mhurhangee/ep-ind-claims huggingface dataset:
An electroacoustic transducer (100; 200; 300; 400; 500; 600; 700; 800; 900), comprising: a diaphragm (1; 55; 61; 65; 71; 81; 91; 97) comprising a pair of longitudinal split tubular surfaces (15; 58; 67; 74; 85) arranged next to each other, a valley being formed between respective side portions of the pair of longitudinal split tubular surfaces (15; 58; 67; 74; 85); a converter comprising a magnet mechanism and a voice coil configured to perform conversion between vibration of the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) along a depth direction of the valley and an electric signal corresponding to the vibration; and a supporter that supports the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) such that the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) is vibratable along the depth direction of the valley; characterized in that a tubular portion (13; 83; 93; 94) is provided at an intermediate portion of the valley to couple the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) and the voice coil to each other, and the tubular portion (13; 83; 93; 94) extends in the depth direction of the valley. a diaphragm (1; 55; 61; 65; 71; 81; 91; 97) comprising a pair of longitudinal split tubular surfaces (15; 58; 67; 74; 85) arranged next to each other, a valley being formed between respective side portions of the pair of longitudinal split tubular surfaces (15; 58; 67; 74; 85); a converter comprising a magnet mechanism and a voice coil configured to perform conversion between vibration of the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) along a depth direction of the valley and an electric signal corresponding to the vibration; and a supporter that supports the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) such that the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) is vibratable along the depth direction of the valley; characterized in that a tubular portion (13; 83; 93; 94) is provided at an intermediate portion of the valley to couple the diaphragm (1; 55; 61; 65; 71; 81; 91; 97) and the voice coil to each other, and the tubular portion (13; 83; 93; 94) extends in the depth direction of the valley.
A method comprising: placing a first device within a predetermined distance of a second device; and the first device communicating with the second device via near field talk on a pairing channel of the second device to pair the first device with the second device, wherein the pairing channel of the second device_is different from a plurality of working channels of the second device, and wherein the first device tunes to the pairing channel of the second device without scanning other working channels of the second device; after the first device communicates with the second device via the near field talk on the pairing channel of the second device, installing the first device at a desired location in a monitored region; and after installation, the first device executing a testing sequence by transmitting a test signal via a wireless network and receiving a responsive test signal from the second device approving or rejecting the first device according to respectively whether the first device was paired or not paired with the second device via the near field talk on the pairing channel of the second device and an RF signal strength of a path of the test signal, wherein the first device and the second device operate in a low power mode while executing the testing sequence, and wherein, responsive to the responsive test signal approving the first device, the first device and the second device operate in a normal mode and communicate via the plurality of working channels of the second device. placing a first device within a predetermined distance of a second device; and the first device communicating with the second device via near field talk on a pairing channel of the second device to pair the first device with the second device, wherein the pairing channel of the second device_is different from a plurality of working channels of the second device, and wherein the first device tunes to the pairing channel of the second device without scanning other working channels of the second device; after the first device communicates with the second device via the near field talk on the pairing channel of the second device, installing the first device at a desired location in a monitored region; and after installation, the first device executing a testing sequence by transmitting a test signal via a wireless network and receiving a responsive test signal from the second device approving or rejecting the first device according to respectively whether the first device was paired or not paired with the second device via the near field talk on the pairing channel of the second device and an RF signal strength of a path of the test signal, wherein the first device and the second device operate in a low power mode while executing the testing sequence, and wherein, responsive to the responsive test signal approving the first device, the first device and the second device operate in a normal mode and communicate via the plurality of working channels of the second device.
A method for manufacturing a tank comprising a main body, a base closing the lower part of the main body, and a cover closing the upper part of the main body, said method comprising the following steps: - shaping sheets to produce component parts making up the tank; - assembling each of the component parts by butt welding in order to produce the tank, the method is characterized in that the main body is provided with several compartments, and in that each compartment comprises, at each of its ends, at least one flange allowing an end-to-end assembly between the compartments. - shaping sheets to produce component parts making up the tank; - assembling each of the component parts by butt welding in order to produce the tank,
A rotor blade assembly for a wind turbine, comprising: an upper shell member having at least one upper spar cap configured on an internal surface thereof; a lower shell member having at least one lower spar cap configured on an internal surface thereof; and, a shear web extending between the spar caps (32, 34) along a longitudinal length of the rotor blade assembly, characterized in that the shear web comprises first and second outer pultruded layers (36, 38), wherein end portions (46, 48) of the first and second outer pultruded layers (36, 38) form compressed flanges (37, 39) at opposing ends (33, 35) of the shear web that are bonded to the upper and lower spar caps (32, 34). an upper shell member having at least one upper spar cap configured on an internal surface thereof; a lower shell member having at least one lower spar cap configured on an internal surface thereof; and, a shear web extending between the spar caps (32, 34) along a longitudinal length of the rotor blade assembly, characterized in that the shear web comprises first and second outer pultruded layers (36, 38), wherein end portions (46, 48) of the first and second outer pultruded layers (36, 38) form compressed flanges (37, 39) at opposing ends (33, 35) of the shear web that are bonded to the upper and lower spar caps (32, 34).
A rotary table apparatus comprising: a rotary table casing; a face plate which is pivotally supported by the rotary table casing and which can freely rotate; the rotary table apparatus being characterized in that it further comprises: a joint and a free tube into which a power cable is inserted, the power cable supplying power to rotate the face plate, wherein an adaptor whose mounting direction with respect to the rotary table casing can be changed and which can be attached to and detached from the rotary table casing is placed between the rotary table casing and the joint. a rotary table casing; a face plate which is pivotally supported by the rotary table casing and which can freely rotate; the rotary table apparatus being characterized in that it further comprises: a joint and a free tube into which a power cable is inserted, the power cable supplying power to rotate the face plate, wherein an adaptor whose mounting direction with respect to the rotary table casing can be changed and which can be attached to and detached from the rotary table casing is placed between the rotary table casing and the joint. a joint and a free tube into which a power cable is inserted, the power cable supplying power to rotate the face plate, wherein an adaptor whose mounting direction with respect to the rotary table casing can be changed and which can be attached to and detached from the rotary table casing is placed between the rotary table casing and the joint.
A method for transmitting signals in a filter bank-multicarrier, FBMC, communication system, the method comprising: sorting M modulated signals into at least two groups, even-indexed subcarrier signals being sorted into a first group and odd-indexed subcarrier signals being sorted into a second group, wherein each of the modulated signals corresponding to different subcarriers; filtering the first group and the second group, by performing Inverse Fourier Transform and multiplying a time domain filter coefficient by each even-indexed subcarrier signal of the first group and each odd-indexed subcarrier signal of the second group; overlapping the filtered modulated signals of the first group and the filtered modulated signals of the second group in a time domain, by arranging the filtered modulated signals of the first group in an inverse order of the filtered modulated signals of the second group and overlapping the arranged filtered modulated signals of the first group with the filtered modulated signals of the second group; and transmitting the overlapped filtered modulated signals. sorting M modulated signals into at least two groups, even-indexed subcarrier signals being sorted into a first group and odd-indexed subcarrier signals being sorted into a second group, wherein each of the modulated signals corresponding to different subcarriers; filtering the first group and the second group, by performing Inverse Fourier Transform and multiplying a time domain filter coefficient by each even-indexed subcarrier signal of the first group and each odd-indexed subcarrier signal of the second group; overlapping the filtered modulated signals of the first group and the filtered modulated signals of the second group in a time domain, by arranging the filtered modulated signals of the first group in an inverse order of the filtered modulated signals of the second group and overlapping the arranged filtered modulated signals of the first group with the filtered modulated signals of the second group; and transmitting the overlapped filtered modulated signals.
A balloon catheter integrally accommodating a guidewire, comprising: a catheter body that includes a balloon, an inflation lumen for supplying a fluid for dilating the balloon and a guidewire lumen (41, 46) for accommodating the guidewire; a core shaft inserted in the guidewire lumen (41, 46); a front end coil part formed of at least one wound strand and surrounding a front end portion of the core shaft extending from a front end of the catheter body; and a transition part (54, 154) made of resin that is provided at at least one of a rear end of the front end coil part and a front end of the catheter body and smoothly connects an external shape of the front end coil part and an external shape of a front end portion of the catheter body, characterized in that: the catheter body includes a tubular outer shaft and an inner shaft that is inserted in the outer shaft and forms the guidewire lumen (41,46), the inner shaft extends from a front end of the outer shaft, the transition part (54,154) smoothly connects the external shape of the front end coil part and the external shape of the tip portion of the inner shaft, the inner shaft includes a coil formed by winding at least one strand and a resin layer made of resin that coats the coil, and the transition part (54, 154) is formed integrally with the resin layer. a catheter body that includes a balloon, an inflation lumen for supplying a fluid for dilating the balloon and a guidewire lumen (41, 46) for accommodating the guidewire; a core shaft inserted in the guidewire lumen (41, 46); a front end coil part formed of at least one wound strand and surrounding a front end portion of the core shaft extending from a front end of the catheter body; and a transition part (54, 154) made of resin that is provided at at least one of a rear end of the front end coil part and a front end of the catheter body and smoothly connects an external shape of the front end coil part and an external shape of a front end portion of the catheter body, characterized in that: the catheter body includes a tubular outer shaft and an inner shaft that is inserted in the outer shaft and forms the guidewire lumen (41,46), the inner shaft extends from a front end of the outer shaft, the transition part (54,154) smoothly connects the external shape of the front end coil part and the external shape of the tip portion of the inner shaft, the inner shaft includes a coil formed by winding at least one strand and a resin layer made of resin that coats the coil, and the transition part (54, 154) is formed integrally with the resin layer. the catheter body includes a tubular outer shaft and an inner shaft that is inserted in the outer shaft and forms the guidewire lumen (41,46), the inner shaft extends from a front end of the outer shaft, the transition part (54,154) smoothly connects the external shape of the front end coil part and the external shape of the tip portion of the inner shaft, the inner shaft includes a coil formed by winding at least one strand and a resin layer made of resin that coats the coil, and the transition part (54, 154) is formed integrally with the resin layer.
A circuit adapted to generate a high speed shaped pulse comprising: a data signal input (23, 30), a clock input, a control signal input (26, 33) representative of pulse amplitudes within the pulse, a plurality of logic elements configured to receive said data signal and said control signal and generate a plurality of output signals representative of said shaped pulse, a digital to analog converter (3, 14, 35) adapted to receive the plurality of output signals and generate the shaped pulse when a clock signal is received, wherein the plurality of logic elements include a plurality of switchable connectors, a plurality of flip flops (36a - 36c) and a plurality of delay elements (37a-37d) configured to receive a clock signal from said clock input, each delay element (37a-37d) adapted to provide a secondary clock signal as an output, each delayed by a differing amount from the clock signal, characterised in that the secondary clock signals are received by said plurality of switchable connectors and said control input (26, 33) is adapted to configure said switchable connectors to selectively connect said secondary clocking signals to said flip flops (36a-36c). a data signal input (23, 30), a clock input, a control signal input (26, 33) representative of pulse amplitudes within the pulse, a plurality of logic elements configured to receive said data signal and said control signal and generate a plurality of output signals representative of said shaped pulse, a digital to analog converter (3, 14, 35) adapted to receive the plurality of output signals and generate the shaped pulse when a clock signal is received, wherein the plurality of logic elements include a plurality of switchable connectors, a plurality of flip flops (36a - 36c) and a plurality of delay elements (37a-37d) configured to receive a clock signal from said clock input, each delay element (37a-37d) adapted to provide a secondary clock signal as an output, each delayed by a differing amount from the clock signal, characterised in that the secondary clock signals are received by said plurality of switchable connectors and said control input (26, 33) is adapted to configure said switchable connectors to selectively connect said secondary clocking signals to said flip flops (36a-36c).
A multi-part system either a) or b) comprising, as separately packaged components, either: a) a Part A comprising at least one compound having two or more free radical-polymerizable functional groups and at least one polythiol compound comprising two or more thiol groups and a Part B comprising at least one free radical initiator; or b) a Part A comprising at least one compound having two or more free radical-polymerizable functional groups, a Part B comprising at least one polythiol comprising two or more thiol groups and a Part C comprising at least one free radical initiator. a) a Part A comprising at least one compound having two or more free radical-polymerizable functional groups and at least one polythiol compound comprising two or more thiol groups and a Part B comprising at least one free radical initiator; or b) a Part A comprising at least one compound having two or more free radical-polymerizable functional groups, a Part B comprising at least one polythiol comprising two or more thiol groups and a Part C comprising at least one free radical initiator.
A device for dispensing individually shaving assemblies that are adapted for being detachably used with a handle; comprising: an inner container which is a sectioned inner container defining at least two compartments, each compartment being dimensioned to hold a shaving assembly, the inner container having an open area dimensioned to allow the shaving assemblies to be removed from the inner container; and wherein the inner container is disposed within an outer container forming cover for the inner container, configured to cover the open area; the outer container being movable relative to the inner container between a closed position, a first open position in which one of the shaving assemblies is exposed, and a second open position in which the other shaving assembly is exposed; wherein a pair of surfaces of the inner container, and corresponding surfaces of the outer container, include cooperating retaining features configured to releasably retain the outer container in each of its positions relative to the inner container, characterized in that each compartment of the inner container includes angled features configured to position the shaving assembly within the compartment, wherein the angled features include support members configured to support blades of the shaving assembly above a floor surface of the compartment. an inner container which is a sectioned inner container defining at least two compartments, each compartment being dimensioned to hold a shaving assembly, the inner container having an open area dimensioned to allow the shaving assemblies to be removed from the inner container; and wherein the inner container is disposed within an outer container forming cover for the inner container, configured to cover the open area; the outer container being movable relative to the inner container between a closed position, a first open position in which one of the shaving assemblies is exposed, and a second open position in which the other shaving assembly is exposed; wherein a pair of surfaces of the inner container, and corresponding surfaces of the outer container, include cooperating retaining features configured to releasably retain the outer container in each of its positions relative to the inner container, characterized in that each compartment of the inner container includes angled features configured to position the shaving assembly within the compartment, wherein the angled features include support members configured to support blades of the shaving assembly above a floor surface of the compartment.
An electromagnetic wave resonator harnessing a surface wave, wherein a Z-axis is oriented such that the resonator is located in the minus Z-direction and mutually orthogonal X- and Y-axes are taken in a plane orthogonal to said Z-axis, which comprises the following (a), (b) and (c): (a) a first negative dielectric material which, when a.main direction in and out of which an electromagnetic wave goes is defined by said Z-axis direction, has a groove extending in a Y-axis direction on a surface turning in a plus Z-direction, (b) a positive dielectric thin film provided on an internal surface of the groove on the surface of said first negative dielectric material, and (c) a second negative dielectric material provided on a groove formed by a surface of said positive dielectric thin film facing away from said first negative dielectric material, wherein the multilayered structure made up of the first negative dielectric material, the positive dielectric thin film and the second negative dielectric material is a slab waveguide. (a) a first negative dielectric material which, when a.main direction in and out of which an electromagnetic wave goes is defined by said Z-axis direction, has a groove extending in a Y-axis direction on a surface turning in a plus Z-direction, (b) a positive dielectric thin film provided on an internal surface of the groove on the surface of said first negative dielectric material, and (c) a second negative dielectric material provided on a groove formed by a surface of said positive dielectric thin film facing away from said first negative dielectric material,
A multi-layer scanner having a light transmitter for transmitting a light beam into a monitoring area, a light receiver for receiving the light beam reflected by objects in the monitoring area, an evaluation unit for evaluating a received signal of the light receiver, and a rotatable mirror unit configured as a polygon mirror wheel for periodically deflecting the light beam (16, 24), which has a plurality of mirror facets arranged in a ring and tilted with respect to one another, in order thus to scan, as a monitoring region, an angular section a plurality of times at different heights per revolution of the mirror unit, i.e. a plurality of layers arranged one above the other, characterized in that, in order to compensate for distortions of the plurality of scanned layers that are caused by the different angle of incidence of the light beam on the mirror facets in the course of a rotational movement, optical elements (12, 14, 26, 28, 32, 40) in the beam path of the light beam (16, 24) have a compensating contour, in that the mirror facets are configured as free-form surfaces with a compensating contour, or in that the multi-layer scanner comprises a front window having a plurality of segments arranged one above the other corresponding to the layers and having a compensating contour, and/or a displacement element is provided in order to displace the light receiver with respect to receiving optics arranged in front of the light receiver in synchrony with the rotational movement of the mirror unit.