mhurhangee/ep-ind-claims huggingface dataset:
A safety arrangement with a light curtain for detecting objects in a monitoring area with an arrangement of beam axes which are each formed by a transmitter emitting light beams and at least one associated receiver wherein the monitoring area is monitored with the beam axes, or with an area scanner, in which light beams emitted by a transmitter sweep over the monitoring area, characterised in that the monitoring area is subdivided into at least one protective area and at least one muting control area, wherein the safety arrangement is set up so that muting functions of the safety arrangement are controlled as a function of object detection in the muting control area, a safety output signal is only generated in the event of object detection in the protection area if no muting is activated, and in the event of object detection in the muting control area, a safety output signal is generated neither when muting is activated nor when muting is not activated.
A rodent whose genome comprises: (a) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region; and (b) only one human Ig light chain kappa V region and one or more human Ig light chain kappa J regions upstream of the host rodent kappa constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies having a rodent constant region and a human variable region; wherein the rodent is homozygous at one or both of locus (a) or locus (b). (a) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region; and (b) only one human Ig light chain kappa V region and one or more human Ig light chain kappa J regions upstream of the host rodent kappa constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies having a rodent constant region and a human variable region; wherein the rodent is homozygous at one or both of locus (a) or locus (b).
A pharmaceutical composition comprising a butanol fraction of a Polygonum cuspidatum extract as an active ingredient for use in preventing and treating obesity, wherein the fraction is prepared by extracting Polygonum cuspidatum with water, an alcohol, or a mixed solvent thereof to obtain a Polygonum cuspidatum extract and further extracting the Polygonum cuspidatum extract with butanol.
A method for controlling a renewable energy system, comprising: controlling, by one or more control devices, a reactive power output for a renewable energy system based at least in part on an initial reactive power limit for the renewable energy system; determining, by the one or more control devices, a difference between a reactive power demand and an actual reactive power production for the renewable energy system; wherein when the difference falls outside a threshold, the method comprises: determining, by the one or more control devices, a correction factor for the initial reactive power limit; adjusting, by the one or more control devices, the initial reactive power limit to a corrected reactive power limit based at least in part on the correction factor; controlling, by the one or more control devices, the reactive power output for the renewable energy system based at least in part on the corrected reactive power limit; detecting, by the one or more control devices, the difference returning to within the threshold; and in response to detecting the difference returning to within the threshold, controlling, by the one or more control devices, the reactive power output based at least in part on the initial reactive power limit. controlling, by one or more control devices, a reactive power output for a renewable energy system based at least in part on an initial reactive power limit for the renewable energy system; determining, by the one or more control devices, a difference between a reactive power demand and an actual reactive power production for the renewable energy system; wherein when the difference falls outside a threshold, the method comprises: determining, by the one or more control devices, a correction factor for the initial reactive power limit; adjusting, by the one or more control devices, the initial reactive power limit to a corrected reactive power limit based at least in part on the correction factor; controlling, by the one or more control devices, the reactive power output for the renewable energy system based at least in part on the corrected reactive power limit; detecting, by the one or more control devices, the difference returning to within the threshold; and in response to detecting the difference returning to within the threshold, controlling, by the one or more control devices, the reactive power output based at least in part on the initial reactive power limit. determining, by the one or more control devices, a correction factor for the initial reactive power limit; adjusting, by the one or more control devices, the initial reactive power limit to a corrected reactive power limit based at least in part on the correction factor; controlling, by the one or more control devices, the reactive power output for the renewable energy system based at least in part on the corrected reactive power limit; detecting, by the one or more control devices, the difference returning to within the threshold; and in response to detecting the difference returning to within the threshold, controlling, by the one or more control devices, the reactive power output based at least in part on the initial reactive power limit.
A substituted oxadiazole compound, which is an oxadiazole compound represented by Formula, or a crystal form, pharmaceutically acceptable salt, hydrate or solvate thereof, wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are each independently hydrogen, deuterium, or halogen; provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6 and R 7 is deuterium. wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are each independently hydrogen, deuterium, or halogen; provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6 and R 7 is deuterium.
Device for processing plant parts on a ground surface, comprising a carrying device via which the device can be moved back and forth between a raised inoperative position and a lowered operating position and is held on the floor surface in the operating position with a contact pressure, at least one rotatably mounted working element, the axis of rotation of which is inclined at an angle dimension to the vertical when the device is in the operating position, a number of processing tools being attached to the working element, which tools, in the operating position of the device during a revolution of the working element, rotate in a first circular arc segment with ground contact and in a second circular arc segment without ground contact, a number of support arms being formed on the working element, which arms extend from the axis of rotation in the radial direction, one or more processing tools each being attached to a support arm, and the support arms having a flexibility over their overall length in the axial direction of the axis of rotation and/or the support of the support arms by means of which the support arm is spring-compressed in the operating position of the device with the associated processing tool placed on the ground surface under the effect of the contact pressure in the first circular arc segment, and the processing tool having, on at least one side, a working edge which is rigid in a working plane and, in the operating position of the device, is held in the first circular arc segment parallel to the ground surface under the contact pressure acting on the associated support arm and is held in the second circular arc segment without contact with the ground surface when the support arm is unloaded and extended, characterized in that the support arms, which are designed to be flexible, and/or the flexible support of the support arms, on which the processing tools are held, change the shape of the covering circle when a working element moves over a ground surface under the effect of a contact pressure in the first circular arc segment and the relevant support arms are thereby raised in relation to the axis of rotation of the working element.
An apparatus for dressing generating grinding tools or profile grinding tools comprising a dressing unit having at least two tool receivers for receiving at least two disk-shaped dressing tools (8, 8*), wherein the tool receivers are arranged such that the dressing tools can be individually brought into engagement with the grinding tool without mutually influencing one another, wherein the at least two tool receivers can be driven independently of one another and at least one of the two tool receivers has a driven pivot axle (C5, C5*) by which the tool is pivotable about an axis which is at an angle of 10° to 90° toward the tool axis (B3, B3*), characterized in that the two tool receivers for the dressing tools are arranged above one another, preferably with axes of rotation (B3, B3*) extending in parallel.
A supersonic compressor comprising: (a) a fluid inlet; (b) a fluid outlet; and (c) a plurality of supersonic compressor rotors (100, 200), each of the supersonic compressor rotors defining an inner cylindrical cavity and an outer rotor rim and at least one radial flow channel allowing fluid communication between the inner cylindrical cavity and the outer rotor rim, said radial flow channel comprising a supersonic compression ramp; characterised in that a first supersonic compressor rotor is disposed within an inner cylindrical cavity of a second supersonic compressor rotor; and wherein the radial flow channel defines a subsonic diffusion zone. (a) a fluid inlet; (b) a fluid outlet; and (c) a plurality of supersonic compressor rotors (100, 200), each of the supersonic compressor rotors defining an inner cylindrical cavity and an outer rotor rim and at least one radial flow channel allowing fluid communication between the inner cylindrical cavity and the outer rotor rim, said radial flow channel comprising a supersonic compression ramp; characterised in that a first supersonic compressor rotor is disposed within an inner cylindrical cavity of a second supersonic compressor rotor; and wherein the radial flow channel defines a subsonic diffusion zone.
Cutting device for perforating a running fibrous material web transversely with respect to its web running direction, comprising a first row of knives (11.1) having a plurality of tips which is equipped, via a displacement device, which makes the row of knives (11.1) movable with a movement component in the web running direction and a movement component perpendicular to the web running direction, wherein, via a second row of knives (11.2), which has a plurality of tips and which can likewise be adjusted by a displacement device, approximately simultaneously with the first row of knives (11.1), perforation cuts can be introduced into the running fibrous material web in such a way that the spacing of the perforation cuts of the first row of cuts (6.1) from those of the second row of cuts (6.2) in the web running direction is at least 1 mm, preferably at least 3 mm, characterized in that the tips of the two rows of knives (11.1, 11.2) are for the most part not aligned in the web running direction.
A combination of a pneumatic tire, a tire rim, a tire-monitoring device (22; 30; 34), and an indicator; the pneumatic tire having a body (6, 8) having an inner surface; the tire being mounted to the tire rim to define a chamber; the tire-monitoring device (22; 30; 34) being carried by one of the tire and tire rim; the indicator being carried by one of the tire, tire rim, and tire monitoring device (22; 30; 34); the indicator being a non-reversible temperature-indicating label that allows an investigator to identify the temperature experienced by the tire as a potential cause of a tire failure by indicating if the label has been exposed to a minimum temperature, characterized in that the indicator is exposed to the chamber defined by the tire and the tire rim and has at least a first temperature-indicating area (20) adapted to provide a visual indication when the area is exposed to a first minimum temperature and a second temperature-indicating area (24 -24) adapted to provide a visual indication when the area is exposed to a second minimum temperature.
A mist generating apparatus having a longitudinal axis and comprising: first and second opposing nozzle surfaces which define a nozzle therebetween; and a first process fluid passage having an inlet connectable to a supply of process fluid, and a process fluid outlet on one of the first and second nozzle surfaces such that the process fluid outlet opens into the nozzle; wherein the nozzle has a nozzle inlet connectable to a supply of driving fluid, a nozzle outlet, and a throat portion intermediate the nozzle inlet and nozzle outlet, wherein the nozzle throat has a cross sectional area which is less than that of both the nozzle inlet and the nozzle outlet; wherein the nozzle extends radially away from the longitudinal axis such that the nozzle defines a rotational angle about the longitudinal axis; characterized in that a centre line of the nozzle extending from the nozzle throat to the nozzle outlet is at an angle of between 50 and 80 degrees relative to the longitudinal axis. first and second opposing nozzle surfaces which define a nozzle therebetween; and a first process fluid passage having an inlet connectable to a supply of process fluid, and a process fluid outlet on one of the first and second nozzle surfaces such that the process fluid outlet opens into the nozzle; wherein the nozzle has a nozzle inlet connectable to a supply of driving fluid, a nozzle outlet, and a throat portion intermediate the nozzle inlet and nozzle outlet, wherein the nozzle throat has a cross sectional area which is less than that of both the nozzle inlet and the nozzle outlet; wherein the nozzle extends radially away from the longitudinal axis such that the nozzle defines a rotational angle about the longitudinal axis; characterized in that a centre line of the nozzle extending from the nozzle throat to the nozzle outlet is at an angle of between 50 and 80 degrees relative to the longitudinal axis.
An article, in particular a medical device, comprising a coating, which coating comprises at least two layers, the at least two layers comprising an inner layer and an outer layer, of which the inner layer is a primer layer, comprising a supporting polymer network which is composed of a supporting polymer comprising polyether or polythioether moieties, the supporting polymer network optionally comprising a functional non-ionic hydrophilic polymer entangled in the supporting polymer network; and the outer layer is a functional layer comprising a functional non-ionic hydrophilic polymer and a polyelectrolyte.
A method of producing an aerogel blanket, the method comprising: 1) producing an aerogel precursor by mixing a hydrophobic aerogel powder with silica sol; 2) producing a hydrophobic wet gel-substrate composite by adding a basic catalyst to the aerogel precursor, depositing a mixture of the basic catalyst and the aerogel precursor onto a blanket substrate, and gelating the mixture; 3) performing hydrophobic surface modification of the hydrophobic wet gel-substrate composite; and 4) drying the hydrophobic wet gel-substrate composite. 1) producing an aerogel precursor by mixing a hydrophobic aerogel powder with silica sol; 2) producing a hydrophobic wet gel-substrate composite by adding a basic catalyst to the aerogel precursor, depositing a mixture of the basic catalyst and the aerogel precursor onto a blanket substrate, and gelating the mixture; 3) performing hydrophobic surface modification of the hydrophobic wet gel-substrate composite; and 4) drying the hydrophobic wet gel-substrate composite.
Method for determining a fee for sending a mailing, comprising the steps of: a) determining the weight and/or the volume of the mailing, b) selecting a three-dimensional body corresponding to the weight and/or the volume of the mailing, c) projecting the three-dimensional body onto the mailing, comprising superimposing a hologram of the three-dimensional body by way of a laser, d) checking in a visual inspection whether the projected three-dimensional body can enclose the mailing, e) if the projected three-dimensional body cannot enclose the mailing, selecting a larger three-dimensional body and repeating steps c) and d), f) if the projected three-dimensional body can enclose the mailing, determining the fee for sending the mailing in dependence on the determined weight and/or the volume and the selected three-dimensional body. a) determining the weight and/or the volume of the mailing, b) selecting a three-dimensional body corresponding to the weight and/or the volume of the mailing, c) projecting the three-dimensional body onto the mailing, comprising superimposing a hologram of the three-dimensional body by way of a laser, d) checking in a visual inspection whether the projected three-dimensional body can enclose the mailing, e) if the projected three-dimensional body cannot enclose the mailing, selecting a larger three-dimensional body and repeating steps c) and d), f) if the projected three-dimensional body can enclose the mailing, determining the fee for sending the mailing in dependence on the determined weight and/or the volume and the selected three-dimensional body.
A ball bearing comprising an inner ring, an outer ring, and balls wherein in their front and back there are rollers. On left and right are contained by sides of a cage. The cage is made of two rings which are connected by metal strips which form rectangles without the top side. These metal strips form stands of the cage, they hold the cage, they are part of the cage, and they sit on the inner ring. The inner ring is attached to a rotating shaft by a metal strip attachment which is an extension of the inner ring and is screwed to the shaft. The rollers are cylinders which rotate around axles. These axles pass through one hole of the cage through the hole of the roller and through the hole of the other ring of the cage. The rollers are not in contact with either the inner ring or the outer ring. The balls are in contact with the rotating inner ring and the stationary outer ring thus they receive rotation.
A process for selective production of 2-butanol from γ-valerolactone comprising: a. Providing in a reactor at least one transition metal catalyst selected from the group consisting of iron, ruthenium, cobalt, rhodium and iridium; b. Heating a feedstock containing GVL, thereby forming a heated GVL feedstock; c. Forming a reaction mixture by feeding into the reactor: i. The heated GVL feedstock; and ii. Hydrogen gas; and d. Maintaining the temperature of the reaction mixture in the range 220-300 °C to allow selective production of reaction products comprising 2-butanol; wherein no water is added during the process. a. Providing in a reactor at least one transition metal catalyst selected from the group consisting of iron, ruthenium, cobalt, rhodium and iridium; b. Heating a feedstock containing GVL, thereby forming a heated GVL feedstock; c. Forming a reaction mixture by feeding into the reactor: i. The heated GVL feedstock; and ii. Hydrogen gas; and i. The heated GVL feedstock; and ii. Hydrogen gas; and d. Maintaining the temperature of the reaction mixture in the range 220-300 °C to allow selective production of reaction products comprising 2-butanol;
A method for a user equipment, UE, the method comprising: receiving signaling, by the UE, the signaling including: a first Non-Zero Power, NZP, channel state information, CSI,-reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for interference measurement; and a CSI interference measurement, CSI-IM, configuration for interference measurement; and receiving, by the UE, a CSI feedback request for CSI based on at least the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration, characterized in that the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the interference measurement, where K >= 1 and K + 1 corresponds to a number of UE candidates for Multi-user Multiple-input Multiple-output, MU-MIMO. receiving signaling, by the UE, the signaling including: a first Non-Zero Power, NZP, channel state information, CSI,-reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for interference measurement; and a CSI interference measurement, CSI-IM, configuration for interference measurement; and a first Non-Zero Power, NZP, channel state information, CSI,-reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for interference measurement; and a CSI interference measurement, CSI-IM, configuration for interference measurement; and receiving, by the UE, a CSI feedback request for CSI based on at least the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration, characterized in that the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the interference measurement, where K >= 1 and K + 1 corresponds to a number of UE candidates for Multi-user Multiple-input Multiple-output, MU-MIMO.
A method for deep-frying food the cell membrane of which has been permeabilized, wherein the temperature of a deep-frying medium surrounding the food is controlled to be lowered from an initial temperature at the start of deep-frying to a final temperature in accordance with a predetermined temperature profile, wherein the food is continuously deep-fried while being moved along a direction of movement through zones (I to IV) with different temperatures of the deep-frying medium, and wherein the deep-frying medium discharged from one zone (I to III) is introduced into another zone (II to IV) downstream in the direction of movement.
Control method for a combustion engine in a vehicle, comprising: determining a reference value (x(t)), taking into account - an item of operating state information (FW, SB) and - a difference (δ) between an emission upper limit (EM G) and a cumulative actual emission value (EM K), influencing an operating state of the combustion engine by means of the reference value (x(t)) such that at least two actual emission values are set in such a way that the corresponding cumulative actual emission values, in an operating period with a combination of arbitrary, different operating states of the internal combustion engine set in a random sequence, do not exceed emission upper limits (EM G) for this operating period, wherein a target function is minimized by selecting the reference value (x(t)) from pareto-optimal alternatives by means of an indifference curve determined from the difference (δ), and an item of prediction information is taken into account for determining the difference (δ). determining a reference value (x(t)), taking into account - an item of operating state information (FW, SB) and - a difference (δ) between an emission upper limit (EM G) and a cumulative actual emission value (EM K), - an item of operating state information (FW, SB) and - a difference (δ) between an emission upper limit (EM G) and a cumulative actual emission value (EM K), influencing an operating state of the combustion engine by means of the reference value (x(t)) such that at least two actual emission values are set in such a way that the corresponding cumulative actual emission values, in an operating period with a combination of arbitrary, different operating states of the internal combustion engine set in a random sequence, do not exceed emission upper limits (EM G) for this operating period, wherein a target function is minimized by selecting the reference value (x(t)) from pareto-optimal alternatives by means of an indifference curve determined from the difference (δ), and an item of prediction information is taken into account for determining the difference (δ).