mhurhangee/ep-ind-claims huggingface dataset:
A vehicle FMCW, Frequency Modulated Continuous Wave, radar system comprising a transmitter arrangement, a receiver arrangement and at least one control unit, the radar system being arranged to be mounted in a vehicle, where the radar system is arranged to obtain a plurality of detections (14, 25) from received reflected signals along a main field of view during at least two radar cycles where each radar cycle comprises a plurality of FMCW signals, where, for each radar cycle, said control unit is arranged to form a spectrum density map that comprises range and angle spectrum for each detection (14, 25) in a grid pattern, as well as a calculated returned amount of reflected energy from stationary detections, and to combine at least two spectrum density maps to form a combined spectrum density map such that each grid point in the grid pattern relates to a plurality of detections acquired and accumulated during a certain time, wherein said control unit is arranged to determine that each part of the combined spectrum density map that has given rise to a reflected energy amount exceeding a certain threshold constitutes a zone that is disregarded in further processing of acquired radar data.
A method of continuous casting heterogeneous steels, the method comprising: obtaining dimensionless relative concentrations of subsequent steel to previous steel respectively at surface and inside of a continuous cast strand in real time; calculating positions in a longitudinal direction of the strand having the dimensionless relative concentrations of the surface and the inside obtained in real time; predicting a mixed portion in the strand by respectively comparing the obtained dimensionless relative concentrations of the surface and the inside with reference concentrations; and cutting off the predicted mixed portion. obtaining dimensionless relative concentrations of subsequent steel to previous steel respectively at surface and inside of a continuous cast strand in real time; calculating positions in a longitudinal direction of the strand having the dimensionless relative concentrations of the surface and the inside obtained in real time; predicting a mixed portion in the strand by respectively comparing the obtained dimensionless relative concentrations of the surface and the inside with reference concentrations; and cutting off the predicted mixed portion.
A process for the preparation of silica hollow nanoparticles, having a diameter smaller than 100 nm and a metal core inside a cavity comprising inorganic nanostructures, each having a diameter smaller than 3 nm and forming together an aggregate with poly(4-vinylpyridine), said process comprising the following steps: i) formation of ultra-small hydrophilic inorganic nanostructures, provided with a negatively charged coating, by reduction with sodium borohydride of an acid or a salt of a metal in alcoholic solution; ii) formation of an aggregate with poly(4-vinylpyridine) as an aggregating agent of said hydrophilic inorganic nanostructure, by addition of said poly(4-vinylpyridine) to an alcoholic solution of the inorganic nanostructures obtained from step i); iii) formation of said silica hollow nanoparticles having in the cavity a metal core comprising said aggregate of hydrophilic inorganic nanostructures by hydrolysis of tetraethyl orthosilicate catalysed by ammonia in a mixture of ethanol and water in the presence of said aggregate as obtained from step ii). i) formation of ultra-small hydrophilic inorganic nanostructures, provided with a negatively charged coating, by reduction with sodium borohydride of an acid or a salt of a metal in alcoholic solution; ii) formation of an aggregate with poly(4-vinylpyridine) as an aggregating agent of said hydrophilic inorganic nanostructure, by addition of said poly(4-vinylpyridine) to an alcoholic solution of the inorganic nanostructures obtained from step i); iii) formation of said silica hollow nanoparticles having in the cavity a metal core comprising said aggregate of hydrophilic inorganic nanostructures by hydrolysis of tetraethyl orthosilicate catalysed by ammonia in a mixture of ethanol and water in the presence of said aggregate as obtained from step ii).
A caddy configured to receive a medical implant coupled to a holder, the caddy comprising: a substantially planar top element having a top surface, a bottom surface, and an opening that extends through the substantially planar top element from the top surface to the bottom surface; and a support structure coupled to the substantially planar top element on the bottom surface such that the support structure provides a volume adjacent to the bottom surface configured to allow circulation of sterilization substances within the volume; and wherein the opening through the substantially planar top element has a non-symmetrical shape about at least one primary axis of the substantially planar top element, wherein the opening is configured to receive a substantially matching non-symmetrically shaped holder to which a medical implant is coupled, such that when the holder and the medical implant are received in the opening through the substantially planar top element, the holder is aligned in a predetermined orientation relative to the substantially planar top element. a substantially planar top element having a top surface, a bottom surface, and an opening that extends through the substantially planar top element from the top surface to the bottom surface; and a support structure coupled to the substantially planar top element on the bottom surface such that the support structure provides a volume adjacent to the bottom surface configured to allow circulation of sterilization substances within the volume; and wherein the opening through the substantially planar top element has a non-symmetrical shape about at least one primary axis of the substantially planar top element, wherein the opening is configured to receive a substantially matching non-symmetrically shaped holder to which a medical implant is coupled, such that when the holder and the medical implant are received in the opening through the substantially planar top element, the holder is aligned in a predetermined orientation relative to the substantially planar top element.
A compressed gas installation comprising a compressed gas system and a condensate drain, the condensate drain comprising: a body defining a drain chamber and having: a liquid-gas inlet coupled to the compressed gas system to receive condensate into the drain chamber; and a liquid outlet coupled to a condensate return system of the compressed gas system for collecting condensate; and a porous membrane disposed within the body between the liquid-gas inlet and the liquid outlet and having: an inlet side in fluid communication with the liquid-gas inlet; an outlet side in fluid communication with the liquid outlet; and a plurality of passageways extending from the inlet side to the outlet side, each having a pore size of about 0.2μm or less; wherein in use, the porous membrane permits liquid to pass therethrough but restricts the passage of gas; and wherein the condensate drain is configured in the compressed gas installation such that in use the outlet side of the porous membrane is maintained wetted. a body defining a drain chamber and having: a liquid-gas inlet coupled to the compressed gas system to receive condensate into the drain chamber; and a liquid outlet coupled to a condensate return system of the compressed gas system for collecting condensate; and a liquid-gas inlet coupled to the compressed gas system to receive condensate into the drain chamber; and a liquid outlet coupled to a condensate return system of the compressed gas system for collecting condensate; and a porous membrane disposed within the body between the liquid-gas inlet and the liquid outlet and having: an inlet side in fluid communication with the liquid-gas inlet; an outlet side in fluid communication with the liquid outlet; and a plurality of passageways extending from the inlet side to the outlet side, each having a pore size of about 0.2μm or less; an inlet side in fluid communication with the liquid-gas inlet; an outlet side in fluid communication with the liquid outlet; and a plurality of passageways extending from the inlet side to the outlet side, each having a pore size of about 0.2μm or less; wherein in use, the porous membrane permits liquid to pass therethrough but restricts the passage of gas; and wherein the condensate drain is configured in the compressed gas installation such that in use the outlet side of the porous membrane is maintained wetted.
An apparatus, comprising: a first capillary component including an open distal end portion; a second capillary component disposed outside of the first capillary component and having an inner surface, wherein a portion of the inner surface is heat-fused to an outer surface of the first capillary component, an outer cover coupled to and disposed outside of the second capillary component, and forming a distal end of the apparatus and a distal internal surface; and a portion of an optical fiber disposed inside of the first capillary component and having an outer surface, wherein a portion of the outer surface of the optical fiber is heat-fused to an inner surface of the first capillary component, the optical fiber having a distal surface configured to reflect electromagnetic radiation propagated along a longitudinal axis of a distal end portion of the optical fiber in a lateral direction through the inner surface of the first capillary component and the inner surface of the second capillary component, wherein the outer cover is configured to reflect stray laser energy internal to the apparatus and includes an opening configured such that the electromagnetic radiation is emitted through the opening when laterally reflected from the distal surface of the optical fiber, the apparatus being characterised in that the second capillary component has an open distal end portion, and in that the open distal end portions of the first and the second capillary component extend distally beyond the distal surface of the optical fiber towards the distal internal surface of the outer cover. a first capillary component including an open distal end portion; a second capillary component disposed outside of the first capillary component and having an inner surface, wherein a portion of the inner surface is heat-fused to an outer surface of the first capillary component, an outer cover coupled to and disposed outside of the second capillary component, and forming a distal end of the apparatus and a distal internal surface; and a portion of an optical fiber disposed inside of the first capillary component and having an outer surface, wherein a portion of the outer surface of the optical fiber is heat-fused to an inner surface of the first capillary component, the optical fiber having a distal surface configured to reflect electromagnetic radiation propagated along a longitudinal axis of a distal end portion of the optical fiber in a lateral direction through the inner surface of the first capillary component and the inner surface of the second capillary component, wherein the outer cover is configured to reflect stray laser energy internal to the apparatus and includes an opening configured such that the electromagnetic radiation is emitted through the opening when laterally reflected from the distal surface of the optical fiber, the apparatus being characterised in that the second capillary component has an open distal end portion, and in that the open distal end portions of the first and the second capillary component extend distally beyond the distal surface of the optical fiber towards the distal internal surface of the outer cover.
A method comprising, by one or more computing devices: accessing first data associated with mobile-computing-device usage by a user of a social networking system; accessing second data associated with past user states of the user, a user state of the user comprising a temporal, spatial, modal, or social accessibility of the user; and predicting, by combined weighted predictor functions, wherein each predictor function is generated using a machine learned algorithm that is trained using a user's historical activity associated with a specific user state, based at least in part on the first and second data: a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; adapting the operation of a mobile computing device of the user at the future time to the future user state; and adapting network interaction with a mobile computing device of the user at the future time to the future mobile-computing-device usage, the adaptation comprising requesting interaction by the mobile computing device with the social networking system by automatically selecting social-networking information to push to the mobile computing device of the user relevant to the user travelling within the geographical area. accessing first data associated with mobile-computing-device usage by a user of a social networking system; accessing second data associated with past user states of the user, a user state of the user comprising a temporal, spatial, modal, or social accessibility of the user; and predicting, by combined weighted predictor functions, wherein each predictor function is generated using a machine learned algorithm that is trained using a user's historical activity associated with a specific user state, based at least in part on the first and second data: a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; adapting the operation of a mobile computing device of the user at the future time to the future user state; and adapting network interaction with a mobile computing device of the user at the future time to the future mobile-computing-device usage, the adaptation comprising requesting interaction by the mobile computing device with the social networking system by automatically selecting social-networking information to push to the mobile computing device of the user relevant to the user travelling within the geographical area.
An organic light emitting device, comprising: a base part; patterned first electrodes on the base part; conductive material layers between the first electrodes and spaced apart from the patterned first electrodes; pixel defining layers between the patterned first electrodes, the pixel defining layers overlapping only a portion of upper surfaces of the conductive material layers; light emitting layers (510, 520, 530) on the first electrodes, wherein the light emitting layers (510, 520, 530) include a red light emitting layer, a green light emitting layer, and a blue light emitting layer; and a second electrode on the light emitting layers (510, 520, 530), and characterized in that the conductive material layers are formed in the shape of rectangular fences surrounding only the first electrodes corresponding to the green light emitting layer. a base part; patterned first electrodes on the base part; conductive material layers between the first electrodes and spaced apart from the patterned first electrodes; pixel defining layers between the patterned first electrodes, the pixel defining layers overlapping only a portion of upper surfaces of the conductive material layers; light emitting layers (510, 520, 530) on the first electrodes, wherein the light emitting layers (510, 520, 530) include a red light emitting layer, a green light emitting layer, and a blue light emitting layer; and a second electrode on the light emitting layers (510, 520, 530), and characterized in that the conductive material layers are formed in the shape of rectangular fences surrounding only the first electrodes corresponding to the green light emitting layer.
A process for producing a flavor enhancer for beer and beer-like beverage and beverage of a roast material, which comprises the steps of: dipping a cereal in water and grinding it with a mill; heating a grinded matter of the cereal dipped in water at 60 to 121°C for 1 to 90 minutes; treating the grinded matter at 5 to 90°C for 0.5 to 96 hours, with protease added in an amount of 0.0001 to 20% by weight of the grinded matter; deactivating the protease upon heating at 55 to 140°C for 1 to 180 minutes; and recovering the extract by solid-liquid separation and removing the solid matter. dipping a cereal in water and grinding it with a mill; heating a grinded matter of the cereal dipped in water at 60 to 121°C for 1 to 90 minutes; treating the grinded matter at 5 to 90°C for 0.5 to 96 hours, with protease added in an amount of 0.0001 to 20% by weight of the grinded matter; deactivating the protease upon heating at 55 to 140°C for 1 to 180 minutes; and recovering the extract by solid-liquid separation and removing the solid matter.
A WIRELESS FUSE SWITCH for use with an electrical system of a vehicle having a vehicle battery connected to provide power to at least one electrical subsystem through a fuse contained within a fuse socket, the wireless fuse switch comprising: a wireless control module including an internal power supply and a control module transceiver that receives wireless control commands; a fuse module connected to the wireless control module to receive control signals from the wireless control module, the fuse module including an outer housing; a controller located within the outer housing; a switching device located within the outer housing and movable between an open position and a closed position based upon command signals from the controller; a plurality of fuse blades extending from the outer housing and sized for receipt in the fuse socket of the vehicle electrical system; and a fusible link (130, 136) positioned between the fuse blades.
A method for confirming presence of mobile devices in the presence of a tag comprising: receiving a data object, the data object generated by a smart tag in response to a request from a mobile device and provided to the mobile device in one or more Near-Field Communications in the form of one or more Data Exchange Format (NDEF) records, the data object including a Tag Authentication Cryptogram and an identifier of the smart tag, the TAC generated by the smart tag based on a unique cryptographic key associated with the smart tag and a counter value; an authentication service (116, 208) analyzing the TAC to determine that the data object was received from the smart tag via a unique interaction between the smart tag and the mobile device as opposed to being a copy or replay of a data object from a previous interaction with the smart tag, whereby the authentication service comprises as components a TAGID repository comprising location information, unique cryptographic keys and counter values associated with smart tags and a cryptographic engine that enable the authentication service to analyze responses received at a mobile device during a tag interaction; and correlating the location of the mobile device with the location of the smart tag only in response to determining that the data object was received from the smart tag via the unique interaction between the smart tag and the mobile device. receiving a data object, the data object generated by a smart tag in response to a request from a mobile device and provided to the mobile device in one or more Near-Field Communications in the form of one or more Data Exchange Format (NDEF) records, the data object including a Tag Authentication Cryptogram and an identifier of the smart tag, the TAC generated by the smart tag based on a unique cryptographic key associated with the smart tag and a counter value; an authentication service (116, 208) analyzing the TAC to determine that the data object was received from the smart tag via a unique interaction between the smart tag and the mobile device as opposed to being a copy or replay of a data object from a previous interaction with the smart tag, whereby the authentication service comprises as components a TAGID repository comprising location information, unique cryptographic keys and counter values associated with smart tags and a cryptographic engine that enable the authentication service to analyze responses received at a mobile device during a tag interaction; and correlating the location of the mobile device with the location of the smart tag only in response to determining that the data object was received from the smart tag via the unique interaction between the smart tag and the mobile device.
An integrated turbomachine comprising: a casing; an electric motor housed in the casing; a driven turbomachine component housed in the casing; a rotating shaft drivingly connecting the electric motor and the driven turbomachine component, said shaft housed in the casing and having a longitudinal rotation axis (A-A); at least one thrust bearing and at least one radial bearing (21, 23, 25) rotatingly supporting the shaft; characterized by an axial locking device housed inside the casing, arranged and configured for applying a thrust to the shaft, parallel to the rotation axis (A-A) of the shaft, and comprised of an actuator member, configured to at least one of selectively activate and deactivate the axial locking device; wherein the actuator member comprises a cylinder-piston actuator operated by a pressurized fluid. a casing; an electric motor housed in the casing; a driven turbomachine component housed in the casing; a rotating shaft drivingly connecting the electric motor and the driven turbomachine component, said shaft housed in the casing and having a longitudinal rotation axis (A-A); at least one thrust bearing and at least one radial bearing (21, 23, 25) rotatingly supporting the shaft; characterized by an axial locking device housed inside the casing, arranged and configured for applying a thrust to the shaft, parallel to the rotation axis (A-A) of the shaft, and comprised of an actuator member, configured to at least one of selectively activate and deactivate the axial locking device; wherein the actuator member comprises a cylinder-piston actuator operated by a pressurized fluid.