mhurhangee/ep-ind-claims huggingface dataset:
Method for measuring angles of orientation of an x-ray imaging system, the x-ray imaging system comprising an x-ray source, an x-ray detector and a sample holder arranged to receive a sample to be analysed, the x-ray imaging system being arranged so that the x-ray source can emit a polychromatic x-ray beam along a main axis of propagation ( X s) passing through the sample to be analysed and reaching a sensing area of the x-ray detector, an optical axis of the x-ray imaging system being defined between a centre of the x-ray source and the x-ray detector, the method comprising the steps of: ▪ emitting, from the x-ray source, a polychromatic x-ray beam along the main axis of propagation ( X s), so that the x-ray beam passes through a reference sample installed on the sample holder and forms a diffraction pattern on the sensing area of the x-ray detector, ▪ generating, with the x-ray detector, an observed image, the observed image comprising the diffraction pattern, and ▪ determining the orientation (^xy, ^xz) of the main axis of propagation (Xs) and the orientation (α, β, γ) of the sensing area of the x-ray detector by comparing the observed image with at least one target image, the target image including a diffraction pattern obtained for the reference sample with a preset orientation of the main axis of propagation and a preset orientation of the sensing area of the x-ray detector. ▪ emitting, from the x-ray source, a polychromatic x-ray beam along the main axis of propagation ( X s), so that the x-ray beam passes through a reference sample installed on the sample holder and forms a diffraction pattern on the sensing area of the x-ray detector, ▪ generating, with the x-ray detector, an observed image, the observed image comprising the diffraction pattern, and ▪ determining the orientation (^xy, ^xz) of the main axis of propagation (Xs) and the orientation (α, β, γ) of the sensing area of the x-ray detector by comparing the observed image with at least one target image, the target image including a diffraction pattern obtained for the reference sample with a preset orientation of the main axis of propagation and a preset orientation of the sensing area of the x-ray detector.
A method, at a network node, to provide enhanced public warning system, PWS+, messages to a communication device, comprising: splitting rich content binary data into a plurality of data segments to be decoded and rendered at the communication device; for each data segment of the plurality of data segments, generating a respective PWS+ message, wherein the respective PWS+ message includes a payload including that data segment of the rich content binary data and a respective message parameter, and the respective message parameter indicates at least one of a total number of PWS+ messages for the rich content binary data, or a current message number for the respective PWS+ message; generating a PWS message, wherein the PWS message is configured to transmit text based data and the PWS+ messages are configured to transmit non-text based data, and wherein the PWS message includes a text message associated with the rich content binary data in the PWS+ messages; generating a tag comprising a message identifier and a serial number of the PWS message; associating each PWS+ message with the PWS message by including the tag in each PWS+ message; and sending each PWS+ message and the PWS message to the communication device; wherein each PWS+ message is sent asynchronously and separately from the PWS message. splitting rich content binary data into a plurality of data segments to be decoded and rendered at the communication device; for each data segment of the plurality of data segments, generating a respective PWS+ message, wherein the respective PWS+ message includes a payload including that data segment of the rich content binary data and a respective message parameter, and the respective message parameter indicates at least one of a total number of PWS+ messages for the rich content binary data, or a current message number for the respective PWS+ message; generating a PWS message, wherein the PWS message is configured to transmit text based data and the PWS+ messages are configured to transmit non-text based data, and wherein the PWS message includes a text message associated with the rich content binary data in the PWS+ messages; generating a tag comprising a message identifier and a serial number of the PWS message; associating each PWS+ message with the PWS message by including the tag in each PWS+ message; and sending each PWS+ message and the PWS message to the communication device; wherein each PWS+ message is sent asynchronously and separately from the PWS message.
Method for the continuous production of laid staple fibre fabrics having a directional fibre orientation, the laid fabrics being produced by means of continuous plaiting down of carded fibre web at defined laying angles, characterised in that the fibre web is laid onto a synchronised transport belt which remains still during the continuous laying of the fibre at the predetermined angle and moves by a defined distance (laying offset) only after the provided laying width has been laid, and in that at least one carding machine (2, 4) that produces the fibre web, and the plaiting machine (3, 5) that is connected downstream thereof and by means of which the fibre is laid onto the transport belt, are arranged at an acute angle to the feed direction of the synchronised transport belt.
A device for forming concrete specimens comprising: - concrete feeding means comprising a discharge mouth; - support means suitable for supporting at least a first and/or a second form, said discharge mouth; and the force of gravity directing the concrete flowing out of the feeding means towards said support means; - first vibrator means suitable for generating the vibration of at least the contents of the first and/or second form; wherein the concrete feeding means comprise a tank that is intended for containing the concrete and which acts as a storage unit; the support means comprising a first and a second zone (31, 32) that are suitable for supporting respectively the first and second form; said feeding means and said support means being reciprocally movable so as to assume at least a first and a second configuration; in the first configuration said discharge mouth and gravity directing the outflowing concrete towards said first zone, in the second configuration said discharge mouth and gravity directing the concrete flowing out of the feeding means towards said second zone; wherein the feeding means comprise dosing means for dosing the amount of concrete to allow to flow through the discharge mouth; characterized in that the tank of the feeding means comprises: - a raisable and a lowerable lower bottom; - an exit opening for the concrete that lies above the bottom of the tank and which is connectable to said discharge mouth through a conduit. the dosing means comprising means for raising/lowering said bottom of the tank. - concrete feeding means comprising a discharge mouth; - support means suitable for supporting at least a first and/or a second form, said discharge mouth; and the force of gravity directing the concrete flowing out of the feeding means towards said support means; - first vibrator means suitable for generating the vibration of at least the contents of the first and/or second form; - a raisable and a lowerable lower bottom; - an exit opening for the concrete that lies above the bottom of the tank and which is connectable to said discharge mouth through a conduit. the dosing means comprising means for raising/lowering said bottom of the tank.
Adaptive process control system for independent steering of plant control systems, wherein a plant associated with the plant control system comprises a plurality of interlocked elements of one or more operational unit of the plant, wherein the operation of an operational unit is controlled by the plant control system by means of the elements interlocked to the plant control system, and wherein plant control system is accessible by the adaptive, independent process control system via the Maschine-to-Maschine (M2M) network (41 and wherein a plant process engine of the adaptive, independent process control system comprises a plant controller unit connected via network interfaces (16/202) with at least one programmable logic controller (201/PLC) of the plant control system, wherein the operation of the plant and the operational units are controlled by means of the programmable logic controller (201/PLC) and the plurality of interlocked elements by means of the supervisory control and data acquisition unit, characterized in that the plant process engine comprises a plant creator unit with a library of selectable process control command records for each type of plant control system operatable by the independent process control system, wherein the operation of a corresponding plant is generatable by the process control command assigned to a specific type of plant control system by the selectable process control command records, and wherein the operation of the plant is steerable and controllable by means of the supervisory control and data acquisition unit, and in that the plant process engine comprises an object linking and embedding unit for process control, wherein the selectable process control commands of the library are converted by the object linking and embedding unit for process control into basic programmable logic controller (201/PLC) commands and/or operations integrated by all programmable logic controller (201/PLC) of the accessible plant control system.
System for controlling an actuator which actuates an axially displaceable pin valve of an apparatus for injection molding of plastic materials, wherein the actuator is a fluid jack comprising a cylinder (a) and a plunger (b), said control system including an electronic control unit of the actuator for adjusting at least one among the position, speed and acceleration of the pin valve, and a position sensor for detecting the position of the plunger (b) of the actuator and operatively connected to said electronic unit, characterised in that said position sensor is operatively associated to a moveable member actuated simultaneously with said actuator and consisting of the plunger of an auxiliary fluid jack inserted in a delivery and discharge circuit of the actuator and located at a remote position with respect to said actuator.
A method of controlling unmanned aerial vehicles, UAVs, operating in proximity to a terminal area from which the UAVs are staged, the method comprising: charging a plurality of the UAVs on charging pads disposed in a staging array at the terminal area, wherein merchant facilities for preparing packages for delivery by the UAVs are disposed about a periphery of the staging array; relocating the UAVs under their own propulsion from interior charging pads of the staging array to peripheral loading pads of the staging array as the peripheral loading pads become available and the UAVs are deemed sufficiently charged and ready for delivery missions; characterised in that: in response to one of the merchant facilities indicating that a first package of the packages is ready for delivery, identifying to a merchant attendant a first UAV of the UAVs disposed on one of the peripheral loading pads assigned to accept the first package for delivery; and synchronizing a takeoff of the first UAV with an approach of the merchant attendant that loads the first UAV with the first package. charging a plurality of the UAVs on charging pads disposed in a staging array at the terminal area, wherein merchant facilities for preparing packages for delivery by the UAVs are disposed about a periphery of the staging array; relocating the UAVs under their own propulsion from interior charging pads of the staging array to peripheral loading pads of the staging array as the peripheral loading pads become available and the UAVs are deemed sufficiently charged and ready for delivery missions; characterised in that: in response to one of the merchant facilities indicating that a first package of the packages is ready for delivery, identifying to a merchant attendant a first UAV of the UAVs disposed on one of the peripheral loading pads assigned to accept the first package for delivery; and synchronizing a takeoff of the first UAV with an approach of the merchant attendant that loads the first UAV with the first package. in response to one of the merchant facilities indicating that a first package of the packages is ready for delivery, identifying to a merchant attendant a first UAV of the UAVs disposed on one of the peripheral loading pads assigned to accept the first package for delivery; and synchronizing a takeoff of the first UAV with an approach of the merchant attendant that loads the first UAV with the first package.
A multi-pole fused switch arrangement for busbar systems, with at least two fused switch units, each of which can accommodate a fuse, and with a contact device for busbars, wherein the fused switch arrangement furthermore comprises the following: - in each case a fuse holder for the accommodation of a fuse for each fused switch unit, wherein the fuse holder is designed such that it can be switched backwards and forwards between a reception position and an operating position, and wherein the fuse holder is designed such that a fuse can be inserted into a fuse holder, if the fuse holder is located in its reception position, - a switching lever, which is configured to switch between a switched-on position and a switched-off position, characterized in that the fused switch arrangement comprises: - a fuse driver unit, which in each case comprises a fuse driver for each fused switch unit, and is designed such that it can be switched backwards and forwards between a reception position and an operating position, - wherein the switching lever is coupled with the fuse driver unit such that the fuse driver unit is located in its reception position if the switching lever is located in its switched-off position, and such that the fuse driver unit is located in its operating position if the switching lever is located in its switched-on position, wherein the fuse driver unit is designed and coupled with the switching lever such that the fuse driver and fuses, which are inserted in a fuse holder, which is located in its operating position, move relative to the fuse holder from a stand-by position into a contact position, if the switching lever is switched from its switched-off position into its switched-on position. - in each case a fuse holder for the accommodation of a fuse for each fused switch unit, wherein the fuse holder is designed such that it can be switched backwards and forwards between a reception position and an operating position, and wherein the fuse holder is designed such that a fuse can be inserted into a fuse holder, if the fuse holder is located in its reception position, - a switching lever, which is configured to switch between a switched-on position and a switched-off position, - a fuse driver unit, which in each case comprises a fuse driver for each fused switch unit, and is designed such that it can be switched backwards and forwards between a reception position and an operating position, - wherein the switching lever is coupled with the fuse driver unit such that the fuse driver unit is located in its reception position if the switching lever is located in its switched-off position, and such that the fuse driver unit is located in its operating position if the switching lever is located in its switched-on position,
A vital sign detection system comprising a camera configured to acquire image frames from an examination zone, a signal processor to derive vital sign information from the acquired image frames, an illumination controller to control illumination of the examination zone and generate temporal modulations of the illumination, wherein the illumination controller is configured to generate wavelength band modulations of the illumination of the examination zone and synchronize the camera frame rate in dependence of the modulation depth, and wherein the vital sign detection system further comprise a signal analyser to synchronize the camera frame rate with the modulated illumination, wherein the signal analyser is configured to detect the modulation depth of image frames' detected brightness between the successive image frames. a camera configured to acquire image frames from an examination zone, a signal processor to derive vital sign information from the acquired image frames, an illumination controller to control illumination of the examination zone and generate temporal modulations of the illumination, wherein the illumination controller is configured to generate wavelength band modulations of the illumination of the examination zone and synchronize the camera frame rate in dependence of the modulation depth, and wherein the vital sign detection system further comprise a signal analyser to synchronize the camera frame rate with the modulated illumination, wherein the signal analyser is configured to detect the modulation depth of image frames' detected brightness between the successive image frames.
A separator drum comprising a hydraulically actuated, axially movable piston slide valve, which can seal off a solids space from at least one solids outlet, wherein the piston slide valve can be held in its closed position via a closing chamber, which can be filled with closing liquid, in particular closing water, wherein the closing chamber is formed between an underside of the piston slide valve and a top side of a drum lower part, wherein the closing chamber has a first closing chamber portion near the axis of rotation and a second closing chamber portion remote from the axis of rotation, wherein the first closing chamber portion is formed by two portions (22, 36), which are arranged parallel to one another, of the underside of the piston slide valve and of the top side of the drum lower part, and the second closing chamber portion has a conical cross section at least in part, characterized by at least a drum valve for discharging closing liquid, wherein a first outflow channel is formed between the first closing chamber portion and the at least one drum valve, and a second outflow channel is formed between the second closing chamber portion and the at least one drum valve. the closing chamber has a first closing chamber portion near the axis of rotation and a second closing chamber portion remote from the axis of rotation, wherein the first closing chamber portion is formed by two portions (22, 36), which are arranged parallel to one another, of the underside of the piston slide valve and of the top side of the drum lower part, and the second closing chamber portion has a conical cross section at least in part, characterized by at least a drum valve for discharging closing liquid, wherein a first outflow channel is formed between the first closing chamber portion and the at least one drum valve, and a second outflow channel is formed between the second closing chamber portion and the at least one drum valve.
An apparatus for testing insulated high voltage devices, comprising: a first ground plane connected to a reference voltage potential having a first plurality of resiliently compressible conductive fibers extending therefrom; and a second ground plane connected to the reference voltage potential having a second plurality of resiliently compressible conductive fibers extending therefrom, wherein the first and second ground planes (16, 20) are arranged to receive an insulated high voltage device under test connected to a voltage potential greater or less than the reference voltage potential between them and configured such that at least a portion of the first and second pluralities of resiliently compressible conductive fibers (16, 22) are in compressive contact with the insulated high voltage device under test. a first ground plane connected to a reference voltage potential having a first plurality of resiliently compressible conductive fibers extending therefrom; and a second ground plane connected to the reference voltage potential having a second plurality of resiliently compressible conductive fibers extending therefrom, wherein the first and second ground planes (16, 20) are arranged to receive an insulated high voltage device under test connected to a voltage potential greater or less than the reference voltage potential between them and configured such that at least a portion of the first and second pluralities of resiliently compressible conductive fibers (16, 22) are in compressive contact with the insulated high voltage device under test.
Electronic component having - a first insulation layer, - an upper metal layer, which has a bonding region and which is formed on the first insulation layer, - an electrically conductive structure, which is integrated into the first insulation layer, is arranged vertically underneath the bonding region, mechanically stabilizes the insulation layer under the action of mechanical force, in particular during the bonding of the upper metal layer and/or the mounting of the electronic component, and is formed as a passive electronic component, - a second insulation layer, which is arranged between the first insulation layer and the upper metal layer, and - an electrically conductive screening layer, which is formed between and in a manner electrically insulated from the upper metal layer and the electrically conductive structure, wherein the electrically conductive structure is formed as a capacitance structure and has at least two metallization planes, strips (M11, M12, M13) arranged parallel to one another and insulated from one another being formed in the first metallization plane, which strips are arranged congruently with respect to the strips (M21, M22, M23) arranged parallel to one another and insulated from one another in the second metallization plane, the strips (M11, M21; M12, M22; M13, M23) arranged respectively one above the other in the vertical direction in the two metallization planes being electrically connected to one another by via connections, the second insulation layer is produced from an insulating material having a higher mechanical stability than an insulating material from which the first insulation layer is formed, the screening layer is formed in the second insulation layer, the upper metal layer is electrically connected to an electrically conductive region by means of a contact region, the contact region and the electrically conductive region being arranged in the second insulation layer, and the contact region and the second electrically conductive region are arranged horizontally offset with respect to the electrically conductive structure and with respect to the bonding region of the upper metal layer. - a first insulation layer, - an upper metal layer, which has a bonding region and which is formed on the first insulation layer, - an electrically conductive structure, which is integrated into the first insulation layer, is arranged vertically underneath the bonding region, mechanically stabilizes the insulation layer under the action of mechanical force, in particular during the bonding of the upper metal layer and/or the mounting of the electronic component, and is formed as a passive electronic component, - a second insulation layer, which is arranged between the first insulation layer and the upper metal layer, and - an electrically conductive screening layer, which is formed between and in a manner electrically insulated from the upper metal layer and the electrically conductive structure,