mhurhangee/ep-ind-claims huggingface dataset:
A mobility management entity selection method executed by a first mobility management entity, comprising: receiving an access request message from user equipment, UE, wherein the access request message carries identity information of the UE; obtaining subscription data of the UE from a home subscriber server according to the identity information of the UE, wherein the subscription data comprises information about a type of a second mobility management entity that the UE needs to access; determining, according to the subscription data, the type of the second mobility management entity; selecting the second mobility management entity according to the type of the second mobility management entity; and forwarding the access request message to the second mobility management entity. receiving an access request message from user equipment, UE, wherein the access request message carries identity information of the UE; obtaining subscription data of the UE from a home subscriber server according to the identity information of the UE, wherein the subscription data comprises information about a type of a second mobility management entity that the UE needs to access; determining, according to the subscription data, the type of the second mobility management entity; selecting the second mobility management entity according to the type of the second mobility management entity; and forwarding the access request message to the second mobility management entity.
Method for producing a mixture with which electrodes of batteries or accumulators or of fuel cells are coated, wherein conductive material, active material and at least one binder, as solid components in powder or granulate form, and liquid are mixed, wherein first the binder is continuously mixed with the liquid and dissolved in the liquid and that the mixture and solution thus continuously produced are continuously conveyed further and the further components of the mixture to be produced are each continuously admixed therewith in mixing devices which follow in the conveying direction, wherein the plurality of method steps are combined and so the whole mixing method proceeds continuously, characterised in that after at least one or a plurality or each continuous mixing and/or dispersing process in a mixing and/or dispersing device, the partial mixture and/or the pre-mix is poured into at least one intermediate storage or buffer container and from there is again transferred into the mixing and/or dispersing device or into the next mixing device, and that the dispersed mixture is then returned upstream of or into the mixing and/or dispersing device via a branch in an ongoing line, which is arranged downstream of a respective intermediate storage container, and a return line.
Lighting device (1; 31), having - a cooling element having at least one carrier (6; 32) attached to its outer side for at least one semiconductor light source, in particular a light-emitting diode; - a recess for holding a driver; - at least one electrically insulating feed, which connects the recess to the outer side of the cooling element; - the feed having a contact surface adjoining the outer side of the cooling element in a flush manner, which contact surface is at least partly covered by the carrier (6; 32), characterized in that the feed has a projection projecting outwards with respect to the outer side of the cooling element, wherein a surface of the projection and the contact surface form a step. - a cooling element having at least one carrier (6; 32) attached to its outer side for at least one semiconductor light source, in particular a light-emitting diode; - a recess for holding a driver; - at least one electrically insulating feed, which connects the recess to the outer side of the cooling element; - the feed having a contact surface adjoining the outer side of the cooling element in a flush manner, which contact surface is at least partly covered by the carrier (6; 32),
An image-processing method of removing noise from an image, performed by an image processing apparatus, the method comprising: obtaining, by the image processing apparatus, a standard representative value for a standard region of a standard image from pixel values of pixels inside the standard region and a reference representative value for a reference region of a reference image from pixel values of pixels inside the reference region; obtaining, by the image processing apparatus, a hierarchical image structure of the standard image and a hierarchical image structure of the reference image based on the standard representative value and the reference representative value, each hierarchical image structure comprising a plurality of hierarchical images having different resolutions; matching, by the image processing apparatus, the standard region in the hierarchical image structure of the standard image to the reference region in the hierarchical image structure of the reference image based on motion information of the standard image and the reference image; determining, by the image processing apparatus, similarity information of the standard regions and the reference regions based on the standard representative values and the reference representative values; and removing, by the image processing apparatus, noise of the standard region by applying temporal filtering to the standard region based on the reference region when the similarity information indicates that the temporal filtering to the standard region is performed based on the reference region. obtaining, by the image processing apparatus, a standard representative value for a standard region of a standard image from pixel values of pixels inside the standard region and a reference representative value for a reference region of a reference image from pixel values of pixels inside the reference region; obtaining, by the image processing apparatus, a hierarchical image structure of the standard image and a hierarchical image structure of the reference image based on the standard representative value and the reference representative value, each hierarchical image structure comprising a plurality of hierarchical images having different resolutions; matching, by the image processing apparatus, the standard region in the hierarchical image structure of the standard image to the reference region in the hierarchical image structure of the reference image based on motion information of the standard image and the reference image; determining, by the image processing apparatus, similarity information of the standard regions and the reference regions based on the standard representative values and the reference representative values; and removing, by the image processing apparatus, noise of the standard region by applying temporal filtering to the standard region based on the reference region when the similarity information indicates that the temporal filtering to the standard region is performed based on the reference region.
A topical formulation comprising a non-mobile insect growth regulator and a mobile insect growth regulator for use in treating or preventing parasitic infestation in a non-human animal, wherein the mobile insect growth regulator comprises methoprene or hydroprene, and the non-mobile insect growth regulator comprises pyriproxyfen.
A device for cleaning a lens of a driving assistance video camera of a motor vehicle by means of a cleaning head, in which the video camera and the cleaning head face each other in a position for cleaning the lens and are at a distance from each other in an active imaging position, the device for cleaning including a fixed cleaning head and a video camera that can be moved by driving means, the head being housed in a structural element of the vehicle and the driving means being adapted to generate a movement of the video camera relative to the cleaning head between a passive position in which the video camera is housed in said structural element of the vehicle facing the cleaning head and an active position in which the video camera is deployed at a distance from the structural element of the vehicle to enable imaging, the device for cleaning including at least one cleaning liquid spray nozzle facing the camera when the latter is in the passive image-taking position, the video camera being immobilized in rotation during the movement between the active imaging position and the passive position to orient the lens correctly.
A method for integrating a laminate composite (110, 510 1, 510 2, 510 3, 510 4, 510 5) fitted between two wings of a laminate composite profile (100, 500)comprising steps of: I) obtaining a laminate preform of a fitting comprising a fibrous reinforcement impregnated with a thermosetting resin, the laminate preform of the fitting comprising two flanges (111,112) intended to be inserted in contact between the two wings (101, 102) of the laminate composite profile and a rib extending between the two flanges and integral therewith; II) precuring the laminate preform of the fitting to obtain a partial polymerization of the laminate preform of the fitting; III) laying up of a profile preform of the laminate composite profile so that fibers impregnated with a thermosetting resin comprised in two of the wings (101,102) of the laminate composite preform of the profile are laid up over the two flanges (111,112) of the partially polymerized laminate preform of the fitting; and IV) completely polymerizing an assembly comprising the laminate composite preform of the profile and the partially polymerized laminate preform of the fitting while maintaining into contact the flanges (111,112) of the laminate preform of the fitting with the wings (101,102) of the laminate composite preform of the profile; characterized in that the laminate preform of the fitting comprises two half-preforms (311, 312, 751, 752) made by a layup of fibers pre-impregnated with the thermosetting resin, the half-preforms being assembled by precuring during step II) along a contact plane located in the rib. I) obtaining a laminate preform of a fitting comprising a fibrous reinforcement impregnated with a thermosetting resin, the laminate preform of the fitting comprising two flanges (111,112) intended to be inserted in contact between the two wings (101, 102) of the laminate composite profile and a rib extending between the two flanges and integral therewith; II) precuring the laminate preform of the fitting to obtain a partial polymerization of the laminate preform of the fitting; III) laying up of a profile preform of the laminate composite profile so that fibers impregnated with a thermosetting resin comprised in two of the wings (101,102) of the laminate composite preform of the profile are laid up over the two flanges (111,112) of the partially polymerized laminate preform of the fitting; and IV) completely polymerizing an assembly comprising the laminate composite preform of the profile and the partially polymerized laminate preform of the fitting while maintaining into contact the flanges (111,112) of the laminate preform of the fitting with the wings (101,102) of the laminate composite preform of the profile;
A method for encoding an intra prediction mode, comprising: determining an intra prediction mode of a current prediction unit; generating an intra prediction mode group using available intra prediction modes of a left prediction unit and an above prediction unit neighboring the current prediction unit, wherein the number of intra prediction modes belonging to the intra prediction mode group is fixed to three; and encoding an intra prediction mode group indicator and an index corresponding to the intra prediction mode of the current prediction unit in the intra prediction mode group when the intra prediction mode of the current prediction unit is included in the intra prediction mode group, wherein, when only one intra prediction mode out of the intra prediction modes of the left prediction unit and the above prediction unit is available, the intra prediction mode group includes the one available intra prediction mode of the respective prediction units and two additional intra prediction modes that are determined such that when the one available intra prediction mode is a non-directional intra prediction mode, the two additional intra prediction modes include another non-directional intra prediction mode and a vertical mode. determining an intra prediction mode of a current prediction unit; generating an intra prediction mode group using available intra prediction modes of a left prediction unit and an above prediction unit neighboring the current prediction unit, wherein the number of intra prediction modes belonging to the intra prediction mode group is fixed to three; and encoding an intra prediction mode group indicator and an index corresponding to the intra prediction mode of the current prediction unit in the intra prediction mode group when the intra prediction mode of the current prediction unit is included in the intra prediction mode group, wherein, when only one intra prediction mode out of the intra prediction modes of the left prediction unit and the above prediction unit is available, the intra prediction mode group includes the one available intra prediction mode of the respective prediction units and two additional intra prediction modes that are determined such that when the one available intra prediction mode is a non-directional intra prediction mode, the two additional intra prediction modes include another non-directional intra prediction mode and a vertical mode.
Method for manufacturing a calcium sulfoaluminate cement having at least 90% by weight C4A3$ in crystalline or amorphous form or as a mixture of crystalline and amorphous parts and a specific grinding fineness according to Blaine between 3500 cm2/g and 6250 cm2/g, wherein for manufacturing the calcium sulfoaluminate cement a mixture of raw materials is used, which contains between 41 and 50% by weight Al 2 O 3, between 34 and 41% by weight CaO and between 11 and 19% by weight SO 3, as well as between 0.1 and 3% by weight SiO 2 and/or between 0.1 and 1% by weight Fe 2 O 3 and/or between 0.05 and 2.5% by weight TiO 2 and/or between 0.05 and 2.5% by weight ZnO, the method comprising the steps: pulverizing the raw materials to a mixture with a specific grinding fineness according to Blaine between 3500 cm 2 /g and 6000 cm 2 /g and calcining the mixture at a calcining temperature of at least 1150°C. pulverizing the raw materials to a mixture with a specific grinding fineness according to Blaine between 3500 cm 2 /g and 6000 cm 2 /g and calcining the mixture at a calcining temperature of at least 1150°C.
Laser device with wavefront control, wherein the laser device includes the following elements: a) a resonator with an optical path, a laser medium located within the resonator for generation of a working laser beam, and a wavefront regulating unit located within the resonator, b) a coupling element, designed in such a way that a probe laser beam of a probe laser device can be coupled into the optical path of the resonator, c) a decoupling element, designed in such a way that the probe laser beam can be decoupled from the resonator, d) a wavefront controller and a wavefront sensor, wherein the laser device is designed in such a way e) that the probe laser beam impacts first the coupling element, then the laser medium, then the wavefront regulating unit, then the decoupling element, and then the wavefront sensor, f) that the thermal and thermo-mechanical disturbances of the phase front, generated within the laser medium, are transferred to a wavefront of the probe laser beam, g) that the disturbance of the probe laser beam, and thereby that of the working laser beam, can be corrected by the wavefront regulating unit, h) that sensor data can be received from the wavefront sensor and can be processed by the wavefront controller, i) that control signals for the wavefront regulating unit can be generated by the wavefront controller, and wherein the laser device is characterized in that the probe laser beam impacts first the coupling element, then the laser medium, then the wavefront regulating unit, then the decoupling element, and then the wavefront sensor. a) a resonator with an optical path, a laser medium located within the resonator for generation of a working laser beam, and a wavefront regulating unit located within the resonator, b) a coupling element, designed in such a way that a probe laser beam of a probe laser device can be coupled into the optical path of the resonator, c) a decoupling element, designed in such a way that the probe laser beam can be decoupled from the resonator, d) a wavefront controller and a wavefront sensor, wherein the laser device is designed in such a way e) that the probe laser beam impacts first the coupling element, then the laser medium, then the wavefront regulating unit, then the decoupling element, and then the wavefront sensor, f) that the thermal and thermo-mechanical disturbances of the phase front, generated within the laser medium, are transferred to a wavefront of the probe laser beam, g) that the disturbance of the probe laser beam, and thereby that of the working laser beam, can be corrected by the wavefront regulating unit, h) that sensor data can be received from the wavefront sensor and can be processed by the wavefront controller, i) that control signals for the wavefront regulating unit can be generated by the wavefront controller,
Respiratory device for the at least supportive-partial artificial respiration of patients, in particular human patients, comprising a respiratory gas conduit assembly, a pressure changing assembly for changing the pressure of respiratory gas in the respiratory gas conduit assembly during the respiratory operation of the respiratory device, and a control device, which controls the respiratory operation of the respiratory device, in particular of the pressure changing assembly such that a predetermined respiratory gas minute volume is supplied to the patient, wherein the control device has a data input (24, 26) for transmitting operational and/or patient data to the control device, and wherein the control device is configured to selectively determine respiration tidal volume or a respiration frequency as a respiratory operating parameter for the operation of the pressure changing assembly using a predetermined first data relationship or using a predetermined second data relationship that is different from the first data relationship, characterized in that the control device is configured to select a data relationship (50, 54) from the predetermined first and the predetermined second data relationship depending on a resistance data value denoting a respiration resistance in connection with a patient to be ventilated, and thus to determine the respiratory operating parameter for the predetermined respiratory gas minute volume according to the selected data relationship (50, 54) from the first data relationship and the second data relationship.
Soil compactor, comprising: - at least one compactor roller that can be rotated around a roller axis of rotation (14, 16), - at least one edge shaping device (34, 34'), - a fluid reservoir/delivery system for storing and delivering fluid to at least one compactor roller (14, 16) and at least one edge shaping device (34, 34'), wherein the fluid reservoir/delivery system comprises a first fluid pump (52, 54) for transporting fluid to at least one first fluid delivery unit (64, 66) associated to a compactor roller (14, 16) of the soil compactor and a second fluid pump for transporting fluid to at least one second fluid delivery unit (82, 84) associated to an edge shaping unit (34, 34') of the soil compactor, wherein the second fluid pump delivers fluid into a second fluid line that leads to the at least one second fluid delivery unit (82, 84), characterized in that two first fluid pumps (52, 54) are provided for delivering fluid to the at least one first fluid delivery unit (64, 66) so that when one of the two first fluid pumps (52, 54) fails, fluid can still be delivered to the at least one first fluid delivery unit (64, 66) via the other first fluid pump (52, 54), and that the two first fluid pumps (52, 54) and the second fluid pump absorb fluid from an intermediate fluid line in parallel and that the two first fluid pumps (52, 54) deliver fluid to a first fluid delivery line that leads to the at least one first fluid delivery unit (64, 66) in parallel. - at least one compactor roller that can be rotated around a roller axis of rotation (14, 16), - at least one edge shaping device (34, 34'), - a fluid reservoir/delivery system for storing and delivering fluid to at least one compactor roller (14, 16) and at least one edge shaping device (34, 34'),
An inline heater system for use on board an aircraft comprising: a heater element positioned within a heated component; at least one sensor configured to monitor the temperature within the heated component; an inline heater controller (100, 102, 302, 402, 502, 602) configured to receive information regarding the heater element via the at least one sensor; wherein the inline heater controller (100, 102, 302, 402, 502, 602) is positioned at a location spaced away from the heater element and the heated component; and wherein the inline heater controller (100, 102, 302, 402, 502, 602) is connected to an aircraft control system and transmits information regarding the heater element to the aircraft control system; characterized in that the at least one sensor is positioned within the heated component; and in that the inline heater controller (100, 102, 302, 402, 502, 602) comprises: a printed circuit board configured to receive the information regarding the heater element via the at least one sensor; and an aerospace connector configured to transmit the information regarding the heater element from the at least one sensor to the aircraft control system; wherein the inline heater controller is mounted to the back of the aerospace connector. a heater element positioned within a heated component; at least one sensor configured to monitor the temperature within the heated component; an inline heater controller (100, 102, 302, 402, 502, 602) configured to receive information regarding the heater element via the at least one sensor; wherein the inline heater controller (100, 102, 302, 402, 502, 602) is positioned at a location spaced away from the heater element and the heated component; and wherein the inline heater controller (100, 102, 302, 402, 502, 602) is connected to an aircraft control system and transmits information regarding the heater element to the aircraft control system; characterized in that the at least one sensor is positioned within the heated component; and in that the inline heater controller (100, 102, 302, 402, 502, 602) comprises: a printed circuit board configured to receive the information regarding the heater element via the at least one sensor; and an aerospace connector configured to transmit the information regarding the heater element from the at least one sensor to the aircraft control system; wherein the inline heater controller is mounted to the back of the aerospace connector. a printed circuit board configured to receive the information regarding the heater element via the at least one sensor; and an aerospace connector configured to transmit the information regarding the heater element from the at least one sensor to the aircraft control system; wherein the inline heater controller is mounted to the back of the aerospace connector.