mhurhangee/ep-ind-claims huggingface dataset:
A two-component bone cement, comprising A) a paste as component A, comprising a1) methyl methacrylate; a2) at least one polymer that is soluble in methyl methacrylate and has a number average molar mass of less than 500,000 daltons; a3) at least one particulate polymer that is insoluble in methyl methacrylate and has a particle size D50 of less than 50 μm; a4) at least one hydroperoxide that is soluble in methyl methacrylate; and a5) at least one tertiary amine that is soluble in methyl methacrylate; and B) a powder as component B, comprising b1) at least one particulate radiodense substance that has a particle size D50 of less than 50 μm; b2) at least one heavy-metal salt that is soluble in methyl methacrylate; and b3) at least one reducing agent that is soluble in methyl methacrylate. A) a paste as component A, comprising a1) methyl methacrylate; a2) at least one polymer that is soluble in methyl methacrylate and has a number average molar mass of less than 500,000 daltons; a3) at least one particulate polymer that is insoluble in methyl methacrylate and has a particle size D50 of less than 50 μm; a4) at least one hydroperoxide that is soluble in methyl methacrylate; and a5) at least one tertiary amine that is soluble in methyl methacrylate; and a1) methyl methacrylate; a2) at least one polymer that is soluble in methyl methacrylate and has a number average molar mass of less than 500,000 daltons; a3) at least one particulate polymer that is insoluble in methyl methacrylate and has a particle size D50 of less than 50 μm; a4) at least one hydroperoxide that is soluble in methyl methacrylate; and a5) at least one tertiary amine that is soluble in methyl methacrylate; and B) a powder as component B, comprising b1) at least one particulate radiodense substance that has a particle size D50 of less than 50 μm; b2) at least one heavy-metal salt that is soluble in methyl methacrylate; and b3) at least one reducing agent that is soluble in methyl methacrylate. b1) at least one particulate radiodense substance that has a particle size D50 of less than 50 μm; b2) at least one heavy-metal salt that is soluble in methyl methacrylate; and b3) at least one reducing agent that is soluble in methyl methacrylate.
A two-layer fabric comprising an integral structure having a base cloth on the upper side and a reinforcing cloth for reinforcing the entire fabric on the under side, wherein (a) the base cloth of the two-layer fabric is flame-retardant and comprises a warp yarn and a weft yarn, (b) the reinforcing cloth of the two-layer fabric comprises a warp yarn and a weft yarn containing a heat-resistant high-strength fiber having a tensile strength of 15 cN/dtex or more as a main component, wherein the heat-resistant high-strength fiber is a continuous fiber of para-aramid fiber or para-aramid copolymer fiber, (c) the base cloth and the reinforcing cloth are connected by the warp yarn and/or the weft yarn of the base cloth, to form the integral structure, (d) the entire upper side of the two-layer fabric is composed of the same material and the warp yarn and the weft yarn of the reinforcing cloth are invisible from the upper side, (e) the number ratio between the yarns of the base cloth and the reinforcing yarns is within a range of [the base cloth yarns/the reinforcing yarns = 4/1 to 1/1], characterized in that (f) after flame exposure of ISO 9151, the under side of the fabric has the presence of convexoconcave, and in that said warp yarn and weft yarn of the base cloth contain a short fiber spun yarn of a mixture of a flame-retardant fiber and a heat-resistant high-strength fiber, wherein the flame-retardant fiber has a limiting oxygen index of 26 or more as measured according to JIS K 7201 and a tensile strength of 8 cN/dtex or less as measured according to JIS L 1013, and wherein the flame-retardant fiber is a meta-aramid fiber and the heat-resistant high-strength fiber is a para-aramid fiber or a para-aramid co-polymer fiber, and the ratio of the flame-retardant fiber in the mixture is 50% by weight or more. (a) the base cloth of the two-layer fabric is flame-retardant and comprises a warp yarn and a weft yarn, (b) the reinforcing cloth of the two-layer fabric comprises a warp yarn and a weft yarn containing a heat-resistant high-strength fiber having a tensile strength of 15 cN/dtex or more as a main component, wherein the heat-resistant high-strength fiber is a continuous fiber of para-aramid fiber or para-aramid copolymer fiber, (c) the base cloth and the reinforcing cloth are connected by the warp yarn and/or the weft yarn of the base cloth, to form the integral structure, (d) the entire upper side of the two-layer fabric is composed of the same material and the warp yarn and the weft yarn of the reinforcing cloth are invisible from the upper side, (e) the number ratio between the yarns of the base cloth and the reinforcing yarns is within a range of [the base cloth yarns/the reinforcing yarns = 4/1 to 1/1], characterized in that (f) after flame exposure of ISO 9151, the under side of the fabric has the presence of convexoconcave,
A reception apparatus, comprising: a reception unit configured to receive a broadcast wave of digital broadcasting using an Internet Protocol, IP, transmission system; and a filtering processing unit configured to perform filtering processing on a packet by using filtering information, the filtering information being provided in a header of the packet, the packet being transmitted via the broadcast wave in a baseband stream located in a first layer, the first layer being lower than an IP layer in a hierarchy of a protocol of the IP transmission system, wherein the packet is an Low Layer Signaling, LLS, packet, the filtering information is provided in an LLS header of the LLS packet, first signaling data is provided in an LLS payload of the LLS packet, and the filtering processing unit is configured to perform filtering processing on the first signaling data stored in the LLS packet by using the filtering information provided in the LLS header. a reception unit configured to receive a broadcast wave of digital broadcasting using an Internet Protocol, IP, transmission system; and a filtering processing unit configured to perform filtering processing on a packet by using filtering information, the filtering information being provided in a header of the packet, the packet being transmitted via the broadcast wave in a baseband stream located in a first layer, the first layer being lower than an IP layer in a hierarchy of a protocol of the IP transmission system, wherein the packet is an Low Layer Signaling, LLS, packet, the filtering information is provided in an LLS header of the LLS packet, first signaling data is provided in an LLS payload of the LLS packet, and the filtering processing unit is configured to perform filtering processing on the first signaling data stored in the LLS packet by using the filtering information provided in the LLS header.
A linoleum floor covering comprising: a first layer of cured linoleum composition; a second layer of cured linoleum composition, and a reinforcement layer having multiple through openings arranged between the first layer and the second layer, wherein a combined surface area of the through openings is at least 50% of the total surface area of the reinforcement layer, wherein the first layer and second layer are adhered to each other through the through openings, and wherein the reinforcement layer is made of knitted material. a first layer of cured linoleum composition; a second layer of cured linoleum composition, and a reinforcement layer having multiple through openings arranged between the first layer and the second layer, wherein a combined surface area of the through openings is at least 50% of the total surface area of the reinforcement layer, wherein the first layer and second layer are adhered to each other through the through openings, and wherein the reinforcement layer is made of knitted material.
Aqueous solution of a mixture for treating fertilisers which are urea-based and/or contain ammonium, such mixture containing 1,2,4-triazole and 3-methylpyrazole in a weight ratio of 2/1 and at least one polyvinyl alcohol, polyvinylpyrrolidone, and a surfactant.
Computer-implemented method for estimating a tire parameter for operating a vehicle, comprising: obtaining a plurality of initial driving data points (11, 12), the driving data points comprising driving dynamics variables for estimating the tire parameter; characterized by dividing the initial driving data points (11, 12) into clusters (C1, C2) by using a cluster algorithm such that each driving data point (11, 12) is assigned to a cluster (C1, C2); determining a center point for each cluster; recording at least one additional driving data point (A1, A2) by at least one sensor of the vehicle during vehicle operation; assigning the at least one recorded driving data point (A1, A2) to a cluster; expanding a training data set comprising the initial driving data points (11, 12) by the at least one recorded driving data point if a distance of the at least one recorded driving data point from the center point of the assigned cluster is greater than a distance threshold value (D 0); and estimating the tire parameter for operating the vehicle on the basis of the expanded training data set by means of a machine learning algorithm. obtaining a plurality of initial driving data points (11, 12), the driving data points comprising driving dynamics variables for estimating the tire parameter; characterized by dividing the initial driving data points (11, 12) into clusters (C1, C2) by using a cluster algorithm such that each driving data point (11, 12) is assigned to a cluster (C1, C2); determining a center point for each cluster; recording at least one additional driving data point (A1, A2) by at least one sensor of the vehicle during vehicle operation; assigning the at least one recorded driving data point (A1, A2) to a cluster; expanding a training data set comprising the initial driving data points (11, 12) by the at least one recorded driving data point if a distance of the at least one recorded driving data point from the center point of the assigned cluster is greater than a distance threshold value (D 0); and estimating the tire parameter for operating the vehicle on the basis of the expanded training data set by means of a machine learning algorithm.
Insulating glass having at least two mutually spaced apart glass panes (2, 3), comprising at least one peripheral composite that is disposed in a region (8, 9, 10, 11) of edges (4, 5, 6, 7) of the glass panes (2, 3) so as to be between said glass panes (2, 3), said peripheral composite being composed of a spacer as well as at least one adhesive, wherein the peripheral composite at least in the region (8, 9) of two mutually opposite edges (4, 5) comprises a first adhesive which in the cured state has a rigidity of at least 50 N/mm 2, preferably of at least 100 N/mm 2, characterized in that the peripheral composite in the regions (10, 11) of the further edges (6, 7) of the glass panes (2, 3) comprises at least one second adhesive, wherein the second adhesive in the cured state has lower rigidity than the first adhesive.
A current collector for a non-aqueous electrolyte secondary battery, the current collector comprising: a conductive substrate; and a conductive layer that is provided on at least one surface of the conductive substrate, the conductive layer containing a conductive filler and a binding material, wherein the binding material contains polyvinylidene fluoride, as a binding component, and a positive thermal coefficient ("PTC") function-imparting component, wherein the PTC functional-imparting component is a copolymer of poly(vinylidene fluoride-hexafluoropropylene) or a copolymer of poly(vinylidene fluoride-oxyethylene), and wherein the PTC function-imparting component lowers one or more of a melting start temperature or a melting peak temperature of the binding material, which is measured by differential scanning calorimetry under coexistence of a non-aqueous electrolyte, as compared to a case of using only the binding component. a conductive substrate; and a conductive layer that is provided on at least one surface of the conductive substrate, the conductive layer containing a conductive filler and a binding material, wherein the binding material contains polyvinylidene fluoride, as a binding component, and a positive thermal coefficient ("PTC") function-imparting component, wherein the PTC functional-imparting component is a copolymer of poly(vinylidene fluoride-hexafluoropropylene) or a copolymer of poly(vinylidene fluoride-oxyethylene), and wherein the PTC function-imparting component lowers one or more of a melting start temperature or a melting peak temperature of the binding material, which is measured by differential scanning calorimetry under coexistence of a non-aqueous electrolyte, as compared to a case of using only the binding component.
Method for controlling a domestic refrigeration appliance comprising a heat exchanger, a first temperature sensor placed in the cavity of the refrigeration appliance and a second temperature sensor placed on or in the proximity of the heat exchanger, characterized in that it comprises estimating the amount of frost on the heat exchanger on the basis of an integral over time of the difference between the temperature of the cavity and the temperature of the heat exchanger, and performing a defrost cycle when the above integral is above a predetermined threshold value.
A dried intimate mixture comprising a bacteria spore and an L-amino acid, wherein the bacteria spore and the L-amino acid are dried together such that the bacterial spore and the L-amino acid are maintained in proximate position until they reach an environment conducive to germination.
A method of mapping obstruction zones of a work area on a workplace map and providing augmented control of a power machine (100; 200; 300; 900; 1000; 1200; 1300; 1400), the method comprising: identifying an obstruction zone for an obstruction in the work area using a first portable positioning device (980; 1080) to tag a position of the ob struction; identifying a position of a power machine at a first location in the work area using the first portable positioning device; identifying a position of the power machine at the first location in the work area using a second positioning device (1056; 1256); identifying position information of the power machine at a second location in the work area using the first portable positioning device; identifying a position of the power machine at the second location in the work area using the second positioning device; Characterised in that the method generates an error correction factor based upon the positions of the power machine at the first location in the work area identified using the portable positioning device and the second positioning device, and based upon the positions of the power machine at the second location in the work area identified using the portable positioning device and the second positioning device; recalculates the identified obstruction zone in the work area using the error correction factor to obtain a recalculated obstruction zone; and uses a controller (370; 970; 1070; 1270; 1470) configured with the recalculated obstruction zone to control travel of the power machine in the work area to avoid contact with the obstruction. identifying an obstruction zone for an obstruction in the work area using a first portable positioning device (980; 1080) to tag a position of the ob struction; identifying a position of a power machine at a first location in the work area using the first portable positioning device; identifying a position of the power machine at the first location in the work area using a second positioning device (1056; 1256); identifying position information of the power machine at a second location in the work area using the first portable positioning device; identifying a position of the power machine at the second location in the work area using the second positioning device; Characterised in that the method generates an error correction factor based upon the positions of the power machine at the first location in the work area identified using the portable positioning device and the second positioning device, and based upon the positions of the power machine at the second location in the work area identified using the portable positioning device and the second positioning device; recalculates the identified obstruction zone in the work area using the error correction factor to obtain a recalculated obstruction zone; and uses a controller (370; 970; 1070; 1270; 1470) configured with the recalculated obstruction zone to control travel of the power machine in the work area to avoid contact with the obstruction.
A saddle-ride type vehicle including a rear fender attached above a rear wheel to a vehicle body frame, wherein the rear fender includes a front-side rear fender forming a front part and a rear-side rear fender attached to a rear portion of the front-side rear fender, the rear-side rear fender includes an outer fender designed to be visually recognized as exterior when viewed from a rear of the vehicle, an inner fender provided inside the outer fender, and a metal stay provided between the outer fender and the inner fender, and the stay is detachably attached to the vehicle body frame, characterized by the fact that a rear portion of the front-side rear fender and a front portion of the outer fender are overlapped with each other on a lower portion of the vehicle body frame, and by the fact that the outer fender is sandwiched between the stay and the front-side rear fender and fastened to the vehicle body frame side together with the stay and the front-side rear fender.
An upper for an article of footwear, the upper comprising: a unitary braided structure forming at least a toe region, a forefoot region, a midfoot region, a heel region, and an ankle region, wherein the unitary braided structure comprises a first density of braids forming at least a portion of the midfoot region and forefoot region, characterized in that the unitary braided structure further comprises a first band of a second density of braids and a second band of the second density of braids, the first band and the second band each extending across a width of the upper over an instep of the upper, and wherein the second density of braids is higher than the first density of braids. a unitary braided structure forming at least a toe region, a forefoot region, a midfoot region, a heel region, and an ankle region, wherein the unitary braided structure comprises a first density of braids forming at least a portion of the midfoot region and forefoot region, characterized in that the unitary braided structure further comprises a first band of a second density of braids and a second band of the second density of braids, the first band and the second band each extending across a width of the upper over an instep of the upper, and wherein the second density of braids is higher than the first density of braids.
A system for condensing steam, the system comprising: - a first horizontal supply manifold and a second horizontal supply manifold to convey steam from a steam supply, - a first horizontal return manifold and a second horizontal return manifold to return condensate to a return pipe - a first pair of self-standing condensing panels configured to stand without a support structure, to receive steam from the first supply manifold wherein the first supply manifold bifurcates with each bifurcation being configured to supply a respective condensing panel of the first pair of condensing panels, - a second pair of self-standing condensing panels configured to stand without a support structure to receive steam from the second supply manifold wherein the second supply manifold bifurcates with each bifurcation being configured to supply a respective condensing panel of the second pair of condensing panels, wherein the second pair of self-standing condensing panels is disposed upon the first pair of self-standing condensing panels, characterized in that: the first pair of self-standing condensing panels supports the second pair of self-standing condensing panels; each condensing panel is configured as a bundle of vertical tubes; each panel of the first pair of self-standing panels extends between a bifurcation of the first supply manifold and a bifurcation of the first return manifold; and each panel of the second pair of self-standing panel extends between a bifurcation of the second supply manifold and a bifurcation of the second return manifold. - a first horizontal supply manifold and a second horizontal supply manifold to convey steam from a steam supply, - a first horizontal return manifold and a second horizontal return manifold to return condensate to a return pipe - a first pair of self-standing condensing panels configured to stand without a support structure, to receive steam from the first supply manifold wherein the first supply manifold bifurcates with each bifurcation being configured to supply a respective condensing panel of the first pair of condensing panels, - a second pair of self-standing condensing panels configured to stand without a support structure to receive steam from the second supply manifold wherein the second supply manifold bifurcates with each bifurcation being configured to supply a respective condensing panel of the second pair of condensing panels, wherein the second pair of self-standing condensing panels is disposed upon the first pair of self-standing condensing panels, the first pair of self-standing condensing panels supports the second pair of self-standing condensing panels; each condensing panel is configured as a bundle of vertical tubes; each panel of the first pair of self-standing panels extends between a bifurcation of the first supply manifold and a bifurcation of the first return manifold; and each panel of the second pair of self-standing panel extends between a bifurcation of the second supply manifold and a bifurcation of the second return manifold.
End position retraction and end position damping device for a slideable leaf as a sliding leaf or slideable lift-and-slide leaf of a window or door, comprising an energy storage device for drawing the sliding leaf into the closed position, and a damping element for braking the sliding leaf before it arrives in the end position and closed position, which are located in a housing of the end position retraction and end position damping device, with a driver and control device, which is operatively connected to a driver of the device, which can be secured to a frame of the window or the door, and which is configured such as to lock the energy storage device in an open position of the sliding leaf, and with an adapter piece (7, 8) connected to the housing, provided for securing to a component of the sliding leaf, wherein the connection of the housing of the end position retraction and end position damping device to the adapter piece (7, 8) comprises a height adjustment device, characterized in that the height adjustment device has a spring element for tensioning the housing against the adapter piece (7, 8), wherein the adapter piece (7, 8) exhibits an accommodation borehole for the complete location positioning of the spring element, and a plate arranged at the housing can be introduced into the accommodation borehole, and is guided such as to slide therein, being movement-coupled to the free end of the spring element.