mhurhangee/ep-ind-claims huggingface dataset:
Pneumatic vehicle tyre having a tread with profile positives, such as for example profile blocks or profile bands, which are delimited by grooves (2, 3) and are provided with sipes, extending at an angle deviating from the transverse direction by up to 45°, with a width (b) at the periphery of the tread of 0.4 mm to 0.8 mm, wherein the sipes are respectively bounded at the surface of the profile positives by two sipe edges (5, 5'), from which in each case there extends a sipe wall (6, 6') bounding the sipes on the inside, wherein on the one sipe wall there is formed at least one projection, locally narrowing the respective sipe, and on the other sipe wall there is formed for each projection a corresponding depression (7, 7"), wherein the sipe walls (6, 6") are otherwise unstructured, wherein the tread is of a directional configuration, so that as the tyre rolls during forward travel the one sipe edge of the sipes is the running-in sipe edge, first to enter the ground, and the second sipe edge is the running-out sipe edge, wherein the projection on the one sipe wall is offset with respect to its corresponding depression (7, 7") on the other sipe wall exclusively in the radial direction, wherein the projection or the depression (7, 7") that is located on the sipe wall extending from the running-in sipe edge is formed deeper inside the sipe than the depression (7, 7") or the projection that is located on the sipe wall extending from the running-out sipe edge, characterized in that the positive of the projection corresponds to the negative of the corresponding depression (7, 7").
A synthetic resin laminate, wherein the laminate comprises a plurality of synthetic resin layers integrally laminated, at least one of the synthetic resin layers is a synthetic resin layer made of a resin composition, wherein the resin composition comprises 100 parts by weight of a synthetic resin and 0.5 to 30 parts by weight of a flaked graphite that is a laminate of graphene sheets the number of which is 150 or less and that has an aspect ratio of 20 or more, and the flaked graphite is obtained by exfoliating a graphite between graphene sheets, wherein the aspect ratio of the flaked graphite means the arithmetic mean value of the aspect ratios of respective flaked graphites calculated for each flaked graphite by dividing the maximum dimension in the plane direction of a graphene sheet by the thickness, the maximum dimension in the plane direction of a graphene sheet in a flaked graphite means the maximum dimension of the flaked graphite when the flaked graphite is viewed from a direction in which the flaked graphite looks largest in its area, and the thickness of the flaked graphite means the maximum dimension of the flaked graphite in a direction perpendicular to the surface of the flaked graphite when the flaked graphite is viewed from a direction in which the flaked graphite looks largest in its area, wherein the number of graphene sheets laminated in the flaked graphite is measured by using a transmission electron microscope and it means the arithmetic mean value of the numbers of graphene sheets laminated in respective flaked graphites, the maximum dimension in the plane direction of a graphene sheet in a flaked graphite is measured by using an FE-SEM, and the thickness of a flaked graphite is measured by using a transmission electron microscope or an FE-SEM.
A mixed antibacterial glass which achieves antibacterial effect by releasing silver ions, the mixed antibacterial glass comprising an antibacterial borosilicate glass containing an inorganic coloring agent as an antibacterial glass which shows alkalinity when dissolved, and an antibacterial phosphate glass as an another antibacterial glass showing acidity when dissolved, the silver ion elution amount from the antibacterial glass showing alkalinity being from 0.005 to 1 mg/(g·1 liter, 24 Hrs, 30°C) as measured under the following conditions: 30 g of the antibacterial glass is immersed in 1 liter of purified water (30°C, pH 6. 5) in a closed system for 24 hours with the temperature maintained, the silver ion elution is filtrated through a filter paper to make a measurement sample, and the silver ion elution amount in the measurement sample is measured using an analytical instrument for measuring the silver ion concentration, the silver ion elution amount from the antibacterial glass showing acidity being from 0.005 to 1 mg/(g·1 liter, 24 Hrs, 30°C) as measured under the above specified conditions, the compounding amount of the antibacterial glass showing alkalinity being from 10 to 120 parts by weight with reference to 100 parts by weight of the antibacterial glass showing acidity, the additional amount of the inorganic coloring agent being from 0.001 to 0.5 wt% with reference to 100 wt% of a total amount of the antibacterial glass showing alkalinity, the inorganic agent being cobalt oxide, and the total silver ion elution amount being from 0.01 to 5 mg/(g·1 liter, 24 Hrs, 30°C) as measured under the above specified conditions. 30 g of the antibacterial glass is immersed in 1 liter of purified water (30°C, pH 6. 5) in a closed system for 24 hours with the temperature maintained, the silver ion elution is filtrated through a filter paper to make a measurement sample, and the silver ion elution amount in the measurement sample is measured using an analytical instrument for measuring the silver ion concentration, the silver ion elution amount from the antibacterial glass showing acidity being from 0.005 to 1 mg/(g·1 liter, 24 Hrs, 30°C) as measured under the above specified conditions, the compounding amount of the antibacterial glass showing alkalinity being from 10 to 120 parts by weight with reference to 100 parts by weight of the antibacterial glass showing acidity, the additional amount of the inorganic coloring agent being from 0.001 to 0.5 wt% with reference to 100 wt% of a total amount of the antibacterial glass showing alkalinity, the inorganic agent being cobalt oxide, and the total silver ion elution amount being from 0.01 to 5 mg/(g·1 liter, 24 Hrs, 30°C) as measured under the above specified conditions.
An Ethernet switch for implementing controller area network, CAN, communications between a plurality of CAN nodes (104a, 104b, 104c, 104d), the Ethernet switch comprising: a plurality of ports (206a, 206b, 206c, 206d) each of which is configured to receive an Ethernet data packet from a respective CAN node, each Ethernet data packet comprising a CAN message, each CAN message comprising an identification, ID, of a corresponding CAN node; and a controller module configured to detect a CAN conflict between a first Ethernet data packet received at a first one of the plurality of ports (206a, 206b, 206c, 206d) and a second Ethernet data packet received at a second one of the plurality of ports (206a, 206b, 206c, 206d) wherein the controller module is configured to detect a CAN conflict if there is more than one Ethernet data packet to transmit at the Ethernet switch; wherein the controller module is configured to select, in response to the detection of the CAN conflict, the first Ethernet data packet or the second Ethernet data packet based on the ID corresponding to the first Ethernet data packet and the ID corresponding to the second Ethernet data packet, and wherein the controller module is further configured to route the selected Ethernet data packet to a destination. a plurality of ports (206a, 206b, 206c, 206d) each of which is configured to receive an Ethernet data packet from a respective CAN node, each Ethernet data packet comprising a CAN message, each CAN message comprising an identification, ID, of a corresponding CAN node; and a controller module configured to detect a CAN conflict between a first Ethernet data packet received at a first one of the plurality of ports (206a, 206b, 206c, 206d) and a second Ethernet data packet received at a second one of the plurality of ports (206a, 206b, 206c, 206d) wherein the controller module is configured to detect a CAN conflict if there is more than one Ethernet data packet to transmit at the Ethernet switch; wherein the controller module is configured to select, in response to the detection of the CAN conflict, the first Ethernet data packet or the second Ethernet data packet based on the ID corresponding to the first Ethernet data packet and the ID corresponding to the second Ethernet data packet, and wherein the controller module is further configured to route the selected Ethernet data packet to a destination.
A combination of levocetirizine and montelukast in an effective amount for use in the treatment of an autoimmune disorder, or a symptom of an autoimmune disorder in a patient in need thereof
A method of formation of a metal component from powder of the metal, wherein the method comprises: a. providing a ceramic mould using a lost wax process; b. casting liquid metal in the ceramic mould to form a can; c. forming one or more holes in the can; d. filling the can through the hole or holes with the metal powder; e. settling the metal powder in the can, evacuating the can of gas and sealing the can; and f. subjecting the can and contained powder to a hot isostatic pressing environment to fuse the metal powder into a solid component. a. providing a ceramic mould using a lost wax process; b. casting liquid metal in the ceramic mould to form a can; c. forming one or more holes in the can; d. filling the can through the hole or holes with the metal powder; e. settling the metal powder in the can, evacuating the can of gas and sealing the can; and f. subjecting the can and contained powder to a hot isostatic pressing environment to fuse the metal powder into a solid component.
A method comprising: exchanging water containing at least one graphene oxide powder or reduced graphene oxide powder with a dehydration liquid that is miscible with CO 2; and critical point drying the at least one graphene oxide powder or reduced graphene oxide powder with use of a critical point dryer to produce a dried graphene oxide powder or reduced graphene oxide powder, wherein the critical point dryer is used with a sample holder comprising metal mesh, wherein the critical point drying includes supplying CO 2 to the critical point dryer and operating the critical point dyer at a critical point of the CO 2, which is 304.1 K and 7.39 MPa. exchanging water containing at least one graphene oxide powder or reduced graphene oxide powder with a dehydration liquid that is miscible with CO 2; and critical point drying the at least one graphene oxide powder or reduced graphene oxide powder with use of a critical point dryer to produce a dried graphene oxide powder or reduced graphene oxide powder, wherein the critical point dryer is used with a sample holder comprising metal mesh, wherein the critical point drying includes supplying CO 2 to the critical point dryer and operating the critical point dyer at a critical point of the CO 2, which is 304.1 K and 7.39 MPa.
A method for a mobile device, the method comprising: while the mobile device is in an idle mode, capturing an audio input signal using at least a first microphone of the mobile device; periodically processing the captured audio input signal to determine if the captured audio input signal contains a keyword; based on the captured audio input signal being determined to contain the keyword, transitioning the mobile device to an active audio logging mode and logging further captured audio input signal. while the mobile device is in an idle mode, capturing an audio input signal using at least a first microphone of the mobile device; periodically processing the captured audio input signal to determine if the captured audio input signal contains a keyword; based on the captured audio input signal being determined to contain the keyword, transitioning the mobile device to an active audio logging mode and logging further captured audio input signal.
A starter air valve system comprising: a starter air valve; a pressure actuated SAV actuator configured to be operatively connected to the SAV; a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; wherein the first pressure valve is a pulse-width modulation solenoid valve configured to provide a duty cycle of pressure from the pressure source to the SAV actuator; and a first controller in operable communication with at least the first pressure valve and configured to control the first pressure valve; characterised by: a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a second controller in operable communication with at least the second pressure valve and configured to control the second pressure valve. a starter air valve; a pressure actuated SAV actuator configured to be operatively connected to the SAV; a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; wherein the first pressure valve is a pulse-width modulation solenoid valve configured to provide a duty cycle of pressure from the pressure source to the SAV actuator; and a first controller in operable communication with at least the first pressure valve and configured to control the first pressure valve; characterised by: a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a second controller in operable communication with at least the second pressure valve and configured to control the second pressure valve. a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a second controller in operable communication with at least the second pressure valve and configured to control the second pressure valve.
A pressure vessel for a cryogenically stored medium, comprising a cylindrical jacket and rounded-off end faces which are rolled onto the ends of said cylindrical jacket and which have centrally positioned openings (4, 5) which are closed by welded-in inserts (6, 7), wherein at least one first insert is provided at least with filling and removal devices, and the inserts (6, 7) form bearings, to which at least one in-tank heat exchanger is fitted, which comprises two pipes (16, 17), a feed pipe and a return pipe, wherein the filling and removal devices comprise two further pipes (18, 19), a filling pipe and a removal pipe, which are fitted individually to the first insert and are fitted to the second insert via a connecting device, wherein the filling pipe can be charged with cryogenic medium from outside the pressure vessel via a filling opening in the first insert, and the cryogenic medium flows on further through the filling pipe and from there via a second outlet opening in the filling pipe into the pressure vessel.
Needle gripper for gripping a workpiece, comprising - a gripper unit with a gripping surface facing the workpiece to be gripped, and at least one needle carriage with at least one gripping needle, wherein the at least one needle carriage can be displaced into an active position in which the gripping needle is extended beyond the gripping surface by one needle stroke depth, and in a passive position in which the gripping needle is retracted, - a drive unit with a drive actuator which can be driven forward and backward along a drive direction, wherein the drive actuator is movably coupled to the needle carriage so that the needle carriage can be moved into the passive position and into the active position by driving the drive actuator forward and backward, - a setting device for setting the needle stroke depth, characterized in that the setting device comprises a guide carriage which can be displaced perpendicularly to the drive direction along a guide direction, and a stop for the guide carriage, wherein the drive actuator is movably coupled by means of a connection arm to the guide carriage so that, when the drive actuator is driven backward, the guide carriage is moved in the direction toward the stop, and further driving backward of the drive actuator is prevented. - a gripper unit with a gripping surface facing the workpiece to be gripped, and at least one needle carriage with at least one gripping needle, wherein the at least one needle carriage can be displaced into an active position in which the gripping needle is extended beyond the gripping surface by one needle stroke depth, and in a passive position in which the gripping needle is retracted, - a drive unit with a drive actuator which can be driven forward and backward along a drive direction, wherein the drive actuator is movably coupled to the needle carriage so that the needle carriage can be moved into the passive position and into the active position by driving the drive actuator forward and backward, - a setting device for setting the needle stroke depth,
A waveguide structure, comprising waveguide combiners (30, 40, 50) stacked one upon the other, wherein each of the waveguide combiners (30, 40, 50) comprises: a waveguide plate (31, 41, 51); and an input coupler (33, 43, 53) disposed on the waveguide plate (31, 41, 51); wherein the input coupler (33, 43, 53) of at least one of the waveguide combiners (31, 41, 51) comprises first grating pillars (331, 431, 531), and each of the first grating pillars (331, 431, 531) has a gradually changing refractive index, characterized in that each of the first grating pillars (331, 431, 531) has stacked layers (S1, S2), and the number of stacked layers (S1, S2) is greater than two, and less than or equal to thirty, and the first grating pillars (331, 431, 531) have a gradually increasing refractive index from top to bottom. a waveguide plate (31, 41, 51); and an input coupler (33, 43, 53) disposed on the waveguide plate (31, 41, 51); wherein the input coupler (33, 43, 53) of at least one of the waveguide combiners (31, 41, 51) comprises first grating pillars (331, 431, 531), and each of the first grating pillars (331, 431, 531) has a gradually changing refractive index, each of the first grating pillars (331, 431, 531) has stacked layers (S1, S2), and the number of stacked layers (S1, S2) is greater than two, and less than or equal to thirty, and the first grating pillars (331, 431, 531) have a gradually increasing refractive index from top to bottom.
Shaping device for producing a profiled component, having: - a lay-up device; - a pressing device; and - a pressure-relaying device; wherein the lay-up device has a lay-up surface for laying-up a blank to be formed; wherein the pressing device is provided for pressing the blank to be formed against the lay-up surface; wherein the pressure-relaying device has a flexible shell for bearing against the blank in an un-deformed first state and for bearing in a shaped second state; wherein the pressure-relaying device can be arranged between the pressing device and the blank to be formed; and wherein the pressing device has a flexible surface which bears against the pressure-relaying device; wherein the flexible surface transmits the shaping force to the pressure-relaying device, characterized in that the pressure-relaying device further has a pressure-transmitting and deformable filling and the flexible shell is designed to hold a volume of the filling enclosed in the pressure-relaying device. - a lay-up device; - a pressing device; and - a pressure-relaying device;
A method for managing a part, the method comprising: identifying, by a computer system, parameters for the part from a computer aided design model of the part, wherein the parameters include dimensions for the part and parameters relating to suitable machining techniques; identifying, by the computer system, a number of additional parameters used in manufacturing the part from a preform, wherein the number of additional parameters includes offsets, excesses, or combination thereof needed for machining the preform to form the part, wherein the number of additional parameters further includes a substrate location, a substrate thickness, a material density needed for generating a preform design to be processed to form the part; automatically generating, by the computer system, a preform design for the preform using the parameters for the part and the number of additional parameters; determining whether the preform design meets a number of desired goals corresponding to a feasibility and cost for additive manufacturing of the preform and a feasibility and cost of machining the preform to form the part; changing values of the additional parameters and repeating identifying, by the computer system, the number of additional parameters for manufacturing the part from the preform until the preform design meets the number of desired goals and automatically generating, by the computer system, the preform design for the preform using the parameters for the part and the number of additional parameters for manufacturing the part from the preform. identifying, by a computer system, parameters for the part from a computer aided design model of the part, wherein the parameters include dimensions for the part and parameters relating to suitable machining techniques; identifying, by the computer system, a number of additional parameters used in manufacturing the part from a preform, wherein the number of additional parameters includes offsets, excesses, or combination thereof needed for machining the preform to form the part, wherein the number of additional parameters further includes a substrate location, a substrate thickness, a material density needed for generating a preform design to be processed to form the part; automatically generating, by the computer system, a preform design for the preform using the parameters for the part and the number of additional parameters; determining whether the preform design meets a number of desired goals corresponding to a feasibility and cost for additive manufacturing of the preform and a feasibility and cost of machining the preform to form the part; changing values of the additional parameters and repeating identifying, by the computer system, the number of additional parameters for manufacturing the part from the preform until the preform design meets the number of desired goals and automatically generating, by the computer system, the preform design for the preform using the parameters for the part and the number of additional parameters for manufacturing the part from the preform.
A protein selected from the group consisting of Cry1Fa holotoxin and Cry1Fa core toxin wherein said protein is labeled with a radioactive isotope of iodine and wherein said labeled protein retains the ability to selectively bind to receptors in brush border membrane vesicles prepared from midguts of Spodoptera exigua and Spodoptera frugiperda, wherein the Cry1Fa is radiolabeled by targeting a Cys residue C205 located in domain 1 of the Cry1Fa core toxin.