mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a conveyor belt having a top layer , a bottom layer , and a fabric reinforcement layer disposed between the top layer and the bottom layer , the method comprising: - applying a rubber composition to a first side of a fabric reinforcement and scattering productive thermoplastic elastomer pellets onto a second side of the fabric reinforcement to produce an uncured belt structure , wherein the productive thermoplastic elastomer composition is a blend of thermoplastic elastomer pellets and a peroxide crosslinking agent which is supported on a powdered carrier; - continuously feeding the uncured belt structure into a double belt press to press the productive thermoplastic elastomer pellets together with the fabric reinforcement at a pressure of at least 82.7 kPa (12 psi) to produce an uncured belt ; - heating the uncured belt in the double belt press to a temperature of at least 148.9°C (300°F); - maintaining the uncured belt in the double belt press under a pressure of at least 82.7 kPa (12 psi) and a temperature of at least 148.9°C (300°F) for a residence time of at least 20 minutes to produce a cured conveyor belt ; and, - continuously withdrawing the cured conveyor belt from the double belt press ; wherein the uncured belt structure , the uncured belt and the cured conveyor belt are produced in a single continuous operation. - applying a rubber composition to a first side of a fabric reinforcement and scattering productive thermoplastic elastomer pellets onto a second side of the fabric reinforcement to produce an uncured belt structure , wherein the productive thermoplastic elastomer composition is a blend of thermoplastic elastomer pellets and a peroxide crosslinking agent which is supported on a powdered carrier; - continuously feeding the uncured belt structure into a double belt press to press the productive thermoplastic elastomer pellets together with the fabric reinforcement at a pressure of at least 82.7 kPa (12 psi) to produce an uncured belt ; - heating the uncured belt in the double belt press to a temperature of at least 148.9°C (300°F); - maintaining the uncured belt in the double belt press under a pressure of at least 82.7 kPa (12 psi) and a temperature of at least 148.9°C (300°F) for a residence time of at least 20 minutes to produce a cured conveyor belt ; and, - continuously withdrawing the cured conveyor belt from the double belt press ; wherein the uncured belt structure , the uncured belt and the cured conveyor belt are produced in a single continuous operation.
A substrate for an organic electronic device (OED), comprising: a flexible base film and an inorganic material layer formed on the base film; wherein the inorganic material layer has a multilayer structure in which first and second sub layers are alternately stacked, the first and second sub layers having a thickness of 7 nm or less respectively; characterized in that : the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less. a flexible base film and an inorganic material layer formed on the base film; wherein the inorganic material layer has a multilayer structure in which first and second sub layers are alternately stacked, the first and second sub layers having a thickness of 7 nm or less respectively; characterized in that : the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less. the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less.
Cable with a central element and a cable sheath, which has an inner hydrophobic sheath layer made of a first non-polar plastic and an outer sheath layer applied to the latter made of a non-hydrophobic, polar plastic which is different from the inner sheath layer and for which a thermoplastic elastomer is used, wherein a polyolefinic plastic is used for the inner sheath layer and the inner sheath layer is chemically functionalized by adding an additive to the non-polar polyolefinic plastic, so that a chemical reaction with components of the material of the outer sheath layers is effected, wherein a tight connection is formed between the two sheath layers and to form the tight connection between the sheath layers, a catalyst system is introduced into the outer sheath layer, which supports the chemical reaction between the two sheath layers.
A transport and storage container for liquids comprising a pallet-type understructure for a plastic inner container and a cage having horizontal bars and vertical bars made of metal for housing the inner container, ends of the vertical bars , which are hollow profiles , being welded to lower and upper circumferential edge profiles of the cage, the lower ends of the vertical bars having a connecting portion , which is formed by deformation, for being welded to the lower edge profile, the connecting portion having a trough-shaped recess with a trough opening formed on the outside of the vertical bars , which faces away from the inner container , and a trough bottom formed by a flattened portion of the hollow profile, the trough opening being limited by two edge webs extending in the direction of the longitudinal bar axis of the vertical bars and serving to form a welded connection with the lower edge profile , characterized in that to define a bending portion , the vertical bars have another trough-shaped recess , which is disposed adjacent to the connecting portion and which has a trough opening formed on the inside of the vertical bars , which faces the inner container , and a trough bottom formed by a flattened portion of the hollow profile .
An electric vehicle floor structure comprising: a battery unit arranged underneath a floor of a passenger compartment between front wheels and rear wheels; and an underfloor panel covering an entire bottom surface of the battery unit from below, characterized in that the underfloor panel is provided with a center panel having a noise absorption material arranged centrally in both a lateral direction and a longitudinal direction of the underfloor panel , and a surrounding panel having a high-strength material arranged around the center panel . a battery unit arranged underneath a floor of a passenger compartment between front wheels and rear wheels; and an underfloor panel covering an entire bottom surface of the battery unit from below, characterized in that the underfloor panel is provided with a center panel having a noise absorption material arranged centrally in both a lateral direction and a longitudinal direction of the underfloor panel , and a surrounding panel having a high-strength material arranged around the center panel .
A method of operating a steam compression apparatus comprising a compressor and a drive unit , the method comprising: operating the drive unit to drive the compressor so as to provide a superheated steam flow; characterized by cooling the drive unit with a liquid cooling medium, so that the cooling medium recovers thermal energy from the drive unit ; and de-superheating the steam flow from the compressor by injecting the cooling medium into the steam flow downstream of the drive unit . operating the drive unit to drive the compressor so as to provide a superheated steam flow; characterized by cooling the drive unit with a liquid cooling medium, so that the cooling medium recovers thermal energy from the drive unit ; and de-superheating the steam flow from the compressor by injecting the cooling medium into the steam flow downstream of the drive unit .
A composition for use in a method of treating a peripheral neuropathy disorder, the composition comprising an effective amount of pirenzepine or salt thereof and a pharmacologically acceptable carrier and/or an excipient; wherein the peripheral neuropathy is one of a chemotherapy-induced peripheral neuropathy, a compression-induced peripheral neuropathy, a peripheral neuropathy induced by an exposure to toxic agent, cancer or tumor induced neuropathy, an immune-mediated peripheral neuropathy, a peripheral neuropathy induced by an infection or infectious disease, a genetically acquired peripheral neuropathy, a idiopathic neuropathy, a surgically-induced neuropathy, polyneuropathy, mononeuropathy, or an acute pain autonomic neuropathy.
A system for providing power to a load , comprising: a first reactor comprising a first plurality of coils , wherein a first coil is configured to generate a first magnetic field and a plurality of second coils is configured to generate a plurality of second magnetic fields that vary an intensity of the first magnetic field; and a second reactor comprising a second plurality of coils , wherein at least one coil of the second plurality of coils is configured to tune the first reactor to the load; wherein the first reactor is configured to provide the power to the load, and wherein the second reactor is configured to increase the power provided to the load by the first reactor by increasing an intensity of the plurality of second magnetic fields generated by the plurality of second coils and tuning the first reactor to the load, wherein tuning the first reactor to the load comprises tuning a resonance of the first reactor based upon a magnetic field generated by the load; wherein the second plurality of coils comprises: a third coil connected to the first reactor and to the load; a fourth coil magnetically coupled to the third coil; and wherein the first reactor comprises a fifth coil , and wherein the fourth coil of the second reactor is shunted to the fifth coil of the first reactor, and wherein the second reactor is configured to tune the fifth coil of the first reactor to the load. a first reactor comprising a first plurality of coils , wherein a first coil is configured to generate a first magnetic field and a plurality of second coils is configured to generate a plurality of second magnetic fields that vary an intensity of the first magnetic field; and a second reactor comprising a second plurality of coils , wherein at least one coil of the second plurality of coils is configured to tune the first reactor to the load; wherein the first reactor is configured to provide the power to the load, and wherein the second reactor is configured to increase the power provided to the load by the first reactor by increasing an intensity of the plurality of second magnetic fields generated by the plurality of second coils and tuning the first reactor to the load, wherein tuning the first reactor to the load comprises tuning a resonance of the first reactor based upon a magnetic field generated by the load; wherein the second plurality of coils comprises: a third coil connected to the first reactor and to the load; a fourth coil magnetically coupled to the third coil; and a third coil connected to the first reactor and to the load; a fourth coil magnetically coupled to the third coil; and wherein the first reactor comprises a fifth coil , and wherein the fourth coil of the second reactor is shunted to the fifth coil of the first reactor, and wherein the second reactor is configured to tune the fifth coil of the first reactor to the load.
A container for a foodstuff or beverage preparation machine, the container for containing beverage or foodstuff preparation material and comprising a code encoding preparation information, the code comprising a data sequence having a plurality n of marker locations, whereby said marker locations either comprise or do not comprise a marker as a variable to at least partially encode the preparation information therein, with adjacent marker locations separated by a distance of Δx, wherein at least one marker location (i) of the data sequence comprises a marker, characterised in that the code further comprises: a locator sequence to enable location of the data sequence, the locator sequence comprising two adjacent markers, whereby a distance X4 therebetween is distinct from the distance Ax; and an end portion for identification of an end of the data sequence, the end portion comprising a marker location (n) at the end of the data sequence and a marker, wherein a distance (n-i)Δx+X3 between said marker of said at least one marker location (i) of said data sequence and said marker of said end portion is equal to the addition of said distance Δx multiplied by an integer n-i, wherein i varies from 1 to n, and a distance X3, wherein said distance X3 is a non-integer multiple of Δx and wherein said distance X3 is distinct from the distance X4. a locator sequence to enable location of the data sequence, the locator sequence comprising two adjacent markers, whereby a distance X4 therebetween is distinct from the distance Ax; and an end portion for identification of an end of the data sequence, the end portion comprising a marker location (n) at the end of the data sequence and a marker, wherein a distance (n-i)Δx+X3 between said marker of said at least one marker location (i) of said data sequence and said marker of said end portion is equal to the addition of said distance Δx multiplied by an integer n-i, wherein i varies from 1 to n, and a distance X3, wherein said distance X3 is a non-integer multiple of Δx and wherein said distance X3 is distinct from the distance X4.
A crystalline form of the tosylate salt of Compound 1: for use in a method for treating a bacterial infection in a subject.
A device for dispensing confectionery creams, comprising: - at least one inlet and one outlet ; - at least one chamber for collecting the cream, wherein a piston is mobile within said chamber, in a first direction for intake of cream into said device, through said inlet , and in a second, opposite, direction for delivery of said cream through said outlet ; and - a cylindrical valve member , set within a corresponding cylindrical seat , which may be configured between a first condition, in which said at least one chamber is set in communication with said at least one inlet and is instead isolated from said at least one outlet, and a second condition, in which said at least one chamber is set in communication with said at least one outlet and is isolated from said at least one inlet , said device being characterized in that said valve member carries on its outer surface a first series of recesses , which are configured to set said at least one chamber in communication with said at least one inlet , and a second series of recesses , distinct from said first series, which are configured to set said at least one chamber in communication with said at least one outlet , wherein the recesses of said second series are made in positions along the geometrical axis of said member that are different from the positions of the recesses of said first series, and wherein said member is mobile according to a movement of translation along its own geometrical axis, between a first position, in which said first series of recesses is set in communication with said at least one chamber , and a second position, in which said second series of recesses is set in communication with said at least one chamber . - at least one inlet and one outlet ; - at least one chamber for collecting the cream, - a cylindrical valve member , set within a corresponding cylindrical seat , which may be configured between a first condition, in which said at least one chamber is set in communication with said at least one inlet and is instead isolated from said at least one outlet, and a second condition, in which said at least one chamber is set in communication with said at least one outlet and is isolated from said at least one inlet ,
A multi-functional cooling cup holder including: a cup holder , which is an annular socket that can accommodate a beverage can or a water bottle, wherein at the top of the socket there is a bended edge that is larger than the cylinder of the socket , at the bottom of the socket there is an annular bottom cap ; a thermal radiator that is installed under the bottom cap , which contains multiple paralleled radiation fins and a cooling fan ; a thermal conductor which is in the shape of a shallow plate turned upside down, the edge of the plate being embedded in the outer edge of the bottom cap's bore, and its bottom side is adhered to the cooling side of a thermoelectric cooler . the thermoelectric cooler which is installed between the thermal radiator and the thermal conductor and is electrically connected with the control circuit of the cup holder, wherein the cooling side of the thermoelectric cooler faces up, and the thermal side faces down and is adhered to the top side of the thermal radiator ; characterized in that the multi-functional cooling cup holder is a multi-functional touch cooling cup holder, in that it comprises a transparent cover with bended edge that is coated outside the bended edge of the cup holder , a touch switch board being installed between the bended edges of the cover and the cup holder and in that , on the cylinder of the socket , there is a vertical slot , within which there is a control circuit of the cup holder, that is equipped with IC chip . a cup holder , which is an annular socket that can accommodate a beverage can or a water bottle, wherein at the top of the socket there is a bended edge that is larger than the cylinder of the socket , at the bottom of the socket there is an annular bottom cap ; a thermal radiator that is installed under the bottom cap , which contains multiple paralleled radiation fins and a cooling fan ; a thermal conductor which is in the shape of a shallow plate turned upside down, the edge of the plate being embedded in the outer edge of the bottom cap's bore, and its bottom side is adhered to the cooling side of a thermoelectric cooler . the thermoelectric cooler which is installed between the thermal radiator and the thermal conductor and is electrically connected with the control circuit of the cup holder, wherein the cooling side of the thermoelectric cooler faces up, and the thermal side faces down and is adhered to the top side of the thermal radiator ; characterized in that the multi-functional cooling cup holder is a multi-functional touch cooling cup holder, in that it comprises a transparent cover with bended edge that is coated outside the bended edge of the cup holder , a touch switch board being installed between the bended edges of the cover and the cup holder and in that , on the cylinder of the socket , there is a vertical slot , within which there is a control circuit of the cup holder, that is equipped with IC chip .
Artificial neuron implementing integration, leakage and firing functions, characterised in that the artificial neuron is an artificial neuron of the "leaky integrate and fire" reference model, and in that it is composed of a single monocomponent electric dipole comprising a material belonging to the family of the Mott insulators connected to two electrical electrodes .
A method of operating a communication device operating in a communications network and configured to communicate with a network node operating in the communications network via a primary cell, PCell, and one or more secondary cells, SCells, the method comprising: receiving a configuration message from the network node to configure an SCell of the one or more SCells as a scheduling cell for cross carrier scheduling wherein when the configuration message configures the SCell as the scheduling cell the communication device is configured to: monitor the SCell for first scheduling information associated with communications via the PCell; only monitor the PCell for second scheduling information associated with second communications for the PCell and not monitor for any scheduling information associated with communications for any other SCells of the one or more SCells on the PCell; and only monitor for scheduling related to communications for the SCell configured for scheduling on said SCell. monitor the SCell for first scheduling information associated with communications via the PCell; only monitor the PCell for second scheduling information associated with second communications for the PCell and not monitor for any scheduling information associated with communications for any other SCells of the one or more SCells on the PCell; and only monitor for scheduling related to communications for the SCell configured for scheduling on said SCell.
Process for converting one or more methyl halides to acyclic C3-C6 olefins said process comprising the following steps: a) providing a feedstream comprising one or more methyl halides; b) providing a catalyst composition; and c) contacting said feedstream with the said catalyst composition under reaction conditions; the process is characterized in that said reaction conditions include a reaction temperature below 400°C, and in that said catalyst composition comprises one or more molecular sieves with a Si/AI atomic ratio ranging from 2 to 18 and wherein said one or more molecular sieves comprise a plurality of pores, wherein said pores have a shape of an 8-membered ring or less and further wherein one or more molecular sieves have an average pore size diameter of at most 4.2 Å, as determined by BET experiments. a) providing a feedstream comprising one or more methyl halides; b) providing a catalyst composition; and c) contacting said feedstream with the said catalyst composition under reaction conditions;
A communication method, comprising: when a terminal device is handed over from a source access network device in a first area to a target access network device in a second area, receiving , by a target mobility management network element in the second area from a source mobility management network element in the first area, a slice set for a home public land mobile network, HPLMN, of the terminal device, wherein the slice set for the HPLMN is corresponding to allowed network slice selection assistance information of the terminal device in the first area; and obtaining , by the target mobility management network element, allowed network slice selection assistance information of the terminal device in the second area based on the slice set for the HPLMN when a terminal device is handed over from a source access network device in a first area to a target access network device in a second area, receiving , by a target mobility management network element in the second area from a source mobility management network element in the first area, a slice set for a home public land mobile network, HPLMN, of the terminal device, wherein the slice set for the HPLMN is corresponding to allowed network slice selection assistance information of the terminal device in the first area; and obtaining , by the target mobility management network element, allowed network slice selection assistance information of the terminal device in the second area based on the slice set for the HPLMN