mhurhangee/ep-ind-claims huggingface dataset:
An electric drive (1', 1", 1''') comprising a passively magnetically supported rotor, at least one actuator for controlling the position of the rotor in the unstable direction of the magnetic bearing, a first control device for controlling the position of the rotor in the unstable direction, the first control device being designed to apply a current to an actuator for controlling the position of the rotor in the unstable direction and to control the position of the rotor in the unstable direction in such a way that the actuator does not conduct a current in the stationary state, characterised in that, a second control device (20, 20') is present for controlling the position of the rotor in the unstable direction, that the second control device (20, 20', 20") is designed to evaluate a value representing the position of the rotor and, as a function of the value, to influence an actuator (3, 3') for controlling the position in the unstable direction in such a way that the actuator (3, 3') conducts a predetermined stationary actuator current in the stationary state.
A method for coating a substrate of a gas turbine engine component, the method comprising: suspension plasma spraying of a bimodal size distribution of a ceramic powder of essentially uniform chemical composition to form a first ceramic layer, the bimodal size distribution having a trough spanning a transition size for powder behavior of gas-flow trajectories of smaller particles and ballistic trajectories of larger particles; and applying at least one additional ceramic layer to the substrate prior to said spraying, wherein the applying at least one additional ceramic layer comprises suspension plasma spraying a unimodal distribution of powder and the powder comprises particles of a lesser D50 size than a D50 size of the particles of the bimodal size distribution, wherein the first ceramic layer is atop the additional ceramic layer, and wherein the component optionally comprises a bond coat atop an external surface of the substrate, and the additional ceramic layer is atop the bond coat. suspension plasma spraying of a bimodal size distribution of a ceramic powder of essentially uniform chemical composition to form a first ceramic layer, the bimodal size distribution having a trough spanning a transition size for powder behavior of gas-flow trajectories of smaller particles and ballistic trajectories of larger particles; and applying at least one additional ceramic layer to the substrate prior to said spraying, wherein the applying at least one additional ceramic layer comprises suspension plasma spraying a unimodal distribution of powder and the powder comprises particles of a lesser D50 size than a D50 size of the particles of the bimodal size distribution, wherein the first ceramic layer is atop the additional ceramic layer, and wherein the component optionally comprises a bond coat atop an external surface of the substrate, and the additional ceramic layer is atop the bond coat.
Apparatus for optical imaging of Cerenkov luminescence from an object subsequent to the object receiving a dose of a radiopharmaceutical, the apparatus comprising: a light tight enclosure within which the sample can be received at a sample location; a first imaging means for capturing a first image of the sample whilst the sample is illuminated, the first imaging means having a first dynamic range; a second imaging means outside of the enclosure, the second imaging means configured for Cerenkov luminescence imaging for capturing a second image of the sample whilst the sample is not illuminated, the second imaging means having a second dynamic range; and one or more optical elements, wherein light paths feeding the first and second imaging means pass through the optical elements such that the first and second imaging means both image the same region of the sample. a light tight enclosure within which the sample can be received at a sample location; a first imaging means for capturing a first image of the sample whilst the sample is illuminated, the first imaging means having a first dynamic range; a second imaging means outside of the enclosure, the second imaging means configured for Cerenkov luminescence imaging for capturing a second image of the sample whilst the sample is not illuminated, the second imaging means having a second dynamic range; and one or more optical elements, wherein light paths feeding the first and second imaging means pass through the optical elements such that the first and second imaging means both image the same region of the sample.
A system for implantation in a mammal body for the control of and communication with a medical implant in the mammal body, the system being adapted to be implanted in the abdomen, thorax or the pelvic region of a mammal body in proximity to the medical implant, the system comprising: a command input device adapted to receive commands from a user as voice commands; a processing device coupled to the command input device; and a memory unit, connected to at least one of said devices, for storing a memory bank of commands, a command generator coupled to the processing device, the command generator being adapted to generate and communicate commands to the medical implant in response to input received from the processing device; characterized in that the processing device comprises a filter adapted to filter received voice commands against a background of high frequency losses and of frequency distortion caused by the mammal body; the processing device is further adapted to process the voice commands to reduce or eliminate noise caused by the mammal body in the received voice commands, wherein the processing device is adapted to recognize one or more specific noise sources in the mammal body, and activating said cancellation when noise from such a noise source is detected above a predefined threshold; the processing device is adapted to deliver the filtered or filtered and processed voice commands as input to the command generator, and the command generator is adapted to compare received voice commands to voice commands stored in the memory unit, and if said comparison yields a likeness, to generate a corresponding command and communicate it to the medical implant. a command input device adapted to receive commands from a user as voice commands; a processing device coupled to the command input device; and a memory unit, connected to at least one of said devices, for storing a memory bank of commands, a command generator coupled to the processing device, the command generator being adapted to generate and communicate commands to the medical implant in response to input received from the processing device; characterized in that the processing device comprises a filter adapted to filter received voice commands against a background of high frequency losses and of frequency distortion caused by the mammal body; the processing device is further adapted to process the voice commands to reduce or eliminate noise caused by the mammal body in the received voice commands, wherein the processing device is adapted to recognize one or more specific noise sources in the mammal body, and activating said cancellation when noise from such a noise source is detected above a predefined threshold; the processing device is adapted to deliver the filtered or filtered and processed voice commands as input to the command generator, and the command generator is adapted to compare received voice commands to voice commands stored in the memory unit, and if said comparison yields a likeness, to generate a corresponding command and communicate it to the medical implant.
Method for producing a contour in a planar substrate and for separating the contour from the substrate, in particular for producing an internal contour in a planar substrate and for removing the internal contour from the substrate, wherein in a contour definition step (a) by means of a laser beam guided over the substrate along a contour line characterising the contour to be produced, a large number of individual zones (5-1, 5-2,...) of internal damage is produced in the substrate material, and in a material removal- and optional additional material deformation step (c) performed after the contour definition step (a) by means of a laser beam guided over the substrate and optionally additionally radiated onto the substrate, substrate material is removed from the substrate and/or substrate material is detached from the substrate by material removal and optionally additionally by plastic deformation, characterized in that the material removal- and optional additional material deformation step (c) performed after the contour definition step (a) is or comprises a material removal step, in which, by means of a material-removing laser beam guided over the substrate along a removal line which extends along the contour line but at a spacing from the latter and also in the contour to be separated, the substrate material is removed over the entire substrate thickness.
A method performed by a terminal, the method comprising: sensing (5e-05, 5e-10) an event associated with at least one data radio bearer, DRB, to be suspended, wherein the event corresponds to one of a radio link failure or a reception of a first radio resource control, RRC, message including a resume identity for a suspension of an RRC connection; suspending (5e-15, 5e-30) all DRBs, and at least one signaling radio bearer, SRB, based on the sensing of the event; transmitting (5e-35), to a base station, a second RRC message including the resume identity for requesting a resumption of a suspended RRC connection through an SRB 0, in case that the terminal received the first RRC message, wherein the SRB 0 and an SRB 1 are kept; receiving (5e-40), from the base station, a third RRC message for resuming the suspended RRC connection through the SRB 1 as a response to the second RRC message, the third message including a next hop chaining count, NCC; and resuming (5e-45) an SRB2 and all DRBs based on the third RRC message, wherein a key, based on which a communication is performed between the terminal and the base station, is updated based on the NCC, wherein an integrity protection is applied to the third RRC message based on the key, and wherein a ciphering is deactivated based on the first RRC message and the ciphering is activated in case that the integrity of the third RRC message is verified successfully. sensing (5e-05, 5e-10) an event associated with at least one data radio bearer, DRB, to be suspended, wherein the event corresponds to one of a radio link failure or a reception of a first radio resource control, RRC, message including a resume identity for a suspension of an RRC connection; suspending (5e-15, 5e-30) all DRBs, and at least one signaling radio bearer, SRB, based on the sensing of the event; transmitting (5e-35), to a base station, a second RRC message including the resume identity for requesting a resumption of a suspended RRC connection through an SRB 0, in case that the terminal received the first RRC message, wherein the SRB 0 and an SRB 1 are kept; receiving (5e-40), from the base station, a third RRC message for resuming the suspended RRC connection through the SRB 1 as a response to the second RRC message, the third message including a next hop chaining count, NCC; and resuming (5e-45) an SRB2 and all DRBs based on the third RRC message, wherein a key, based on which a communication is performed between the terminal and the base station, is updated based on the NCC, wherein an integrity protection is applied to the third RRC message based on the key, and wherein a ciphering is deactivated based on the first RRC message and the ciphering is activated in case that the integrity of the third RRC message is verified successfully.
A method for determining whether a microorganism produces a carbapenem or penem hydrolysing β-lactamase, comprising: providing a reagent composition comprising a β-lactam containing antibiotic, an extended-spectrum β-lactamase inhibitor and/or an AmpC inhibitor to which the carbapenem or penem hydrolysing β-lactamase is resistant, and a membrane permeabilizing agent which is ethylene glycol tetraacetic acid (EGTA) that permeabilizes the microorganism's outer membrane; contacting the microorganism suspected of producing a β-lactamase with the reagent composition; and culturing the microorganism with the reagent composition in a culture medium comprising a reporter microorganism wherein a positive test is determined by an increase in the growth of the reporter microorganism. providing a reagent composition comprising a β-lactam containing antibiotic, an extended-spectrum β-lactamase inhibitor and/or an AmpC inhibitor to which the carbapenem or penem hydrolysing β-lactamase is resistant, and a membrane permeabilizing agent which is ethylene glycol tetraacetic acid (EGTA) that permeabilizes the microorganism's outer membrane; contacting the microorganism suspected of producing a β-lactamase with the reagent composition; and culturing the microorganism with the reagent composition in a culture medium comprising a reporter microorganism wherein a positive test is determined by an increase in the growth of the reporter microorganism.
A particle-beam energy changing apparatus comprising - a first energy changing unit and a second energy changing unit each having a particle-beam energy attenuator and arranged so that a particle beam passes through the first energy changing unit and the second energy changing unit, adapted to change energy of the passing particle beam by varying thicknesses of the attenuators, and - an energy-change substitution control unit (10, 100) which is adapted to control the first energy changing unit and the second energy changing unit, - wherein a maximum attenuation amount by the first energy changing unit is set smaller than a maximum attenuation amount by the second energy changing unit, and - the energy-change substitution control unit (10, 100) is configured to perform a control of changing energy of the particle beam at least by changing an attenuation amount by the first energy changing unit when energy of the particle beam is controlled to change, characterized in that comprises - a substitution control that is adapted to substitute an attenuation amount by the first energy changing unit and an attenuation amount by the second energy changing unit for each other by changing the attenuation amount by the first energy changing unit and the attenuation amount by the second energy changing unit so that a total attenuation amount of the attenuation amount by the first energy changing unit and the attenuation amount by the second energy changing unit remains unchanged when energy of the particle beam after passing through the particle-beam energy changing apparatus is controlled to be constant. - a first energy changing unit and a second energy changing unit each having a particle-beam energy attenuator and arranged so that a particle beam passes through the first energy changing unit and the second energy changing unit, adapted to change energy of the passing particle beam by varying thicknesses of the attenuators, and - an energy-change substitution control unit (10, 100) which is adapted to control the first energy changing unit and the second energy changing unit, - wherein a maximum attenuation amount by the first energy changing unit is set smaller than a maximum attenuation amount by the second energy changing unit, and - the energy-change substitution control unit (10, 100) is configured to perform a control of changing energy of the particle beam at least by changing an attenuation amount by the first energy changing unit when energy of the particle beam is controlled to change, characterized in that comprises - a substitution control that is adapted to substitute an attenuation amount by the first energy changing unit and an attenuation amount by the second energy changing unit for each other by changing the attenuation amount by the first energy changing unit and the attenuation amount by the second energy changing unit so that a total attenuation amount of the attenuation amount by the first energy changing unit and the attenuation amount by the second energy changing unit remains unchanged when energy of the particle beam after passing through the particle-beam energy changing apparatus is controlled to be constant.
An organic electroluminescent device comprising: a substrate; a hole-injecting electrode disposed over the substrate; an anode buffer layer coated over the hole-injecting electrode; a polymer-based light emissive layer containing phosphorescent dopants, a first and a second material, the first material being a light emitting polymer and the second material being a material capable of charge transport, said polymer-based light emissive layer being coated over the anode buffer layer; a small molecule-based light emissive layer disposed over the polymer-based light emissive layer; and an electron-injecting electrode disposed over the small molecule-based light emissive layer. a substrate; a hole-injecting electrode disposed over the substrate; an anode buffer layer coated over the hole-injecting electrode; a polymer-based light emissive layer containing phosphorescent dopants, a first and a second material, the first material being a light emitting polymer and the second material being a material capable of charge transport, said polymer-based light emissive layer being coated over the anode buffer layer; a small molecule-based light emissive layer disposed over the polymer-based light emissive layer; and an electron-injecting electrode disposed over the small molecule-based light emissive layer.
Method for providing an update to devices (1, 2, 3) of an Internet of Things platform, wherein the update is provided by a Central Management System and wherein a mediator process in the Central Management System transmits a request of update of one or more of said devices (1, 2, 3) to be updated to a block-chain system including a plurality of nodes (51, 52), wherein the block-chain system delivers the update to said one or more devices (1, 2) to be updated only if said request of update from the Central Management System is validated and authorized from at least some of the nodes (51, 52) of the block-chain system, and wherein said request of update is delivered from the block-chain system to the one or more devices (1, 2) to be updated through a second mediator process which is associated to the devices (1, 2, 3) of the Internet of Things platform, characterized by the fact that -the update is an Over The Air, OTA, update; - the second mediator process is executed in at least one of the devices (1, 2, 3) of the Internet of Things platform, - each device of said one or more devices (1, 2) which have received the update applies the update and returns to the block-chain system an event and/or a response by means of said second mediator process, once the update has been applied, - said update from the Central Management System is an OTA command addressed from a user of the Central Management System to the one or more of said devices (1, 2) to be updated, - the mediator process of the Central Management System retrieves a cryptographic key associated to the user in the Central Management System and returns the OTA command to the block-chain as a request of transaction signed by said cryptographic key of the user, and wherein - the nodes (51, 52) of the block-chain receive the request of transaction from the mediator process and deliver it to other nodes of the block-chain system for verification. - the second mediator process is executed in at least one of the devices (1, 2, 3) of the Internet of Things platform, - each device of said one or more devices (1, 2) which have received the update applies the update and returns to the block-chain system an event and/or a response by means of said second mediator process, once the update has been applied, - said update from the Central Management System is an OTA command addressed from a user of the Central Management System to the one or more of said devices (1, 2) to be updated, - the mediator process of the Central Management System retrieves a cryptographic key associated to the user in the Central Management System and returns the OTA command to the block-chain as a request of transaction signed by said cryptographic key of the user, and wherein - the nodes (51, 52) of the block-chain receive the request of transaction from the mediator process and deliver it to other nodes of the block-chain system for verification.
Chassis for trailers, particularly for semitrailers, wherein the chassis includes side members and at the front has a plate with a tractive connector, particularly a trailer hitch plate with a kingpin, wherein the chassis is of multipart construction and has a rear body part which includes the side members and a front head part which includes the plate and the tractive connector, wherein the head part is a box structure and is mounted on and fastened to the front side of the body part, characterised in that the head part has a trough-like, recessed box construction with a bottom which accommodates the tractive connector and which has box walls (18, 19, 20) extending round the periphery thereof.
A low-temperature vaporizer, comprising: an electromagnetic induction coil and a sleeve, configured for receiving solid vaporizable materials; the sleeve is made from metallic materials; the electromagnetic induction coil encircles the outside of the sleeve; characterised in that the sleeve comprises a first sleeve and a second sleeve connected with the first sleeve; a longitudinal axis extending along a same axis direction of the first sleeve and the second sleeve, and a transverse axis that is perpendicular to the longitudinal axis; a cross-sectional area of the first sleeve is smaller than that of the second sleeve along the transverse axis, and the second sleeve has a bigger mass than the first sleeve such during electromagnetic induction by the induction coil the increasing rate of temperature of the second sleeve is slower than that of the first sleeve. an electromagnetic induction coil and a sleeve, configured for receiving solid vaporizable materials; the sleeve is made from metallic materials; the electromagnetic induction coil encircles the outside of the sleeve; characterised in that the sleeve comprises a first sleeve and a second sleeve connected with the first sleeve; a longitudinal axis extending along a same axis direction of the first sleeve and the second sleeve, and a transverse axis that is perpendicular to the longitudinal axis; a cross-sectional area of the first sleeve is smaller than that of the second sleeve along the transverse axis, and the second sleeve has a bigger mass than the first sleeve such during electromagnetic induction by the induction coil the increasing rate of temperature of the second sleeve is slower than that of the first sleeve.