mhurhangee/ep-ind-claims huggingface dataset:
Converter including a converter control for a wind turbine which has a generator which is connected to the converter and a chopper, wherein the converter control includes a dynamic limit value (I dyn) which is allowable for a first tolerance time (t 1) and a static limit value (I stat) of the converter, wherein the static limit value (I stat) is a nominal current value which the converter is suitable to provide over a period of time which is per se unlimited, characterized in that an overcurrent module is provided which includes a limit value expander which is designed to increase the static limit value (I stat) by a portion of the difference from the dynamic limit value (I dyn) as additional current (I plus), and a dynamic module which interacts with the limit value expander in such a way that overcurrents between the static limit value (I stat *) which is increased by the additional current (I plus) and the dynamic limit value (I dyn) are routed in a first stage to the converter and in a second stage at least partially to the chopper, wherein a switch is made to the second stage after a second tolerance time (t 2).
A fouling control coating composition comprising an ingredient having biocidal properties for aquatic organisms and a polymer comprising quaternary ammonium groups and/or quaternary phosphonium groups bound to the backbone of the polymer, said quaternary ammonium groups and/or quaternary phosphonium groups being neutralised by a conjugate base of a sulphonic acid having an aliphatic, aromatic, or alkaryl hydrocarbyl group, and a polymer comprising silyl ester groups. a polymer comprising quaternary ammonium groups and/or quaternary phosphonium groups bound to the backbone of the polymer, said quaternary ammonium groups and/or quaternary phosphonium groups being neutralised by a conjugate base of a sulphonic acid having an aliphatic, aromatic, or alkaryl hydrocarbyl group, and a polymer comprising silyl ester groups.
Aircraft seating system with at least one flight passenger seating region (10a; 10b; 10c; 10d) comprising at least one seat region (12a; 12b; 12c; 12d) and at least one bench region (14a; 14b; 14c; 14d) which is configured for a passenger to sit on during a flight, wherein the bench region (14a; 14b; 14c; 14d) is arranged to a side of the seat region (12a; 12b; 12c; 12d) in a transversal direction that is oriented at least substantially perpendicularly to a sitting direction and comprises a bench surface (20a; 20b; 20c; 20d) that forms in at least one operation state, together with at least one seat bottom unit (22a; 22b; 22c; 22d) of the seat region (12a; 12b; 12c; 12d), a lie-down surface (26a; 26b; 26c; 26d), wherein the seat bottom unit (22a; 22b; 22c; 22d) is offset in the sitting direction rearwards relative to the at least one bench region (14a; 14b; 14c; 14d), the aircraft seating system comprising a further flight passenger seating region, which is arranged behind the one flight passenger seating region and likewise forms a seat region that is arranged in parallel to the sitting direction behind the one bench region.
A flame retardant staple spun yarn comprising a flame retardant fiber, said fiber comprising a partially aromatic polyamide and a non-halogen flame retardant additive; wherein the partially aromatic polyamide comprises aromatic diamine monomers and aliphatic diacid monomers, and; wherein the flame retardant staple spun yarn comprises an additional fiber.
A surgical fastening instrument comprising: an end effector having a jaw assembly capable of supporting and deploying a fastener onto tissue; a shaft assembly capable of rotation about an axis operably interfacing with the end effector for transmitting an actuation motion to the end effector where the shaft assembly contains at least one fastener; and a gear drive train connected to the shaft assembly, the gear drive train configured to receive power and control from a robotic system, the gear drive train adapted to separately control rotation of the shaft assembly, opening and closing of the jaws and advancement of the fastener from the shaft into the jaw assembly; wherein the gear drive train comprises a pinion in mechanical communication with a worm gear where the worm gear is affixed to the shaft assembly such that rotation of the pinion in a first direction rotates the shaft assembly in a first direction; and wherein the gear drive train further comprises a second pinion in mechanical communication with a first rack where the first rack is in mechanical communication with a fastener feed assembly such that rotation of the second pinion in a first direction moves the first rack in a first linear direction advancing the fastener in the shaft assembly. an end effector having a jaw assembly capable of supporting and deploying a fastener onto tissue; a shaft assembly capable of rotation about an axis operably interfacing with the end effector for transmitting an actuation motion to the end effector where the shaft assembly contains at least one fastener; and a gear drive train connected to the shaft assembly, the gear drive train configured to receive power and control from a robotic system, the gear drive train adapted to separately control rotation of the shaft assembly, opening and closing of the jaws and advancement of the fastener from the shaft into the jaw assembly; wherein the gear drive train comprises a pinion in mechanical communication with a worm gear where the worm gear is affixed to the shaft assembly such that rotation of the pinion in a first direction rotates the shaft assembly in a first direction; and wherein the gear drive train further comprises a second pinion in mechanical communication with a first rack where the first rack is in mechanical communication with a fastener feed assembly such that rotation of the second pinion in a first direction moves the first rack in a first linear direction advancing the fastener in the shaft assembly.
An in vitro method of screening for a substance having an activity of promoting maturation into erythrocytes and/or platelets, which comprises the steps of: (a) mixing a test substance with an RP S19 monomer, (b) contacting the mixture of step (a) with an erythroblast and/or a megakaryocyte, wherein the erythroblast and/or megakaryocyte expresses a C5a receptor(s) and the increase in the R4 RGS family is promoted via the C5a receptor(s); (c) detecting an increase in the R4 RGS family in the erythroblast and/or megakaryocyte; and (d) selecting a test substance that promotes the increase of the R4 RGS family in the erythroblast and/or megakaryocyte compared to a control. (a) mixing a test substance with an RP S19 monomer, (b) contacting the mixture of step (a) with an erythroblast and/or a megakaryocyte, wherein the erythroblast and/or megakaryocyte expresses a C5a receptor(s) and the increase in the R4 RGS family is promoted via the C5a receptor(s); (c) detecting an increase in the R4 RGS family in the erythroblast and/or megakaryocyte; and (d) selecting a test substance that promotes the increase of the R4 RGS family in the erythroblast and/or megakaryocyte compared to a control.
A method for determining a care product individually derived for a user, based on a determined condition of the skin, comprising: determining a skin lipid content, comprising: for at least one skin region of a user, contacting the skin region using a test surface, wherein the test surface is designed such that its transparency changes depending on a skin lipid content; recording an amount of light using a digital camera, wherein the recorded light is emitted by a light source, passes through the test surface, and reaches the camera, wherein the digital camera is part of a portable device; comparing the amount of light recorded with a reference light amount for a non-contacted test surface; determining skin lipid content using the comparison; determining the condition of the skin based on the determined skin lipid content; and determining the care product by means of a product configurator, wherein the product configurator is configured to output a selection of ingredients suitable for the determined skin lipid content and/or condition of the skin, and to avoid the selection of chemically and/or physically incompatible ingredients, or the selection of ingredients unsuitable for the determined skin lipid content and/or condition of the skin. for at least one skin region of a user, contacting the skin region using a test surface, wherein the test surface is designed such that its transparency changes depending on a skin lipid content; recording an amount of light using a digital camera, wherein the recorded light is emitted by a light source, passes through the test surface, and reaches the camera, wherein the digital camera is part of a portable device; comparing the amount of light recorded with a reference light amount for a non-contacted test surface; determining skin lipid content using the comparison; determining the condition of the skin based on the determined skin lipid content; and determining the care product by means of a product configurator, wherein the product configurator is configured to output a selection of ingredients suitable for the determined skin lipid content and/or condition of the skin, and to avoid the selection of chemically and/or physically incompatible ingredients, or the selection of ingredients unsuitable for the determined skin lipid content and/or condition of the skin.
A system for landing a plurality of unmanned aerial vehicles, UAVs, (102a, 102b, 102c, 102d) at a destination, the system comprising: a landing coordination control unit that is configured to output a landing mode signal to the UAVs to switch the UAVs from a normal operating mode to a landing mode in response to the UAVs (102a, 102b, 102c, 102d) entering a regulated airspace in relation to the destination, wherein the normal operating mode includes normal instructions for flying and navigating to the destination, and wherein the landing mode includes landing instructions for an automatic landing sequence into a landing zone at the destination, wherein the a landing coordination control unit is configured to determine an order in which the UAVs land at the destination dependent on a time at which each of the UAVs (102a, 102b, 102c, 102d) enters the regulated airspace.
A system for registering a vessel model with an image data set based on a joined model comprising a reference object model and the vessel model, the system comprising: - a placement unit arranged for placing the joined model in a space of the image data set, thereby creating a placed joined model comprising a placed reference object model and a placed vessel model; - a computation unit arranged for computing a deformation field based on a landmark displacement field comprising displacements of landmarks of the placed reference object model relative to corresponding landmarks in the image data set; - a transformation unit arranged for transforming the placed joined model using the deformation field, thereby creating a transformed joined model comprising a transformed reference object model and a transformed vessel model; and - a registration unit arranged for registering the transformed vessel model with the image data set based on modifying the transformed vessel model and optimizing an objective function of the modified transformed vessel model, wherein the objective function comprises a location-prior term based on a localization of the modified transformed vessel model relative to the transformed joined model. - a placement unit arranged for placing the joined model in a space of the image data set, thereby creating a placed joined model comprising a placed reference object model and a placed vessel model; - a computation unit arranged for computing a deformation field based on a landmark displacement field comprising displacements of landmarks of the placed reference object model relative to corresponding landmarks in the image data set; - a transformation unit arranged for transforming the placed joined model using the deformation field, thereby creating a transformed joined model comprising a transformed reference object model and a transformed vessel model; and - a registration unit arranged for registering the transformed vessel model with the image data set based on modifying the transformed vessel model and optimizing an objective function of the modified transformed vessel model, wherein the objective function comprises a location-prior term based on a localization of the modified transformed vessel model relative to the transformed joined model.
Method for drying a fluid or wet product, comprising the steps of: providing a drying chamber, an air inlet at the lower end of the drying chamber, an impeller in the lower section of the drying chamber, a product/air outlet at the upper end of the drying chamber, a feed tank, and a product recovery system, feeding a fluid or wet product from the feed tank into the drying chamber at a predetermined flow rate, introducing drying air into the drying chamber by means of said air inlet, feeding finished dried product into the drying chamber above or at the level of the impeller at a flow rate corresponding to controllable settings, mixing the fluid or wet product with the finished dried product in the drying chamber, drying the mixture of fluid or wet product and finished dried product in a gas containing finished dried product, discharging spent drying air containing dried particles through said product/air outlet, and recovering the product from the gas in the product recovery system. providing a drying chamber, an air inlet at the lower end of the drying chamber, an impeller in the lower section of the drying chamber, a product/air outlet at the upper end of the drying chamber, a feed tank, and a product recovery system, feeding a fluid or wet product from the feed tank into the drying chamber at a predetermined flow rate, introducing drying air into the drying chamber by means of said air inlet, feeding finished dried product into the drying chamber above or at the level of the impeller at a flow rate corresponding to controllable settings, mixing the fluid or wet product with the finished dried product in the drying chamber, drying the mixture of fluid or wet product and finished dried product in a gas containing finished dried product, discharging spent drying air containing dried particles through said product/air outlet, and recovering the product from the gas in the product recovery system.
A blood purification device suitable for use with a blood circuit and with a blood purifier attached to the blood circuit, said blood circuit including an arterial side line and a venous side line, wherein the arterial side line and the venous side line are connected to both ends of the blood purifier, the blood purification device comprising: a blood pump to be provided midway in the arterial side line; a control part; a dialysis fluid tank that stores dialysis fluid; a lead-in line to connect the dialysis fluid tank and the blood purifier; a lead-out line to connect the dialysis fluid tank and the blood purifier; a lead-in pump provided midway in the lead-in line; a lead-out pump provided midway in the lead-out line; and a supplying part and a discharging part, or alternatively, one container, wherein in a state in which the supplying part or the one container that supplies priming fluid and the venous side line are connected via a venous side connector provided at a distal end of the venous side line, and the discharging part or the one container from which the priming fluid after use is discharged and the arterial side line are connected via an arterial side connector provided at a distal end of the arterial side line, the control part is configured, when receiving instruction for priming execution, to drive the blood pump and to execute first priming processing for priming the blood circuit and the blood purifier, and the control part is configured, after the first priming processing, to drive the lead-in pump and the lead-out pump and to execute second priming processing for feeding the priming fluid to the lead-in line and the lead-out line. a blood pump to be provided midway in the arterial side line; a control part; a dialysis fluid tank that stores dialysis fluid; a lead-in line to connect the dialysis fluid tank and the blood purifier; a lead-out line to connect the dialysis fluid tank and the blood purifier; a lead-in pump provided midway in the lead-in line; a lead-out pump provided midway in the lead-out line; and a supplying part and a discharging part, or alternatively, one container, wherein in a state in which the supplying part or the one container that supplies priming fluid and the venous side line are connected via a venous side connector provided at a distal end of the venous side line, and the discharging part or the one container from which the priming fluid after use is discharged and the arterial side line are connected via an arterial side connector provided at a distal end of the arterial side line, the control part is configured, when receiving instruction for priming execution, to drive the blood pump and to execute first priming processing for priming the blood circuit and the blood purifier, and the control part is configured, after the first priming processing, to drive the lead-in pump and the lead-out pump and to execute second priming processing for feeding the priming fluid to the lead-in line and the lead-out line.
A memristor electrode material preparation method, comprising: depositing a metal nitride on a substrate by a plasma enhanced atomic layer deposition process to obtain a metal nitride substrate; and subjecting the metal nitride substrate obtained by the plasma enhanced atomic layer deposition process to a laser annealing treatment under vacuum, to obtain a memristor electrode material used for preparing electrodes of memristors of a resistive memory; wherein a performance index of the metal nitride in the memristor electrode material satisfies the following conditions: resistivity is lower than 100 μΩ·cm, a residual of carbon is lower than 1 atom percent, an oxygen content is lower than 10 atom percent, and an absolute value of a difference between a ratio between a number of atoms of metal and a number of atoms of nitrogen, and 1 is less than 0.1. depositing a metal nitride on a substrate by a plasma enhanced atomic layer deposition process to obtain a metal nitride substrate; and subjecting the metal nitride substrate obtained by the plasma enhanced atomic layer deposition process to a laser annealing treatment under vacuum, to obtain a memristor electrode material used for preparing electrodes of memristors of a resistive memory;
A rotor drive key (12, 76, 136, 176) comprising: a drive key body (48, 78, 138, 178) defining a trough (82, 150, 188) configured to receive a wheel boss (71-74, 171) of a wheel, wherein the trough (82, 150, 188) is defined at least in part by an inner surface (88, 152, 186) of the drive key body (48, 78, 138, 178), wherein the inner surface (88, 152, 186) is configured to conform with a portion of an outer profile of the wheel boss (71-74, 171) when the trough (82, 150, 188) receives the wheel boss (71-74, 171); and a tab (80, 158) configured to extend from the drive key body (48, 78, 138, 178), wherein the tab (80, 158) defines a tab aperture (110, 162), the tab aperture (110, 162) extending through the tab (80, 158) in an axial direction of the wheel when the wheel boss (71-74, 171) is received in the trough (82, 150, 188) characterised in that the inner surface (88, 152, 186) of the drive key body (48, 78, 138, 178) is configured to limit movement of the drive key body (48, 78, 138, 178) in a radial direction towards an axis of rotation of the wheel when the wheel boss (71-74, 171) is received in the trough (82, 150, 188). a drive key body (48, 78, 138, 178) defining a trough (82, 150, 188) configured to receive a wheel boss (71-74, 171) of a wheel, wherein the trough (82, 150, 188) is defined at least in part by an inner surface (88, 152, 186) of the drive key body (48, 78, 138, 178), wherein the inner surface (88, 152, 186) is configured to conform with a portion of an outer profile of the wheel boss (71-74, 171) when the trough (82, 150, 188) receives the wheel boss (71-74, 171); and a tab (80, 158) configured to extend from the drive key body (48, 78, 138, 178), wherein the tab (80, 158) defines a tab aperture (110, 162), the tab aperture (110, 162) extending through the tab (80, 158) in an axial direction of the wheel when the wheel boss (71-74, 171) is received in the trough (82, 150, 188) characterised in that the inner surface (88, 152, 186) of the drive key body (48, 78, 138, 178) is configured to limit movement of the drive key body (48, 78, 138, 178) in a radial direction towards an axis of rotation of the wheel when the wheel boss (71-74, 171) is received in the trough (82, 150, 188).
A device for the track-bound conveying of vehicles without self-propelled drive or without the aid of a self-propelled drive, comprising an electromotive drive element which is controllable by frequency converter or inverter signals, a drive shaft, and a drive sheave which transfers the propulsive power required to convey the vehicle to a haul cable, characterized in that the drive shaft directly connects the electromotive drive element and the drive sheave such that the electromotive drive element directly and immediately transfers the propulsive power to the drive sheave via the drive shaft.
A method for producing an aromatic nitrile compound, the method comprising a dehydration reaction, wherein an aromatic amide compound is dehydrated, the method having a contact step for bringing the aromatic amide compound into contact with a catalyst in a gas phase during the dehydration reaction, wherein the aromatic amide compound includes at least a heteroaryl amide compound and the aromatic nitrile compound includes at least a heteroaryl nitrile compound; wherein the heteroaryl amide compound includes 2-picolinamide and the heteroaryl nitrile compound includes 2-cyanopyridine and wherein the catalyst includes an alkali metal. the method having a contact step for bringing the aromatic amide compound into contact with a catalyst in a gas phase during the dehydration reaction, wherein the aromatic amide compound includes at least a heteroaryl amide compound and the aromatic nitrile compound includes at least a heteroaryl nitrile compound; wherein the heteroaryl amide compound includes 2-picolinamide and the heteroaryl nitrile compound includes 2-cyanopyridine and wherein the catalyst includes an alkali metal.
Valve for controlling volume flows, in particular in a heating and/or cooling system of a motor vehicle, with a disk-shaped valve body having at least one control opening which, in order to control the volume flow, interacts with a disk-shaped sealing body having at least one passage opening, wherein the disk-shaped valve body has an external toothing in which a pinion engages in order to rotate the valve body, characterized in that the pinion and the external toothing of the disk-shaped valve body interact with each other via an evoloid toothing (43; 44).
Alumina comprising one or more elements selected from the group consisting of K, Mg, Ca, Sr, Ba and La in the total amount of 500 to 50,000 ppm by mass, wherein a surface concentration of the one or more elements is 0.5 to 20 at% in total; and wherein the surface concentration is the concentration of the element on the alumina surface measured by X-ray photoelectron spectroscopy using AlKα-ray.