mhurhangee/ep-ind-claims huggingface dataset:
A balustrade comprising safety-relevant glass components, wherein each glass component comprises at least one glass pane and an edge protection attachment for protecting a free glass edge of safety-relevant glass components, wherein the edge protection attachment is arranged on at least one free glass edge of the glass component, characterised in that the edge protection attachment is formed from glass, wherein a film layer is formed between the free glass edge of the glass component and the edge protection attachment, and the edge protection attachment is laminated by means of the film layer onto at least one free glass edge of the glass component.
Front end for an inductive proximity sensor, having a metal front face, having a coil for detecting an approaching metal object and having a circuit board arranged at the metal front face, wherein the coil is formed as a circuit board coil, wherein a metallic influencing element, which is similar in construction to the metal front face, is integrally arranged in the circuit board, by means of which disruptions of the symmetry with respect to the position and material properties, and thus to the inductive properties of the front end, caused by the metal front face are corrected and which provides at least one recess being filled with an electric insulator to receive at least one electrical "vertical interconnect access" connection element (135, 140), wherein a through contact of the circuit board, through the metallic influencing element, to an electric connection plane, which serves to electrically connect the circuit board to a control electronics of the proximity sensor, takes place by means of the at least one electric "vertical interconnect access" connection element (135, 140).
A circuit breaker circuit contact protection mechanism, characterized by comprising: a first contact, electrically connected to a circuit; and a moving contact, being a conductor for connecting the first contact to another contact on the circuit; an actuating mechanism, driving a first end of the moving contact to move so that the first end comes into contact with or is disconnected from the first contact; a moving contact protective cover, being an insulator and comprising a shield, disposed in a manner corresponding to a contour of the moving contact, the actuating mechanism moving in linkage with the moving contact protective cover and the first end respectively; when the first end is in contact with the first contact, the moving contact protective cover is located outside a region of contact of the first end and the first contact, and when the first end gradually moves away and is disconnected from the first contact, the moving contact protective cover moves towards a region between the first end and the first contact and finally moves to the region between the first end and the first contact, characterised in that said shield has an arcuate structure for the purpose of shielding said first end. a first contact, electrically connected to a circuit; and a moving contact, being a conductor for connecting the first contact to another contact on the circuit; an actuating mechanism, driving a first end of the moving contact to move so that the first end comes into contact with or is disconnected from the first contact; a moving contact protective cover, being an insulator and comprising a shield, disposed in a manner corresponding to a contour of the moving contact, the actuating mechanism moving in linkage with the moving contact protective cover and the first end respectively; when the first end is in contact with the first contact, the moving contact protective cover is located outside a region of contact of the first end and the first contact, and when the first end gradually moves away and is disconnected from the first contact, the moving contact protective cover moves towards a region between the first end and the first contact and finally moves to the region between the first end and the first contact, characterised in that said shield has an arcuate structure for the purpose of shielding said first end.
A fluid flow throttle valve that keeps the pressure of a fluid flow pumped into a system by a high-pressure pump constant and that is particularly suitable as a reject valve for maintaining the system pressure of a reverse osmosis device at a pressure level of <20 bar, wherein the valve comprises a tubular body, where flow enters from one end thereof, and the body is provided with a central outflow channel with a circular cross-section, having a cone arranged therein with its narrower end on the inflow side and being axially supported on a stem to which a support plate movable along with the stem is supported on the inflow side, wherein the outer edge of the support plate is closely tangential to the inner surface of the body and wherein the support plate is provided with channels for flow therethrough, and wherein a loaded compression spring surrounding the stem is provided between the outflow channel and the support plate, the compression spring being supported to the support plate from its one end and to the body from its other end, characterized in that a motion restrictor (7, 8) is supported to the larger diameter end of the cone, the motion restrictor (7, 8) consisting of a restrictor member and restrictor legs supported to the restrictor member and extending from the restrictor member to a planar surface surrounding the outflow end of the outflow channel, wherein the restrictor legs are adapted to restrict the motion of the cone such that the cone is prevented from being pressed against the circumference of the outflow end of the outflow channel by the force generated by the spring, as a result of which the cone always permits an evenly surrounding bypass flow permitted to flow between the restrictor legs and further through a flow-permitting channel between the restrictor member and the body.
An artificial honeycomb characterised in that the artificial honeycomb comprises 3 kinds of comb fragments (50,60,70) wherein, one of them is a double-sided comb fragment and the other two are one-sided comb fragments, the one-sided comb fragments being movable relative to each other and being also movable relative to the double-sided comb fragment, to independently change the cells position on both sides of the honeycomb from closed to open and vice versa.
A computer-implemented method comprising: receiving, by a computing device (102, 104), audio corresponding to playback of an item of media content; determining, by the computing device, that the audio includes an utterance of a predefined hotword and that the audio includes an audio watermark; analyzing, by the computing device, the audio watermark; and based on analyzing the audio watermark, determining, by the computing device, whether to perform speech recognition on a portion of the audio following the predefined hotword; wherein the audio watermark is an inaudible portion of the audio corresponding to playback of an item of media content. receiving, by a computing device (102, 104), audio corresponding to playback of an item of media content; determining, by the computing device, that the audio includes an utterance of a predefined hotword and that the audio includes an audio watermark; analyzing, by the computing device, the audio watermark; and based on analyzing the audio watermark, determining, by the computing device, whether to perform speech recognition on a portion of the audio following the predefined hotword; wherein the audio watermark is an inaudible portion of the audio corresponding to playback of an item of media content.
A method (500, 800) for estimating a DSL system test loop configuration, the method comprising: obtaining (510, 810) a test loop parameter vector from the test loop of the DSL system, wherein the test loop parameter vector comprises one or more loop-dependent parameter values; selecting (520, 820) a reference parameter vector corresponding to a reference loop configuration, wherein the reference parameter vector includes reference values of the one or more loop-dependent parameters; comparing (530, 830) the test loop parameter vector and the reference parameter vector; and estimating the test loop configuration, said estimating comprising identifying a loop fault on the test loop based on the comparison between the test loop parameter vector and the reference parameter vector, wherein said reference loop configuration corresponds to a reference loop without said loop fault. obtaining (510, 810) a test loop parameter vector from the test loop of the DSL system, wherein the test loop parameter vector comprises one or more loop-dependent parameter values; selecting (520, 820) a reference parameter vector corresponding to a reference loop configuration, wherein the reference parameter vector includes reference values of the one or more loop-dependent parameters; comparing (530, 830) the test loop parameter vector and the reference parameter vector; and estimating the test loop configuration, said estimating comprising identifying a loop fault on the test loop based on the comparison between the test loop parameter vector and the reference parameter vector, wherein said reference loop configuration corresponds to a reference loop without said loop fault.
A sand separator including a separation chamber and a drain, comprising: a vibratory meter in fluid communication with an interior of the separation chamber, wherein the vibratory meter is configured to detect a liquid/solid interface, wherein the vibratory meter comprises: a vibratory element; a driver configured to vibrate the vibratory element; and a pickoff sensor configured to detect vibration of the vibratory element; and meter electronics in electrical communication with the vibratory meter configured to receive a signal from the vibratory meter, characterised in that the signal from the vibratory meter is a phase difference between a driver signal provided to the driver and a pickoff signal received from the pickoff sensor, and that meter electronics are configured to indicate when the vibratory meter is unable to maintain the fixed phase difference between the drive signal and the pickoff signal, and that the vibratory meter is located proximate a level in the separation chamber that corresponds to a maximum desired level of the liquid/solid interface. a vibratory meter in fluid communication with an interior of the separation chamber, wherein the vibratory meter is configured to detect a liquid/solid interface, wherein the vibratory meter comprises: a vibratory element; a driver configured to vibrate the vibratory element; and a pickoff sensor configured to detect vibration of the vibratory element; and a vibratory element; a driver configured to vibrate the vibratory element; and a pickoff sensor configured to detect vibration of the vibratory element; and meter electronics in electrical communication with the vibratory meter configured to receive a signal from the vibratory meter, characterised in that the signal from the vibratory meter is a phase difference between a driver signal provided to the driver and a pickoff signal received from the pickoff sensor, and that meter electronics are configured to indicate when the vibratory meter is unable to maintain the fixed phase difference between the drive signal and the pickoff signal, and that the vibratory meter is located proximate a level in the separation chamber that corresponds to a maximum desired level of the liquid/solid interface.
A method performed by a system, comprising: a server as an information system; and a set of computer executable instructions configured to be installed on client devices (802, 804), the set of computer executable instructions, when executed by a processing unit of a client device (802, 804), configure the processing unit to implement at least one of an information transmitting client system and an information receiving client system; wherein the information transmitting client system receives from the server a random number corresponding to a target information; and provides the random number to an information receiving client system of another client device by broadcasting the random number as a service set identifier through a beacon frame of a wireless communication protocol; and wherein the information receiving client system of the other client device obtains the random number; and receives from the server the target information through submitting the random number to the server. a server as an information system; and a set of computer executable instructions configured to be installed on client devices (802, 804), the set of computer executable instructions, when executed by a processing unit of a client device (802, 804), configure the processing unit to implement at least one of an information transmitting client system and an information receiving client system; wherein the information transmitting client system receives from the server a random number corresponding to a target information; and provides the random number to an information receiving client system of another client device by broadcasting the random number as a service set identifier through a beacon frame of a wireless communication protocol; and wherein the information receiving client system of the other client device obtains the random number; and receives from the server the target information through submitting the random number to the server.
A granule valve arrangement for a granule dishwashing apparatus, comprising a removable granule basket (117;117a) removably arranged on a granule valve (118;118a), said granule valve (118;118a) is arranged to be altered between a closed position and an opened position, characterized in that in the closed position a valve head (136; 136a) covers an aperture (138; 138a) in the bottom (139;139a) of the granule basket for collecting granules in the granule basket (117;1 17a), and in that in the opened position the valve head (136;136a) is moved upwards so that granules can pass from the granule basket through the aperture in the bottom (139;139a) of the granule basket into the granule valve (118;118a).
A method of determining a drop delay of a flow stream in a flow cytometer, the method comprising: flowing a liquid sample containing particles through a detection region of the flow cytometer, wherein the detection region comprises a flow cell having: an input, into which the liquid sample is introduced, an interrogation point, and a nozzle from which a flow stream of the liquid sample exits the flow cell; wherein the flow stream exits the nozzle as a continuous flow stream that transitions to a stream of liquid droplets at a break off point, wherein the break off point is a point at which, upstream from the break off point, the flow stream is a continuous and connected fluidic stream and, downstream from the break off point, the flow stream is composed of a plurality of droplets having no physical contact with each other; capturing images of the flow stream to obtain an imaged flow stream; identifying a disturbance comprising a change at the break off point in the imaged flow stream; calculating the drop delay of the flow stream based on the identified disturbance, wherein the drop delay is the amount of time between the time a particle is detected by the flow cytometer at the interrogation point and the time a corresponding charge is applied to a droplet at the break off point of the flow stream. flowing a liquid sample containing particles through a detection region of the flow cytometer, wherein the detection region comprises a flow cell having: an input, into which the liquid sample is introduced, an interrogation point, and a nozzle from which a flow stream of the liquid sample exits the flow cell; wherein the flow stream exits the nozzle as a continuous flow stream that transitions to a stream of liquid droplets at a break off point, wherein the break off point is a point at which, upstream from the break off point, the flow stream is a continuous and connected fluidic stream and, downstream from the break off point, the flow stream is composed of a plurality of droplets having no physical contact with each other; capturing images of the flow stream to obtain an imaged flow stream; identifying a disturbance comprising a change at the break off point in the imaged flow stream; calculating the drop delay of the flow stream based on the identified disturbance, wherein the drop delay is the amount of time between the time a particle is detected by the flow cytometer at the interrogation point and the time a corresponding charge is applied to a droplet at the break off point of the flow stream.
A method for disassembling and separating a waste lithium-ion battery, comprising: removing a housing; putting a battery pack or a cell with a voltage within 36 V of the waste lithium-ion battery into a roller tearing machine to tear with electricity directly under protection of water with a mass ratio of 1 to 10 times or directly under a water spraying condition without lowering or eliminating the voltage by physical and chemical means; then performing first wet screening, recovering an electrolyte and removing iron by two-stage magnetic separation, and then directly performing wet degumming without drying; then performing second wet screening, first crushing with water, third wet screening and second crushing with water and finally performing jigging separation to obtain copper powder, aluminum powder, positive and negative electrode materials, plastic powder and separator pulp.
A flash memory system, comprising: a first sector comprising a first plurality of rows of flash memory cells coupled to a plurality of control gate lines (251, 252), the first sector associated with a first source line; a second sector comprising a second plurality of rows of flash memory cells coupled to a plurality of control gate lines (261, 262), the second sector associated with a second source line; and a control gate line decoder coupled to a control gate voltage source and capable of being coupled to only one control gate line associated with one of the first plurality of rows and to only one control gate line associated with one of the second plurality of rows, wherein during a programming operation, one of the first and second source lines is at a high voltage and the other of the first and second source lines is at a low voltage and the control gate line decoder is coupled to only one of the control gate line associated with one the first plurality of rows and the control gate line associated with the one of the second plurality of rows. a first sector comprising a first plurality of rows of flash memory cells coupled to a plurality of control gate lines (251, 252), the first sector associated with a first source line; a second sector comprising a second plurality of rows of flash memory cells coupled to a plurality of control gate lines (261, 262), the second sector associated with a second source line; and a control gate line decoder coupled to a control gate voltage source and capable of being coupled to only one control gate line associated with one of the first plurality of rows and to only one control gate line associated with one of the second plurality of rows, wherein during a programming operation, one of the first and second source lines is at a high voltage and the other of the first and second source lines is at a low voltage and the control gate line decoder is coupled to only one of the control gate line associated with one the first plurality of rows and the control gate line associated with the one of the second plurality of rows.
A method for a first terminal controlling a repeatered optical communications system having an optical communication span optically coupling a first terminal and a second terminal via a plurality of optical repeaters (115, 125), the method comprising: providing a redundant optical rare-Earth doped fiber amplifier pump signal shared between eastern and western signal paths of the optical communication span; monitoring quality metrics of optical signals, the quality metrics comprising first quality metrics, measured by the first terminal, of signals received at the first terminal from the optical span, and second quality metrics received via the optical communications span from the second terminal; determining an adjustment to be made in the performance of one of the plurality of optical repeaters (115, 125) using both the first and second monitored quality metrics; and causing instructions to be dispatched to a repeater controller of the optical repeater (115, 125) to perform the respective determined adjustments. providing a redundant optical rare-Earth doped fiber amplifier pump signal shared between eastern and western signal paths of the optical communication span; monitoring quality metrics of optical signals, the quality metrics comprising first quality metrics, measured by the first terminal, of signals received at the first terminal from the optical span, and second quality metrics received via the optical communications span from the second terminal; determining an adjustment to be made in the performance of one of the plurality of optical repeaters (115, 125) using both the first and second monitored quality metrics; and causing instructions to be dispatched to a repeater controller of the optical repeater (115, 125) to perform the respective determined adjustments.
Bacterial strain of the Faecalibacterium prausnitzii species deposited with the CNCM under accession number CNCM 1-4573, for use thereof in the treatment and/or prevention of an inflammatory gastrointestinal disease in an individual.
Method for producing a fuel tank provided with internal accessories and having a wall made of plastic made in a single piece by blow-moulding a split parison or a parison in at least two parts, said method comprising the following steps: a) the parison is introduced in the heat-softened state into a mould comprising dies; b) a core on which the accessories are placed is introduced inside the parison; c) the dies of the mold are closed onto the core and the parison is pressed onto the dies of the mould; d) the accessories are fastened to the parison with the aid of the core in an ideal layout; e) the core is withdrawn and the mould is closed; f) the tank is blow-moulded from the parison; and g) the tank is removed from the mould, the method being characterized in that the accessories are fastened by welding and the core is provided with heating parts keeping hot the part of the accessory to be welded. a) the parison is introduced in the heat-softened state into a mould comprising dies; b) a core on which the accessories are placed is introduced inside the parison; c) the dies of the mold are closed onto the core and the parison is pressed onto the dies of the mould; d) the accessories are fastened to the parison with the aid of the core in an ideal layout; e) the core is withdrawn and the mould is closed; f) the tank is blow-moulded from the parison; and g) the tank is removed from the mould,
A cover fabric for covering the surface of a power transmission belt, wherein the cover fabric contains a yarn and a fiber other than a fluorine-based fiber, the yarn contains at least the fluorine-based fiber and an adhesive component is attached to the cover fabric, characterized in that the fluorine-based fiber is formed of at least one slit yarn, said slit yarn having a flat cross-sectional shape.