mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a base oil, for use as the base oil in the formulation of 0W-X or 5W-X multi-grade engine oils, meeting, when formulated: - a NOACK volatility of 15% or less, - according to Society of Automotive Engineers Surface Vehicle Standard J300, o a 0W-X specification of cold cranking simulator viscosity at -35°C of 6200 cP or less and of mini rotary viscometer test at -40°C of 60,000 cP or less, or o a 5W-X specification of CCS viscosity at -30°C of 6600 cP or less and of MRV at -35°C of 60,000 cP or less, and - a yield stress of less than 35 pascals said method comprising mixing at least two base oils wherein: - one base oil is solvent dewaxed using a single solvent dewaxing process technique and the second base oil is catalytically dewaxed using a single catalytic dewaxing process technique, - each base oil individually making up the mixture has a kinematic viscosity at 100°C in the range of 3.5 to 7.0 mm 2 /s, the mixture itself, without additives, having a kinematic viscosity at 100°C in the range of 4 to 6 mm 2 /s and - the pour point of each base oil in the mixture, without additive, is -30°C or higher, provided that as compared to the temperature at which the MRV is measured for each engine oil grade the difference between the pour point of the oil mixture and the temperature of measurement of the MRV of the formulated oil is at least 10°C, and - the amount of catalytically dewaxed oil combined with the solvent dewaxed oil ranges from 5 to 35 wt%. - a NOACK volatility of 15% or less, - according to Society of Automotive Engineers Surface Vehicle Standard J300, o a 0W-X specification of cold cranking simulator viscosity at -35°C of 6200 cP or less and of mini rotary viscometer test at -40°C of 60,000 cP or less, or o a 5W-X specification of CCS viscosity at -30°C of 6600 cP or less and of MRV at -35°C of 60,000 cP or less, and o a 0W-X specification of cold cranking simulator viscosity at -35°C of 6200 cP or less and of mini rotary viscometer test at -40°C of 60,000 cP or less, or o a 5W-X specification of CCS viscosity at -30°C of 6600 cP or less and of MRV at -35°C of 60,000 cP or less, and - a yield stress of less than 35 pascals - one base oil is solvent dewaxed using a single solvent dewaxing process technique and the second base oil is catalytically dewaxed using a single catalytic dewaxing process technique, - each base oil individually making up the mixture has a kinematic viscosity at 100°C in the range of 3.5 to 7.0 mm 2 /s, the mixture itself, without additives, having a kinematic viscosity at 100°C in the range of 4 to 6 mm 2 /s and - the pour point of each base oil in the mixture, without additive, is -30°C or higher, provided that as compared to the temperature at which the MRV is measured for each engine oil grade the difference between the pour point of the oil mixture and the temperature of measurement of the MRV of the formulated oil is at least 10°C, and - the amount of catalytically dewaxed oil combined with the solvent dewaxed oil ranges from 5 to 35 wt%.
Garden hose, which is formed in multiple layers with an inner casing layer, which is surrounded by a fabric, wherein the fabric is embedded in an intermediate layer or is itself formed as such an intermediate layer, and in which a second casing layer is applied over the fabric, in which a relief structure is formed in the outwardly facing outer surface, wherein the relief structure covers less than 30%, in particular less than 20%, of the outer surface of the casing layer, and wherein the relief structure is formed in the surface of the casing layer facing radially outwards with respect to the longitudinal axis of the hose, which has, in a direction parallel to the longitudinal direction, at least one radial recess or elevation relative to an averaged radius of the outer side of the casing layer, characterized in that the relief structure consists of a material embedded in the outer side of the outer surface.
A method for constructing a concrete wall extending from a first to a second existing wall (2, 3) using a first formwork (5 1) for the front side (1 V) of the concrete wall and a second formwork (5 2) for the rear side (1 R) of the concrete wall, comprising the following steps in any order unless otherwise specified: mounting a first and a second angle profile (4 1, 4 2) on the first existing wall, wherein the first angle profile (4 1) has a length (PL 1) corresponding to a height of the first formwork (5 1), and the second angle profile (4 2) has a length (PL 2) corresponding to a height of the second formwork (5 2); mounting a third and a fourth angle profile (4 3, 4 4) on the second existing wall, wherein the third angle profile (4 3) has a length (PL 3) corresponding to the height of the first formwork (5 1), and the fourth angle profile (4 4) has a length (PL 4) corresponding to the height of the second formwork (5 2); after mounting the first and the third angle profile (4 1, 4 3), attaching the first formwork (5 1) to the first and the third angle profile (4 1, 4 3); after mounting the second and the fourth angle profile (4 2, 4 4), attaching the second formwork (5 2) to the second and the fourth angle profile (4 2, 4 4); after attaching the formworks (5 j), filling the space formed by the formworks (5 j), the angle profiles (4 i), and the existing walls (2, 3) with liquid concrete and letting it cure to form the concrete wall. mounting a first and a second angle profile (4 1, 4 2) on the first existing wall, wherein the first angle profile (4 1) has a length (PL 1) corresponding to a height of the first formwork (5 1), and the second angle profile (4 2) has a length (PL 2) corresponding to a height of the second formwork (5 2); mounting a third and a fourth angle profile (4 3, 4 4) on the second existing wall, wherein the third angle profile (4 3) has a length (PL 3) corresponding to the height of the first formwork (5 1), and the fourth angle profile (4 4) has a length (PL 4) corresponding to the height of the second formwork (5 2); after mounting the first and the third angle profile (4 1, 4 3), attaching the first formwork (5 1) to the first and the third angle profile (4 1, 4 3); after mounting the second and the fourth angle profile (4 2, 4 4), attaching the second formwork (5 2) to the second and the fourth angle profile (4 2, 4 4); after attaching the formworks (5 j), filling the space formed by the formworks (5 j), the angle profiles (4 i), and the existing walls (2, 3) with liquid concrete and letting it cure to form the concrete wall.
A work vehicle comprising: an engine; a variable displacement hydraulic pump having a variable discharge direction, and driven by the engine; a hydraulic motor configured to change a driving direction to a forward direction or a reverse direction depending on the discharge direction of the hydraulic oil from the variable displacement hydraulic pump; an exhaust treatment device (51, 52) configured to treat the exhaust from the engine; and characterized by a controller configured to increase the speed of the engine to a predetermined first speed or greater and to change the discharge direction of the variable displacement hydraulic pump to a neutral state during regeneration of the exhaust treatment device (51, 52). an engine; a variable displacement hydraulic pump having a variable discharge direction, and driven by the engine; a hydraulic motor configured to change a driving direction to a forward direction or a reverse direction depending on the discharge direction of the hydraulic oil from the variable displacement hydraulic pump; an exhaust treatment device (51, 52) configured to treat the exhaust from the engine; and characterized by a controller configured to increase the speed of the engine to a predetermined first speed or greater and to change the discharge direction of the variable displacement hydraulic pump to a neutral state during regeneration of the exhaust treatment device (51, 52).
An X-ray reflectometer comprising: a focused X-ray beam formation unit having an X-ray source configured to emit X-rays, a focusing device configured to focus the X-rays from the X-ray source, and a slit configured to limit a focusing angle width of the X-rays focused by the focusing device, to form a focused X-ray beam; a sample height setting unit having a sample table allowing a sample to be placed thereon, and configured to move the sample table in a height direction to set a height of a sample surface thereof; a position sensitive detector having a plurality of detection elements arranged in the height direction and configured to, for a reflected X-ray beam obtained by the focused X-ray beam being reflected by the sample, detect each intensity of reflected X-rays constituting the reflected X-ray beam and having each individual reflection angle, by corresponding each detection element; characterized in an irradiation angle variable unit configured to vary an irradiation angle (θ) of the focused X-ray beam with the sample surface; a reflection intensity calculation unit configured to, per reflection angle of the reflected X-rays constituting the reflected X-ray beam, integrate the detected intensity by the corresponding detection element, for only the detection elements positioned within a divergence angle width in height direction of the reflected X-ray beam in the position sensitive detector, in synchronization of variation in the irradiation angle (θ) of the focused X-ray beam by the irradiation angle variable unit. a focused X-ray beam formation unit having an X-ray source configured to emit X-rays, a focusing device configured to focus the X-rays from the X-ray source, and a slit configured to limit a focusing angle width of the X-rays focused by the focusing device, to form a focused X-ray beam; a sample height setting unit having a sample table allowing a sample to be placed thereon, and configured to move the sample table in a height direction to set a height of a sample surface thereof; a position sensitive detector having a plurality of detection elements arranged in the height direction and configured to, for a reflected X-ray beam obtained by the focused X-ray beam being reflected by the sample, detect each intensity of reflected X-rays constituting the reflected X-ray beam and having each individual reflection angle, by corresponding each detection element; characterized in an irradiation angle variable unit configured to vary an irradiation angle (θ) of the focused X-ray beam with the sample surface; a reflection intensity calculation unit configured to, per reflection angle of the reflected X-rays constituting the reflected X-ray beam, integrate the detected intensity by the corresponding detection element, for only the detection elements positioned within a divergence angle width in height direction of the reflected X-ray beam in the position sensitive detector, in synchronization of variation in the irradiation angle (θ) of the focused X-ray beam by the irradiation angle variable unit.
A light board structure, comprising: a board body, a wireless transceiver module and a light-emitting member, wherein the wireless transceiver module and the light-emitting member are installed on the board body, and the wireless transceiver module has a feeder wire and a ground wire; wherein the board body is provided with a collision avoidance area running through the board body and being disposed to avoid collision with the wireless transceiver module and the light-emitting member, the feeder wire and the ground wire are positioned on a side of the collision avoidance area, and the collision avoidance area is configured to emit a radio wave; characterised in that a lower surface of the board body is covered with a first aluminum coating layer, the board body is provided with a first port, the first port is positioned at an end of the collision avoidance area and runs through the board body, and the feeder wire passes through the first port to be connected to the first aluminum coating layer. a board body, a wireless transceiver module and a light-emitting member, wherein the wireless transceiver module and the light-emitting member are installed on the board body, and the wireless transceiver module has a feeder wire and a ground wire; wherein the board body is provided with a collision avoidance area running through the board body and being disposed to avoid collision with the wireless transceiver module and the light-emitting member, the feeder wire and the ground wire are positioned on a side of the collision avoidance area, and the collision avoidance area is configured to emit a radio wave; characterised in that a lower surface of the board body is covered with a first aluminum coating layer, the board body is provided with a first port, the first port is positioned at an end of the collision avoidance area and runs through the board body, and the feeder wire passes through the first port to be connected to the first aluminum coating layer.
Electric motor used as a drive motor in a working implement, in particular in a hand-guided working implement such as an electric motor-driven chainsaw, an electric hedge clipper, an electric string mower, an electric blower, an electric angle grinder or the like, with an assembly of windings (3, 4, 5) provided for driving the rotor, which windings (3, 4, 5) are connected to an energy source in such a way that a torque driving the rotor takes effect, wherein the respective circuit of a winding (3, 4, 5) has a potential point, characterised in that the voltage (U L, U G) of the potential point is fed to an input of an evaluation unit via a matching device (30, 40, 50), wherein the matching device (30, 40, 50) can be operated in two switchable matching stages, and with a control circuit operating as a function of the rotary position of the rotor for the matching device (30, 40, 50), wherein the control circuit switches the matching device (30, 40, 50) into the first matching stage of high sensitivity or the second matching stage of low sensitivity as a function of the rotary position of the rotor of the electric motor.
A method, comprising: predicting a link quality of at least one of uplink and downlink of a user equipment; determining a primary cell for the user equipment based on the predicted link quality, which determining comprises determining whether the user equipment should be served by a time-division-duplex carrier or by a frequency-division-duplex carrier, where the time-division-duplex carrier or the frequency-division-duplex carrier acts as the primary cell; and determining a carrier aggregation to be used by the user equipment based on the predicted link quality, which determining comprises determining carriers, including the primary cell and one or more secondary cells, that are aggregated to provide downlink traffic to the user equipment such that downlink traffic can be simultaneously scheduled on both the primary cell and the one or more secondary cells. predicting a link quality of at least one of uplink and downlink of a user equipment; determining a primary cell for the user equipment based on the predicted link quality, which determining comprises determining whether the user equipment should be served by a time-division-duplex carrier or by a frequency-division-duplex carrier, where the time-division-duplex carrier or the frequency-division-duplex carrier acts as the primary cell; and determining a carrier aggregation to be used by the user equipment based on the predicted link quality, which determining comprises determining carriers, including the primary cell and one or more secondary cells, that are aggregated to provide downlink traffic to the user equipment such that downlink traffic can be simultaneously scheduled on both the primary cell and the one or more secondary cells.
A composition comprising a slurry comprising calcined kaolin, wherein the calcined kaolin has a particle size distribution wherein at least 40% by weight of the calcined kaolin has a particle size of at least 1 μm, and wherein the slurry has a solids content of at least 58% by weight, relative to the total weight of the slurry, and wherein the calcined kaolin has not been subjected to mechanical grinding.
A compound having the formula: or wherein: M is iridium; ring A is an aromatic heterocyclic ring having an C 1-15 alkyl substituent at the R' 5 position and having at least one nitrogen atom, N, that is coordinated to the metal M, R' 3, R' 4 and R' 6 are each independently H or C 1-15 alkyl; R 3, R 4, R 5 and R 6 is each independently H, halogen, or C 1-15 alkyl; wherein R 7 represents one or more independently selected substitutions located on any position of the ring, wherein each substitution is H, fluoro, or C 1-15 alkyl; (X-Y) is an ancillary ligand; m is 1 to 3 and n is 0 to 2, and m + n is the maximum number of ligands that may be attached to the metal. M is iridium; ring A is an aromatic heterocyclic ring having an C 1-15 alkyl substituent at the R' 5 position and having at least one nitrogen atom, N, that is coordinated to the metal M, R' 3, R' 4 and R' 6 are each independently H or C 1-15 alkyl; R 3, R 4, R 5 and R 6 is each independently H, halogen, or C 1-15 alkyl; wherein R 7 represents one or more independently selected substitutions located on any position of the ring, wherein each substitution is H, fluoro, or C 1-15 alkyl; (X-Y) is an ancillary ligand; m is 1 to 3 and n is 0 to 2, and m + n is the maximum number of ligands that may be attached to the metal.
An organic/inorganic composite porous separator, which co mprises: (a) a substrate which is a porous polyolefin-based separator; and (b) a mixture of inorganic particles being electrochemically stable in a battery and a binder polymer in a weight ratio of 50:50 to 99:1 coated directly on a surface of the substrate and a part of the pores present in the substrate, which forms an organic/inorganic composite porous active layer; wherein the electrochemically stable inorganic particles in the active layer are inter-connected among themselves and are fixed by the binder polymer and permit interstitial volumes to be formed among them, and the interstitial volumes among the electrochemically stable inorganic particles form a pore structure that permits lithium ions to move therethrough; wherein, as the size of the electrochemically stable inorganic particles increases, interstitial distance among the inorganic particles increases, thereby increasing the pore size; wherein the organic/inorganic composite porous active layer does not affect pore structure present in the porous polyolefin-based separator; wherein the organic/inorganic composite porous separator has a thickness between 1 and 100 μm. (a) a substrate which is a porous polyolefin-based separator; and (b) a mixture of inorganic particles being electrochemically stable in a battery and a binder polymer in a weight ratio of 50:50 to 99:1 coated directly on a surface of the substrate and a part of the pores present in the substrate, which forms an organic/inorganic composite porous active layer; wherein the electrochemically stable inorganic particles in the active layer are inter-connected among themselves and are fixed by the binder polymer and permit interstitial volumes to be formed among them, and the interstitial volumes among the electrochemically stable inorganic particles form a pore structure that permits lithium ions to move therethrough; wherein, as the size of the electrochemically stable inorganic particles increases, interstitial distance among the inorganic particles increases, thereby increasing the pore size; wherein the organic/inorganic composite porous active layer does not affect pore structure present in the porous polyolefin-based separator; wherein the organic/inorganic composite porous separator has a thickness between 1 and 100 μm.
A device, for use in multicarrier communication, comprising, a receiver, which is configured to receive assignment information indicating resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, allocated to the device according to a resource allocation allocating Distributed Virtual Resource Blocks, DVRBs, where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks, PRBs, with a variable gap in the frequency domain according to a mapping pattern of DVRBs to PRBs, and the variable gap is an integer multiple of a Resource Block Group, RBG, size defined as a number of two or more consecutive resource blocks forming one RBG in a given system bandwidth; and circuitry, which is configured to decode data based on the assignment information and the mapping pattern. a receiver, which is configured to receive assignment information indicating resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, allocated to the device according to a resource allocation allocating Distributed Virtual Resource Blocks, DVRBs, where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks, PRBs, with a variable gap in the frequency domain according to a mapping pattern of DVRBs to PRBs, and the variable gap is an integer multiple of a Resource Block Group, RBG, size defined as a number of two or more consecutive resource blocks forming one RBG in a given system bandwidth; and circuitry, which is configured to decode data based on the assignment information and the mapping pattern.
A light redirecting solar control film comprising: a multilayer polymeric film that transmits at least 50% of all visible light wavelengths and reflects at least 50% of all infrared light from 850 nm to 1100 nm; and a light redirecting layer adjacent to the multilayer film forming a light redirecting solar control film, the light redirecting layer comprising a major surface forming a plurality of prism structures, wherein the light redirecting layer is adhesively bonded to or integrally formed with the multilayer film by extrusion or embossing a multilayer polymeric film that transmits at least 50% of all visible light wavelengths and reflects at least 50% of all infrared light from 850 nm to 1100 nm; and a light redirecting layer adjacent to the multilayer film forming a light redirecting solar control film, the light redirecting layer comprising a major surface forming a plurality of prism structures, wherein the light redirecting layer is adhesively bonded to or integrally formed with the multilayer film by extrusion or embossing
A process for preparing -3-(3-fluoro-4-morpholinophenyl)-2-oxo-5-oxazolidinyl methanol which comprises: a) reacting a compound of formula IX with R-epichlorohydrin to produce a compound of formula VIII which is further converted to the chloromethyl oxazolidinone compound of formula VII b) reacting a compound of formula VII with sodium acetate to produce a compound of formula VI c) hydrolyzing the product of step (b) to form the hydroxymethyl oxazolidinone compound of formula V a) reacting a compound of formula IX with R-epichlorohydrin to produce a compound of formula VIII which is further converted to the chloromethyl oxazolidinone compound of formula VII b) reacting a compound of formula VII with sodium acetate to produce a compound of formula VI c) hydrolyzing the product of step (b) to form the hydroxymethyl oxazolidinone compound of formula V