mhurhangee/ep-ind-claims huggingface dataset:
A system for purifying gas, the system comprising: - a cyclone connected to an ozone generator; - a heat exchanger having a first channel for gas and a second channel for gas, placed with respect to each other such that heat is exchanged between the first channel and the second channel; - a cylindrical afterburner chamber having a gas inlet, a gas outlet and a ceramic pipe extending along the axis of the afterburner chamber, wherein a first end of the ceramic pipe is located within a part of the afterburner chamber opposite the gas inlet of the afterburner chamber, and a second end of the pipe constitutes a gas outlet, which is located outside the afterburner chamber and exits the afterburner chamber near the gas inlet, and wherein the afterburner chamber comprises consecutive arrangement, along its axis, from the side of the gas inlet of an assembly of heating elements and microwave radiators, and wherein on the walls of the afterburner chamber near the microwave radiators there are placed ceramic elements; - wherein the cyclone is connected via the first channel of the heat exchanger to the inlet of the afterburner chamber, and the outlet of the afterburner chamber is connected to the second channel of the heat exchanger, whose end is connected to the outlet of gas into the atmosphere; - and wherein the system further comprises a container with a calcium carbonate deposit located along the gas flow path after the first channel of the heat exchanger. - a cyclone connected to an ozone generator; - a heat exchanger having a first channel for gas and a second channel for gas, placed with respect to each other such that heat is exchanged between the first channel and the second channel; - a cylindrical afterburner chamber having a gas inlet, a gas outlet and a ceramic pipe extending along the axis of the afterburner chamber, wherein a first end of the ceramic pipe is located within a part of the afterburner chamber opposite the gas inlet of the afterburner chamber, and a second end of the pipe constitutes a gas outlet, which is located outside the afterburner chamber and exits the afterburner chamber near the gas inlet, and wherein the afterburner chamber comprises consecutive arrangement, along its axis, from the side of the gas inlet of an assembly of heating elements and microwave radiators, and wherein on the walls of the afterburner chamber near the microwave radiators there are placed ceramic elements; - wherein the cyclone is connected via the first channel of the heat exchanger to the inlet of the afterburner chamber, and the outlet of the afterburner chamber is connected to the second channel of the heat exchanger, whose end is connected to the outlet of gas into the atmosphere; - and wherein the system further comprises a container with a calcium carbonate deposit located along the gas flow path after the first channel of the heat exchanger.
Apparatus for stacking items of media in a media container region, comprising: a rotatable roller element arranged to rotate about a longitudinal axis to locate an incoming item of media at a deposit position within a container region; at least one trailing edge engaging element that engages with a trailing edge region of the incoming item of media and urges the trailing edge region towards a stack position, wherein the at least one trailing edge engaging element comprises a plurality of flexible paddles; at least one preceding item edge engaging element that engages with an edge region of a preceding item of media to urge the edge region away from the incoming item of media, wherein the at least one preceding item edge engaging element comprises a plurality of flexible flaps; and characterised by the paddles and the flaps being supported in a circumferentially spaced-apart relationship on the roller element and arranged to rotate simultaneously therewith. a rotatable roller element arranged to rotate about a longitudinal axis to locate an incoming item of media at a deposit position within a container region; at least one trailing edge engaging element that engages with a trailing edge region of the incoming item of media and urges the trailing edge region towards a stack position, wherein the at least one trailing edge engaging element comprises a plurality of flexible paddles; at least one preceding item edge engaging element that engages with an edge region of a preceding item of media to urge the edge region away from the incoming item of media, wherein the at least one preceding item edge engaging element comprises a plurality of flexible flaps; and characterised by the paddles and the flaps being supported in a circumferentially spaced-apart relationship on the roller element and arranged to rotate simultaneously therewith.
A vehicular instrument-mounting structure, in which, in a section formed towards a forward side with respect to a vehicle interior, a motor case that stores therein an electric rotating machine for driving a vehicle is disposed, and a power control device, which performs control of the electric rotating machine is connected, by a cable, to a main battery that supplies electric power for driving the vehicle, and an auxiliary battery, which supplies electric power to a control section of the power control device, are mounted, the vehicular instrument-mounting structure being characterized by comprising: a base plate on which the power control device is mounted, the base plate including a guide hole extending in a front-rear direction of the vehicle; and a linkage member for coupling the base plate with an upper surface of the motor case through the guide hole, wherein the guide hole specifies a distance in which the power control device is guided toward the rear side of the vehicle, the linkage member releases linkage between the motor case and the base plate when an impact load is applied to the power control device and restricts the movement of the power control device toward the rear side of the vehicle by abutting an end of the guide hole on the front side of the vehicle, the auxiliary battery is disposed toward the front side of the vehicle with respect to the power control device, and is supported such that the auxiliary battery pushes the power control device movably toward the rear side of the vehicle while the auxiliary battery is moved toward the rear side of the vehicle due to the impact load, and the cable has an extra length which is longer than a length of the guide hole in the front-rear direction of the vehicle, thereby maintaining connection with the power control device when the power control device moves toward the rear side of the vehicle. a base plate on which the power control device is mounted, the base plate including a guide hole extending in a front-rear direction of the vehicle; and a linkage member for coupling the base plate with an upper surface of the motor case through the guide hole, wherein the guide hole specifies a distance in which the power control device is guided toward the rear side of the vehicle, the linkage member releases linkage between the motor case and the base plate when an impact load is applied to the power control device and restricts the movement of the power control device toward the rear side of the vehicle by abutting an end of the guide hole on the front side of the vehicle, the auxiliary battery is disposed toward the front side of the vehicle with respect to the power control device, and is supported such that the auxiliary battery pushes the power control device movably toward the rear side of the vehicle while the auxiliary battery is moved toward the rear side of the vehicle due to the impact load, and the cable has an extra length which is longer than a length of the guide hole in the front-rear direction of the vehicle, thereby maintaining connection with the power control device when the power control device moves toward the rear side of the vehicle.
A polyethylene composition comprising a base resin which comprises a first ethylene homo- or copolymer fraction having a melt flow rate MFR 2 from 1 to 150 g/10 min and a second ethylene copolymer fraction having a content of units derived from a comonomer from 0.30 to 1.00 mol%, wherein fraction has a lower molecular weight than fraction and wherein fraction is present in an amount of from 45 to 70 wt.% based on the total weight of the base resin; wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.35 g/10min; and wherein the polyethylene composition has a strain hardening modulus from 50 to 150 MPa. a first ethylene homo- or copolymer fraction having a melt flow rate MFR 2 from 1 to 150 g/10 min and a second ethylene copolymer fraction having a content of units derived from a comonomer from 0.30 to 1.00 mol%, wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.35 g/10min; and wherein the polyethylene composition has a strain hardening modulus from 50 to 150 MPa.
A reservoir-based drug delivery composition for use in treating an estrogen-related disorder by implantation into a subject, wherein the drug delivery composition systemically delivers a therapeutically effective amount of an aromatase inhibitor to the subject for a period of time of at least one month, preferably 3 months.
A calibration method for determining a profile of stimulation charge rate for at least one muscle or group of muscles of a user's body, in a motorized ergometer equipped with a functional electrical stimulation system; said motorized ergometer comprising a motor configured for moving at least one articulated actuator; said stimulation charge being provided by the FES system and being personalized to the user's body; said method comprising the following steps of: - Step (a): the placement of the user's limbs in a use position of the ergometer: - Step (b): the immobilization of the user's limbs in the use position of step (a) by blocking the at least one articulated actuator; and - Step (c): the implementation of a ramp of stimulation charge rate by the FES system for at least one muscle or group of muscles of the user's limbs of step (b) in order to obtain a static force profile for said at least one muscle or group of muscles as a function of the stimulation charge rate of the ramp; said static force being the force applied by the user's limbs on a part of the ergometer comprising at least one force sensor; said step being implemented when the user's limbs are immobilized in the position of step (b); and - Step (d): optionally, the repetition of step (c) for each muscle or group of muscles of the user's limbs for which a stimulation by the FES system has to be provided when using the ergometer. - Step (a): the placement of the user's limbs in a use position of the ergometer: - Step (b): the immobilization of the user's limbs in the use position of step (a) by blocking the at least one articulated actuator; and - Step (c): the implementation of a ramp of stimulation charge rate by the FES system for at least one muscle or group of muscles of the user's limbs of step (b) in order to obtain a static force profile for said at least one muscle or group of muscles as a function of the stimulation charge rate of the ramp; said static force being the force applied by the user's limbs on a part of the ergometer comprising at least one force sensor; said step being implemented when the user's limbs are immobilized in the position of step (b); and - Step (d): optionally, the repetition of step (c) for each muscle or group of muscles of the user's limbs for which a stimulation by the FES system has to be provided when using the ergometer.
A permanent magnet synchronous motor comprising: a stator; and a rotor rotatable relative to the stator, the rotor comprising a magnetic structure with a low coercive force magnet and a high coercive force magnet that are arranged magnetically in series with respect to each other to define a pole of the permanent magnet synchronous motor, a magnetization level of the low coercive force magnet being changeable by a stator current pulse, characterized by a stator magnetomotive force at a rated current being equal to or larger than a product of a magnetic field strength for fully magnetizing the low coercive force magnet and a thickness of the low coercive force magnet, wherein a minimum equivalent magnetization level that is defined by a total magnetomotive force of the low coercive force magnet and the high coercive force magnet is 60 % of a full magnetization level of the low coercive force magnet. a stator; and a rotor rotatable relative to the stator, the rotor comprising a magnetic structure with a low coercive force magnet and a high coercive force magnet that are arranged magnetically in series with respect to each other to define a pole of the permanent magnet synchronous motor, a magnetization level of the low coercive force magnet being changeable by a stator current pulse, characterized by a stator magnetomotive force at a rated current being equal to or larger than a product of a magnetic field strength for fully magnetizing the low coercive force magnet and a thickness of the low coercive force magnet, wherein a minimum equivalent magnetization level that is defined by a total magnetomotive force of the low coercive force magnet and the high coercive force magnet is 60 % of a full magnetization level of the low coercive force magnet.
An apparatus, comprising: a stack of silicon wafers (202-1, 202-N); a plurality of first apertures (214-1, 214-N), each first aperture (214-1, 214-N) formed to extend through the stack of silicon wafers (202-1, 202-N), each first aperture (214-1, 214-N) being configured to receive a respective one of a plurality of first optical fibers (206-1, 206-N) directed along a first axis perpendicular to a plane formed by the stack of silicon wafers (202-1, 202-N); a groove formed between two wafers of the stack of silicon wafers (202-1, 202-N), the groove being configured to receive a second optical fiber and a third optical fiber, the second and third optical fibers being directed along a second axis in the plane formed by the stack of silicon wafers (202-1, 202-N); a plurality of optical elements (210-1, 210-N), each optical element (210-1, 210-N) being positioned at an intersection between the groove and a respective first aperture (214-1, 214-N), such that each optical element (210-1, 210-N) is positioned to: focus a first light beam (230, 232) from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path (233, 231) between the second optical fiber and the third optical fiber. a stack of silicon wafers (202-1, 202-N); a plurality of first apertures (214-1, 214-N), each first aperture (214-1, 214-N) formed to extend through the stack of silicon wafers (202-1, 202-N), each first aperture (214-1, 214-N) being configured to receive a respective one of a plurality of first optical fibers (206-1, 206-N) directed along a first axis perpendicular to a plane formed by the stack of silicon wafers (202-1, 202-N); a groove formed between two wafers of the stack of silicon wafers (202-1, 202-N), the groove being configured to receive a second optical fiber and a third optical fiber, the second and third optical fibers being directed along a second axis in the plane formed by the stack of silicon wafers (202-1, 202-N); a plurality of optical elements (210-1, 210-N), each optical element (210-1, 210-N) being positioned at an intersection between the groove and a respective first aperture (214-1, 214-N), such that each optical element (210-1, 210-N) is positioned to: focus a first light beam (230, 232) from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path (233, 231) between the second optical fiber and the third optical fiber. focus a first light beam (230, 232) from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path (233, 231) between the second optical fiber and the third optical fiber.
A high-hardness wear-resistant steel, comprising: 0.08 wt.% to 0.16 wt.% of carbon, 0.1 wt.% to 0.7 wt.% of silicon (Si), 0.8 wt.% to 1.6 wt.% of manganese (Mn), 0.05 wt.% or less of phosphorous, excluding 0 wt.%, 0.02 wt.% or less of sulfur, excluding 0 wt.%, 0.07 wt.% or less of aluminum (Al), excluding 0 wt.%, 0.1 wt.% to 1.0 wt.% of chromium (Cr), 0.01 wt.% to 0.1 wt.% of nickel (Ni), 0.01 wt.% to 0.2 wt.% of molybdenum (Mo), 50 ppm or less of boron, excluding 0 ppm, and 0.005 wt.% to 0.04 wt.% or less of cobalt (Co), further comprising: one or more among 0.1 wt.% or less of copper (Cu), excluding 0 wt.%, 0.02 wt.% or less of titanium (Ti), excluding 0 wt.%, 0.05 wt.% or less of niobium (Nb), excluding 0 wt.%, 0.02 wt.% or less of vanadium, excluding 0 wt.%, and 2 ppm to 100 ppm of calcium (Ca), further optionally comprising one or more among 0.05 wt.% or less of arsenic (As), excluding 0 wt.%, 0.05 wt.% or less of tin (Sn), excluding 0 wt.%, and 0.05 wt.% or less of tungsten, excluding 0 wt.%, and the balance of iron (Fe) and other inevitable impurities, and satisfying Relation 1, wherein a microstructure includes martensite in an area fraction of 97% or more, including 100% and bainite in an area fraction of 3% or less, including 0%, wherein the wear-resistant steel has a thickness of 40 mm or less, and Brinell hardness of 360 HB to 440 HB measured with a load of 3000 kgf and a tungsten indenter having a diameter of 10 mm, 360 ≤ 869 × C + 295 ≤ 440 where means weight%.
Removable milk foaming nozzle for a fully automatic coffee machine for domestic use with a steam nozzle as a first input for a pressurised steam supply, with a second input for a milk supply, with a third input for an air supply, with an output in the direction of a beverage vessel and a further input for a syrup supply, characterised in that all inputs (12, 14, 16, 18) lead into a vacuum chamber, which has a bottleneck on the output side, wherein the bottleneck lies downstream of the steam nozzle and upstream of a mixing chamber in the direction of flow of the steam, wherein the mixing chamber leads into the output downstream.
A process for the production of polyethylene terephthalate glycol-modified (r-PETG) comprising the following steps: depolymerizing recycled PET in the presence of a mixture comprising monoethylene glycol and neopentyl glycol in a weight ratio NPG/MEG comprised between 85:15 and 70:30, at a temperature of between 190 °C and 260 °C and at a pressure of between 1 and 30bar (0,1 and 3 MPa); polymerizing the reaction mixture of step in the presence of a suitable catalyst, preferably at a pressure of less than 0,01 mmHg (1,33 Pa). depolymerizing recycled PET in the presence of a mixture comprising monoethylene glycol and neopentyl glycol in a weight ratio NPG/MEG comprised between 85:15 and 70:30, at a temperature of between 190 °C and 260 °C and at a pressure of between 1 and 30bar (0,1 and 3 MPa); polymerizing the reaction mixture of step in the presence of a suitable catalyst, preferably at a pressure of less than 0,01 mmHg (1,33 Pa).
A security element comprising a layer disposed on a substrate, the layer comprising a composition having magnetic or magnetisable particles therein, each particle having at least one substantially planar surface, wherein the magnetic or magnetisable particles vary in orientation across the layer such that: at a first part of the layer, the particles are orientated with their planar surfaces substantially parallel to the normal to the layer, the angle between the planar surfaces of the particles and the normal gradually increasing with increasing radial distance from the first part to a maximum of approximately 90 degrees at a first radial position of the layer before decreasing gradually again until a second, farther, radial position of the layer, the normals to the planar surfaces of the particles disposed between the first part and the second radial position intersecting one another at points on a first side of the layer, and from the second radial position, the angle between the planar surfaces of the particles and the normal of the layer gradually increases with increasing radial distance, the normals to the planar surfaces of the particles intersecting one another at points on a second side of the layer, opposite to the first side, such that the security element displays a bright edge corresponding to the first radial position, between a first dark area which includes the first part of the layer, and a second dark area, at least when the security element is viewed along a direction substantially normal to the plane of the substrate. at a first part of the layer, the particles are orientated with their planar surfaces substantially parallel to the normal to the layer, the angle between the planar surfaces of the particles and the normal gradually increasing with increasing radial distance from the first part to a maximum of approximately 90 degrees at a first radial position of the layer before decreasing gradually again until a second, farther, radial position of the layer, the normals to the planar surfaces of the particles disposed between the first part and the second radial position intersecting one another at points on a first side of the layer, and from the second radial position, the angle between the planar surfaces of the particles and the normal of the layer gradually increases with increasing radial distance, the normals to the planar surfaces of the particles intersecting one another at points on a second side of the layer, opposite to the first side,
An electrical circuit for measuring (100, 200, 300) a current flowing in a conductor (COND), comprising: - 2xN coils (110 to 113, 210 to 213, 310 to 317), N being an integer greater than or equal to 2, connected in series together; and - a common mode filtering element (120 to 123, 220 to 223, 320 to 327) associated with each of the 2xN coils, each filtering element being placed in parallel with the associated coil and being able to accomplish common mode filtering of the 2xN coils, a core of the 2xN coils having a relative permeability less than 10, and among the 2xN coils, N coils being wound in a direction opposite to the winding direction of the other N coils. - 2xN coils (110 to 113, 210 to 213, 310 to 317), N being an integer greater than or equal to 2, connected in series together; and - a common mode filtering element (120 to 123, 220 to 223, 320 to 327) associated with each of the 2xN coils, each filtering element being placed in parallel with the associated coil and being able to accomplish common mode filtering of the 2xN coils,
An antenna comprising an array of electrically small dipole antenna elements, each of said dipole antenna elements having two arms with at least one opening therein, each said opening being occupied by an electromechanical resonator, a first one of said dipole antenna elements in said array being adapted to be electrically excited by a radio transmitter, receiver or transceiver, the remaining dipole antenna elements in said array being connected each to a load value that can be tuned to form directive beams in a radiation pattern of the array, said remaining dipole antenna elements in said array surrounding, at least in part, said first one of said dipole antenna elements in said array, said remaining dipole antenna elements in said array spaced < λ/4 away from said first one of said dipole antenna elements in said array; each of the electromechanical resonators in said openings configured to present a positive reactance to those portions of the dipole antenna element on either side of said opening at intended frequencies of operation of the antenna.