mhurhangee/patent-ind-claim-en huggingface dataset:
Diesel oxidation catalyst comprising a carrier body having a length L extending between a first end face and a second end face, and differently composed material zones A and B arranged on the carrier body, wherein - material zone A comprises platinum and palladium applied to a cerium-titanium mixed oxide, and - material zone B comprises platinum and palladium applied to a carrier oxide B. - material zone A comprises platinum and palladium applied to a cerium-titanium mixed oxide, and - material zone B comprises platinum and palladium applied to a carrier oxide B.
Arrangement for lubricating a gear (503; 603; 703; 803) in a toothed gearing comprising, - a shaft (501; 601; 701; 801) on which the gear (503; 603; 703; 803) is arranged, - an engaging ring (502; 602; 702; 802) which is arranged around said shaft (501; 601; 701; 801) and comprises a surface (526; 626; 726; 826) that is facing and spaced from an end surface (527; 627; 727; 827) of the gear (503; 603; 703; 803) creating a gap (533; 633; 733; 833) for guiding and distributing lubricant to the gear, - at least one first duct (531, 532; 525; 631, 632; 625; 731, 732; 725; 831, 832; 825) for supplying lubricant under pressure, whereby said duct has at least one opening into the gap (533; 633; 733; 833) adjacent said gear (503; 603; 703; 803) to be lubricated, wherein the engaging ring comprises an annular portion (528; 628; 728; 828) with an inner peripheral surface mounted onto an outer peripheral surface of a shoulder (530; 630; 730; 830) on the gear; where the annular portion has an inner diameter less than the pitch circle of the gear; and where axial discontinuities (534; 634; 734; 834) are provided between the shoulder (530; 630; 730; 830) and the annular portion of the engaging ring, which discontinuities form recesses for guiding and distributing lubricant to the roots of the gear (503; 603; 703; 803), characterised in that , the annular portion of the engaging ring (502; 602; 702; 802) is press-fitted onto the shoulder (530; 630; 730; 830) on the gear (503; 603; 703; 803). - a shaft (501; 601; 701; 801) on which the gear (503; 603; 703; 803) is arranged, - an engaging ring (502; 602; 702; 802) which is arranged around said shaft (501; 601; 701; 801) and comprises a surface (526; 626; 726; 826) that is facing and spaced from an end surface (527; 627; 727; 827) of the gear (503; 603; 703; 803) creating a gap (533; 633; 733; 833) for guiding and distributing lubricant to the gear, - at least one first duct (531, 532; 525; 631, 632; 625; 731, 732; 725; 831, 832; 825) for supplying lubricant under pressure, whereby said duct has at least one opening into the gap (533; 633; 733; 833) adjacent said gear (503; 603; 703; 803) to be lubricated, the engaging ring comprises an annular portion (528; 628; 728; 828) with an inner peripheral surface mounted onto an outer peripheral surface of a shoulder (530; 630; 730; 830) on the gear; where the annular portion has an inner diameter less than the pitch circle of the gear; and where axial discontinuities (534; 634; 734; 834) are provided between the shoulder (530; 630; 730; 830) and the annular portion of the engaging ring, which discontinuities form recesses for guiding and distributing lubricant to the roots of the gear (503; 603; 703; 803), characterised in that , the annular portion of the engaging ring (502; 602; 702; 802) is press-fitted onto the shoulder (530; 630; 730; 830) on the gear (503; 603; 703; 803).
A gas turbine engine for an aircraft, the gas turbine engine comprising: a fan located adjacent an air intake of the engine , the fan comprising a plurality of fan blades ; downstream of the fan , an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor ; an engine core housing at least partly encasing the engine core ; a fan case surrounding the fan and defining at least a part of a bypass duct radially outside the engine core ; a plurality of outlet guide vanes extending between the engine core housing and an outlet guide vane support region of the fan case , adjacent an upstream end of the bypass duct ; one or more supports extending from the fan case to the engine core housing ; characterised in that : a first end of the one or more supports is fixed to the fan case at the outlet guide vane support region; and a second end of the one or more supports is fixed to the engine core housing adjacent an exhaust of the engine core . a fan located adjacent an air intake of the engine , the fan comprising a plurality of fan blades ; downstream of the fan , an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor ; an engine core housing at least partly encasing the engine core ; a fan case surrounding the fan and defining at least a part of a bypass duct radially outside the engine core ; a plurality of outlet guide vanes extending between the engine core housing and an outlet guide vane support region of the fan case , adjacent an upstream end of the bypass duct ; one or more supports extending from the fan case to the engine core housing ; characterised in that : a first end of the one or more supports is fixed to the fan case at the outlet guide vane support region; and a second end of the one or more supports is fixed to the engine core housing adjacent an exhaust of the engine core . a first end of the one or more supports is fixed to the fan case at the outlet guide vane support region; and a second end of the one or more supports is fixed to the engine core housing adjacent an exhaust of the engine core .
A computer-implemented method for dispensing beverages from a beverage dispensing machine , the method comprising: determining, from computer-readable media, pour parameters for a beverage of a plurality of beverages, the pour parameters being specific to the beverage, at least one pour parameter comprising a tilt value of a vessel , and automatically, by the beverage dispensing machine: rotating a drum that holds said vessel (118; 400) to achieve the tilt value, initiating dispensing of the beverage into the vessel from a tap that is fixed for rotation with the drum and the vessel, automatically rotating the drum to reduce the tilt value of the vessel during dispensing of the beverage, and ceasing dispensing of the beverage into the vessel from the tap, the tilt value being substantially zero upon ceasing dispensing of the beverage into the vessel from the tap. determining, from computer-readable media, pour parameters for a beverage of a plurality of beverages, the pour parameters being specific to the beverage, at least one pour parameter comprising a tilt value of a vessel , and automatically, by the beverage dispensing machine: rotating a drum that holds said vessel (118; 400) to achieve the tilt value, initiating dispensing of the beverage into the vessel from a tap that is fixed for rotation with the drum and the vessel, automatically rotating the drum to reduce the tilt value of the vessel during dispensing of the beverage, and ceasing dispensing of the beverage into the vessel from the tap, the tilt value being substantially zero upon ceasing dispensing of the beverage into the vessel from the tap. rotating a drum that holds said vessel (118; 400) to achieve the tilt value, initiating dispensing of the beverage into the vessel from a tap that is fixed for rotation with the drum and the vessel, automatically rotating the drum to reduce the tilt value of the vessel during dispensing of the beverage, and ceasing dispensing of the beverage into the vessel from the tap, the tilt value being substantially zero upon ceasing dispensing of the beverage into the vessel from the tap.
A direct-write lithography method, comprising: varying a polarization of light from a light source among a plurality of polarizations; focusing the light from the light source into a spot at a focal plane; and scanning the spot in at least two dimensions along a surface of a polarization-sensitive recording medium arranged proximate to the focal plane such that neighboring scans of the spot spatially overlap, wherein the varying the polarization is independent of the scanning the spot, and wherein the scanning creates optical axis orientation profiles in the recording medium that vary along the surface thereof based on a time-average of ones of the plurality of polarizations. varying a polarization of light from a light source among a plurality of polarizations; focusing the light from the light source into a spot at a focal plane; and scanning the spot in at least two dimensions along a surface of a polarization-sensitive recording medium arranged proximate to the focal plane such that neighboring scans of the spot spatially overlap, wherein the varying the polarization is independent of the scanning the spot, and wherein the scanning creates optical axis orientation profiles in the recording medium that vary along the surface thereof based on a time-average of ones of the plurality of polarizations.
A method comprising: receiving an image captured by a camera of a work machine moving within an environment; identifying an object in the image; determining an angle between the camera and the object; accessing, from a distribution of heights for an object type associated with the identified object, a height associated with the identified object and an uncertainty associated with the height; determining a range of potential distances between the work machine and the object based on the height associated with the object, the uncertainty associated with the height, and the angle between the camera and the object; comparing a shortest distance in the range of potential distances to a threshold distance; and responsive to the shortest distance in the range of potential distances being less than the threshold distance, causing the work machine to perform a safety action. receiving an image captured by a camera of a work machine moving within an environment; identifying an object in the image; determining an angle between the camera and the object; accessing, from a distribution of heights for an object type associated with the identified object, a height associated with the identified object and an uncertainty associated with the height; determining a range of potential distances between the work machine and the object based on the height associated with the object, the uncertainty associated with the height, and the angle between the camera and the object; comparing a shortest distance in the range of potential distances to a threshold distance; and responsive to the shortest distance in the range of potential distances being less than the threshold distance, causing the work machine to perform a safety action.
A method for manufacturing a bonded structure in which a metal member and a resin member are bonded, the method comprising: a process of forming a perforation having an opening in a bonding region (R) of the metal member ; a process of bringing a protrusion of the resin member in pressurized contact with the bonding region (R) of the metal member in a state where the protrusion is formed on a surface of the resin member , and a portion of the resin member except for the protrusion is separated from a surface of the metal member ; and a process of melting the resin member in contact with the bonding region (R) of the metal member and solidifying the resin member after the perforation is filled with the melted resin member , the method being characterized in that in the bonded structure , a concave section is formed on the surface of the metal member , a depth of the concave section is smaller than a height of the protrusion , a width of the concave section is larger than a width of the protrusion , and the bonding region (R) is formed in the concave section . a process of forming a perforation having an opening in a bonding region (R) of the metal member ; a process of bringing a protrusion of the resin member in pressurized contact with the bonding region (R) of the metal member in a state where the protrusion is formed on a surface of the resin member , and a portion of the resin member except for the protrusion is separated from a surface of the metal member ; and a process of melting the resin member in contact with the bonding region (R) of the metal member and solidifying the resin member after the perforation is filled with the melted resin member , the method being characterized in that in the bonded structure , a concave section is formed on the surface of the metal member , a depth of the concave section is smaller than a height of the protrusion , a width of the concave section is larger than a width of the protrusion , and the bonding region (R) is formed in the concave section .
A semiconductor device structure , comprising: a semiconductor substrate ; a first well region over the semiconductor substrate and having a first type of conductivity; a second well region over the semiconductor substrate and having a second type of conductivity that is different from the first type of conductivity; a first gate structure of an LDMOS transistor disposed partially over the first and second well regions ; a drain region of the transistor in the first well region and having the first type of conductivity; a source region of the transistor in the second well region and having the first type of conductivity; a bulk region of the transistor in the second well region ; and a second gate structure of the transistor disposed on the second well region , wherein the second gate structure is separated from the first gate structure by the source region and the bulk region ; and characterized in that the bulk region has the first type of conductivity; and in that the semiconductor device structure further comprises a first shallow trench isolation, STI, region in the second well region , wherein the second gate structure is separated from the bulk region by the first STI region ; and a second STI region in the second well region and between the source region and the bulk region . a semiconductor substrate ; a first well region over the semiconductor substrate and having a first type of conductivity; a second well region over the semiconductor substrate and having a second type of conductivity that is different from the first type of conductivity; a first gate structure of an LDMOS transistor disposed partially over the first and second well regions ; a drain region of the transistor in the first well region and having the first type of conductivity; a source region of the transistor in the second well region and having the first type of conductivity; a bulk region of the transistor in the second well region ; and a second gate structure of the transistor disposed on the second well region , wherein the second gate structure is separated from the first gate structure by the source region and the bulk region ; and characterized in that the bulk region has the first type of conductivity; and in that the semiconductor device structure further comprises a first shallow trench isolation, STI, region in the second well region , wherein the second gate structure is separated from the bulk region by the first STI region ; and a second STI region in the second well region and between the source region and the bulk region .
A product resulting from the reaction of at least: - a hydroxybenzoic acid, optionally substituted by a hydrocarbyl group, - a boron compound, - an amine component selected from • di- amines of formula (IV): R 1 NX-Ra-NZ 1 Z 2 (IV) • tri-amines of formula (V): R 1 NX-Ra-NY-Rb-NZ 1 Z 2 (V) wherein X represents a group selected from: a hydrogen, an alkyl group or an alkenyl group R 2 , Y represents a group selected from: a hydrogen, an alkyl group or an alkenyl group R 4 , Z 1 and Z 2 are independently selected from: a hydrogen, an alkyl group or an alkenyl group R 3 , R 1 , R 2 , R 3 and R 4 are independently selected from alkyl and alkenyl groups comprising from 1 to 40 atoms of carbon, Ra and Rb are independently selected from alkyl and alkenyl groups comprising from 1 to 20 atoms of carbon, when Z 1 and Z 2 both represent an alkyl group or an alkenyl group R 3 , they can be different. - a hydroxybenzoic acid, optionally substituted by a hydrocarbyl group, - a boron compound, - an amine component selected from • di- amines of formula (IV): R 1 NX-Ra-NZ 1 Z 2 (IV) • tri-amines of formula (V): R 1 NX-Ra-NY-Rb-NZ 1 Z 2 (V) • di- amines of formula (IV): R 1 NX-Ra-NZ 1 Z 2 (IV) • tri-amines of formula (V): R 1 NX-Ra-NY-Rb-NZ 1 Z 2 (V) X represents a group selected from: a hydrogen, an alkyl group or an alkenyl group R 2 , Y represents a group selected from: a hydrogen, an alkyl group or an alkenyl group R 4 , Z 1 and Z 2 are independently selected from: a hydrogen, an alkyl group or an alkenyl group R 3 , R 1 , R 2 , R 3 and R 4 are independently selected from alkyl and alkenyl groups comprising from 1 to 40 atoms of carbon, Ra and Rb are independently selected from alkyl and alkenyl groups comprising from 1 to 20 atoms of carbon,
A terminal apparatus for performing communication using any of communication methods classified as vehicle to X (V2X) communication, the terminal apparatus comprising: an acquisition unit that acquires allocation information regarding allocation of a first resource pool and setting information regarding priority use of the first resource pool; and a transmission processing unit that performs a process of packet transmission using the first resource pool based on the allocation information and the setting information regarding priority use characterized in that the first resource pool is available to a plurality of terminal apparatuses using the different communication methods classified as V2X communication and the transmission processing unit is further configured to perform the process of packet transmission using the first resource pool based on the communication method of the terminal apparatus itself. an acquisition unit that acquires allocation information regarding allocation of a first resource pool and setting information regarding priority use of the first resource pool; and a transmission processing unit that performs a process of packet transmission using the first resource pool based on the allocation information and the setting information regarding priority use characterized in that the first resource pool is available to a plurality of terminal apparatuses using the different communication methods classified as V2X communication and the transmission processing unit is further configured to perform the process of packet transmission using the first resource pool based on the communication method of the terminal apparatus itself.
A composition comprising the following: (A) an ethylene-based interpolymer having the following: (i) a density from 0.860 g/cc to 0.900 g/cc; and (ii) a melt viscosity, at 177°C, less than, or equal to, 50,000 mPa•s; and (B) a rosin ester comprising the following: (i) greater than, or equal to, 75 mol% aliphatic carbon, based on total moles of carbon in the rosin ester; and (ii) less than, or equal to, 3.0 mol% ester group carbon, based on total moles of carbon in the rosin ester; wherein the combined amount of the (A) ethylene-based interpolymer and the (B) rosin ester equals at least 60 wt% of the composition; and wherein the weight ratio of the (A) ethylene-based interpolymer and the (B) rosin ester is from 0.3:1.0 to 3.0:1.0. (A) an ethylene-based interpolymer having the following: (i) a density from 0.860 g/cc to 0.900 g/cc; and (ii) a melt viscosity, at 177°C, less than, or equal to, 50,000 mPa•s; and (i) a density from 0.860 g/cc to 0.900 g/cc; and (ii) a melt viscosity, at 177°C, less than, or equal to, 50,000 mPa•s; and (B) a rosin ester comprising the following: (i) greater than, or equal to, 75 mol% aliphatic carbon, based on total moles of carbon in the rosin ester; and (ii) less than, or equal to, 3.0 mol% ester group carbon, based on total moles of carbon in the rosin ester; (i) greater than, or equal to, 75 mol% aliphatic carbon, based on total moles of carbon in the rosin ester; and (ii) less than, or equal to, 3.0 mol% ester group carbon, based on total moles of carbon in the rosin ester;
Dual-face protective device against blasts, fragments, bullets, ricochets and vehicles, for places open to the public, comprising a sandwich panel comprising two outer layers produced from material with low hardness, at least two inner layers produced from material with high hardness, each in contact with one of said outer layers, and at least one inner layer produced from material with low hardness and in contact with inner layers produced from material with high hardness, and two barricades each disposed aslant with respect to the sandwich panel and attached to the sandwich panel , provided with an edge in contact with the substrate or a ground, and forming blast diverters.
Chimney extension adapted to be installed on a chimney body, in particular to the outlet of a diameter-standardized flue lining , comprising: a cover lid , a bottom part with an internal groove for a round seal, an upper part with side perimeter carve-outs under the cover lid , a dispersion cone for lateral dispersion of the outlet flue gas to the ambient environment through side perimeter carve-outs under the cover lid , and a reduced part connected to the bottom part and with a transition to the upper part , characterized by similar cut-outs arranged along the perimeter of the upper part of the dispersion cone and opposite to the side perimeter carve-outs . a cover lid , a bottom part with an internal groove for a round seal, an upper part with side perimeter carve-outs under the cover lid , a dispersion cone for lateral dispersion of the outlet flue gas to the ambient environment through side perimeter carve-outs under the cover lid , and a reduced part connected to the bottom part and with a transition to the upper part , characterized by similar cut-outs arranged along the perimeter of the upper part of the dispersion cone and opposite to the side perimeter carve-outs .
A heat control device for power equipment, comprising a heat source , a heat sink substrate , a thermal insulation layer , a dissipation heat sink and a thermal control switch, wherein the heat source is placed on and in contact with the dissipation heat sink , and the bottom surface of the heat source is in direct joint contact with the heat sink substrate , wherein the thermal insulation layer is arranged around the heat sink substrate , the thermal control switch is arranged on the heat sink substrate , wherein the thermal control switch comprises a high heat transfer performance element having different thermal conductivities at high and low temperatures, wherein one end of the high heat transfer performance element is in contact with the heat sink substrate , the other end of the high heat transfer performance element is embedded in the dissipation heat sink , and the thermal insulation layer is under the high heat transfer performance element , wherein the thermal insulation layer consists of clearances around the heat source and thermal insulation material filled within the clearances, wherein the high heat transfer performance element is surrounded by the thermal insulation layer .
A crystalline Form A of compound of formula (I), wherein the X-ray powder diffraction pattern shows characteristic peaks at 2theta values of 8.8°±0.2°, 21.3°±0.2°, 22.2°±0.2°.
Process to prepare alkylaluminoxanes by reaction of alkylaluminium with methacrylic acid or a conjugated unsaturated carbonyl-functional compound of the formula (I) wherein each R1 and R2 independently are an aliphatic hydrocarbon group, and R3 independently is a hydrocarbon group like R1 and R2 or a hydrogen atom, and R4 is an aliphatic hydrocarbon group, a hydrogen atom or a hydroxyl group in a ratio of 0.1 to 0.8 molar equivalent oxygen atoms in the part -C=O(R4) of the methacrylic acid or conjugated unsaturated carbonyl-functional compound to 1 equivalent of aluminium atoms in the alkylaluminium reactant, and in the presence of an inert organic solvent