement in an environmental representation of the multi-user communication session. obtaining geometric information associated with a physical environment of a communication device participating in a multi-user communication session; characterised by determining an activity type for the multi-user communication session; determining a recommended avatar placement based on the geometric information and the activity type; and displaying an indication of the recommended avatar placement in an environmental representation of the multi-user communication session.
A thin film inductor (100, 600, 700), wherein the thin film inductor (100, 600, 700) comprises a thin film magnetic core, the thin film magnetic core comprises a plurality of magnetic cylinders (140, 150), a first end portion (120, 709), and a second end portion (130, 710) opposite to the first end portion (120, 709), the plurality of magnetic cylinders (140, 150) are separated from each other, the plurality of magnetic cylinders (140, 150) are all rod-shaped, one end of each magnetic cylinder in the plurality of magnetic cylinders (140, 150) is in contact with the first end portion (120, 709), and the other end thereof is in contact with the second end portion (130, 710); the plurality of magnetic cylinders (140, 150) comprise at least two winding magnetic cylinders (140, 141, 142), each being provided for having a winding, and one non-winding magnetic cylinder (150, 151, 152) not having a winding, and the non-winding magnetic cylinder (150, 151, 152) is located on one side of the at least two winding magnetic cylinders (140, 141, 142); or the plurality of magnetic cylinders (140, 150) comprise at least two winding magnetic cylinders (140, 141, 142), each being adapted for having a winding, and two non-winding magnetic cylinders (150, 151, 152), each not having a winding, and the at least two winding magnetic cylinders (140, 141, 142) are located between the two non-winding magnetic cylinders (150, 151, 152); the thin film magnetic core comprises at least one magnetic thin film, and in each magnetic thin film, at least one first gap defined as a type-1 gap (170, 407, 457, 605, 608) is provided in an area located at the first end portion (120, 709) and/or the second end portion (130, 710) and a) located between two adjacent winding magnetic cylinders (140, 141, 142), b) wherein a length direction of the type-1 gap (170, 407, 457, 605, 608) is parallel to a direction of hard magnetization of the magnetic thin film, c) the type-1 gap (170, 407, 457, 605, 608) passes through the area of the magnetic thin film located at the first end portion (120, 709) or the second end portion (130, 710) in the length direction of the type-1 gap (170, 407, 457, 605, 608), and a width w 1 of the type-1 gap (170, 407, 457, 605, 608) is less than or equal to 100 micrometers; and if the thin film magnetic core comprises at least two magnetic thin films, the at least two magnetic thin films are laminated and overlap each other, and a sum of widths of all type-1 gaps (170, 407, 457, 605, 608) in each magnetic thin film is the same. a) located between two adjacent winding magnetic cylinders (140, 141, 142), b) wherein a length direction of the type-1 gap (170, 407, 457, 605, 608) is parallel to a direction of hard magnetization of the magnetic thin film, c) the type-1 gap (170, 407, 457, 605, 608) passes through the area of the magnetic thin film located at the first end portion (120, 709) or the second end portion (130, 710) in the length direction of the type-1 gap (170, 407, 457, 605, 608), and a width w 1 of the type-1 gap (170, 407, 457, 605, 608) is less than or equal to 100 micrometers; and