mhurhangee/ep-ind-claims huggingface dataset:
A hearing assistive device having an input transducer (12; 61) adapted for converting sound into an audio signal applied to a processor (14; 66), said processor (14; 66) being configured to compensate a hearing loss of a user of the hearing assistive device and to output a compensated audio signal, and an output transducer (16; 65) adapted for converting the compensated audio signal into sound, and further comprising: - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assistive device; - a sound dosimeter (26; 69) measuring during audio streaming a parameter representative of a sound exposure of the compensated audio signal output by the output transducer (16; 65); and - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; - wherein the attenuator (23; 66a) is controlled according to the parameter measured by the sound dosimeter (26; 69); characterized in further comprising an audio stream analyzer (22a; 68a) classifying the audio stream received via said wireless transceiver (21; 67) as utility audio or entertainment audio, wherein the sound dosimeter (26; 69) is enabled when said audio stream is classified as entertainment audio. - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assistive device; - a sound dosimeter (26; 69) measuring during audio streaming a parameter representative of a sound exposure of the compensated audio signal output by the output transducer (16; 65); and - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; - wherein the attenuator (23; 66a) is controlled according to the parameter measured by the sound dosimeter (26; 69);
A metamaterial for attenuating acoustic transmission, the metamaterial comprising a plurality of layers, each layer comprising: (a) a transmission structure, and (b) a resonator, coupled by a coupling to the transmission structure, wherein the resonator in a layer is coupled by a coupling to the transmission structure of the layer(s) neighbouring said layer, and characterized in that the transmission structure in a layer is coupled by a coupling to the transmission structures of the layer(s) neighbouring said layer. (a) a transmission structure, and (b) a resonator, coupled by a coupling to the transmission structure, wherein the resonator in a layer is coupled by a coupling to the transmission structure of the layer(s) neighbouring said layer, and
A method of making a molded mineral wool insulation product using a molding process comprising inserting an uncured blank in a mold cavity formed in a mold system, the uncured blank including fiber and uncured binder, characterized in that the method comprises transferring heat from a first and/or second mold unit of the mold system to a cool pressurized gas to establish a hot pressurized gas, the first and/or second mold unit being heated with hot oil, with electrical resistance, heated platens, or any combination thereof and the first and/or second mold unit being formed to include a passageway in fluid connection with a source of the cool pressurized gas and an array of holes formed in the first mold unit that are arranged to open into the passageway to cause pressurized gas to be communicated from the passageway to the mold cavity and causing the pressurized gas to flow through the passageway so that heat is transferred from the heated mold unit to the pressurized gas to cause a hot pressurized gas to be established prior to the hot pressurized gas entering the mold cavity, wherein the pressurized gas is compressed air, injecting the hot pressurized gas into the mold cavity, and transferring heat by convection from the hot pressurized gas to the uncured blank and transferring heat by conduction from the mold system to the uncured blank to cause the uncured binder to cure and establish a cured product.
An electric working machine comprising: a motor as a driving source for operation; a control board for controlling the motor; a body casing in which the motor is disposed in a longitudinal direction; an operating rod provided with a working part; a power transmission shaft supported by a bearing extending through a center of the operating rod and being adapted to transmit a rotary driving force of the motor to the working part provided at a distal end of the operating rod; a rod fixture for securely attaching the operating rod to the body casing; and an air guiding partitioning member including a partitioning plate that hermetically partitions between an air exhaust port and an air intake port provided with a predetermined interval in the longitudinal direction in the body casing, the partitioning plate provided with an air guiding window for delivering cooling air taken in from the air intake port to an opening for sucking air on the front side of the motor through a space between the motor and the body casing, characterized in that the motor, the control board, the rod fixture secured to a front side of the motor, as seen in the longitudinal direction, and the air guiding partitioning member secured to a rear side of the motor, as seen in the longitudinal direction, are integrally formed as a motor assembly, and the control board is disposed on a rear side of the partitioning plate in the longitudinal direction, wherein the integrally formed motor assembly is attached to the body casing by bolts. a motor as a driving source for operation; a control board for controlling the motor; a body casing in which the motor is disposed in a longitudinal direction; an operating rod provided with a working part; a power transmission shaft supported by a bearing extending through a center of the operating rod and being adapted to transmit a rotary driving force of the motor to the working part provided at a distal end of the operating rod; a rod fixture for securely attaching the operating rod to the body casing; and an air guiding partitioning member including a partitioning plate that hermetically partitions between an air exhaust port and an air intake port provided with a predetermined interval in the longitudinal direction in the body casing, the partitioning plate provided with an air guiding window for delivering cooling air taken in from the air intake port to an opening for sucking air on the front side of the motor through a space between the motor and the body casing, characterized in that the motor, the control board, the rod fixture secured to a front side of the motor, as seen in the longitudinal direction, and the air guiding partitioning member secured to a rear side of the motor, as seen in the longitudinal direction, are integrally formed as a motor assembly, and the control board is disposed on a rear side of the partitioning plate in the longitudinal direction, wherein the integrally formed motor assembly is attached to the body casing by bolts.
Terminal block, comprising an insulating-material housing which has a first connection plane (11a, 11b, 11c, 11d) and at least one second connection plane (11a, 11b, 11c, 11d), wherein a busbar (12a, 12b, 12c, 12d) and two conductor connection units (13a', 13a", 13b', 13b", 13c', 13c", 13d', 13d''), which are arranged opposite one another and are connected to the busbar (12a, 12b, 12c, 12d) in an electrically contact-making manner, are arranged in each connection plane (11a, 11b, 11c, 11d), wherein at least one test plug opening for receiving a test plug is formed in the insulating-material housing, wherein the test plug opening is arranged between a conductor connection unit (13a', 13a'', 13b', 13b'', 13c', 13c", 13d', 13d'') of the first connection plane (11a, 11b, 11c, 11d) and a conductor connection unit (13a', 13a", 13b', 13b", 13c', 13c", 13d', 13d") of the second connection plane (11a, 11b, 11c, 11d), which conductor connection unit is arranged adjacent to the said conductor connection unit, characterized in that, owing to the extension of the test plug opening beyond the first connection plane (11a, 11b, 11c, 11d) and beyond the second connection plane (11a, 11b, 11c, 11d), a first portion of the test plug opening is arranged in the region of the first connection plane (11a, 11b, 11c, 11d) and a second portion of the test plug opening is arranged in the region of the second connection plane (11a, 11b, 11c, 11d), so that the test plug opening extends over two potentials which are separate from one another.
Process for manufacturing an electronic document having a concealed magnetic strip, comprising: - a step of providing a surface of a body of the electronic document; - a step of applying a magnetic strip to at least one part of the surface of the body of the electronic document, a visible surface, formed by the surface of the body that is at least partially covered by the magnetic strip, having a Delta E contrast equal to or less than 15, the Delta E contrast being a measure of the colour difference defined by the International Commission on Illumination; and - a step (24, 25, 26) of applying a decoration covering the surface of the body on top of the magnetic strip, the decoration having a thickness of at most 10 μm and having an opacity ratio in the wavelengths of the visible spectrum of at least 70%. - a step of providing a surface of a body of the electronic document; - a step of applying a magnetic strip to at least one part of the surface of the body of the electronic document, a visible surface, formed by the surface of the body that is at least partially covered by the magnetic strip, having a Delta E contrast equal to or less than 15, the Delta E contrast being a measure of the colour difference defined by the International Commission on Illumination; and - a step (24, 25, 26) of applying a decoration covering the surface of the body on top of the magnetic strip, the decoration having a thickness of at most 10 μm and having an opacity ratio in the wavelengths of the visible spectrum of at least 70%.
A method of making a carbon-carbon composite, comprising: stacking a plurality of textile fabric layers, each textile fabric layer in the plurality of textile fabric layers including oxidized polyacrylonitrile fibers, each textile fabric layer in the plurality of textile fabric layers being a non-crimp, multi-axial stitch-bonded fabric; needling the plurality of textile fabric layers to form a needled non-woven board; cutting a fibrous preform from the needled non-woven board; carbonizing the fibrous preform; and densifying the fibrous preform with a carbon matrix. stacking a plurality of textile fabric layers, each textile fabric layer in the plurality of textile fabric layers including oxidized polyacrylonitrile fibers, each textile fabric layer in the plurality of textile fabric layers being a non-crimp, multi-axial stitch-bonded fabric; needling the plurality of textile fabric layers to form a needled non-woven board; cutting a fibrous preform from the needled non-woven board; carbonizing the fibrous preform; and densifying the fibrous preform with a carbon matrix.
Battery cooling device for a vehicle battery with battery cells, comprising a cooling body with channels for a coolant to flow through, the cooling body being intended for thermally contacting the battery cells, an end cap being provided at at least one end of the cooling body, at least some of the channels of the cooling body opening into the end cap, and projections that project into at least some of the channels of the cooling body being formed at the end cap, characterized in that the projections for at least two different channels are designed differently, the projections for at least two different channels projecting to different extents into the respective channels of the cooling body.
A device, comprising: a receiver-stimulator implantable in the heart of a patient using a delivery system and configured to receive controlled acoustic energy from a controller-transmitter and to convert the acoustic energy to electrical energy, the receiver-stimulator comprising: a first electrode, a second electrode, and an electrical contact (134b, 203, 204, 302, 310) electrically connected to the first electrode, wherein the first and second electrodes (106, 110) are configured to deliver the electrical energy at a location in the heart; an electrical connector configured to provide a temporary electrical connection between the electrical contact (134b, 203, 204, 302, 310) and the delivery system; and a disconnect mechanism to disconnect the temporary electrical connection, wherein the disconnect mechanism: includes a seal (127, 206) configured to electrically insulate the electrical contact (134b, 203) from patient tissue when the receiver-stimulator is detached from the delivery system, or is configured to electrically disconnect the electrical contact (204, 302, 310) from the first electrode when the receiver-stimulator is detached from the delivery system; wherein the electrical connector is configured to be connected to an external monitor through the delivery system. a first electrode, a second electrode, and an electrical contact (134b, 203, 204, 302, 310) electrically connected to the first electrode, wherein the first and second electrodes (106, 110) are configured to deliver the electrical energy at a location in the heart; an electrical connector configured to provide a temporary electrical connection between the electrical contact (134b, 203, 204, 302, 310) and the delivery system; and a disconnect mechanism to disconnect the temporary electrical connection, wherein the disconnect mechanism: includes a seal (127, 206) configured to electrically insulate the electrical contact (134b, 203) from patient tissue when the receiver-stimulator is detached from the delivery system, or is configured to electrically disconnect the electrical contact (204, 302, 310) from the first electrode when the receiver-stimulator is detached from the delivery system; includes a seal (127, 206) configured to electrically insulate the electrical contact (134b, 203) from patient tissue when the receiver-stimulator is detached from the delivery system, or is configured to electrically disconnect the electrical contact (204, 302, 310) from the first electrode when the receiver-stimulator is detached from the delivery system; wherein the electrical connector is configured to be connected to an external monitor through the delivery system.
A wideband active antenna system comprising a passive antenna; said passive antenna having a nominal bandwidth with a minimum frequency; said passive antenna comprising receive or transmit elements with a size larger than or equal to half the wavelength of said minimum frequency, and said passive antenna having a number N of outputs (1, 2, 3, 4), with N > 1, each of the N outputs (1, 2, 3, 4) being directly coupled to an associated buffer amplifier (12; 12 1, 12 2, 12 3, 12 4), with a physical distance between the N outputs (1, 2, 3, 4) and a first active stage of each associated buffer amplifier (12; 12 1, 12 2, 12 3, 12 4) being no greater than 1/4 wavelength of any transmission and/or receiving frequency of the wideband active antenna system, such that the wideband active antenna system has a greater nominal bandwidth, additionally comprising lower frequencies than said nominal bandwidth of said passive antenna.
A system for monitoring network traffic and resource usage in a data center comprising at least one server, the system comprising: - a node comprising an input means for capturing network packets, a processing means for running a packet analyzer for analyzing the network packets whereby packets are classified in request/response pairs per type based on deep packet inspection, and a memory for storing the request/response pairs, - a means for collecting the request/response pairs and for receiving resource usage information, the means for receiving being an external monitoring system configured for receiving the resource usage information from the at least one server running an agent for transferring the resource usage information to the means for receiving, and a correlation module for correlating the request/response pairs information with the resource usage to an intra-application level, for determining how many resources each type of request uses. - a node comprising an input means for capturing network packets, a processing means for running a packet analyzer for analyzing the network packets whereby packets are classified in request/response pairs per type based on deep packet inspection, and a memory for storing the request/response pairs, - a means for collecting the request/response pairs and for receiving resource usage information, the means for receiving being an external monitoring system configured for receiving the resource usage information from the at least one server running an agent for transferring the resource usage information to the means for receiving, and a correlation module for correlating the request/response pairs information with the resource usage to an intra-application level, for determining how many resources each type of request uses.
Air filter module having a housing frame, with a plasma-generating device arranged in an inner space of the housing frame and with an adsorption filter, wherein the housing frame comprises a first face side having at least one air inlet opening and a second opposite face side as well as at least one side wall connecting the face sides (3, 4) and having at least one air outlet opening, and the adsorption filter is arranged at the at least one side wall so as to cover the at least one air outlet opening, characterized in that the second face side is closed and in that the air filter module comprises a security switch-off device, which is switched-off with the plasma-generating device if no sufficient air flow from the plasma-generating device through the adsorption filter and the air outlet opening is measured.
A cleaning method comprising the steps of (i) contacting feed water successively with one or more sets of first a cation exchange resin material and secondly an anion exchange resin material in order to produce wash amplified water having a water hardness of less than 5° FH and a pH value that is more than 0.5 pH-unit different from that of the feed water said pH-value being higher than 8.5, whereby the resins are regenerated with the use of an electric field, (ii) mixing said WAW with a low environmental impact detergent product (LEIP) containing 0 to 5 wt.% builder of the total LEIP composition and comprises at least 10% wt, preferably at least 25% wt, more preferably at least 40% wt, of surfactant, for obtaining a wash liquor; and (iii) treating substrates to be cleaned with said wash liquor. (i) contacting feed water successively with one or more sets of first a cation exchange resin material and secondly an anion exchange resin material in order to produce wash amplified water having a water hardness of less than 5° FH and a pH value that is more than 0.5 pH-unit different from that of the feed water said pH-value being higher than 8.5, whereby the resins are regenerated with the use of an electric field, (ii) mixing said WAW with a low environmental impact detergent product (LEIP) containing 0 to 5 wt.% builder of the total LEIP composition and comprises at least 10% wt, preferably at least 25% wt, more preferably at least 40% wt, of surfactant, for obtaining a wash liquor; and (iii) treating substrates to be cleaned with said wash liquor.
A method of manufacturing an etched glass article including the steps of: a) jetting an image with a UV curable inkjet ink on a surface of a glass article; b) UV curing the image; c) etching the surface not covered by the UV cured image to obtain an etched image; and d) removing the UV cured image in an aqueous alkaline solution; characterized in that the UV curable inkjet ink comprises a polymerizable composition, wherein at least 80 wt% of the polymerizable composition consists of: a) 15.0 to 70.0 wt% of an acryl amide; b) 20.0 to 75.0 wt% of a polyfunctional acrylate; and c) 1.0 to 15.0 wt% of a (meth)acrylate containing a carboxylic acid group, a phosphoric acid group or a phosphonic acid group; with all weight percentages (wt%) based on the total weight of the polymerizable composition. a) jetting an image with a UV curable inkjet ink on a surface of a glass article; b) UV curing the image; c) etching the surface not covered by the UV cured image to obtain an etched image; and d) removing the UV cured image in an aqueous alkaline solution; characterized in that the UV curable inkjet ink comprises a polymerizable composition, wherein at least 80 wt% of the polymerizable composition consists of: a) 15.0 to 70.0 wt% of an acryl amide; b) 20.0 to 75.0 wt% of a polyfunctional acrylate; and c) 1.0 to 15.0 wt% of a (meth)acrylate containing a carboxylic acid group, a phosphoric acid group or a phosphonic acid group; with all weight percentages (wt%) based on the total weight of the polymerizable composition. a) 15.0 to 70.0 wt% of an acryl amide; b) 20.0 to 75.0 wt% of a polyfunctional acrylate; and c) 1.0 to 15.0 wt% of a (meth)acrylate containing a carboxylic acid group, a phosphoric acid group or a phosphonic acid group; with all weight percentages (wt%) based on the total weight of the polymerizable composition.
System for forming stacks of composite materials, comprising: - a form which defines the section that is desired to provide to a stack of composite material placed thereon to obtain a formed stack; - a counter-form, which together with the form, forms and obtains the formed stack; - transition elements deformable, that adopt a variable section from an initial section in one of its ends and the end section defined by the form in the other end, characterized in that said transition elements are positioned above and below said stack of composite material, defining a nozzle flexible and adaptable to different geometries, the transition elements generating by friction a traction which tightens the stack. - a form which defines the section that is desired to provide to a stack of composite material placed thereon to obtain a formed stack; - a counter-form, which together with the form, forms and obtains the formed stack; - transition elements deformable, that adopt a variable section from an initial section in one of its ends and the end section defined by the form in the other end,
A cleaning method of a cleaning robot, in which a cleaning member is arranged on a rear end of the cleaning robot, comprising: while the cleaning robot travels along an obstacle, driving the rear end of the cleaning robot to make turning motions towards the obstacle and backswings away from the obstacle, thereby cleaning a blind zone of the cleaning robot relative to the obstacle.
A flow control assembly for ensuring controlled one-directional flow of a sealant compound or composition from a container thereof, said assembly including: a length of tubing adapted, in use, to be located within a container and in flow connection with an extraction unit which is adapted, in use, to be releasably associated with or connected to said container, and which extraction unit includes at least one outlet means which is adapted, in use, to be releasably connected to an inflatable article whereby to enable the flow of said sealant compound or composition from said container, via said extraction unit, into said inflatable article; characterised by a substantially cylindrical cap-like member to be mounted on a free end of said tubing, said cap-like member including a base having a peripheral skirt extending therefrom and further including a spigot disposed substantially centrally of said base and depending downwardly and substantially normally thereof, and a sealing means associated with said spigot, wherein said base includes apertures extending therethrough to enable directional flow of said sealant compound or composition.