mhurhangee/ep-ind-claims huggingface dataset:
Method of manufacture of an aqueous suspension of talc, including a step of suspending in water of a talc, said talc may result from a prior step of granulation, characterised in that at least one hydrosoluble polymer is implemented, during the step of suspending and/or during optionally the step of granulation, characterised in that it is made of: a) of at least one (meth)acrylic monomer, and b) of at least one monomer of formula: R - m - n - R' where: - m and n designate integers of less than or equal to 115, at least one of which is non-zero, - OE and OP designate respectively ethylene oxide and propylene oxide, - R designates a polymerizable group, chosen from among the acrylate, methacrylate, methacrylurethane, vinyl or allyl groups, - R' designates hydrogen. a) of at least one (meth)acrylic monomer, and b) of at least one monomer of formula: R - m - n - R' where: - m and n designate integers of less than or equal to 115, at least one of which is non-zero, - OE and OP designate respectively ethylene oxide and propylene oxide, - R designates a polymerizable group, chosen from among the acrylate, methacrylate, methacrylurethane, vinyl or allyl groups, - R' designates hydrogen. - m and n designate integers of less than or equal to 115, at least one of which is non-zero, - OE and OP designate respectively ethylene oxide and propylene oxide, - R designates a polymerizable group, chosen from among the acrylate, methacrylate, methacrylurethane, vinyl or allyl groups, - R' designates hydrogen.
A surfactant composition including component A, component B, and component C described below, wherein a total content of the component A and the component B is 35% by mass or more and 80% by mass or less, based on the entire mass of the composition, the component A is a mixture of a hydroxyalkane sulfonate and an olefin sulfonate, the component B is a polyoxyalkylene alkyl ether, and the component C is water, and the olefin sulfonate is an internal olefin sulfonate, and the sulfonate compounds contain 5% by mass or more and 40% by mass or less, based on the entire amount of sulfonate compounds, of sulfonate compounds having a sulfonic acid group at the 2-position. a total content of the component A and the component B is 35% by mass or more and 80% by mass or less, based on the entire mass of the composition, the component A is a mixture of a hydroxyalkane sulfonate and an olefin sulfonate, the component B is a polyoxyalkylene alkyl ether, and the component C is water, and the olefin sulfonate is an internal olefin sulfonate, and the sulfonate compounds contain 5% by mass or more and 40% by mass or less, based on the entire amount of sulfonate compounds, of sulfonate compounds having a sulfonic acid group at the 2-position.
A method for optimizing deep resistivity measurements, comprising: obtaining one or more first multi-component measurements from a downhole tool disposed in a borehole, wherein the downhole tool comprises a single receiver and transmitter (Rx, Tx), both being antennae, wherein one of the transmitter and receiver is tilted with respect to the longitudinal axis of the downhole tool and the other one of the transmitter and receiver is non-tilted; determining a relative structural dip angle, Φ, of the downhole tool; adjusting a tilt angle of the tilted antenna relative to an axis of the tool, wherein the adjusted tilt angle is based on the relative structural dip angle of the downhole tool; obtaining one or more second multi-component measurements associated with the adjusted tilt angle; and determining a formation characteristic based, at least in part, on the one or more second multi-component measurements without including anisotropy effects, wherein determining the relative structural dip angle of the downhole tool comprises obtaining one or more measurements from a second downhole tool. obtaining one or more first multi-component measurements from a downhole tool disposed in a borehole, wherein the downhole tool comprises a single receiver and transmitter (Rx, Tx), both being antennae, wherein one of the transmitter and receiver is tilted with respect to the longitudinal axis of the downhole tool and the other one of the transmitter and receiver is non-tilted; determining a relative structural dip angle, Φ, of the downhole tool; adjusting a tilt angle of the tilted antenna relative to an axis of the tool, wherein the adjusted tilt angle is based on the relative structural dip angle of the downhole tool; obtaining one or more second multi-component measurements associated with the adjusted tilt angle; and determining a formation characteristic based, at least in part, on the one or more second multi-component measurements without including anisotropy effects, wherein determining the relative structural dip angle of the downhole tool comprises obtaining one or more measurements from a second downhole tool.
A hollow tower section configured to form part of a wind turbine tower structure, said tower section having a first end and an opposite second end, with an inwardly directed peripheral flange at said first end, said flange having a plurality of through-going holes extending from an inner face to an opposite outer face of said flange, an indicator device for indicating alignment of one of said through-going holes with a hole of a flange of another tower section, said indicator device including a body mounted in said one of said through-going holes, said body having a first body end and an opposite second body end, a portion of said body including said first body end projecting from said outer face in a first configuration of said indicator device, said indicator device including means allowing for said indicator device to assume a second configuration wherein said first body end is located closer to said outer face, said means urging said indicator device to assume said first configuration.
A wireless local area network, WLAN access point, AP comprising: a performance measurement module to measure the number of User Equipment, UEs. connected to said WLAN AP for data traffic offload and further to measure packet throughput from said UEs to said WLAN AP through a media access control, MAC, layer or an internet protocol, IP, layer for a first duration of time in response to a measurement granularity timer expiring; the measurement granularity timer configured to trigger said performance measurement module to perform said measurements, the measurement granularity timer being configured to expire based on a predetermined interval; a performance report generation module to generate a WLAN report based on said measurements provided from said performance measurement module; and a performance report timer to trigger said performance report generation module to generate said WLAN report. a performance measurement module to measure the number of User Equipment, UEs. connected to said WLAN AP for data traffic offload and further to measure packet throughput from said UEs to said WLAN AP through a media access control, MAC, layer or an internet protocol, IP, layer for a first duration of time in response to a measurement granularity timer expiring; the measurement granularity timer configured to trigger said performance measurement module to perform said measurements, the measurement granularity timer being configured to expire based on a predetermined interval; a performance report generation module to generate a WLAN report based on said measurements provided from said performance measurement module; and a performance report timer to trigger said performance report generation module to generate said WLAN report.
A source node for communication with a user equipment, UE, the source node comprising: at least one processor configured to cause transmission, by one or more transmitters included in the source node, of a first handover command message to the UE, the first handover command message including first configuration information for handover to a target node; at least one receiver configured to receive second configuration information from the target node after transmission of the first handover command message to the UE; and the at least one processor being further configured to cause transmission, by one or more transmitters included in the source node, of a second handover command message to the UE, the second handover command message including the second configuration information received from the target node, the first configuration information configured to be used in combination with the second configuration information to allow the UE to access the target node for handover, and wherein the first configuration information includes a first quantity of handover related parameters and the second configuration information includes a second quantity of handover related parameters, the first quantity of handover related parameters are greater than the second quantity of handover related parameters, and a data size of the first configuration information is larger than a data size of the second configuration information. at least one processor configured to cause transmission, by one or more transmitters included in the source node, of a first handover command message to the UE, the first handover command message including first configuration information for handover to a target node; at least one receiver configured to receive second configuration information from the target node after transmission of the first handover command message to the UE; and the at least one processor being further configured to cause transmission, by one or more transmitters included in the source node, of a second handover command message to the UE, the second handover command message including the second configuration information received from the target node, the first configuration information configured to be used in combination with the second configuration information to allow the UE to access the target node for handover, and wherein the first configuration information includes a first quantity of handover related parameters and the second configuration information includes a second quantity of handover related parameters, the first quantity of handover related parameters are greater than the second quantity of handover related parameters, and a data size of the first configuration information is larger than a data size of the second configuration information.
Method for handling material in a pneumatic materials handling system, in which method material, such as waste material is input from an input aperture of an input point, such as from an input aperture of a refuse chute or of some other input point, and is handled with a shaping device, arranged in connection with the input point or in the proximity of it, to be more compact and is transferred onwards in a transfer piping, which shaping device is a rotary shaper having ring-like handling means (10A, 10B, 10C) with rotatable handling means (10A, 10C) and a stationary handling means, which ring-like handling means comprising an aperture (11A, 10B, 11C) arranged eccentrically with respect to an axis of rotation of the rotatable handling means, in which case the material to be handled is conducted into the rotary shaper and/or through it at least partly by means of gravity, characterized in that the method comprising: conducting the material to be handled into the rotary shaper and/or through the rotary shaper at least partly by means of suction and/or a pressure difference, and under effect of suction shaping the material to be handled with the handling means (10A, 10B, 10C) to fit into an output aperture of the rotary shaper, and conducting replacement air into connection with the rotary shaper, before the rotary shaper and/or into the rotary shaper and/or after the rotary shaper, with at least one replacement air coupling (80, 90).
A toner comprising a toner particle that contains a binder resin and a wax, wherein the toner particle contains an organosilicon polymer which is present in a particulate state in the toner particle, the organosilicon polymer having a structure as given by formula below; R 1 -SiO 3/2, in formula, R 1 is an alkyl group having from 1 to 4 carbons; in a cross section of the toner particle observed using a transmission electron microscope, in terms of a distance A from the centroid of the cross section of the toner particle to a contour of the cross section, determined as indicated in the description, the organosilicon polymer is present in a region that is not more than 80% of the distance A from the centroid; and an absolute value of a difference between an SP value of the organosilicon polymer, determined as indicated in the description, and an SP value of the wax, determined as indicated in the description, is not more than 0.70 (cal/cm 3) 1/2. the toner particle contains an organosilicon polymer which is present in a particulate state in the toner particle, the organosilicon polymer having a structure as given by formula below; R 1 -SiO 3/2, in formula, R 1 is an alkyl group having from 1 to 4 carbons; in a cross section of the toner particle observed using a transmission electron microscope, in terms of a distance A from the centroid of the cross section of the toner particle to a contour of the cross section, determined as indicated in the description, the organosilicon polymer is present in a region that is not more than 80% of the distance A from the centroid; and an absolute value of a difference between an SP value of the organosilicon polymer, determined as indicated in the description, and an SP value of the wax, determined as indicated in the description, is not more than 0.70 (cal/cm 3) 1/2.
An isolated subtilisin variant comprising an amino acid sequence with 80% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 18, and comprising the amino acid residues 39E + 99R + 128A, wherein the amino acid positions of the variant are numbered by correspondence with the amino acid sequence of SEQ ID NO:85, and wherein said variant has one or more improved property when compared to a reference subtilisin having the sequence of SEQ ID NO: 18; wherein the improved property is selected from improved protease activity, improved cleaning activity, and improved thermostability in detergent. wherein the amino acid positions of the variant are numbered by correspondence with the amino acid sequence of SEQ ID NO:85, and wherein said variant has one or more improved property when compared to a reference subtilisin having the sequence of SEQ ID NO: 18; wherein the improved property is selected from improved protease activity, improved cleaning activity, and improved thermostability in detergent.
A production method for a composite material including a porous substrate and a silicon carbide film formed on a surface of a material forming the porous substrate, the porous substrate being a fiber substrate including a plurality of fibers, the method comprising: causing a silicon source containing a silicon atom, a chlorine source containing a chlorine atom, and a carbon source containing a carbon atom to react with each other to form the silicon carbide film on the surface of the material, characterized in that the silicon source is a solid silicon and the chlorine source is a Cl 2 gas. causing a silicon source containing a silicon atom, a chlorine source containing a chlorine atom, and a carbon source containing a carbon atom to react with each other to form the silicon carbide film on the surface of the material, characterized in that the silicon source is a solid silicon and the chlorine source is a Cl 2 gas.
Rotor for an electric rotating machine, in particular a synchronous machine, comprising a shaft and at least one pole shoe, wherein the shaft has a first contact surface, wherein the at least one pole shoe has a second contact surface, wherein the first contact surface has a first profile and the second contact surface has a second profile corresponding to the first profile, wherein the first profile of the first contact surface bears on the corresponding second profile of the second contact surface in a positive, interlocking manner, wherein a variation in height of the respective contact surfaces (8, 9) is present at least in an axial direction due to the profiles (28, 29), characterised in that the respective profile (28, 29) has toothed racks and/or toothed rack slots or wherein the respective profile (28, 29) has truncated pyramids and/or truncated pyramid slots.
A system for cooling sensor components, the system comprising: a sensor having a rotatable sensor housing (215, 122) and internal sensor components (260, 360) positioned within the sensor housing; and a motor, wherein the motor is configured to rotate the sensor housing around an axis (326, 426); wherein the sensor housing includes a main vent (320, 420) and a side vent (330, 430), wherein the main vent is positioned at a first location of the sensor housing at which a pressure differential between air outside the sensor housing and air within an interior of the sensor housing occurs, wherein the pressure differential is formed by a force generated by the rotation of the sensor housing around the axis lowering the pressure of the air within the interior of the sensor housing relative to the air outside of the sensor housing such that the rotation of the sensor housing around the axis pulls air into an interior portion of the sensor housing through the main vent, and wherein the side vent is positioned at a second location of the sensor housing at which the rotation of the sensor housing around the axis causes an increase in pressure within the interior of the sensor housing at the second location such that the rotation of the sensor housing around the axis causes the air pulled into the interior portion of the sensor housing (360, 470) to be exhausted out (331, 472) of the sensor housing through the side vent. a sensor having a rotatable sensor housing (215, 122) and internal sensor components (260, 360) positioned within the sensor housing; and a motor, wherein the motor is configured to rotate the sensor housing around an axis (326, 426); wherein the sensor housing includes a main vent (320, 420) and a side vent (330, 430), wherein the main vent is positioned at a first location of the sensor housing at which a pressure differential between air outside the sensor housing and air within an interior of the sensor housing occurs, wherein the pressure differential is formed by a force generated by the rotation of the sensor housing around the axis lowering the pressure of the air within the interior of the sensor housing relative to the air outside of the sensor housing such that the rotation of the sensor housing around the axis pulls air into an interior portion of the sensor housing through the main vent, and wherein the side vent is positioned at a second location of the sensor housing at which the rotation of the sensor housing around the axis causes an increase in pressure within the interior of the sensor housing at the second location such that the rotation of the sensor housing around the axis causes the air pulled into the interior portion of the sensor housing (360, 470) to be exhausted out (331, 472) of the sensor housing through the side vent.
A flow control valve for use in oxygen systems, the flow control valve comprising: a body having an inlet and an outlet; a seat located within the body; a ball; a ball retainer located within the body and able to capture the ball; and a biasing means connected to the ball retainer, the biasing means movable between a flow and a non-flow position; wherein the ball retainer is in a closed position when the ball, captured by the ball retainer, engages the seat to prevent gas flowing through the seat; wherein a surface finish of the ball is better than AFBMA (Anti-Friction Bearing Manufacturers Association) Grade 200 and the hardness of the ball is above 7 on Mohs hardness scale; and wherein at least the body, the seat, the ball retainer, and the biasing means are all made from a nickel based alloy or copper based alloy. a body having an inlet and an outlet; a seat located within the body; a ball; a ball retainer located within the body and able to capture the ball; and a biasing means connected to the ball retainer, the biasing means movable between a flow and a non-flow position; wherein the ball retainer is in a closed position when the ball, captured by the ball retainer, engages the seat to prevent gas flowing through the seat; wherein a surface finish of the ball is better than AFBMA (Anti-Friction Bearing Manufacturers Association) Grade 200 and the hardness of the ball is above 7 on Mohs hardness scale; and wherein at least the body, the seat, the ball retainer, and the biasing means are all made from a nickel based alloy or copper based alloy.
A fluid mixer comprising: - a frame structure (201, 202) defining a mixing chamber (203, 303, 403) and at least one first inlet (204, 205, 304, 404) for conducting first fluid to the mixing chamber from above the mixing chamber, the mixing chamber being substantially cylindrical and the first inlet being shaped to conduct the first fluid along a side wall of the mixing chamber to produce a spiral stream in the mixing chamber, - at least one second inlet (206, 207, 306, 406) for conducting second fluid tangentially into the spiral stream, each opening (216, 316) of the second inlet being inside the mixing chamber and a distance away from the side wall of the mixing chamber to reduce concentration of the second fluid at the side wall of the mixing chamber, and - an outlet channel (208, 308, 408, 508a-508c) for conducting the first and second fluids downwards out from the mixing chamber, the outlet channel being concentric to the mixing chamber, wherein the outlet channel comprises a mixing structure (209, 309, 409, 509a, 509b) for producing turbulence in a stream of the first and second fluids flowing in the outlet channel, the mixing structure being located below an upper edge of the outlet channel, wherein the mixing structure (209, 309, 409, 509a, 509b) is configured to implement one or more stepwise reductions of a cross-sectional flow area of the outlet channel, characterized in that a wall of the outlet channel (208, 308, 408, 508a, 508b) is shaped to implement at least one of the one or more stepwise reductions of the cross-sectional flow area of the outlet channel. - a frame structure (201, 202) defining a mixing chamber (203, 303, 403) and at least one first inlet (204, 205, 304, 404) for conducting first fluid to the mixing chamber from above the mixing chamber, the mixing chamber being substantially cylindrical and the first inlet being shaped to conduct the first fluid along a side wall of the mixing chamber to produce a spiral stream in the mixing chamber, - at least one second inlet (206, 207, 306, 406) for conducting second fluid tangentially into the spiral stream, each opening (216, 316) of the second inlet being inside the mixing chamber and a distance away from the side wall of the mixing chamber to reduce concentration of the second fluid at the side wall of the mixing chamber, and - an outlet channel (208, 308, 408, 508a-508c) for conducting the first and second fluids downwards out from the mixing chamber, the outlet channel being concentric to the mixing chamber,