mhurhangee/ep-ind-claims huggingface dataset:
A wetness sensing system for use with an absorbent article having an outer surface, the system having a weight and comprising: a holding fixture adapted to be attached to the outer surface of the absorbent article by a consumer, the holding fixture including a first attachment arm having an article-facing side including a first attachment material affixed thereto, and a sensor band including a sensor and having an article-facing side including a second attachment material affixed thereto, wherein the second attachment material has an area and demonstrates a peel force with respect to the outer surface of at least 4.2 N/m (11 gf/inch) or is in a proportion of the area to the weight of the system of at least 0.13 m 2 /kg (0.2 sq. inch per gram); and wherein the sensor band has a bending stiffness of less than 30 gf cm 2 /cm; and a signaling device coupled to the holding fixture and in electrical communication with the sensor, wherein the system is adapted to sense wetness within the article without the use of conductors within the absorbent article. a holding fixture adapted to be attached to the outer surface of the absorbent article by a consumer, the holding fixture including a first attachment arm having an article-facing side including a first attachment material affixed thereto, and a sensor band including a sensor and having an article-facing side including a second attachment material affixed thereto, wherein the second attachment material has an area and demonstrates a peel force with respect to the outer surface of at least 4.2 N/m (11 gf/inch) or is in a proportion of the area to the weight of the system of at least 0.13 m 2 /kg (0.2 sq. inch per gram); and wherein the sensor band has a bending stiffness of less than 30 gf cm 2 /cm; and a first attachment arm having an article-facing side including a first attachment material affixed thereto, and a sensor band including a sensor and having an article-facing side including a second attachment material affixed thereto, wherein the second attachment material has an area and demonstrates a peel force with respect to the outer surface of at least 4.2 N/m (11 gf/inch) or is in a proportion of the area to the weight of the system of at least 0.13 m 2 /kg (0.2 sq. inch per gram); a signaling device coupled to the holding fixture and in electrical communication with the sensor, wherein the system is adapted to sense wetness within the article without the use of conductors within the absorbent article.
A method for (i) repairing a structural weakness, or (ii) preventing or inhibiting the initiation of a structural weakness, or (iii) preventing or inhibiting the progression of a structural weakness in an aircraft frame element, the method comprising the step of bonding a plurality of particles to the element by treating both sides of the element, the bonding being effected under conditions allowing the plurality of metallic particles to form a substantially continuous layer both over and under the area of weakness, or the predicted area of weakness.
A circuit, comprising: an input port configured to receive a baseband signal; an output port configured to provide an amplified version of the baseband signal; a plurality of parallel amplifiers connected to the input port; a circuit input node, disposed between the input port and the plurality of parallel amplifiers; a plurality of distinct paths comprising at least a first path and a second path, wherein the first path comprises a first resistor configured to provide an input impedance at the input port, a first amplifier disposed after the first resistor and a third resistor, wherein the first amplifier is one of the plurality of parallel amplifiers, wherein the first path is in-phase to a noise generated by the first resistor and in-phase to the circuit input node, wherein the second path comprises a second amplifier of the plurality of parallel amplifiers, and wherein the second path is anti-phase to the noise generated by the first resistor and in-phase to the circuit input node; a summing circuit configured to sum outputs of the plurality of parallel amplifiers and provide the amplified version of the baseband signal to the output port, a second resistor, wherein the second resistor comprises a second resistance and is connected in parallel to the first amplifier; wherein the third resistor comprises a third resistance and is connected after the first amplifier; and wherein a product of a first resistance of the first resistor and a gain of the second amplifier is equal to a ratio of the second resistance to the third resistance and wherein the first amplifier is a current-to-current amplifier and the second amplifier is a transconductance amplifier.
An interior rearview mirror digital sound processing system suitable for use in a vehicle equipped with an audio system comprising: an interior rearview mirror assembly, said mirror assembly comprising a mirror housing including a reflective element; wherein said interior rearview mirror assembly includes multiple microphones comprising at least two microphones (455, 456, 1020, 1022, 1024, 1026) capable of producing at least two microphone audio outputs (460, 461, 1030, 1032, 1034, 1036) in response to detection of vocal input with vehicle cabin noise superimposed thereon; and said system further including a digital sound processor (470, 1060), wherein said digital sound processor is operable to receive said microphone audio outputs (460, 461, 1030, 1032, 1034, 1036), said digital sound processor being further operable to process said microphone audio outputs and provide an output vocal signal (485, 1070) with reduced vehicle cabin noise to the vehicle audio system; and wherein a first microphone of said at least two microphones has a first zone of principal sensitivity, and wherein a second microphone of said at least two microphones has a second zone of principal sensitivity directed in a direction that is different from that of said first zone of principal sensitivity, and wherein said first zone of principal sensitivity is directed toward at least a driver of the vehicle. an interior rearview mirror assembly, said mirror assembly comprising a mirror housing including a reflective element; wherein said interior rearview mirror assembly includes multiple microphones comprising at least two microphones (455, 456, 1020, 1022, 1024, 1026) capable of producing at least two microphone audio outputs (460, 461, 1030, 1032, 1034, 1036) in response to detection of vocal input with vehicle cabin noise superimposed thereon; and said system further including a digital sound processor (470, 1060), wherein said digital sound processor is operable to receive said microphone audio outputs (460, 461, 1030, 1032, 1034, 1036), said digital sound processor being further operable to process said microphone audio outputs and provide an output vocal signal (485, 1070) with reduced vehicle cabin noise to the vehicle audio system; and wherein a first microphone of said at least two microphones has a first zone of principal sensitivity, and wherein a second microphone of said at least two microphones has a second zone of principal sensitivity directed in a direction that is different from that of said first zone of principal sensitivity, and wherein said first zone of principal sensitivity is directed toward at least a driver of the vehicle.
An elementary device for applying a microwave energy, comprising a microwave power coaxial applicator having, on the one hand, a distal end provided with a coaxial structure connector provided for the coupling with a coaxial cable or guide connected to a microwave energy generator and, on the other hand, an opposite proximal end provided to emerge inside a chamber, said coaxial applicator comprising: - a conductive central core extending along a main axis, - an outer conductive shield having a peripheral wall surrounding said central core and a bottom wall provided on said distal end and extending transversely relative to said main axis, - a medium for propagating the microwave energy located between the central core and the shield, and - an insulating body made of dielectric material transparent to the microwave energy and disposed on said proximal end; wherein the coaxial structure connector is provided with an outer conductor connected to said shield and surrounding an inner conductor connected to said central core; said elementary device being characterized in that the coaxial structure connector is arranged on the bottom wall of the shield by having its outer conductor fastened onto said bottom wall and its inner conductor connected to an elongate connecting element passing through said bottom wall and extending from said bottom wall substantially parallel to the main axis with a predefined space relative to said central core up to a free end connected to said central core at a predefined distance from said bottom wall. - a conductive central core extending along a main axis, - an outer conductive shield having a peripheral wall surrounding said central core and a bottom wall provided on said distal end and extending transversely relative to said main axis, - a medium for propagating the microwave energy located between the central core and the shield, and - an insulating body made of dielectric material transparent to the microwave energy and disposed on said proximal end; wherein the coaxial structure connector is provided with an outer conductor connected to said shield and surrounding an inner conductor connected to said central core; said elementary device being characterized in that the coaxial structure connector is arranged on the bottom wall of the shield by having its outer conductor fastened onto said bottom wall and its inner conductor connected to an elongate connecting element passing through said bottom wall and extending from said bottom wall substantially parallel to the main axis with a predefined space relative to said central core up to a free end connected to said central core at a predefined distance from said bottom wall.
A method for detecting the status of a load cell in a material tank system, the method comprising the steps of: collecting (S401, S501, S601) characteristic sensing data (W Mi) of the load cells; calculating (S402, S502, S602) an anomaly in the collected characteristic sensing data; anc acquiring and outputting (S403, S503, S603) a corresponding load cell information when the anomaly exists characterized in that said calculating an anomaly in the characteristic sensing data comprises the steps of: converting a time domain signal of each piece of the characteristic sensing data to a frequency domain through Fast-Fourier-Transformation calculation; and determining an anomaly through an amplitude-frequency characteristic comparison in frequency domain. collecting (S401, S501, S601) characteristic sensing data (W Mi) of the load cells; calculating (S402, S502, S602) an anomaly in the collected characteristic sensing data; anc acquiring and outputting (S403, S503, S603) a corresponding load cell information when the anomaly exists characterized in that said calculating an anomaly in the characteristic sensing data comprises the steps of: converting a time domain signal of each piece of the characteristic sensing data to a frequency domain through Fast-Fourier-Transformation calculation; and determining an anomaly through an amplitude-frequency characteristic comparison in frequency domain. converting a time domain signal of each piece of the characteristic sensing data to a frequency domain through Fast-Fourier-Transformation calculation; and determining an anomaly through an amplitude-frequency characteristic comparison in frequency domain.
A pneumatic tire in which an electronic component is disposed, wherein a protective layer for protecting the electronic component is provided at a position located inwards of the carcass and outwards of the inner liner in the axial direction of the tire, and at a position overlapping the sidewall portion in the tire radial direction; the protective layer has a larger complex elastic modulus E* at 70 °C and lower heat generation tan δ compared to the sidewall, wherein the values of the complex elastic moduli E*, E* and of heat generation tan δ are measured using a visco-elastic spectrometer in accordance with the prescription of "JIS K 6394" at an initial strain of 10% with an amplitude of ± 2.0% and at a frequency of 10 Hz in tensile deformation mode; the electronic component is disposed between the carcass and the protective layer, and the complex elastic modulus E* of the protective layer at 70 °C and the complex elastic modulus E* of the sidewall at 70 °C satisfy the following formula: 3 MPa ≦ E * 1 − E * 2. a protective layer for protecting the electronic component is provided at a position located inwards of the carcass and outwards of the inner liner in the axial direction of the tire, and at a position overlapping the sidewall portion in the tire radial direction; the protective layer has a larger complex elastic modulus E* at 70 °C and lower heat generation tan δ compared to the sidewall, wherein the values of the complex elastic moduli E*, E* and of heat generation tan δ are measured using a visco-elastic spectrometer in accordance with the prescription of "JIS K 6394" at an initial strain of 10% with an amplitude of ± 2.0% and at a frequency of 10 Hz in tensile deformation mode; the electronic component is disposed between the carcass and the protective layer, and the complex elastic modulus E* of the protective layer at 70 °C and the complex elastic modulus E* of the sidewall at 70 °C satisfy the following formula: 3 MPa ≦ E * 1 − E * 2.
An apparatus, comprising: a throwing wheel apparatus comprising a first mounting element and a second mounting element, each of the mounting elements adapted to detachably receive a locking member of a vane; the vane comprising a first end; a second end; and a particle throwing portion extending between the first and second ends and including a first throwing face, a second throwing face, and two side edges (29, 30), wherein each of the side edges extend substantially parallel to one another and includes a locking member adapted to be detachably coupled to a mounting element of the throwing wheel apparatus, characterized in that each locking member includes a first surface extending from the first end towards the second end, the first surface being tapered along a first direction at a first angle and a second surface extending from the first end towards the second end, the second surface being tapered along the first direction at a second angle, wherein the first direction is from the first end towards the second end of the vane, wherein the side edges define a width smaller than a predetermined distance between the first and second mounting elements of the throwing wheel apparatus so that when coupled to the mounting elements a gap is present on both sides of the vane. a throwing wheel apparatus comprising a first mounting element and a second mounting element, each of the mounting elements adapted to detachably receive a locking member of a vane; the vane comprising a first end; a second end; and a particle throwing portion extending between the first and second ends and including a first throwing face, a second throwing face, and two side edges (29, 30), wherein each of the side edges extend substantially parallel to one another and includes a locking member adapted to be detachably coupled to a mounting element of the throwing wheel apparatus, characterized in that each locking member includes a first surface extending from the first end towards the second end, the first surface being tapered along a first direction at a first angle and a second surface extending from the first end towards the second end, the second surface being tapered along the first direction at a second angle, wherein the first direction is from the first end towards the second end of the vane, wherein the side edges define a width smaller than a predetermined distance between the first and second mounting elements of the throwing wheel apparatus so that when coupled to the mounting elements a gap is present on both sides of the vane.
A gas turbine comprising a turbine and an axial-radial diffuser, the turbine comprising a last stage airfoil section, the last stage airfoil section comprising a first inner annular wall disposed about an axis of rotation of the gas turbine, a plurality of airfoils, each airfoil comprising a proximal end coupled to the first inner annular wall and extending outward in a radial direction to a tip disposed at a distal end, wherein a tip shroud is provided at the tip, which tip shroud comprises a first outer annular wall disposed about the first inner annular wall and coupled to the distal ends of each of the plurality of airfoils, the last stage airfoil section further comprising a stationary shroud comprising a second outer annular wall disposed about the first inner annular wall and the first outer annular wall; the axial-radial diffuser comprising a first diffuser section, wherein the first diffuser section comprises a third inner annular wall disposed about the axis of rotation of the gas turbine and a third outer annular wall disposed about the third inner annular wall, wherein the first diffuser section is disposed immediately downstream from the last airfoil stage, characterized in that the first inner annular wall is angled with respect to the axis of rotation at a first inner angle average (α 3), the first outer annular wall is angled with respect to the axis of rotation at a first outer angle average (θ 3) along the last stage airfoil section, and the second outer annular wall is angled with respect to the axis of rotation at a second outer angle average (θ 4) along the last stage airfoil section, the third inner annular wall is angled with respect to the axis of rotation at a third inner angle average (as), and the third outer annular wall is angled with respect to the axis of rotation at a third outer angle average (θ 5) along the first diffuser section, wherein the first outer angle average (θ 3) is greater than the third outer angle average (θ 5), the first inner angle average (α 3) is greater than the third inner angle average (as), and the third outer angle average (θ 5) is greater than the second outer angle average (θ 4).
Vehicle seat device, in particular child seat device, with at least one headrest unit and/or at least one seat cover unit as well as with at least one shoulder cushion unit, wherein the shoulder cushion unit is directly connected with the headrest unit and the shoulder cushion unit is provided to allow, in a shoulder region, a bracing against a safety belt, wherein the shoulder cushion unit comprises a receiving region for the safety belt, characterized in that the shoulder cushion unit is implemented in one piece with the headrest unit from a shared material piece, and that the receiving region is a receiving region closed in at least one plane extending transversely with respect to a longitudinal extension of the shoulder cushion unit, which receives the safety belt along a longitudinal extension of at least one centimetre, wherein the shoulder cushion unit comprises at least one spacer element that is provided to keep shoulder cushion elements of the shoulder cushion unit in a predetermined distance from each other, and wherein the shoulder cushion unit is provided to allow the bracing against the safety belt in such a way that it does not rest upon skin and/or clothing and does not cut into the flesh.
A method of processing a material for a catalyst within a reactor, comprising the steps of: - establishing an electrical potential on a porous electrode situated within a housing having the form of a tube; whereas the housing establishes a path for a solution including particles to move through the housing; - directing a solution including core particles through the porous electrode; and - depositing a layer of metal on the core particles as the solution including the core particles passes through the porous electrode, whereas the porous electrode of the reactor has a length along a direction of flow of the solution including the core particles characterized in that the solution including the core particles travels through the porous electrode along its length. - establishing an electrical potential on a porous electrode situated within a housing having the form of a tube; whereas the housing establishes a path for a solution including particles to move through the housing; - directing a solution including core particles through the porous electrode; and - depositing a layer of metal on the core particles as the solution including the core particles passes through the porous electrode,
A reactive surfactant compound selected from the group consisting of: where R = CH 3 or CH 2 CH 3, n = 1,2,3; x is 2-10, y is 0-200, z is 5 to 40; Z can be either SO 3 - or PO 3 2-, and M + is Na +, K +, NH 4 +, or an alkanolamine; where R = CH 3 or CH 2 CH 3, n =1,2,3; x is 2-10, y is 0-200, z is 5 to 40; where R 1 is a C 10-24 alkaryl, alkenyl, or cycloalkyl, R 2 = CH 3, CH 2 CH 3, C 6 H 5, or C 14 H 29; x is 2-10, y is 0-200, z is 5 to 40; Z can be either SO 3 - or PO 3 2-, and M + is Na +, K +, NH 4 +, or an alkanolamine; and where R 1 is a C 10-24 alkaryl, alkenyl, or cycloalkyl, R 2 = CH 3, CH 2 CH 3, C 6 C 5 or C 14 H 29; x is 2-10, y is 0-200, z 5 to 40.
A flexible display apparatus comprising: a flexible display; a sensor; and a processor configured to: control the flexible display to display an execution screen (261, 271) of a first application on the entire flexible display; based on a message corresponding to a second application being received, display a notice message (262, 272) related to receiving the message on a region of the execution screen; and based on the sensor sensing a first bending in the region of the execution screen on which the notice message (262, 272) is displayed, control the flexible display to display the whole text of the received message on the region (264, 273) of the flexible display on which the first bending is sensed and to maintain display of the execution screen (261, 271) of the first application on the remainder region (263, 274) outside the region (264, 273) on which the first bending is sensed. a flexible display; a sensor; and a processor configured to: control the flexible display to display an execution screen (261, 271) of a first application on the entire flexible display; based on a message corresponding to a second application being received, display a notice message (262, 272) related to receiving the message on a region of the execution screen; and based on the sensor sensing a first bending in the region of the execution screen on which the notice message (262, 272) is displayed, control the flexible display to display the whole text of the received message on the region (264, 273) of the flexible display on which the first bending is sensed and to maintain display of the execution screen (261, 271) of the first application on the remainder region (263, 274) outside the region (264, 273) on which the first bending is sensed. control the flexible display to display an execution screen (261, 271) of a first application on the entire flexible display; based on a message corresponding to a second application being received, display a notice message (262, 272) related to receiving the message on a region of the execution screen; and based on the sensor sensing a first bending in the region of the execution screen on which the notice message (262, 272) is displayed, control the flexible display to display the whole text of the received message on the region (264, 273) of the flexible display on which the first bending is sensed and to maintain display of the execution screen (261, 271) of the first application on the remainder region (263, 274) outside the region (264, 273) on which the first bending is sensed.