mhurhangee/ep-ind-claims huggingface dataset:
Cutlery drawer for a dishwasher, comprising a drawer body which is mounted so as to be pullable out of a washing chamber of the dishwasher in the pull-out direction and provides a cutlery insert for receiving in particular items of cutlery, the cutlery insert having a row of cams comprising a plurality of cams arranged one behind the other in the pull-out direction for individually receiving items of cutlery oriented transversely to the pull-out direction, adjacent cams being spaced apart from one another to form a gap, characterised by a holder which can be replaceably received by the cutlery insert and has a guide portion and a cutlery portion, the cutlery portion providing a support device for individually receiving items of cutlery oriented in the pull-out direction, and the guide portion having a bearing body which is designed to correspond to the row of cams of the cutlery insert and can be placed thereon.
A uniaxially oriented film comprising: (a) a first layer comprising (i) a first composition comprising an ethylene-based polymer prepared in the presence of a single-site catalyst, wherein the first composition has a density of 0.935 g/cm 3 to 0.965 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less, and (ii) a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; (b) a second layer comprising at least one polyolefin; and (c) at least one inner layer between the first layer and the second layer comprising either (i) a high density polyethylene, or (ii) a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3 and a melt index (I 2) of 0.5 to 6 g/10 minutes, wherein the film is oriented in the machine direction at a draw ratio of between 4:1 and 10:1, and wherein the film exhibits a machine direction 2 % secant modulus of 590 MPa (85,000 psi) or more when measured as per ASTM D882. (a) a first layer comprising (i) a first composition comprising an ethylene-based polymer prepared in the presence of a single-site catalyst, wherein the first composition has a density of 0.935 g/cm 3 to 0.965 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less, and (ii) a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; (b) a second layer comprising at least one polyolefin; and (c) at least one inner layer between the first layer and the second layer comprising either (i) a high density polyethylene, or (ii) a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3 and a melt index (I 2) of 0.5 to 6 g/10 minutes,
A device for treating nasal tissue from within a nasal cavity, the device comprising: a handle; a shaft extending from the handle; and an expandable treatment element at a distal end of the shaft, the expandable treatment element comprising: multiple shape memory material segments; multiple pairs of bipolar electrodes disposed on the multiple shape memory material segments; and wherein the treatment element is configured to transmit radiofrequency energy from the multiple pairs of bipolar electrodes, such that the radiofrequency energy passes through the nasal tissue at a selected tissue depth, and wherein the multiple shape memory material segments are configured to expand to a size and a shape for contacting at least some of the multiple pairs of bipolar electrodes with the nasal tissue. a handle; a shaft extending from the handle; and an expandable treatment element at a distal end of the shaft, the expandable treatment element comprising: multiple shape memory material segments; multiple pairs of bipolar electrodes disposed on the multiple shape memory material segments; and multiple shape memory material segments; multiple pairs of bipolar electrodes disposed on the multiple shape memory material segments; and wherein the treatment element is configured to transmit radiofrequency energy from the multiple pairs of bipolar electrodes, such that the radiofrequency energy passes through the nasal tissue at a selected tissue depth, and wherein the multiple shape memory material segments are configured to expand to a size and a shape for contacting at least some of the multiple pairs of bipolar electrodes with the nasal tissue.
An electronic component including a part incorporating a transistor provided with a control electrode and with first and second electrodes (32, 33), the electronic component comprising first, second and third electrical connection terminals (4, 5, 6) extending on a connection face of said part incorporating the transistor, the first electrical connection terminal being electrically linked with the first electrode, the second electrical connection terminal being electrically linked with the second electrode and the third electrical connection terminal being electrically linked with the control electrode, the electronic component comprising a first set of electrically conductive fingers and a second set of electrically conductive fingers, the fingers (8a, 9a) of the first and second sets (8, 9) of fingers being interdigitated, at the connection face, to form at least a part of a capacitive component, and the fingers of the first set of fingers being electrically linked to the first electrical connection terminal, the first electrical connection terminal comprising an electrically conductive member extending on the connection face, characterized in that the first electrical connection terminal comprises a plurality of pillars linked electrically to the member arranged between the pillars and the connection face.
A recliner chair that is convertible to a bed having a first frame, a second frame, a backrest, and a leg rest, wherein the first frame comprises a first set of supports (110a-110b) spaced apart from each other and a seat that is supported on the first set of supports(110a-110b), wherein the second frame comprises a second set of supports (114a-114b) spaced apart from each other, wherein the first frame and the second frame are telescopically engaged with each other, a first end of the backrest is attached to a rear end of the first frame, wherein the backrest is adjustable between a substantially vertical position and a substantially horizontal position, and a first end of the leg rest is attached to a front end of the first frame, wherein the leg rest is adjustable between the substantially vertical position and the substantially horizontal position, characterized in that, the recliner chair further comprises a first scissor lift mechanism and a second scissor lift mechanism, wherein first ends of the first scissor lift mechanism and the second scissor lift mechanism are attached to the backrest:, and second ends of the first scissor lift mechanism and the second scissor lift mechanism are attached to the first and second frames (102, 104), such that the first and second scissor lift mechanisms (116a, 116b) automatically adjust to support the backrest in a plurality of positions between the substantially horizontal position and the substantially vertical position while the second frame is moved with respect to the first frame.
A method of processing audio data, wherein the audio data comprises a plurality of frames, the method comprising: classifying frames of the audio data as either content frames or noise frames, using one or more content activity detectors; determining a noise spectrum from one or more frames of the audio data that are classified as noise frames; determining one or more hum noise frequencies based on the determined noise spectrum; generating an estimated hum noise signal based on the one or more hum noise frequencies; and removing hum noise from at least one frame of the audio data based on the estimated hum noise signal, characterised in that determining the one or more hum noise frequencies involves: determining a cepstral envelope of the noise spectrum; and determining the one or more hum noise frequencies as outlier peaks of the noise spectrum compared to the cepstral envelope. classifying frames of the audio data as either content frames or noise frames, using one or more content activity detectors; determining a noise spectrum from one or more frames of the audio data that are classified as noise frames; determining one or more hum noise frequencies based on the determined noise spectrum; generating an estimated hum noise signal based on the one or more hum noise frequencies; and removing hum noise from at least one frame of the audio data based on the estimated hum noise signal, characterised in that determining the one or more hum noise frequencies involves: determining a cepstral envelope of the noise spectrum; and determining the one or more hum noise frequencies as outlier peaks of the noise spectrum compared to the cepstral envelope. determining a cepstral envelope of the noise spectrum; and determining the one or more hum noise frequencies as outlier peaks of the noise spectrum compared to the cepstral envelope.
A measuring arrangement for the measurement of physical parameters having two or more outputs (A1, A2, Ai) with different levels of sensitivity comprising a piezoelectric sensor capable of measuring forces, pressures, elongations, or moments, and two or more charge amplifiers (20, 21, 22) with different amplifier settings characterized in that between said sensor and said charge amplifiers (20, 21, 22) a signal splitter is interposed that, during a measurement, is capable of splitting a charge signal from the sensor in partial charge signals (Q1, Q2, Qi) each of which can be processed in one of the charge amplifiers (20, 21).
An apparatus including an area wire and an unmanned autonomous operating vehicle having an electric motor for being supplied with power from a battery for operating an operating machine, prime movers for driving wheels, and a guiding apparatus including left and right magnetic sensors installed on both sides of a longitudinal center line of the vehicle body for detecting intensity of a magnetic field of the area wire, the vehicle being controlled to run about in an operating area defined by the area wire through the wheels driven by the prime movers to perform an operation using the operating machine and to return by running on or along the area wire to a charge station having a charging device installed on the area wire so as to charge the battery, characterized in that inside the charge station, the area wire is bent to form a portion (72a1, 72a2) offset to right or left in top view, wherein the offset portion is formed with a first offset portion (72a1) that is offset to the right or left by a first predetermined distance and with a second offset portion (72a2) that continues from the first offset portion (72a1) and is offset in the same direction by a second predetermined distance smaller than the first predetermined distance, wherein the first predetermined distance is a value equal to or greater than a distance from the longitudinal center line of the vehicle to one of the magnetic sensors, such that the vehicle following the area wire to be guided to the charging device, is turned from a straight-running direction toward the offset portions and then is returned to the straight-running direction when the vehicle runs to be connected to the charging device.
Low frequency electroacoustic transducer submersible in an immersion fluid for underwater acoustic communications, said transducer comprising: - two horns (3a, 3b), - a counterweight, - two electroacoustic motors (1a, 1b), placed on either side of the counterweight, said motors (1a, 1b) being aligned along a symmetry axis, the opposite ends of said motors (1a, 1b) being respectively connected to a horn (3a, 3b), the unit formed of said electroacoustic motors (1a, 1b), said counterweight and said horns (3a, 3b) being able to generate a longitudinal electroacoustic resonance mode, characterised in that said transducer comprises: - a rigid and hollow cylindrical part extending around said counterweight, said cylindrical part having an axis merged with the symmetry axis of the transducer, the inside of said cylindrical part forming a fluid cavity able to be filled with said immersion fluid, - said electroacoustic motors and said cylindrical part being so dimensioned that said fluid cavity forms an acoustic coupling between said longitudinal electroacoustic resonance mode of said transducer and a circumferential resonance mode of said cylindrical part when said fluid cavity is filled with said immersion fluid, wherein the frequency difference between the longitudinal resonance mode of the piezoelectric stack and the circumferential mode of the cylindrical part is lower than or equal to about 10 % of the central frequency of the transducer. - two horns (3a, 3b), - a counterweight, - two electroacoustic motors (1a, 1b), placed on either side of the counterweight, said motors (1a, 1b) being aligned along a symmetry axis, the opposite ends of said motors (1a, 1b) being respectively connected to a horn (3a, 3b), - a rigid and hollow cylindrical part extending around said counterweight, said cylindrical part having an axis merged with the symmetry axis of the transducer, the inside of said cylindrical part forming a fluid cavity able to be filled with said immersion fluid, - said electroacoustic motors and said cylindrical part being so dimensioned that said fluid cavity forms an acoustic coupling between said longitudinal electroacoustic resonance mode of said transducer and a circumferential resonance mode of said cylindrical part when said fluid cavity is filled with said immersion fluid,
An article formed of a thermoplastic resin including at least one metal selected from three metals of Zn, Sn and Mn or one metal compound of any of the three metals, and a metal or a metal compound other than the three metals and capable of reacting with a corrosive gas or a volatile sulfur compound so as to give a color, the metal selected from the three metals or the metal compound functions as a scavenger for the corrosive gas or the volatile sulfur compound; wherein the metal other than the three metals is derived from Co and/or Fe; wherein the article has a multilayer structure including a layer that contains the metal selected from the three metals or the metal compound and another layer that contains the metal or the metal compound other than the three metals; wherein the multilayer structure includes at least an inner layer, an intermediate layer, an oxygen-absorbing layer and an outer layer; and wherein the metal selected from the three metals or the metal compound is contained in the intermediate layer, and the metal or the metal compound other than the three metals is contained in the oxygen-absorbing layer. wherein the metal other than the three metals is derived from Co and/or Fe; wherein the article has a multilayer structure including a layer that contains the metal selected from the three metals or the metal compound and another layer that contains the metal or the metal compound other than the three metals; wherein the multilayer structure includes at least an inner layer, an intermediate layer, an oxygen-absorbing layer and an outer layer; and wherein the metal selected from the three metals or the metal compound is contained in the intermediate layer, and the metal or the metal compound other than the three metals is contained in the oxygen-absorbing layer.
A method to update a portal, said portal comprising a first portlet and plural second portlets, wherein said method comprises: • the reception by the first portlet of a first update instruction, • the transmission by the first portlet of a second update instruction to each of the plural second portlets, the sent second update instruction being the same for each second portlet, • the reception by each of the plural second portlets of the second update instruction, and • for each second portlet, the processing of the second update instruction according to a stored predetermined update configuration (135.3, 135.4, 135.5) of the respective second portlet, to accept or reject an update of said second portlet, according to the second update instruction, depending on said predetermined update configuration (135.3, 135.4. 135.5); wherein: • the second update instruction comprises an identifier of the first portlet, • at least one second portlet stores a predetermined identifier, and • the processing comprises comparison between the predetermined identifier and the identifier of the first portlet, so as to accept the second update if the predetermined identifier and the identifier of the first portlet match, and reject the second update if the predetermined identifier and the identifier of the first portlet do not match. • the reception by the first portlet of a first update instruction, • the transmission by the first portlet of a second update instruction to each of the plural second portlets, the sent second update instruction being the same for each second portlet, • the reception by each of the plural second portlets of the second update instruction, and • for each second portlet, the processing of the second update instruction according to a stored predetermined update configuration (135.3, 135.4, 135.5) of the respective second portlet, to accept or reject an update of said second portlet, according to the second update instruction, depending on said predetermined update configuration (135.3, 135.4. 135.5); • the second update instruction comprises an identifier of the first portlet, • at least one second portlet stores a predetermined identifier, and • the processing comprises comparison between the predetermined identifier and the identifier of the first portlet, so as to accept the second update if the predetermined identifier and the identifier of the first portlet match, and reject the second update if the predetermined identifier and the identifier of the first portlet do not match.
A method of enabling transitioning use of an application by a user from a first client device to a second client device, comprising: at the first client device under control of a respective user: executing a first application (110, 112, 114); performing a handoff operation, comprising: when the first client device is positioned within a predefined proximity of the second client device, transmitting application information (224, 226, 228, 230), associated with the first application, to the second client device; wherein the first application has a first client device user interface state when the handoff operation is performed; at the first client device, in response to receiving application information (224, 226, 228, 230) associated with a second application executing a another client device within a predefined proximity of the first client device, executing a third application (110, 112, 114) corresponding to the second application, the third application having an initial user interface state corresponding to the user interface state of the second application at other client device, wherein executing the third application includes transitioning from a system state in which the third application is not executing as a foreground application to a system state in which the third application is executing as the foreground application. at the first client device under control of a respective user: executing a first application (110, 112, 114); performing a handoff operation, comprising: when the first client device is positioned within a predefined proximity of the second client device, transmitting application information (224, 226, 228, 230), associated with the first application, to the second client device; wherein the first application has a first client device user interface state when the handoff operation is performed; executing a first application (110, 112, 114); performing a handoff operation, comprising: when the first client device is positioned within a predefined proximity of the second client device, transmitting application information (224, 226, 228, 230), associated with the first application, to the second client device; wherein the first application has a first client device user interface state when the handoff operation is performed; at the first client device, in response to receiving application information (224, 226, 228, 230) associated with a second application executing a another client device within a predefined proximity of the first client device, executing a third application (110, 112, 114) corresponding to the second application, the third application having an initial user interface state corresponding to the user interface state of the second application at other client device, wherein executing the third application includes transitioning from a system state in which the third application is not executing as a foreground application to a system state in which the third application is executing as the foreground application.
A method for coating cellulosic material comprising the following steps: a) obtaining a solid modified starch by means of a covalent bond of a starch with a cyclodextrin and a polycarboxylic acid; b) redispersing the solid modified starch obtained in step a) in water, under agitation and heating at temperatures from 65 °C to 110 °C until the observation of a macroscopic homogeneity of the resulting mixture; c) cooling the mixture resulting from step b) up to temperatures from 25°C to 60°C under continuous agitation; d) adding 0.01-2.00 g of an essential oil to the resulting mixture of step c), under agitation until macroscopic homogeneity is observed in the resulting coating formulation and wherein the latter has 0.01 to 0.50 mmol of a cyclodextrin per gram of starch; e) coating with the coating formulation resulting from step d) through means for coating a surface of a cellulosic material. a) obtaining a solid modified starch by means of a covalent bond of a starch with a cyclodextrin and a polycarboxylic acid; b) redispersing the solid modified starch obtained in step a) in water, under agitation and heating at temperatures from 65 °C to 110 °C until the observation of a macroscopic homogeneity of the resulting mixture; c) cooling the mixture resulting from step b) up to temperatures from 25°C to 60°C under continuous agitation; d) adding 0.01-2.00 g of an essential oil to the resulting mixture of step c), under agitation until macroscopic homogeneity is observed in the resulting coating formulation and wherein the latter has 0.01 to 0.50 mmol of a cyclodextrin per gram of starch; e) coating with the coating formulation resulting from step d) through means for coating a surface of a cellulosic material.
A method of sealing a backfill port of a battery, the method comprising: fitting a backfill port plug into a hole in a battery case using a first electrode adapted to be used as an applicator to force the backfill port plug into the hole; and welding the port plug to the battery case using a second electrode applied against the case as the port plug is being fitted into the hole by the first electrode. fitting a backfill port plug into a hole in a battery case using a first electrode adapted to be used as an applicator to force the backfill port plug into the hole; and welding the port plug to the battery case using a second electrode applied against the case as the port plug is being fitted into the hole by the first electrode.