mhurhangee/ep-ind-claims huggingface dataset:
An OLED comprising: a substrate (204a, 204c); a bottom electrode (208a, 208c) disposed on the substrate; an organic stack (212a, 212c) disposed on the bottom electrode; and a metal film (216a, 216c) disposed on the organic stack, wherein the metal film has an outer surface and contacts the organic stack by a metal/organic interface, characterised in that a first plurality of nanostructures (224a, 224c) comprising a conductive network of nanowires is disposed on the metal/organic interface to increase the surface roughness of the metal film. a substrate (204a, 204c); a bottom electrode (208a, 208c) disposed on the substrate; an organic stack (212a, 212c) disposed on the bottom electrode; and a metal film (216a, 216c) disposed on the organic stack, wherein the metal film has an outer surface and contacts the organic stack by a metal/organic interface, characterised in that a first plurality of nanostructures (224a, 224c) comprising a conductive network of nanowires is disposed on the metal/organic interface to increase the surface roughness of the metal film.
Vehicle door handle comprising a handle holder and a handle movably borne on the handle holder, wherein the handle can assume at least a rest position and a stand-by position and wherein on incorporation into a vehicle door the handle in the rest position is arranged flush with the outer side of the vehicle door and in the stand-by position for operation is arranged protruding vis-à-vis the outer side of the vehicle door in a protruding direction, wherein a mass balancing element is connected to the handle and is borne on the handle holder in a swivelling manner about a swivel axis, and wherein on moving the handle from the rest position into the stand-by position, the handle swivels the mass balancing element out of a basic position into an operating position, characterised in that the mass balancing element is designed with its mass and/or its geometry matched to the handle in such a way that under the effect of an acceleration force directed in the protrusion direction the mass balancing element, both in the rest position and also in the stand-by position of the handle, produces a countermoment acting on the handle and preventing further movement of the handle in the protruding direction.
Device for stacking stackable parts, in particular pressings, the device comprising a conveying station with at least one conveying track, on which the parts can be transported individually, and at least one stacking container, into which the parts can be stacked, wherein a stacking device, which picks up parts from the conveying track of the conveying station and stacks them into the stacking container, is provided between the conveying station and the stacking container, wherein the stacking device comprises at least one stacking robot pair of two independently operating stacking robots (23a, 23b), wherein the stacking robots (23a, 23b) alternately or simultaneously pick up parts from the conveying track and are controlled by a control unit in such a way that a first and/or a second stacking robot (23a, 23b) picks up at least one part from the conveying track while the second and/or the first stacking robot (23a, 23b) transfers an already picked-up part to the stacking container used by both stacking robots (23a, 23b) and stacks it there, wherein the parts, if picked up simultaneously by the first and the second stacking robot (23a, 23b), are simultaneously stacked into the common stacking container at two different stacking locations, characterised in that two stacking robot pairs are arranged in series along a common conveying track, to which is assigned its own stacking container used jointly by both stacking robots (23a, 23b) of a respective stacking robot pair when stacking-in the parts, the two stacking robot pairs being designed such that every other part is allowed to pass by the stacking robot pair reached first in the conveying direction for stacking-in for the following stacking robot pair.
A computing device (100, 400) comprising: a processor (102, 402); a first storage device; and a second storage device storing instructions to implement a firmware, wherein the firmware is to: install an agent application into the first storage device; activate the agent application subsequent to installing the agent application; in response to receiving a manifest file, instruct the agent application to monitor the computing device (100, 400) based on the manifest file; receive a heartbeat message from the agent application, wherein the heartbeat message indicates a presence of the agent application; and in response to the firmware detecting an absence of the heartbeat message, re-install the agent application by the firmware upon reboot of the computing device. a processor (102, 402); a first storage device; and a second storage device storing instructions to implement a firmware, wherein the firmware is to: install an agent application into the first storage device; activate the agent application subsequent to installing the agent application; in response to receiving a manifest file, instruct the agent application to monitor the computing device (100, 400) based on the manifest file; receive a heartbeat message from the agent application, wherein the heartbeat message indicates a presence of the agent application; and in response to the firmware detecting an absence of the heartbeat message, re-install the agent application by the firmware upon reboot of the computing device. install an agent application into the first storage device; activate the agent application subsequent to installing the agent application; in response to receiving a manifest file, instruct the agent application to monitor the computing device (100, 400) based on the manifest file; receive a heartbeat message from the agent application, wherein the heartbeat message indicates a presence of the agent application; and in response to the firmware detecting an absence of the heartbeat message, re-install the agent application by the firmware upon reboot of the computing device.
A method of managing radiotherapy systems, comprising: forming a database of calibration data sets, each calibration data set comprising respective calibration settings for a plurality of components of a radiotherapy system, said calibration settings being used by the radiotherapy system to translate treatment plans into instructions for the plurality of components; deriving from the database respective allowable ranges for the calibration settings; receiving from a particular radiotherapy system, prior to implementation of a treatment plan, a calibration data set for the particular radiotherapy system; comparing the calibration settings of the calibration data set for the particular radiotherapy system with each of the allowable ranges; and if a subset of the plurality of calibration settings falls outside their respective allowable range, generating an alert signal. forming a database of calibration data sets, each calibration data set comprising respective calibration settings for a plurality of components of a radiotherapy system, said calibration settings being used by the radiotherapy system to translate treatment plans into instructions for the plurality of components; deriving from the database respective allowable ranges for the calibration settings; receiving from a particular radiotherapy system, prior to implementation of a treatment plan, a calibration data set for the particular radiotherapy system; comparing the calibration settings of the calibration data set for the particular radiotherapy system with each of the allowable ranges; and if a subset of the plurality of calibration settings falls outside their respective allowable range, generating an alert signal.
A receive node, RN, device arranged for reporting channel state information, CSI, between a transmit node, TN device and said RN device in a wireless communication system, said wireless communication system being a multi-carrier cellular communication system having a plurality of sub-carriers, said TN device being a base station, BS, and said RN device being a mobile station, MS, said TN device being arranged for transmission with multiple transmit antennas and the CSI being represented by one or more matrices, W i, from a codebook, C, comprising a plurality of matrices, wherein each matrix in said codebook, C, represents a state for the multi-antenna channel from said TN to said RN, where i is an integer, i= 0..K -1, for K ≥1 being the number of said one or more matrices, W i, said RN device being characterised by: circuitry adapted for reporting a first sub-index, k 1, where said plurality of sub-carriers in said multi-carrier communication system are divided into a plurality of frequency sub-bands, each one of said one or more matrices, W i, represents the CSI for a frequency sub-band, and said first sub-index, k 1, is common for all sub-bands; and circuitry adapted for reporting at least one additional second sub-index, k 2, for each one of said one or more matrices, W i, where said at least one additional second sub-index, k 2, for each one of said one or more matrices, W i, is specific for each sub-band; wherein: each one of said one or more matrices, W i, is indexed by said first sub-index, k 1, and second sub-index, k 2, and said first sub-index, k 1, and second sub-index, k 2, have different time-frequency reporting granularity. circuitry adapted for reporting a first sub-index, k 1, where said plurality of sub-carriers in said multi-carrier communication system are divided into a plurality of frequency sub-bands, each one of said one or more matrices, W i, represents the CSI for a frequency sub-band, and said first sub-index, k 1, is common for all sub-bands; and circuitry adapted for reporting at least one additional second sub-index, k 2, for each one of said one or more matrices, W i, where said at least one additional second sub-index, k 2, for each one of said one or more matrices, W i, is specific for each sub-band; wherein: each one of said one or more matrices, W i, is indexed by said first sub-index, k 1, and second sub-index, k 2, and said first sub-index, k 1, and second sub-index, k 2, have different time-frequency reporting granularity. each one of said one or more matrices, W i, is indexed by said first sub-index, k 1, and second sub-index, k 2, and said first sub-index, k 1, and second sub-index, k 2, have different time-frequency reporting granularity.
A surgical instrument configured for delivery proximate to tissue through a working channel of a delivery device, the surgical instrument comprising: an elongate shaft having at its distal portion an end effector; a fabric material positioned over at least a portion of the end effector at the distal portion of the elongate shaft, the surgical instrument being introducible into a body in a minimally invasive surgical procedure; characterised in that the fabric material is configured to rotate independently of the end effector to cause at least a portion of the distal portion of the elongate shaft to at least partially penetrate the tissue. an elongate shaft having at its distal portion an end effector; a fabric material positioned over at least a portion of the end effector at the distal portion of the elongate shaft, the surgical instrument being introducible into a body in a minimally invasive surgical procedure; characterised in that the fabric material is configured to rotate independently of the end effector to cause at least a portion of the distal portion of the elongate shaft to at least partially penetrate the tissue.
A pipe coupling comprising: a pipe coupling main body that is pipe-shaped; a screw portion that is provided at an axial direction one end portion of the pipe coupling main body; a torque input portion that is polygonal, is provided at an axial direction intermediate portion of the pipe coupling main body, and has, in a peripheral direction, a plurality of tool contacting surfaces to which torque is inputted; and a concave portion that is provided in the tool contacting surfaces except for at corner portions of a polygonal shape of the torque input portion and that is recessed in a radial direction from the tool contacting surfaces, wherein a division value that is obtained by a length L1 in an axial direction of the tool contacting surfaces except for the concave portion being divided by a length L2 in the axial direction of the tool contacting surfaces including the concave portion is from 0.18 to 0.88, wherein the pipe coupling main body, the screw portion and the torque input portion are molded integrally of a resin material, wherein the pipe coupling main body is formed by integral molding of a resin material by a mold, and wherein a region that corresponds to a resin injection opening of the mold is provided at at least one place at an outer periphery of the torque input portion, and a weld portion where the resin material, which has been injected in from the resin injection opening, joins together is provided at one of the corner portions. a pipe coupling main body that is pipe-shaped; a screw portion that is provided at an axial direction one end portion of the pipe coupling main body; a torque input portion that is polygonal, is provided at an axial direction intermediate portion of the pipe coupling main body, and has, in a peripheral direction, a plurality of tool contacting surfaces to which torque is inputted; and a concave portion that is provided in the tool contacting surfaces except for at corner portions of a polygonal shape of the torque input portion and that is recessed in a radial direction from the tool contacting surfaces, wherein a division value that is obtained by a length L1 in an axial direction of the tool contacting surfaces except for the concave portion being divided by a length L2 in the axial direction of the tool contacting surfaces including the concave portion is from 0.18 to 0.88, wherein the pipe coupling main body, the screw portion and the torque input portion are molded integrally of a resin material, wherein the pipe coupling main body is formed by integral molding of a resin material by a mold, and wherein a region that corresponds to a resin injection opening of the mold is provided at at least one place at an outer periphery of the torque input portion, and a weld portion where the resin material, which has been injected in from the resin injection opening, joins together is provided at one of the corner portions.
A mechanism for an electrical device, comprising a plurality of metal parts which are not arranged for conducting an electrical current of which a first part comprises a first contact surface and a second part comprises a second contact surface arranged to move in relation to, and in contact with, the first contact surface; characterised in that at least one of the first and second parts comprises a Graphene and Related Materials, GRM, at its contact surface, in a metal-GRM composite.
A stationary seal ring adapted to cooperate with a housing and an impeller to define a seal, the impeller rotatable about an axis and including a first seal portion and a plurality of blades that define an outside diameter, the stationary seal ring comprising: an alignment surface engageable with the housing; and a plurality of teeth, each tooth spaced axially from an adjacent tooth to define a cavity therebetween, each tooth including an upstream and a downstream side that extend at least partially radially inward and a tooth tip that defines a tip surface that is substantially parallel to the axis and that cooperates with the first seal portion to define a seal point, a first tooth disposed nearest to the blades having a first tip diameter, each subsequent tooth in a leakage flow direction having a tip diameter that is smaller than the first tip diameter, the plurality of teeth extending in an oblique direction with respect to the axis; each tooth includes a substantially trapezoidal cross section and there is a filet radius between adjacent teeth, characterised in that the fillet radius connects the upstream side of a tooth with the downstream side of the adjacent tooth. an alignment surface engageable with the housing; and a plurality of teeth, each tooth spaced axially from an adjacent tooth to define a cavity therebetween, each tooth including an upstream and a downstream side that extend at least partially radially inward and a tooth tip that defines a tip surface that is substantially parallel to the axis and that cooperates with the first seal portion to define a seal point, a first tooth disposed nearest to the blades having a first tip diameter, each subsequent tooth in a leakage flow direction having a tip diameter that is smaller than the first tip diameter, the plurality of teeth extending in an oblique direction with respect to the axis;
A sensing device (200A, 200B) for measuring plasma process parameters in a plasma chamber for processing workpieces, the sensing device comprising: a substrate made of a material that is substantially the same material as workpieces that are processed by a plasma in the plasma chamber; and one or more sensors embedded in the substrate, wherein each sensor comprises a collector portion made of substantially the same material as the substrate and sensor electronics embedded into the substrate and coupled to the collector portion, wherein the collector portion includes a surface that is coplanar with a top surface of the substrate; wherein the substrate includes a first layer and a second layer, the sensor electronics are sandwiched between the first and second layers (202, 204); the top surface of the substate and the collector portion are formed from the first layer, and the collector portion is electrically insulated from a remaining portion of the first layer. a substrate made of a material that is substantially the same material as workpieces that are processed by a plasma in the plasma chamber; and one or more sensors embedded in the substrate, wherein each sensor comprises a collector portion made of substantially the same material as the substrate and sensor electronics embedded into the substrate and coupled to the collector portion, wherein the collector portion includes a surface that is coplanar with a top surface of the substrate; wherein the substrate includes a first layer and a second layer, the sensor electronics are sandwiched between the first and second layers (202, 204); the top surface of the substate and the collector portion are formed from the first layer, and the collector portion is electrically insulated from a remaining portion of the first layer.
A processing unit configured to be connected to a catheter in a releasable fashion and configured to exchange data (M, C) with a component of the catheter, a database of a computer network and a computer device, wherein the processing unit comprises an integrated circuit for processing the data and a memory for storing the data, and wherein the processing unit is further configured to: - recognize the catheter using an identifier code of the catheter; - retrieve information (I, C) about the catheter from the memory of the processing unit or from the database; characterized in that the processing unit is further configured to: - transmit measurement data from the component of the catheter to the computer device; and - store the measurement data and the identifier code of the catheter and data relating to a procedure performed with the catheter on the database of the computer network. - recognize the catheter using an identifier code of the catheter; - retrieve information (I, C) about the catheter from the memory of the processing unit or from the database; characterized in that the processing unit is further configured to: - transmit measurement data from the component of the catheter to the computer device; and - store the measurement data and the identifier code of the catheter and data relating to a procedure performed with the catheter on the database of the computer network. - transmit measurement data from the component of the catheter to the computer device; and - store the measurement data and the identifier code of the catheter and data relating to a procedure performed with the catheter on the database of the computer network.
Method of milking a group of dairy animals (A, B) by means of an automatic milking system, wherein the group comprises at least two subgroups, wherein a first subgroup comprises dairy animals that produce a first type of milk, and a second subgroup comprises dairy animals that produce a second type of milk, wherein the method comprises the following steps: a) identifying a dairy animal that presents itself for a milking; b) taking a decision about whether the dairy animal that presents itself should be milked; c) milking the dairy animal if milking is desirable, characterized in that the method further comprises a step in which, if milking is desirable, upon identification of a dairy animal from the first subgroup a teat cleaning treatment for cleaning at least one teat of the dairy animal is carried out, and wherein, if milking is desirable, upon identification of a dairy animal from the second subgroup a limitation for a teat cleaning treatment to be carried out is issued by a control device. a) identifying a dairy animal that presents itself for a milking; b) taking a decision about whether the dairy animal that presents itself should be milked; c) milking the dairy animal if milking is desirable,
Pressure modulator of an anti-blocking system of a two-wheeler, comprising: - a main line having a first connector and a second connector for a wheel brake (121, 131); - a branch line which branches off from the main line; - a valve assembly having a first valve and second valve; - wherein the first valve is disposed in the main line, and the second valve is disposed in the branch line; and - a storage chamber, having a piston disposed in the storage chamber, and a restoring element for the piston; - wherein the branch line leads to the storage chamber; - wherein the branch line in a region between the first valve and the second connector branches off from the main line; and characterized in that the pressure modulator furthermore comprises a third valve which in the branch line is disposed between the second valve and the bifurcation point of the branch line from the main line; wherein the third valve is a continuously feedback-controllable valve. - a main line having a first connector and a second connector for a wheel brake (121, 131); - a branch line which branches off from the main line; - a valve assembly having a first valve and second valve; - wherein the first valve is disposed in the main line, and the second valve is disposed in the branch line; and - a storage chamber, having a piston disposed in the storage chamber, and a restoring element for the piston; - wherein the branch line leads to the storage chamber; - wherein the branch line in a region between the first valve and the second connector branches off from the main line; and
A grease composition comprising from 40 to 90wt% of a first base oil component which is a polyalphaolefin and having a kinematic viscosity at 100°C of between 1 and 5 mm 2 /s, wherein the weight percentage is based upon the weight of the grease composition, and comprising a thickener which is a C 13 -C 21 fatty acid salt of calcium, wherein the amount of thickener is from 2 to 18wt%, based upon the weight of the grease composition,