mhurhangee/ep-ind-claims huggingface dataset:
A therapeutic device comprising: a heat output unit including two heating wires (21A, 21B) connected to a power source; a low-frequency wave output unit including a plurality of electrode pads (31, 33, 35) which generate a low-frequency wave within a predetermined frequency band in order to provide a therapeutic effect to muscles by alternating the low-frequency wave with heat outputted by the heat output unit; an ultrasonic wave output unit including a plurality of ultrasonic pads which generates an ultrasonic wave that is outputted alternating with heat outputted by the heat output unit; wherein the therapeutic device outputs the low-frequency wave or the ultrasonic wave alternating with heat; the therapeutic device further comprising a dense portion (21a, 21b) wherein one heating wire of the two heating wires (21A, 21B) is disposed in a more dense pattern than outside said portion to quickly heat said portion, where at said portion the electrode pads (31, 33) of the low-frequency wave output unit, the ultrasonic pads of the ultrasonic wave output unit, or both the electrode pads (31, 33) of the low-frequency wave output unit and the ultrasonic pads of the ultrasonic wave output unit are disposed; and when the thereapeutic device is configured such that, when the temperatures of the electrode pads (31, 33) and ultrasonic pads reach a predetermined temperature, the heating wire disposed in the more dense pattern is turned 'off', and only the other heating wire is maintained in an 'on' state. a heat output unit including two heating wires (21A, 21B) connected to a power source; a low-frequency wave output unit including a plurality of electrode pads (31, 33, 35) which generate a low-frequency wave within a predetermined frequency band in order to provide a therapeutic effect to muscles by alternating the low-frequency wave with heat outputted by the heat output unit; an ultrasonic wave output unit including a plurality of ultrasonic pads which generates an ultrasonic wave that is outputted alternating with heat outputted by the heat output unit; wherein the therapeutic device outputs the low-frequency wave or the ultrasonic wave alternating with heat; the therapeutic device further comprising a dense portion (21a, 21b) wherein one heating wire of the two heating wires (21A, 21B) is disposed in a more dense pattern than outside said portion to quickly heat said portion, where at said portion the electrode pads (31, 33) of the low-frequency wave output unit, the ultrasonic pads of the ultrasonic wave output unit, or both the electrode pads (31, 33) of the low-frequency wave output unit and the ultrasonic pads of the ultrasonic wave output unit are disposed; and when the thereapeutic device is configured such that, when the temperatures of the electrode pads (31, 33) and ultrasonic pads reach a predetermined temperature, the heating wire disposed in the more dense pattern is turned 'off', and only the other heating wire is maintained in an 'on' state.
Method for the production of a compound of the general formula comprising at least the following steps (a) to (c): (a) reaction of a compound of the general formula wherein Q 1 and Q 2 independently of each other represent a silyl group or wherein Q 1 represents a hydrogen atom and Q 2 represents a silyl group, with a compound of the general formula wherein R represents a 5-methyl-2-oxo-[1,3]-dioxol-4-ylmethylcarbonyl group, to give a compound of the general formula wherein Q 1, Q 2 and R are as defined above; (b) reaction of the compound of the general formula with a compound of the general formula wherein R 1 represents a hydroxy-protective group and Y represents an activating functionality, where appropriate after removal of the protective group, if Q 1 represents a silyl group, to give a compound of the general formula wherein R 1, Q 2 and R are as defined above, and (c) conversion of the compound of the general formula into the compound of the general formula. (a) reaction of a compound of the general formula wherein Q 1 and Q 2 independently of each other represent a silyl group or wherein Q 1 represents a hydrogen atom and Q 2 represents a silyl group, with a compound of the general formula wherein R represents a 5-methyl-2-oxo-[1,3]-dioxol-4-ylmethylcarbonyl group, to give a compound of the general formula wherein Q 1, Q 2 and R are as defined above; (b) reaction of the compound of the general formula with a compound of the general formula wherein R 1 represents a hydroxy-protective group and Y represents an activating functionality, where appropriate after removal of the protective group, if Q 1 represents a silyl group, to give a compound of the general formula wherein R 1, Q 2 and R are as defined above, and (c) conversion of the compound of the general formula into the compound of the general formula.
A system for winding multiple elongated elements (12, 14, 38, 52) simultaneously under a substantially same tension on a single spool, said system comprising one pendulum arm, said system further comprising one set of actuators acting on said pendulum arm and balancing with the sum of tensions of each elongated element (12, 14, 38, 52), CHARACTERIZED IN THAT said system further comprises one or more balancing arms (26, 40, 54), a first balancing arm being attached to said pendulum arm, the other balancing arms (40, 54) (if any) being attached to said first balancing arm, each balancing arm (26, 40, 54) being pivotable upon a balancing arm axis (28, 42, 55), a first set of one or more reversing pulleys being positioned at one side of a first balancing arm axis (28, 42, 55), a second set of one or more reversing pulleys (32, 45, 56) being positioned at the other side of the first balancing arm axis (28, 42, 55), each pulley (30, 32, 45, 56) of said first set and of said second set of one or more of said reversing pulleys guiding an elongated element (12, 14, 38, 52) to be wound on said single spool.
A lining for a haul truck body, said lining comprising a plurality of main lining elements arranged to extend over main surfaces of said haul truck body, and a plurality of transition lining elements arranged to extend over edge and/or corner portions of the haul truck body, each transition lining element forming a lining transition between non-parallel main lining elements of said plurality of main lining elements; characterised in that said plurality of transition lining elements comprises at least one non-linear transition lining element (200,300) which has a first (211,311) and a second (212,312) leg portion extending in non-parallel first (221,321) and second (222,322) leg directions, respectively, said first leg portion (211,311) forming a first lining transition between a first pair (110a, 110b) of non-parallel main lining elements, and said second leg portion (212,312) forming a second lining transition between a second pair (110a, 110c) of non-parallel main lining elements; and in that three main lining elements (110a-c) of said first pair (110a, 110b) and said second pair (110a, 110c) of main lining elements are all non-parallel to each other. characterised in that said plurality of transition lining elements comprises at least one non-linear transition lining element (200,300) which has a first (211,311) and a second (212,312) leg portion extending in non-parallel first (221,321) and second (222,322) leg directions, respectively, said first leg portion (211,311) forming a first lining transition between a first pair (110a, 110b) of non-parallel main lining elements, and said second leg portion (212,312) forming a second lining transition between a second pair (110a, 110c) of non-parallel main lining elements; and in that three main lining elements (110a-c) of said first pair (110a, 110b) and said second pair (110a, 110c) of main lining elements are all non-parallel to each other.
A headset comprising: a first earpiece; and a second earpiece; wherein the first and second earpieces are configured to communicate with each other over a wireless link; and characterised in that the first earpiece comprises a processor configured to transcode digitized audio prior to the digitized audio being transmitted to the second earpiece wherein the processor is configured to decode audio received by the first earpiece and encode at least a portion of the decoded audio using a reduced-complexity codec. a first earpiece; and a second earpiece; wherein the first and second earpieces are configured to communicate with each other over a wireless link; and characterised in that the first earpiece comprises a processor configured to transcode digitized audio prior to the digitized audio being transmitted to the second earpiece wherein the processor is configured to decode audio received by the first earpiece and encode at least a portion of the decoded audio using a reduced-complexity codec.
A gas bearing system comprising at least two gas bearings (30, 32, 34) having a moving part (52,64) and a static part, the parts having opposed surfaces (70,72,74,76) separated by a gap, wherein the at least two bearings comprise at least two journal bearings (30, 32), the static part comprising a sleeve portion (92, 94) having an inner surface and the moving part comprising a journal portion (96, 98) of a shaft located within the sleeve, the sleeve having a plurality of restrictors for admitting pressurised gas from the source into said gap which is defined between an outer surface of the journal portion and the opposed inner surface of the sleeve and wherein, at least for each journal bearing, the outer surface of the journal portion is profiled to assist in the dynamic generation of a layer of pressurised gas in said gap in response to relative movement between the opposed surfaces of the journal portion and the sleeve, said profiling comprising a plurality of grooves arranged in and spaced circumferentially about the outer surface of the journal portion, the grooves each having a leading edge, a trailing edge, and a bottom surface, wherein the grooves are arranged in two rows axially spaced apart by a central land portion, each groove having an inner edge proximal to the land portion and an outer edge distal from the land portion, the inner edge being offset circumferentially behind the outer edge relative to the intended direction of rotation of the journal surface, wherein the system also comprises a source of pressurised gas fluidly connected with the at least two journal bearings to deliver pressurised gas into said gap between the opposed surfaces and a control system for regulating the supply of pressurised gas to the at least two gas bearings in dependence on the rotational speed of the moving part, and wherein the control system is configured such that, in use, pressurised gas is supplied to the bearing only when the moving part rotates at a speed below a first threshold rotational speed, characterised in that, for at least each journal bearing, the plurality of restrictors are circumferentially disposed about the sleeve portion (92, 94) in alignment with the said central land.
A diffractive optical beam-shaping element, in particular for use in an optical system, wherein the diffractive optical beam-shaping element is configured for imposing a phase profile on a laser beam provided for laser machining of a workpiece, comprising: an areal-configured phase mask, characterised in that the areal-configured phase mask has a primary beam region (P, P') with a primary beam diffuser phase profile and at least one secondary beam region with zones (S1, S2) distributed within the primary beam region (P, P') and forming a secondary beam generator phase profile, wherein the primary beam diffuser phase profile comprises a random distribution of the phase and/or a diffractive phase profile, thereby causing beam diffusion in the direction of propagation of a laser beam, and wherein the secondary beam generator phase profile has a diffraction grating type phase profile for diffracting a beam portion from the laser beam. an areal-configured phase mask, characterised in that the areal-configured phase mask has a primary beam region (P, P') with a primary beam diffuser phase profile and at least one secondary beam region with zones (S1, S2) distributed within the primary beam region (P, P') and forming a secondary beam generator phase profile, wherein the primary beam diffuser phase profile comprises a random distribution of the phase and/or a diffractive phase profile, thereby causing beam diffusion in the direction of propagation of a laser beam, and wherein the secondary beam generator phase profile has a diffraction grating type phase profile for diffracting a beam portion from the laser beam.
An impeller for a fan, in particular for an axial or radial fan, having a hub (2, 31, 41) to connect the impeller to a drive motor and having fan blades (6, 32) that are arranged around the hub (2, 41) along the circumference and, in the hub area, having pockets (9, 24, 33, 36) oriented in the axial direction that are open on one side in the axial direction and that have balancing weights that can be fastened therein, characterised in that the balancing weights are formed from U-shaped bent balancing clips (15a, 15b, 15c, 15d) made of resilient material, having at least two opposing parallel clip legs (17, 18) that are connected to each other via a curved section and that enclose a clamping gap between the clip legs (17, 18), wherein one of the clip legs runs inside the pockets (9, 24, 33, 36) and the other clip leg runs outside the pockets (9, 24, 33, 36), so that a clamping fit is achieved on a pocket wall (12, 27, 38) that runs in the clamping gap, wherein in an embodiment as a radial fan impeller the blades run between a top disc and a bottom disc, and the hub is formed on the bottom disc, wherein on the one hand the pockets are formed in a rim that surrounds an inflow opening of the top disc and on the other hand in a ring collar that faces away axially from the top disc and that is shaped on to the bottom disc, wherein the rim and the ring collar have a circular cross section, and the diameter of the ring collar is smaller than, equal to or greater than the diameter of the rim.
A water activatable label comprising a water activatable sheet characterized in that the sheet contains a paper material having on at least one surface thereof a porous water absorbing layer that has a liquid absorption volume of from 1 to 10 mL/m 2 determined according to Japan TAPPI No. 51:2000 (paper pulp test method No. 51:2000, Bristow method, Japan Technical Association of the Pulp and Paper Industry), using as the liquid absorption volume a measured value with an absorption time within 2 seconds, further having provided on the water absorbing layer an adhesive layer containing an aqueous adhesive coated and solidified by drying, wherein the adhesive layer is provided to have a thickness of from 0.1 to 30 g/m 2 on the water absorbing layer.
A cab (250; 350; 450; 550; 650) for a power machine (100; 200), the cab comprising: a cab frame (210; 310) forming an operator compartment and having a first side wall, a second sidewall, a front, a rear, and a top; an operator seat (364; 464; 564) positioned within the operator compartment; a cab door (324; 424; 524; 624) configured to cover an opening in the front of the cab frame when in a closed position and to be moved between the closed position and an open position above the operator seat; and characterized by a display mounted to the cab door at a position that provides visual access to the display by an operator positioned on the operator seat with the cab door in the closed position and with the cab door in the open position overhead of the operator seat. a cab frame (210; 310) forming an operator compartment and having a first side wall, a second sidewall, a front, a rear, and a top; an operator seat (364; 464; 564) positioned within the operator compartment; a cab door (324; 424; 524; 624) configured to cover an opening in the front of the cab frame when in a closed position and to be moved between the closed position and an open position above the operator seat; and characterized by a display mounted to the cab door at a position that provides visual access to the display by an operator positioned on the operator seat with the cab door in the closed position and with the cab door in the open position overhead of the operator seat.
An RF tag comprising: an inlay comprising an IC chip and an antenna which has a loop portion surrounding the IC chip in the form of a loop, and connected to the IC chip via the loop portion; and whole of the inlay is sealed by an insulating member, a planar auxiliary antenna laminated on the inlay in an insulating state to the inlay; and a substrate on which the inlay and the auxiliary antenna are laminated, wherein the auxiliary antenna is formed into a rectangular planar shape including long sides of the auxiliary antenna each having a length of substantially 1/4 of a wavelength of a radio wave frequency of the inlay, and has a cutout part which divides one of the long sides of the auxiliary antenna into two parts each having a length of substantially 1/8 of the wavelength of the radio wave frequency of the inlay, and the cutout part is formed into a concave shape which is opened in an edge portion of one of the long sides and has a predetermined width and depth to allow the IC chip of the inlay to be disposed therein, wherein the auxiliary antenna is laminated on a surface of the inlay directly so that the cutout part is located to superimpose on the loop portion of the inlay, and the auxiliary antenna is electrically connected to the inlay by capacitor coupling, wherein the width of the cutout part is set on the basis of a width of the loop portion of the IC chip of the inlay, so that the conductor is not superimposed on the IC chip but is superimposed on a part of a peripheral edge of the loop portion. an inlay comprising an IC chip and an antenna which has a loop portion surrounding the IC chip in the form of a loop, and connected to the IC chip via the loop portion; and whole of the inlay is sealed by an insulating member, a planar auxiliary antenna laminated on the inlay in an insulating state to the inlay; and a substrate on which the inlay and the auxiliary antenna are laminated, wherein the auxiliary antenna is formed into a rectangular planar shape including long sides of the auxiliary antenna each having a length of substantially 1/4 of a wavelength of a radio wave frequency of the inlay, and has a cutout part which divides one of the long sides of the auxiliary antenna into two parts each having a length of substantially 1/8 of the wavelength of the radio wave frequency of the inlay, and the cutout part is formed into a concave shape which is opened in an edge portion of one of the long sides and has a predetermined width and depth to allow the IC chip of the inlay to be disposed therein,
A breathing mask comprising: a mask body for covering the nose and mouth of a user thereby defining a mask chamber; a filter; an air pump arrangement for ventilating the mask chamber, wherein the air pump arrangement comprises a first flow area and a second flow area, wherein the flow through the first flow area and the second flow area are independently controllable; characterized in that the breathing mask further comprises: a sensor arrangement (26a - 26e) for distinguishing between a nasal breathing type and an oral breathing type; and a controller for controlling the air pump arrangement to provide a flow though the first flow area and/or the second flow area for configuring a location and/or direction of air flow into and/or out of the mask chamber in dependence on the detected breathing type. a mask body for covering the nose and mouth of a user thereby defining a mask chamber; a filter; an air pump arrangement for ventilating the mask chamber, wherein the air pump arrangement comprises a first flow area and a second flow area, wherein the flow through the first flow area and the second flow area are independently controllable; characterized in that the breathing mask further comprises: a sensor arrangement (26a - 26e) for distinguishing between a nasal breathing type and an oral breathing type; and a controller for controlling the air pump arrangement to provide a flow though the first flow area and/or the second flow area for configuring a location and/or direction of air flow into and/or out of the mask chamber in dependence on the detected breathing type.
A method for wireless communication, comprising: generating a physical layer convergence protocol data unit, PPDU, the PPDU including a first portion and a second portion, the first portion being decodable by a first set of devices and by a second set of devices, the second portion being decodable by the second set of devices, wherein the second portion includes an identification of one or more of the second set of devices for a multi-user transmission and includes an indication of scheduling information for the multi-user transmission, wherein the first portion indicates a network allocation vector, NAV, that extends beyond the length of the second portion for protecting the multi-user transmission; and transmitting (1010, 1015) the PPDU, wherein the first portion is transmitted at a first data rate and the second portion is transmitted at a second data rate higher than the first data rate.
A driving apparatus for driving a movable body in a driving direction, comprising: a guide for supporting the movable body, wherein said guide includes a support which is made of a magnetic material and includes a recess (23a-23c) and a projection (22a, 22b) on a side that guides said movable body, and a brittle material layer which covers at least said recess of said support and forms a guide surface that guides said movable body, wherein said movable body includes an air pad (20a-20c) to cause said movable, body to levitate from said guide surface, and a magnet (21 a, 21 b) to obtain an attracting force with respect to said support, wherein said recess (23a-23c) and said projection (22a, 22b) are formed along the driving direction, wherein a length of said projection (22a, 22b) in the driving direction is longer than a length of said projection (22a, 22b) in a direction perpendicular to the driving direction, and wherein said projection (22a, 22b) extends continuously over a movable range of the movable body so that said magnet (21 a, 21 b) and said projection (22a, 22b) always oppose each other in the movable range. a guide for supporting the movable body, wherein said guide includes a support which is made of a magnetic material and includes a recess (23a-23c) and a projection (22a, 22b) on a side that guides said movable body, and a brittle material layer which covers at least said recess of said support and forms a guide surface that guides said movable body, wherein said movable body includes an air pad (20a-20c) to cause said movable, body to levitate from said guide surface, and a magnet (21 a, 21 b) to obtain an attracting force with respect to said support, wherein said recess (23a-23c) and said projection (22a, 22b) are formed along the driving direction, wherein a length of said projection (22a, 22b) in the driving direction is longer than a length of said projection (22a, 22b) in a direction perpendicular to the driving direction, and wherein said projection (22a, 22b) extends continuously over a movable range of the movable body so that said magnet (21 a, 21 b) and said projection (22a, 22b) always oppose each other in the movable range.