mhurhangee/ep-ind-claims huggingface dataset:
A polymer interlayer comprising: a first resin layer comprising - a first poly(vinyl acetal) resin; and a second poly(vinyl acetal) resin having a residual hydroxyl content that is at least 2 weight percent higher or lower than the residual hydroxyl content of said first poly(vinyl acetal) resin, and a plasticizer having a refractive index of at least 1.460, wherein said first resin layer comprises at least 0.5 weight percent of said second poly(vinyl acetal) resin, based on the combined weight of said first and said second poly(vinyl acetal) resins, and wherein said first resin layer has a refractive index of at least 1.480, and wherein the glass transition temperature of said first resin layer is at least 26°C, and further comprising an adjacent resin layer in contact with said first resin layer in said interlayer, wherein said adjacent resin layer comprises another poly(vinyl acetal) resin and a plasticizer, wherein said another poly(vinyl acetal) resin has a residual hydroxyl content that is at least 2 weight percent lower than the residual hydroxyl content of said first poly(vinyl acetal) resin, and wherein said adjacent resin layer has a glass transition temperature of less than 25°C; wherein the glass transition temperatures are determined by dynamic mechanical thermal analysis at an oscillation frequency of 1 Hz under shear mode and a temperature sweep rate of 3°C/min, the glass transition temperature then being determined by the position of the tan delta peak on the temperature scale. a first resin layer comprising - a first poly(vinyl acetal) resin; and a second poly(vinyl acetal) resin having a residual hydroxyl content that is at least 2 weight percent higher or lower than the residual hydroxyl content of said first poly(vinyl acetal) resin, and a plasticizer having a refractive index of at least 1.460, wherein said first resin layer comprises at least 0.5 weight percent of said second poly(vinyl acetal) resin, based on the combined weight of said first and said second poly(vinyl acetal) resins, and wherein said first resin layer has a refractive index of at least 1.480, and wherein the glass transition temperature of said first resin layer is at least 26°C, and further comprising an adjacent resin layer in contact with said first resin layer in said interlayer, wherein said adjacent resin layer comprises another poly(vinyl acetal) resin and a plasticizer, wherein said another poly(vinyl acetal) resin has a residual hydroxyl content that is at least 2 weight percent lower than the residual hydroxyl content of said first poly(vinyl acetal) resin, and wherein said adjacent resin layer has a glass transition temperature of less than 25°C; wherein the glass transition temperatures are determined by dynamic mechanical thermal analysis at an oscillation frequency of 1 Hz under shear mode and a temperature sweep rate of 3°C/min, the glass transition temperature then being determined by the position of the tan delta peak on the temperature scale.
A stagger stacked flowerpot, comprising a flowerpot body provided with at least a cavity for holding a seedling pot having a bottom hole or a soil baffle having a pervious hole, wherein: the bottom of the cavity is a water storage space, a drain hole with an upward opening is arranged at the bottom of the flowerpot body, the drain hole is approximately as high as the maximum water level in the water storage space, the water in the water storage space overflows out from the drain hole and then flows into the water storage space of the lower body below the current flowerpot body; a bracing edge and a bracing position are arranged at the top of the flowerpot body, a snap groove is set at the bottom of the flowerpot body, and the bracing edge and bracing position of the current flowerpot body are configured to be snapped into the snap groove of the upper body above the flowerpot body, so that the flowerpot bodies of the adjacent two layers are combined in the stagger-stacking mode; and a front bracing and a rear bracing are arranged in the cavity and configured to brace the seedling pot or the soil baffle, characterized in that the horizontal position of the bottom hole of the seedling pot or the pervious hole of the soil baffle in the cavity is lower than the drain hole, and the top part of the cavity leans out with a dip angle a, so that the barycenter P of the seedling pot in the cavity is within the range of the bottom diameter of the seedling pot. the bottom of the cavity is a water storage space, a drain hole with an upward opening is arranged at the bottom of the flowerpot body, the drain hole is approximately as high as the maximum water level in the water storage space, the water in the water storage space overflows out from the drain hole and then flows into the water storage space of the lower body below the current flowerpot body; a bracing edge and a bracing position are arranged at the top of the flowerpot body, a snap groove is set at the bottom of the flowerpot body, and the bracing edge and bracing position of the current flowerpot body are configured to be snapped into the snap groove of the upper body above the flowerpot body, so that the flowerpot bodies of the adjacent two layers are combined in the stagger-stacking mode; and a front bracing and a rear bracing are arranged in the cavity and configured to brace the seedling pot or the soil baffle, characterized in that the horizontal position of the bottom hole of the seedling pot or the pervious hole of the soil baffle in the cavity is lower than the drain hole, and the top part of the cavity leans out with a dip angle a, so that the barycenter P of the seedling pot in the cavity is within the range of the bottom diameter of the seedling pot.
Method for assembling an offshore wind turbine, wherein the wind turbine comprises a tower foundation with at least one hollow ballast chamber (24, 25), wherein the method comprises the following steps: - assembling the tower foundation on a dry dock-like construction site, wherein the construction site is located below the sea level and separated from the sea by a barrier, - launching the tower foundation to the sea by, at least partially, removing or opening the barrier and/or filling water into the construction site leading to a flooding of the construction site, installing a tower of the wind turbine on the tower foundation while the tower foundation is located in the dry dock-like construction site or at the target position, - towing the swimming tower foundation to a target position on the sea by a vessel, characterized by steps of - loading the at least one ballast chamber (24, 25) of the tower foundation with ballast material causing the tower foundation to sink down until it permanently rests on the sea ground, wherein seabed material is used as the ballast material - assembling the tower foundation on a dry dock-like construction site, wherein the construction site is located below the sea level and separated from the sea by a barrier, - launching the tower foundation to the sea by, at least partially, removing or opening the barrier and/or filling water into the construction site leading to a flooding of the construction site, installing a tower of the wind turbine on the tower foundation while the tower foundation is located in the dry dock-like construction site or at the target position, - towing the swimming tower foundation to a target position on the sea by a vessel, characterized by steps of - loading the at least one ballast chamber (24, 25) of the tower foundation with ballast material causing the tower foundation to sink down until it permanently rests on the sea ground, wherein seabed material is used as the ballast material
A system, comprising: a first power distribution node for a first power distribution region, wherein the first power distribution node comprises a first guided surface waveguide probe, wherein the first guided surface waveguide probe is configured to launch a first guided surface wave along a surface of a terrestrial medium within the first power distribution region; and a second power distribution node for a second power distribution region, wherein the second power distribution node comprises a guided surface wave receive structure configured to obtain electrical energy from the first guided surface wave, wherein the second power distribution node further comprises a second guided surface waveguide probe configured to use the electrical energy obtained from the first guided surface wave to launch a second guided surface wave along the surface of the terrestrial medium within the second power distribution region. a first power distribution node for a first power distribution region, wherein the first power distribution node comprises a first guided surface waveguide probe, wherein the first guided surface waveguide probe is configured to launch a first guided surface wave along a surface of a terrestrial medium within the first power distribution region; and a second power distribution node for a second power distribution region, wherein the second power distribution node comprises a guided surface wave receive structure configured to obtain electrical energy from the first guided surface wave, wherein the second power distribution node further comprises a second guided surface waveguide probe configured to use the electrical energy obtained from the first guided surface wave to launch a second guided surface wave along the surface of the terrestrial medium within the second power distribution region.
Wiper blade for a wiping system, in particular for wiping a camera of a motor vehicle, comprising a connection device suitable for releasable connection to a drive shaft of the wiper blade, said connection device comprising a first orientation which allows mounting/dismounting relative to a drive shaft, and a second orientation which does not allow such mounting/dismounting, characterized in that the connection device comprises an opening at one end of the wiper blade, comprising at least two enlarged portions for mounting and dismounting of the latter.
A method for recovering energy from a heat energy carrier to a heat energy absorbing medium, the heat energy absorbing medium being cooled in a heat pump by transferring the heat energy into the heat pump by evaporation of a refrigerant and then heating the heat energy absorbing medium in a heat exchanger by means of the heat energy carrier to be cooled, characterised in that only a partial stream of the heat energy absorbing medium, after it has been heated in the heat exchanger, is fed to a condenser which absorbs the heat energy in the steam of the refrigerant of the heat pump so that the heat energy absorbing medium is heated, while the other partial stream of the heat energy absorbing medium is conducted past the condenser with a bypass.
A wireless communication method by a user equipment, UE, comprising: being configured with one or more additional paging monitoring occasions from a base station; and if the UE receives a downlink control information, DCI, of a radio network temporary identifier, RNTI, addressed downlink channel in a downlink channel paging monitoring occasion from the base station, being indicated, by a short message comprised in the DCI of the RNTI addressed downlink channel, whether the UE needs to stop monitoring the one or more additional paging monitoring occasions, wherein one bit of the short message is used to indicate whether the UE needs to stop monitoring the one or more additional paging monitoring occasions. being configured with one or more additional paging monitoring occasions from a base station; and if the UE receives a downlink control information, DCI, of a radio network temporary identifier, RNTI, addressed downlink channel in a downlink channel paging monitoring occasion from the base station, being indicated, by a short message comprised in the DCI of the RNTI addressed downlink channel, whether the UE needs to stop monitoring the one or more additional paging monitoring occasions, wherein one bit of the short message is used to indicate whether the UE needs to stop monitoring the one or more additional paging monitoring occasions.
A permeable catalytic device for converting urea to ammonia in the exhaust after-treatment system of an internal combustion engine characterized in that the permeable catalytic device comprises a separate first portion and a separate second portion, and the first portion comprises a pyrolysis catalyst and the second portion comprises a hydrolysis catalyst, wherein the first portion and the second portion are positioned adjacent to each other to form the catalytic device and the catalytic device is parallelogram-shaped in cross-section or trapezoid-shaped in cross-section.
A busbar designed to provide an electrical connection between a high-power converter and a disconnector, said busbar being configured to enable a cooling fluid to pass through the inside of it, said busbar being characterized in that the busbar has a U-shape defining, at least in part, at least one hollow portion, in that it comprises two bars (3, 4) designed to come into contact with the high-power converter, and connected to a common web designed to come into contact with the disconnector.
An industrial roll, comprising: a substantially cylindrical metallic core; a base layer that is adhered to and circumferentially overlies the core; and a top stock layer that circumferentially overlies the base layer, the top stock layer comprising a material having a Pusey and Jones (P&J) hardness of 35 or higher; characterized in that: the top stock layer includes circumferential grooves, and wherein the grooves have a width/height ratio of at least 0.7. a substantially cylindrical metallic core; a base layer that is adhered to and circumferentially overlies the core; and a top stock layer that circumferentially overlies the base layer, the top stock layer comprising a material having a Pusey and Jones (P&J) hardness of 35 or higher; the top stock layer includes circumferential grooves, and wherein the grooves have a width/height ratio of at least 0.7.
Floating caliper for a disc brake, comprising: - a first half-caliper comprising a first pad provided with a first friction material, and a reaction piston suitable to support the first pad against the disc; - a second half-caliper, joined to the first half-caliper, comprising a second pad provided with a second friction material, a pressure chamber, suitable to be placed in communication with a hydraulic circuit, and an action piston sliding in said pressure chamber and suitable to push the second pad against the disc; - locking means suitable to lock the action piston in a predefined parking position; wherein said reaction piston is elastically yielding when the braking action acting on it exceeds a predetermined parking action threshold which corresponds to said parking position in which the locking means block the action piston. - a first half-caliper comprising a first pad provided with a first friction material, and a reaction piston suitable to support the first pad against the disc; - a second half-caliper, joined to the first half-caliper, comprising a second pad provided with a second friction material, a pressure chamber, suitable to be placed in communication with a hydraulic circuit, and an action piston sliding in said pressure chamber and suitable to push the second pad against the disc; - locking means suitable to lock the action piston in a predefined parking position;
A compounding system comprising a conveying system and a compounding unit, the conveying system comprising a conveying channel, a reinforcement feed duct connected to the conveying channel at a reinforcement feed opening and configured to feed a reinforcement material to the conveying channel, a secondary duct connected to the reinforcement feed duct upstream of the reinforcement feed opening, and a blower configured to provide a blow in the reinforcement feed duct to push the reinforcement material towards the conveying channel, the blower being arranged to provide the blow in the secondary duct, the conveying system being configured to convey the reinforcement material for compounding with a matrix material in the compounding unit, wherein the conveying channel comprises at least one conveying element in order to facilitate conveying of the reinforcement material.
A zeolite coating assembly for the preparation of durable and versatile coatings, comprising at least one feeding tank providing synthesis solution to be used for coating a substrate surface through induction heating via an induction coil connected to an induction device; said zeolite coating assembly further comprises a pump which enables circulation of the synthesis solution via a pipeline; said zeolite coating assembly further comprises a heat exchanger for changing the temperature of the circulating synthesis solution leaving the reactor as heated; characterized in that said coating assembly comprises a reactor, made of a material with low electrical conductivity, housed inside said cylindrical induction coil;said coating assembly further comprises a cylindrical metal substrate, made of an electrically conductive material, placed inside the reactor;said cylindrical metal substrate further comprises wire meshes, porous or non-porous metals. said zeolite coating assembly further comprises a pump which enables circulation of the synthesis solution via a pipeline; said zeolite coating assembly further comprises a heat exchanger for changing the temperature of the circulating synthesis solution leaving the reactor as heated;
Process for preparing alkyl methacrylates and methacrylic acid, having the following operating steps: a) synthesis of methacrolein in a reactor I, b) oxidative esterification of methacrolein with an alcohol and oxygen to give an alkyl methacrylate in a reactor II and e) reaction of at least a portion of the alkyl methacrylate with water to give methacrylic acid in a reactor III. a) synthesis of methacrolein in a reactor I, b) oxidative esterification of methacrolein with an alcohol and oxygen to give an alkyl methacrylate in a reactor II and e) reaction of at least a portion of the alkyl methacrylate with water to give methacrylic acid in a reactor III.
A method for wireless communication, performed by a user equipment, UE, and comprising: receiving a first signal identifying a beam switch occasion for the UE; receiving a second signal identifying the beam switch occasion for the UE based at least in part on receiving the first signal; transmitting a third signal acknowledging the beam switch occasion during an acknowledgment opportunity based at least in part on the second signal; and performing a beam switch during the beam switch occasion based at least in part on transmitting the third signal. receiving a first signal identifying a beam switch occasion for the UE; receiving a second signal identifying the beam switch occasion for the UE based at least in part on receiving the first signal; transmitting a third signal acknowledging the beam switch occasion during an acknowledgment opportunity based at least in part on the second signal; and performing a beam switch during the beam switch occasion based at least in part on transmitting the third signal.
A method for setting up and maintaining an organic data network having a dynamic topology (51, 52, 61, 60), comprising at least three devices of which at least a first device (1.0, 2, 2', 3, 3', 4, 5, 122-131) is a first node provided with a data processing unit, wherein said first node: - issues a request for content to at least one of said devices in the data network; - receives at least part of said requested content, split up in data packages, from said at least one device based upon said request, and upon transmitting said at least one device becomes at least one transmitting device; - makes at least part of said content that has been received ready for play-back; characterized in that said first node: - receives a request from at least one of said devices in the data network for at least part of said content; - based upon said received request from at least one of said devices in the data network passes on at least part of said content to said at least one device in the data network which thus becomes at least one receiving device, said passing on of at least part of said content independently of said at least one transmitting device, wherein said first node deals with said received request for content itself, grants said received request, and starts sending on at least part of said content, and wherein while said first node plays at least part of said content made ready for play-back, receives at least part of said content from said at least one transmitting device and sends at least part of said content to said at least one receiving device. - issues a request for content to at least one of said devices in the data network; - receives at least part of said requested content, split up in data packages, from said at least one device based upon said request, and upon transmitting said at least one device becomes at least one transmitting device; - makes at least part of said content that has been received ready for play-back; characterized in that said first node: - receives a request from at least one of said devices in the data network for at least part of said content; - based upon said received request from at least one of said devices in the data network passes on at least part of said content to said at least one device in the data network which thus becomes at least one receiving device, said passing on of at least part of said content independently of said at least one transmitting device,
An electric motorcycle chassis comprising: a head tube configured to house a suspension component; a side panel extending rearward from the head tube, the side panel including an outer surface and an inner surface; and a coolant tube extending along the inner surface of the side panel and thermally contacting the inner surface of the side panel, the coolant tube transfering heat from coolant fluid flowing in the coolant tube to the side panel via said thermal contact; the electric motorcycle chassis characterized by further comprising a rear bulkhead including: a motor mount formed in the rear bulkhead and housing an electric motor within the rear bulkhead; a motor controller mount formed in the rear bulkhead and connecting a motor controller housing to the rear bulkhead; and a swingarm mount connecting a swingarm of the electric motorcycle to the rear bulkhead. a head tube configured to house a suspension component; a side panel extending rearward from the head tube, the side panel including an outer surface and an inner surface; and a coolant tube extending along the inner surface of the side panel and thermally contacting the inner surface of the side panel, the coolant tube transfering heat from coolant fluid flowing in the coolant tube to the side panel via said thermal contact; the electric motorcycle chassis characterized by further comprising a rear bulkhead including: a motor mount formed in the rear bulkhead and housing an electric motor within the rear bulkhead; a motor controller mount formed in the rear bulkhead and connecting a motor controller housing to the rear bulkhead; and a swingarm mount connecting a swingarm of the electric motorcycle to the rear bulkhead. a motor mount formed in the rear bulkhead and housing an electric motor within the rear bulkhead; a motor controller mount formed in the rear bulkhead and connecting a motor controller housing to the rear bulkhead; and a swingarm mount connecting a swingarm of the electric motorcycle to the rear bulkhead.