mhurhangee/ep-ind-claims huggingface dataset:
An aqueous dispersion comprising (i) 40% to 98.9% water, by weight based on the weight of the aqueous dispersion, (ii) 1% to 40% hollow polymer particles, by weight based on the weight of the aqueous dispersion, wherein the hollow polymer particles comprise 0.01% to 20% polymerized units of one or more multivinyl monomer, by weight based on the weight of the hollow polymer particles, wherein the hollow polymer particles are dispersed in the water, and further wherein the hollow polymer particles comprise a core polymer and a shell polymer, wherein the amount of polymerized units of nonionic monomer in the shell polymer is 90 to 100%, by weight based on the weight of the shell polymer, and (iii) 0.1% to 20% one or more polyol, by weight based on the weight of the aqueous dispersion. (i) 40% to 98.9% water, by weight based on the weight of the aqueous dispersion, (ii) 1% to 40% hollow polymer particles, by weight based on the weight of the aqueous dispersion, wherein the hollow polymer particles comprise 0.01% to 20% polymerized units of one or more multivinyl monomer, by weight based on the weight of the hollow polymer particles, wherein the hollow polymer particles are dispersed in the water, and further wherein the hollow polymer particles comprise a core polymer and a shell polymer, wherein the amount of polymerized units of nonionic monomer in the shell polymer is 90 to 100%, by weight based on the weight of the shell polymer, and (iii) 0.1% to 20% one or more polyol, by weight based on the weight of the aqueous dispersion.
An adjustable radio frequency, RF audio receiver, comprising: an RF antenna configured to receive broadcast RF audio signals; a tuner coupled to said RF antenna and configured to tune to received RF audio signals; and signal processing circuitry coupled to said tuner and configured to process broadcast RF audio signals received by said tuner, said signal processing circuitry configured to determine at least one reception quality characteristic of broadcast RF audio signals received by said tuner, said signal processing circuitry further configured to identify an environment in which the RF audio receiver is operating based on the at least one reception quality characteristic, wherein said signal processing circuitry is configured to adjust how broadcast RF audio signals received by said tuner are processed by said signal processing circuitry based on the identified environment in which the RF audio receiver is operating; wherein said signal processing circuitry is configured to adjust how broadcast RF audio signals received by said tuner are processed by adjusting at least one of a blend point at which stereo signals are blended into monaural signals, a magnitude by which set frequency audio signal components are attenuated, and a magnitude by which off-station noise is reduced. an RF antenna configured to receive broadcast RF audio signals; a tuner coupled to said RF antenna and configured to tune to received RF audio signals; and signal processing circuitry coupled to said tuner and configured to process broadcast RF audio signals received by said tuner, said signal processing circuitry configured to determine at least one reception quality characteristic of broadcast RF audio signals received by said tuner, said signal processing circuitry further configured to identify an environment in which the RF audio receiver is operating based on the at least one reception quality characteristic, wherein said signal processing circuitry is configured to adjust how broadcast RF audio signals received by said tuner are processed by said signal processing circuitry based on the identified environment in which the RF audio receiver is operating;
A device for receiving at least one letter, parcel and/or consignment, in particular a letter box, comprising a housing, a reception space formed within the housing, which reception space is accessible via an opening of the housing, wherein the opening can be closed by means of a door, wherein the door is arranged in a pivoting manner on the housing by means of at least one hinge and can be pivoted between a closing position and an opening position, wherein a first metal strip is formed as a roll with an opening for passing a hinge pin through it, characterized in that the hinge is composed of metal strips which correspond to each other and which are integrally formed with the housing and the door, wherein a second metal strip which corresponds to the roll is formed as a bracket, and wherein at least one roll and at least one bracket comprise openings which correspond to each other for passing a hinge pin through them.
A footwear article comprising: an upper comprising a first substrate and a second substrate; the first substrate having a first color; the second substrate having a second color, wherein the first color and the second color are visually different from each other; and the first substrate, the second substrate, or both the first substrate and the second substrate comprising a repurposed material; a first structural-color element applied to the first substrate and producing a first structural color; and a second structural-color element applied to the second substrate and producing a second structural color, wherein the first structural color and second structural color are visually similar at a first observation angle; and wherein the first structural-color element comprises a first set of layers and the second structural-color element comprises a second set of layers, and each set of layers comprises at least two layers, wherein adjacent layers have different refractive indices. an upper comprising a first substrate and a second substrate; the first substrate having a first color; the second substrate having a second color, wherein the first color and the second color are visually different from each other; and the first substrate, the second substrate, or both the first substrate and the second substrate comprising a repurposed material; a first structural-color element applied to the first substrate and producing a first structural color; and a second structural-color element applied to the second substrate and producing a second structural color, wherein the first structural color and second structural color are visually similar at a first observation angle; and wherein the first structural-color element comprises a first set of layers and the second structural-color element comprises a second set of layers, and each set of layers comprises at least two layers, wherein adjacent layers have different refractive indices.
A device-to-device D2D service selection information transmitting method, comprising: a D2D terminal transmitting (402, 802) D2D service selection information to a base station, wherein the D2D service selection information is used to instruct the base station to perform resource scheduling processing or handover processing on the D2D terminal according to the D2D service selection information; wherein the D2D service selection information comprises: a D2D frequency which is of interest to the D2D terminal, wherein the D2D frequency which is of interest to the D2D terminal comprises information of a frequency by which the D2D terminal wishes to transmit or receive a D2D service, the D2D frequency which is of interest to the D2D terminal is used for the base station to select a neighboring cell that supports the D2D frequency which is of interest to the D2D terminal for handover, and is used for a configuration that is allocated by the base station for discontinuously monitoring or transmitting a D2D frequency in a non-handover scenario. a D2D terminal transmitting (402, 802) D2D service selection information to a base station, wherein the D2D service selection information is used to instruct the base station to perform resource scheduling processing or handover processing on the D2D terminal according to the D2D service selection information; wherein the D2D service selection information comprises: a D2D frequency which is of interest to the D2D terminal, wherein the D2D frequency which is of interest to the D2D terminal comprises information of a frequency by which the D2D terminal wishes to transmit or receive a D2D service, the D2D frequency which is of interest to the D2D terminal is used for the base station to select a neighboring cell that supports the D2D frequency which is of interest to the D2D terminal for handover, and is used for a configuration that is allocated by the base station for discontinuously monitoring or transmitting a D2D frequency in a non-handover scenario.
Composition comprising a combination of a proteasome inhibitor and an aggresome inhibitor that selectively inhibits HDAC6 for use in the treatment of multiple myeloma, wherein the proteasome inhibitor is bortezomib.
An optical fiber for use as a fiber amplifier, the optical fiber being doped with ytterbium, erbium or thulium and supporting a fundamental mode (LP 01) and at least one higher order mode (LP 01) of a signal light, wherein: the optical fiber has a refractive index profile that linearly decreases from a center of the fiber to an edge of a fiber core so that the higher order mode or modes of signal light all have physical mode areas that are each at least 60% larger than the physical mode area of the fundamental mode, the optical fiber has a core-diameter to wavelength of the signal light ratio of at least 20, and the optical fiber comprises a cylindrical gain doping region centered in a core of the fiber, wherein the gain doping region is smaller than the physical mode areas of the one or more higher order modes, wherein the refractive index profile comprises a step at a core-cladding interface of the optical fiber, wherein optionally the step is greater than or equal to 0.0003. the optical fiber has a refractive index profile that linearly decreases from a center of the fiber to an edge of a fiber core so that the higher order mode or modes of signal light all have physical mode areas that are each at least 60% larger than the physical mode area of the fundamental mode, the optical fiber has a core-diameter to wavelength of the signal light ratio of at least 20, and the optical fiber comprises a cylindrical gain doping region centered in a core of the fiber, wherein the gain doping region is smaller than the physical mode areas of the one or more higher order modes, wherein the refractive index profile comprises a step at a core-cladding interface of the optical fiber, wherein optionally the step is greater than or equal to 0.0003.
Building element (3', 3") consisting of a sandwich-like material composite which is built up at least from two metallic cover layers (1.1, 1.2) and at least one honeycomb structure (2, 2.1, 2.2) arranged between the cover layers, characterized in that the honeycomb structure (2, 2.1, 2.2) is formed from a material which contains at least one inorganic and at least one organic fibre, at least one inorganic filler and in each case at least one inorganic and organic binder, wherein the organic content of the honeycomb material is at most 3.0% by weight.
A ring spinning machine comprising a doffing failure detection device for detecting a doffing failure during a doffing operation, the ring spinning machine having a plurality of spindle stations each having a spindle on which a yarn package comprising a bobbin and a yarn is to be formed, and a plurality of yarn break detectors provided for the respective spindle stations, characterized in that the doffing failure detection device includes: a determiner configured to determine whether there is a doffing failure or not for each of the spindle stations based on a change in a signal received from the yarn break detectors during a doffing operation; and an output (13, 30) configured to output a position of one of the spindle stations that is determined as having a doffing failure by the determiner, wherein the doffing operation includes a yarn package removal operation in which the yarn packages are removed from the spindles, and the determiner determines whether there is a doffing failure or not for each of the spindle stations during the yarn package removal operation, wherein the change in the signal received from the yarn break detectors is a change from a presence of at least a part of the yarn package to an absence of the yarn package, and/or the doffing operation includes a bobbin placement operation in which the bobbins that are empty are placed on the spindles, and the determiner determines whether there is a doffing failure or not for each of the spindle stations during the bobbin placement operation, wherein the change in the signal received from the yarn break detectors is a change from an absence of at least a part of the bobbin to a presence of the bobbin. a determiner configured to determine whether there is a doffing failure or not for each of the spindle stations based on a change in a signal received from the yarn break detectors during a doffing operation; and an output (13, 30) configured to output a position of one of the spindle stations that is determined as having a doffing failure by the determiner, wherein the doffing operation includes a yarn package removal operation in which the yarn packages are removed from the spindles, and the determiner determines whether there is a doffing failure or not for each of the spindle stations during the yarn package removal operation, wherein the change in the signal received from the yarn break detectors is a change from a presence of at least a part of the yarn package to an absence of the yarn package, and/or the doffing operation includes a bobbin placement operation in which the bobbins that are empty are placed on the spindles, and the determiner determines whether there is a doffing failure or not for each of the spindle stations during the bobbin placement operation, wherein the change in the signal received from the yarn break detectors is a change from an absence of at least a part of the bobbin to a presence of the bobbin.
A merchandiser for dispensing a number of products (30, 40), comprising: a temperature controlled compartment, the temperature controlled compartment comprising: a plurality of concentric storage wheels for storing the number of products therein, wherein the plurality of concentric storage wheels comprises an inner storage wheel and an outer storage wheel, wherein the plurality of concentric storage wheels connect to a support ring, and wherein each storage wheel comprises a plurality of support cups positioned on the support ring; an input system positioned about the temperature controlled compartment; a dispensing system positioned about the temperature controlled compartment; and an output pusher system positioned about the dispensing system and the plurality of concentric storage wheels. a plurality of concentric storage wheels for storing the number of products therein, wherein the plurality of concentric storage wheels comprises an inner storage wheel and an outer storage wheel, wherein the plurality of concentric storage wheels connect to a support ring, and wherein each storage wheel comprises a plurality of support cups positioned on the support ring; an input system positioned about the temperature controlled compartment; a dispensing system positioned about the temperature controlled compartment; and an output pusher system positioned about the dispensing system and the plurality of concentric storage wheels.
Process for producing energy products by catalytic cracking of a hydrocarbon solid material, in which a dispersion, named cracking dispersion, is heated, said dispersion comprising: ∘ a solid material in divided form containing at least one hydrocarbon-based compound; ∘ at least one catalytic cracking catalyst; ∘ at least one alkaline compound; and ∘ a liquid which is inert with respect to catalytic cracking; such that said cracking dispersion reaches a temperature, named cracking temperature, between 240°C and 340°C, which is suitable to allow catalytic cracking of at least one hydrocarbon-based compound of said cracking dispersion, leading to a production of hydrocarbons, named short-chain hydrocarbons, of lower molecular mass than said hydrocarbon-based compound; characterized in that said cracking temperature is reached by mixing an amount of said cracking dispersion and an amount of inert liquid which is substantially free of solid material in divided form and of catalyst, the inert liquid being brought to a temperature below 360°C and above said cracking temperature, said mixing being performed such that the mixture formed reaches a temperature at least equal to said cracking temperature and below a coke formation temperature, and in that an amount of an oxygenated gaseous composition capable of bringing about an exothermic reaction with at least a portion of the dihydrogen produced during the cracking is supplied to said cracking dispersion at said cracking temperature. ∘ a solid material in divided form containing at least one hydrocarbon-based compound; ∘ at least one catalytic cracking catalyst; ∘ at least one alkaline compound; and ∘ a liquid which is inert with respect to catalytic cracking;
A method for dispensing a mixture adapted to ensure electric insulation and/or shut off an electric arc in an enclosure of a high or medium voltage electric apparatus, the mixture comprising at least one electric shut-off organic chemical product and at least one dilution product, the mixture being stored in a container, the method comprising: - a step of cooling said mixture to a temperature of less than -10 °C, - a step of draining the container containing the mixture cooled, the mixture cooled being liquid following draining, - the method comprises a step of evaporating said mixture and then - a step of dispensing the mixture in the enclosure of the high or medium voltage electric apparatus. - a step of cooling said mixture to a temperature of less than -10 °C, - a step of draining the container containing the mixture cooled, the mixture cooled being liquid following draining, - the method comprises a step of evaporating said mixture and then - a step of dispensing the mixture in the enclosure of the high or medium voltage electric apparatus.
An apparatus, comprising: a group of horizontal supports (234, 502, 504, 506, 508, 510, 512, 514, 516, 518, 520) to support at least one floorboard (422, 424, 426); a group of vertical supports (232, 412, 414, 416, 418) connected to and extending perpendicularly from the group of horizontal supports; and a group of clamping devices (300, 402, 404, 406, 408, 600) attached to the group of vertical supports; characterised in that a clamping device of the group of clamping devices is configured to engage a curved attachment point (206, 606) on an internal structure (204, 604) of an aircraft, in that the clamping device comprises a swing clamp (302, 602) pivotally attached to a pad assembly (304, 620), wherein both the swing clamp and the pad assembly are configured to adjustably attach to the curved attachment point on the internal structure of the aircraft, and in that the curved attachment point on the internal structure of the aircraft has an upper attachment surface and a lower attachment surface and the swing clamp has a first curved attachment face configured to match the upper attachment surface and the pad assembly has a second curved attachment face configured to match the lower attachment surface. a group of horizontal supports (234, 502, 504, 506, 508, 510, 512, 514, 516, 518, 520) to support at least one floorboard (422, 424, 426); a group of vertical supports (232, 412, 414, 416, 418) connected to and extending perpendicularly from the group of horizontal supports; and a group of clamping devices (300, 402, 404, 406, 408, 600) attached to the group of vertical supports; characterised in that a clamping device of the group of clamping devices is configured to engage a curved attachment point (206, 606) on an internal structure (204, 604) of an aircraft, in that the clamping device comprises a swing clamp (302, 602) pivotally attached to a pad assembly (304, 620), wherein both the swing clamp and the pad assembly are configured to adjustably attach to the curved attachment point on the internal structure of the aircraft, and in that the curved attachment point on the internal structure of the aircraft has an upper attachment surface and a lower attachment surface and the swing clamp has a first curved attachment face configured to match the upper attachment surface and the pad assembly has a second curved attachment face configured to match the lower attachment surface.
A compact LED lamp comprising: a plurality of high-intensity LED modules where a high-intensity LED is attached on an LED fixing base plate; a heat sink where the high-intensity LED modules are attached on an end face in an axial direction thereof along a circumferential direction, for performing radiation of the high-intensity LED modules; a reflector which is provided so as to surround the plurality of high-intensity LED modules, for guiding light from the high-intensity LED modules forward; an electronic circuit for driving which drives the high-intensity LED modules; and a housing which houses the heat sink (5 and the electronic circuit for driving, a portion of the reflector therein, characterized in that the LED lamp comprises a resin light-guiding blade member having the same number of blades as the number of high-intensity LED modules, where the blades are provided radially in a diametrical direction at approximately equal intervals, the blades have predetermined heights in the axial direction, and the respective blades are fixed on the high-intensity LED modules; a plurality of high-intensity LED modules where a high-intensity LED is attached on an LED fixing base plate; a heat sink where the high-intensity LED modules are attached on an end face in an axial direction thereof along a circumferential direction, for performing radiation of the high-intensity LED modules; a reflector which is provided so as to surround the plurality of high-intensity LED modules, for guiding light from the high-intensity LED modules forward; an electronic circuit for driving which drives the high-intensity LED modules; and a housing which houses the heat sink (5 and the electronic circuit for driving, a portion of the reflector therein, characterized in that the LED lamp comprises a resin light-guiding blade member having the same number of blades as the number of high-intensity LED modules, where the blades are provided radially in a diametrical direction at approximately equal intervals, the blades have predetermined heights in the axial direction, and the respective blades are fixed on the high-intensity LED modules;
A dual layer acoustical ceiling tile made in a water-felting process and having an improved sound absorption value comprising a low mineral fiber base mat containing less than 50% by weight of mineral fiber and having a thickness ranging from 6.35 mm (0.25 inch) to 15.875 mm (0.625 inch) and a mineral wool fiber-rich overlay surface layer containing at least 75 % by weight of mineral wool fibers and having a thickness ranging from 3.175 mm (0.125 inch) to 12.7 mm (0.5 inch), said ceiling tile having a noise reduction coefficient value of at least 0.50, the combination of fibreboard and an overlay comprising nodulated wool being disclaimed.
A device for showing at least one load-related parameter of a vehicle with at least two wheelshafts (1, 2, 3), whereby the device comprises at least one sensor unit (6a, 6b; 7a, 7b; 8a, 8b) adapted to detecting the load on one of said wheelshafts (1, 2, 3), means for detecting the vehicle's total weight, a control unit and a display means, whereby said sensor unit (6a, 6b; 7a, 7b; 8a, 8b) and said detecting means are connected to the control unit, which is adapted to calculating the load-related parameter and is connected to the display means, which is itself adapted to showing the load-related parameter for a user of the vehicle, characterised in that the load-related parameter comprises the load on the wheelshaft (1, 2, 3) associated with said sensor unit (6a, 6b; 7a, 7b; 8a, 8b), as a percentage of the total weight.