mhurhangee/ep-ind-claims huggingface dataset:
A method for the control and prevention of white mold on a plant, the method comprising: applying a fungicidally effective amount of a formulation including a compound of Formula I, wherein said effective amount is applied to at least one of the plant, an area adjacent to the plant, soil adapted to support growth of the plant, a root of the plant, foliage of the plant, and a seed adapted to produce the plant.
An extracorporeal blood treatment system comprising: a fluid pump configured to engage an arterial line set to convey fluid from a patient through the arterial line set, through a dialyzer, through a venous line set, and back to the patient during an extracorporeal blood treatment; characterized in that the extracorporeal blood treatment system includes a controller configured to operate the fluid pump to return the blood to the patient during a blood reinfusion process after the extracorporeal blood treatment, wherein the blood reinfusion process includes generating negative pressure in the arterial line set to draw residual blood toward the fluid pump engaged to the arterial line set while an access line of the arterial line set is clamped, wherein an end of the access line is connected to an arterial needle assembly, and infusing the residual blood in the arterial needle assembly and the access line of the arterial line set into the patient through the venous line set while the access line of the arterial line set is unclamped. generating negative pressure in the arterial line set to draw residual blood toward the fluid pump engaged to the arterial line set while an access line of the arterial line set is clamped, wherein an end of the access line is connected to an arterial needle assembly, and infusing the residual blood in the arterial needle assembly and the access line of the arterial line set into the patient through the venous line set while the access line of the arterial line set is unclamped.
A method for compensating interference effects within a time division duplex cooperating telecommunication network comprising at least a first base station and a second base station, which serve in a cooperative manner a first user equipment and a second user equipment by using time division duplex, wherein the telecommunication network is in an operational state, in which the first base station is in a downlink mode and the second base station is in an uplink or downlink mode, the method comprising the steps of • determining at least one of a first channel state information between the first base station and the second base station and a second channel state information between the first user equipment and the second user equipment, • encoding data signals for retransmission based on the first channel state information and on the second channel state information; • transmitting the encoded data signals by the first base station and/or by the second base station, and • transmitting the second channel state information to the first base station and/or to the second base station, wherein the second channel state information is only transmitted to the first base station and/or to the second base station if a data retransmission is required, wherein the data retransmission is carried out with a first retransmission data unit, when data is to be transmitted during a first phase of the telecommunication network, during which both the first base station and the second base station are in a downlink mode, or with a second retransmission data unit, when data is to be transmitted during a second phase of the telecommunication network, during which the first base station is still in the downlink mode and the second base station is already in an uplink mode. • determining at least one of a first channel state information between the first base station and the second base station and a second channel state information between the first user equipment and the second user equipment, • encoding data signals for retransmission based on the first channel state information and on the second channel state information; • transmitting the encoded data signals by the first base station and/or by the second base station, and • transmitting the second channel state information to the first base station and/or to the second base station, wherein the second channel state information is only transmitted to the first base station and/or to the second base station if a data retransmission is required,
An electronic equipment comprising: a substrate; a power source and an electronic component that are mounted on a first surface of the substrate in such a manner that a space is provided between the power source and the electronic component; an interconnection part that is provided in the space and couples the power source with the electronic component; an exterior part configured to cover the power source, the electronic component and the interconnection parts on a side of the first surface of the substrate, and include: a first exterior section that covers at least a portion of the power source and at least a portion of the interconnection part and includes a first upper surface; and a second exterior section that covers at least a portion of the electronic component and at least another portion of the interconnection part and includes a second upper surface characterized in that a thickness of the first exterior section from the first surface to the first upper surface is different from a thickness of the second exterior section from the first surface to the second upper surface to form a level difference in a boundary part between the first upper surface and the second upper surface. a substrate; a power source and an electronic component that are mounted on a first surface of the substrate in such a manner that a space is provided between the power source and the electronic component; an interconnection part that is provided in the space and couples the power source with the electronic component; an exterior part configured to cover the power source, the electronic component and the interconnection parts on a side of the first surface of the substrate, and include: a first exterior section that covers at least a portion of the power source and at least a portion of the interconnection part and includes a first upper surface; and a second exterior section that covers at least a portion of the electronic component and at least another portion of the interconnection part and includes a second upper surface a first exterior section that covers at least a portion of the power source and at least a portion of the interconnection part and includes a first upper surface; and a second exterior section that covers at least a portion of the electronic component and at least another portion of the interconnection part and includes a second upper surface characterized in that a thickness of the first exterior section from the first surface to the first upper surface is different from a thickness of the second exterior section from the first surface to the second upper surface to form a level difference in a boundary part between the first upper surface and the second upper surface.
Migalastat or salt thereof for use in a method of treating Fabry disease in a patient, wherein the patient has a HEK assay amenable mutation in α-galactosidase A and wherein the mutation is selected from the group consisting of G80D, A309V, P323R, A352G and V390M.
An end mill for orbital drilling of fiber reinforced plastics comprising a shank having a shank diameter and a cutting head having a cutting diameter, a corner radius, a dish angle and a back radius, the dish angle being defined with respect to an end face, which is perpendicular to the longitudinal axis of the end mill, and the corner radius being between 3 percent to 8 percent of the cutting diameter, characterized in that the end mill comprises a neck arranged between the cutting head and the shank having a neck diameter, in a side view the cutting head including a flat that extends from the corner radius to the back radius, which causes a reduction in diameter from the cutting head to the neck, the neck diameter is 65 percent to 90 percent of the cutting diameter and the dish angle is between 2 degrees to 6 degrees, and the end mill comprises a plurality of flutes at a helix angle of between 5 degrees and 18 degrees.
Drain fitting for showers or bathtubs, having a drain body forming or comprising an odour trap and a transition piece for connection to a waste water pipe, wherein at least one connecting piece (7, 8, 19, 20) for connecting a drain pipe is formed on each the drain body and the transition piece, characterised in that the drain body is connected to the transition piece via a plurality of drain pipes (9,10), whose free cross-section is larger than the free cross-section of a conventional individual outlet pipe with a circular cross-section, wherein the drain body and the transition piece each have at least two connecting pieces (7, 8, 19, 20) for connecting the drain pipes (9,10), and wherein the connecting pieces (7, 8) formed on the drain body are arranged in such a way that their underside is at a higher level than the underside of the drain body.
A method of making a structure, comprising: obtaining a composite tube structure; coupling a tube doubler structure at any point along the composite tube structure around the composite tube structure, the tube doubler structure comprising a first lamina layer formed of a first material and a second lamina material formed of a second material different than the first material, where the combination of the first and second materials provides a tube doubler structure with (i) a bearing strength greater than a bearing strength of the composite tube structure and (ii) hoop and axial coefficient of thermal expansions respectively matching hoop and axial coefficient of thermal expansions of the composite tube structure by a given amount of at least 85%, and providing at least one aperture extending through the tube doubler structure and the composite tube structure. obtaining a composite tube structure; coupling a tube doubler structure at any point along the composite tube structure around the composite tube structure, the tube doubler structure comprising a first lamina layer formed of a first material and a second lamina material formed of a second material different than the first material, where the combination of the first and second materials provides a tube doubler structure with (i) a bearing strength greater than a bearing strength of the composite tube structure and (ii) hoop and axial coefficient of thermal expansions respectively matching hoop and axial coefficient of thermal expansions of the composite tube structure by a given amount of at least 85%, and providing at least one aperture extending through the tube doubler structure and the composite tube structure.
A nematocide containing lactonic ring, characterized in that the general structural formula I of the nematocide is as follows: wherein R 1, R 2, R 3, R 4 and R 5 are selected from hydrogen, cyan, fluorine, chlorine, bromine, alkyl containing 1 to 4 carbon atoms, alkoxy containing 1 to 4 carbon atoms, alkoxyphenyl, alkoxy containing 1 to 4 carbon atoms and one or more chlorine atoms in place of hydrogen atoms on the carbon atoms, alkoxy containing 1 to 4 carbon atoms and one or more fluorine atoms in place of hydrogen atoms on the carbon atoms, nitryl, or amido; R 6 is selected from hydrogen, fluorine and chlorine. wherein R 1, R 2, R 3, R 4 and R 5 are selected from hydrogen, cyan, fluorine, chlorine, bromine, alkyl containing 1 to 4 carbon atoms, alkoxy containing 1 to 4 carbon atoms, alkoxyphenyl, alkoxy containing 1 to 4 carbon atoms and one or more chlorine atoms in place of hydrogen atoms on the carbon atoms, alkoxy containing 1 to 4 carbon atoms and one or more fluorine atoms in place of hydrogen atoms on the carbon atoms, nitryl, or amido; R 6 is selected from hydrogen, fluorine and chlorine.
DC motor comprising a cylindrical coil former (7; 17) which, on both lateral end sections (201, 202), comprises wire guide elements (9; 10, 12) for guiding a first winding wire (80; 180) and a second winding wire (81; 181) of an air gap winding, wherein the first winding wire (80; 180) and the second winding wire (81; 181) each have rectangular winding sections (20; 120), and wherein the rectangular winding sections (20; 120) of the first winding wire (80; 180) and the rectangular winding sections (20; 120) of the second winding wire (81; 181) are arranged in an overlapping manner on the cylindrical coil former (7; 17) and the wire guide elements (9; 10, 12) are designed to guide the first winding wire (80; 180) and the second winding wire (81; 181) past one another, characterized in that the two lateral end sections (201, 202) of the coil former each have a regular arrangement of holders as wire guide elements (10, 12), wherein the first and the second winding wire (180, 181) are guided alternately to the side of the holders and onto the holders, wherein the holders each have a U-shaped slot in order to fix the first and second winding wire (180, 181) which are guided onto the holder.
A tissue bonding implantation device, comprising: a drainage tube having an internal surface and an external surface; an inflatable balloon connected to the drainage tube, on the external surface of the drainage tube; a balloon inflation conduit in fluid communication with the inflatable balloon, the balloon inflation conduit extends through the drainage tube from the inflatable balloon; an external cap connected to the drainage tube and the balloon inflation conduit, the cap having a first sealable opening in fluid communication with the drainage tube and a second sealable opening in fluid communication with the balloon inflation conduit; characterized in that the tissue bonding implantation device further comprises an anchor formed of a central cylinder connected to a flange, wherein the anchor includes a central channel through the central cylinder and an internal balloon inflation void along the central channel, wherein the internal balloon inflation void is configured so that when the inflatable balloon is lodged in the internal balloon inflation void and expanded via inflation through the second sealable opening of the external cap and the balloon inflation conduit the inflatable balloon fills the internal balloon inflation void and secures the inflatable balloon to the anchor, to retain the drainage tube with the anchor. a drainage tube having an internal surface and an external surface; an inflatable balloon connected to the drainage tube, on the external surface of the drainage tube; a balloon inflation conduit in fluid communication with the inflatable balloon, the balloon inflation conduit extends through the drainage tube from the inflatable balloon; an external cap connected to the drainage tube and the balloon inflation conduit, the cap having a first sealable opening in fluid communication with the drainage tube and a second sealable opening in fluid communication with the balloon inflation conduit; characterized in that the tissue bonding implantation device further comprises an anchor formed of a central cylinder connected to a flange, wherein the anchor includes a central channel through the central cylinder and an internal balloon inflation void along the central channel, wherein the internal balloon inflation void is configured so that when the inflatable balloon is lodged in the internal balloon inflation void and expanded via inflation through the second sealable opening of the external cap and the balloon inflation conduit the inflatable balloon fills the internal balloon inflation void and secures the inflatable balloon to the anchor, to retain the drainage tube with the anchor.
An external shifting unit for a manual transmission in a motor vehicle, wherein the external shifting unit comprises the following: - a gear selection lever which is movable within a shifting degree of freedom and a selection degree of freedom, wherein the end positions of the gear selection lever in the shifting degree of freedom respectively correspond to a gear of the manual transmission; - a measuring sensor (8, 9) for detecting a movement of the gear selection lever in any degree of freedom; - an electronic control unit coupled to the measuring sensor (8, 9), and gear actuating elements (14, 15) which can be triggered by the control unit for driving a shifting movement in the manual transmission, characterized in that the control unit is configured to differentiate a plurality of intermediate positions of the gear selection lever from each other and from the end positions on the basis of positional information (s8, s9) at least in the shifting degree of freedom, which positional information (s8, s9) is supplied by the measuring sensors (8, 9) and is representative of the position of the gear selection lever (8, 9), and to determine a target position of the gear actuating elements (14, 15) according to each intermediate position. - a gear selection lever which is movable within a shifting degree of freedom and a selection degree of freedom, wherein the end positions of the gear selection lever in the shifting degree of freedom respectively correspond to a gear of the manual transmission; - a measuring sensor (8, 9) for detecting a movement of the gear selection lever in any degree of freedom; - an electronic control unit coupled to the measuring sensor (8, 9), and gear actuating elements (14, 15) which can be triggered by the control unit for driving a shifting movement in the manual transmission,
A composition for a gas seal member containing an elastomer and a fibrous carbon nanostructure, wherein the fibrous carbon nanostructure includes single-walled carbon nanotubes, and the fibrous carbon nanostructure is included in a proportion of at least 0.1 parts by mass and no greater than 12 parts by mass per 100 parts by mass of the elastomer, and the fibrous carbon nanostructure exhibits a convex upward shape in a t-plot obtained from an adsorption isotherm, the measuring method for such isotherm being disclosed in the description.
Method for manufacturing a fluid dispenser with the following features: a. the fluid dispenser has a fluid store and a delivery opening through which the fluid can be discharged to the environment in a delivery direction, and b. the fluid dispenser has a housing component through which the continuous delivery opening is made and which has a delivery structure forming the delivery opening and/or adjoining the delivery opening, for influencing a delivery characteristic, c. the housing component having the continuous delivery opening is manufactured in that firstly a base body is manufactured by plastic injection moulding in a casting mould and then, in the region of a provisional delivery structure of the base body, a mechanical force is applied to deform the provisional delivery structure and hence create a definitive delivery structure. a. the fluid dispenser has a fluid store and a delivery opening through which the fluid can be discharged to the environment in a delivery direction, and b. the fluid dispenser has a housing component through which the continuous delivery opening is made and which has a delivery structure forming the delivery opening and/or adjoining the delivery opening, for influencing a delivery characteristic, c. the housing component having the continuous delivery opening is manufactured in that firstly a base body is manufactured by plastic injection moulding in a casting mould and then, in the region of a provisional delivery structure of the base body, a mechanical force is applied to deform the provisional delivery structure and hence create a definitive delivery structure.
A yarn for air bags comprising polyamide multifilament with a total fineness of 200 to 700 dtex, a single fiber fineness of 1 to 2 dtex, a strength of 8 to 10 cN/dtex, characterised in that the yarn has an elongation of 21 to 24% and a fineness unevenness of 0.5 to 1.5%, wherein the total fineness is measured according to JIS L1013 8.3.1, wherein the single fiber fineness is obtained by dividing the total fineness by the number of single fibers, wherein the number of single fibers is obtained according to the method specified in JIS L1013 8.4, wherein the strength and elongation values are obtained under constant-rate extension conditions for the standard test specified in JIS L1013 8.5.1, wherein the half value of the fineness unevenness is measured with Uster Tester Monitor C supplied by Zellweger Uster AG, wherein the INEAT mode was used to make measurements for 125 m at a yarn speed of 25 m/min. wherein the total fineness is measured according to JIS L1013 8.3.1, wherein the single fiber fineness is obtained by dividing the total fineness by the number of single fibers, wherein the number of single fibers is obtained according to the method specified in JIS L1013 8.4, wherein the strength and elongation values are obtained under constant-rate extension conditions for the standard test specified in JIS L1013 8.5.1, wherein the half value of the fineness unevenness is measured with Uster Tester Monitor C supplied by Zellweger Uster AG, wherein the INEAT mode was used to make measurements for 125 m at a yarn speed of 25 m/min.
An on-board vehicle inert gas system, comprising: a plurality of electrochemical cells, individually comprising a cathode and an anode separated by an electrolyte separator; a cathode fluid flow path in fluid communication with the cell cathodes that receives a flow of air from an air source and discharges nitrogen-enriched air; an anode fluid flow path in fluid communication with the cell anodes; an electrical circuit connecting the anode and the cathode, and an electrical power source connected to the electrical circuit that provides power to the electrical circuit at a voltage that electrolyzes water at the anode and forms water at the cathode or that reduces oxygen at the cathode and forms oxygen at the anode; characterized in that the system comprises a membrane gas separator comprising a membrane having a greater permeability to oxygen than to nitrogen, a nitrogen-enriched air flow path along a first side of the membrane that receives nitrogen-enriched air from the cathode fluid flow path and discharges the nitrogen-enriched air to a fuel tank, a fire suppression system, or both a fuel tank and a fire suppression system, and an exhaust flow path along a second side of the membrane that receives oxygen through the membrane for exhaust from the on-board inert gas system. a plurality of electrochemical cells, individually comprising a cathode and an anode separated by an electrolyte separator; a cathode fluid flow path in fluid communication with the cell cathodes that receives a flow of air from an air source and discharges nitrogen-enriched air; an anode fluid flow path in fluid communication with the cell anodes; an electrical circuit connecting the anode and the cathode, and an electrical power source connected to the electrical circuit that provides power to the electrical circuit at a voltage that electrolyzes water at the anode and forms water at the cathode or that reduces oxygen at the cathode and forms oxygen at the anode; characterized in that the system comprises a membrane gas separator comprising a membrane having a greater permeability to oxygen than to nitrogen, a nitrogen-enriched air flow path along a first side of the membrane that receives nitrogen-enriched air from the cathode fluid flow path and discharges the nitrogen-enriched air to a fuel tank, a fire suppression system, or both a fuel tank and a fire suppression system, and an exhaust flow path along a second side of the membrane that receives oxygen through the membrane for exhaust from the on-board inert gas system.