mhurhangee/ep-ind-claims huggingface dataset:
A device, assembled to subject at least one egg, said egg normally having a longitudinal direction between a blunt end and a pointed end, to a processing in a predetermined orientation of the longitudinal direction of the egg, such as injection or vaccination, candling or vacuum or grabber based pick-up, wherein the device comprises: - a processing station arranged to subject the egg to the processing; - a holder arranged to hold the egg in said predetermined orientation for the processing station to subject the egg to the processing, wherein the holder comprises: * a support, arranged to engage one of said two ends of the egg; and * a cylindrical accommodation, defined by at least two arms, which are connected to and extend from the support in use in the longitudinal direction of the egg to engage the egg at a distance from the support, characterised in that the arms are flexible and the accommodation is curved in correspondence with the circumferential shape of the egg and the legs in use are arranged to yield and align the egg where the arms move over the egg when the egg is to be engaged by the support. - a processing station arranged to subject the egg to the processing; - a holder arranged to hold the egg in said predetermined orientation for the processing station to subject the egg to the processing, wherein the holder comprises: * a support, arranged to engage one of said two ends of the egg; and * a cylindrical accommodation, defined by at least two arms, which are connected to and extend from the support in use in the longitudinal direction of the egg to engage the egg at a distance from the support, characterised in that * a support, arranged to engage one of said two ends of the egg; and * a cylindrical accommodation, defined by at least two arms, which are connected to and extend from the support in use in the longitudinal direction of the egg to engage the egg at a distance from the support, characterised in that
Automation system for creating and/or adapting a machine model of a machine (2; 2') for simulating the behaviour of the machine (2; 2'), having: a control system having a data recording unit for recording machine data relating to the machine (2; 2'), a data processing unit having a machine model generation unit for creating a machine model of the machine (2; 2'), a machine model adaptation unit for adapting the machine model created by the machine model generation unit to a changed configuration of the machine (2; 2'); wherein the data processing unit is configured to analyse the data recorded in the data recording unit in order to determine characteristic variables of components of the machine (2; 2'), and the machine model generation unit is configured to create a machine model of the machine (2; 2') by subjecting the data recorded in the data recording unit to a data analysis using mathematical aids, and wherein the machine model generation unit and the machine model adaptation unit are configured such that they automatically accept the characteristic variables determined by the data processing unit for the purpose of creating and/or adapting the machine model; characterized by a cutter which is arranged in the data processing unit and is configured to cut out an associated output signal from a long-term recording for all input signal combinations which occur in the case of each change in an input signal taking into account a time delay Δt. a control system having a data recording unit for recording machine data relating to the machine (2; 2'), a data processing unit having a machine model generation unit for creating a machine model of the machine (2; 2'), a machine model adaptation unit for adapting the machine model created by the machine model generation unit to a changed configuration of the machine (2; 2'); wherein the data processing unit is configured to analyse the data recorded in the data recording unit in order to determine characteristic variables of components of the machine (2; 2'), and the machine model generation unit is configured to create a machine model of the machine (2; 2') by subjecting the data recorded in the data recording unit to a data analysis using mathematical aids, and wherein the machine model generation unit and the machine model adaptation unit are configured such that they automatically accept the characteristic variables determined by the data processing unit for the purpose of creating and/or adapting the machine model;
A dual polarization low-band radiator for an ultra-wideband dual-band dual-polarisation cellular base-station antenna, said dual bands comprising low and high bands, said dual polarization low-band radiator comprising: a dipole comprising two dipole arms (140A, 140B), each dipole arm resonant at approximately a quarter-wavelength, adapted for connection to an antenna feed; an extended dipole with anti-resonant dipole arms (120A, 120B), said dipole and extended dipoles being configured in a crossed arrangement; characterized by each dipole arm of the extended dipole being of approximately a half wavelength; a capacitively coupled feed connected to said extended dipole for coupling said extended dipole to said antenna feed; and a pair of auxiliary radiating elements (150A, 150B), configured in parallel at opposite ends of said extended dipole and in parallel to said dipole, wherein said dipole and said pair of auxiliary radiating elements (150A, 150B) together produce a desired narrower beamwidth. a dipole comprising two dipole arms (140A, 140B), each dipole arm resonant at approximately a quarter-wavelength, adapted for connection to an antenna feed; an extended dipole with anti-resonant dipole arms (120A, 120B), said dipole and extended dipoles being configured in a crossed arrangement; characterized by each dipole arm of the extended dipole being of approximately a half wavelength; a capacitively coupled feed connected to said extended dipole for coupling said extended dipole to said antenna feed; and a pair of auxiliary radiating elements (150A, 150B), configured in parallel at opposite ends of said extended dipole and in parallel to said dipole, wherein said dipole and said pair of auxiliary radiating elements (150A, 150B) together produce a desired narrower beamwidth.
An apparatus for applying a force to a metal component in a casting mold, the apparatus comprising: - a drive arrangement (14, 14') at least in part movable in a drive direction; and - a squeeze arrangement (16, 16') at least in part movable in a squeeze direction for applying the force to the metal component in the casting mold; wherein the apparatus is configured such that a force can be mechanically transferred from the drive arrangement (14, 14') to the squeeze arrangement (16, 16') via a force deflection mechanism (20, 20'); wherein the force deflection mechanism (20, 20') is based on a wedge mechanism and directly transfers a translational motion of the drive arrangement (14, 14') in the drive direction into a translational motion of the squeeze arrangement (16, 16') in the squeeze direction, and wherein the drive arrangement (14, 14') and/or the squeeze arrangement (16, 16') comprises a wedge member (40, 40') providing a wedge surface (48, 48'). - a drive arrangement (14, 14') at least in part movable in a drive direction; and - a squeeze arrangement (16, 16') at least in part movable in a squeeze direction for applying the force to the metal component in the casting mold; wherein the apparatus is configured such that a force can be mechanically transferred from the drive arrangement (14, 14') to the squeeze arrangement (16, 16') via a force deflection mechanism (20, 20'); wherein the force deflection mechanism (20, 20') is based on a wedge mechanism and directly transfers a translational motion of the drive arrangement (14, 14') in the drive direction into a translational motion of the squeeze arrangement (16, 16') in the squeeze direction, and wherein the drive arrangement (14, 14') and/or the squeeze arrangement (16, 16') comprises a wedge member (40, 40') providing a wedge surface (48, 48').
A method for managing nodes in a motion detection system, the motion detection system including a wireless access point, AP, and one or more leaf nodes in communication with the AP over respective AP-leaf node links, the method comprising: identifying, by the AP, one or more of the leaf nodes as static leaf nodes having fixed locations based on presence activity of each static leaf node in a calibration window, the calibration window comprising a number of calibration periods; determining a health score for each AP-leaf node link of each static leaf node for the calibration window by adding link quality values for each calibration period across the calibration window for each AP-leaf node link; selecting one or more of the static leaf nodes to use for sounding in the motion detection system based on the health scores for each of the AP-leaf node links; and updating the motion detection system to use the selected one or more static leaf nodes for motion detection. identifying, by the AP, one or more of the leaf nodes as static leaf nodes having fixed locations based on presence activity of each static leaf node in a calibration window, the calibration window comprising a number of calibration periods; determining a health score for each AP-leaf node link of each static leaf node for the calibration window by adding link quality values for each calibration period across the calibration window for each AP-leaf node link; selecting one or more of the static leaf nodes to use for sounding in the motion detection system based on the health scores for each of the AP-leaf node links; and updating the motion detection system to use the selected one or more static leaf nodes for motion detection.
A spacer grid including a plurality of intersecting straps (40,42) having springs and dimples formed into the straps, the intersecting straps defining cells with the springs and dimples arranged to hold fuel rods passing through the cells, wherein at least one of the springs in the spacer grid is a cantilevered spring with a contact surface characterized in that the cantilevered spring further includes a bump spaced apart from the contact surface and disposed along the cantilevered spring between the contact surface and a base of the cantilevered spring, the bump limiting travel of the spring.
A system comprising: an adjustable implant configured for implantation internally within a patient, the adjustable implant comprising a magnetically responsive element (1064, 1118) configured for rotation about an axis of rotation, the magnetically responsive element (1064, 1118) operatively coupled to a drive transmission (1020, 1106) configured to change a dimension of the adjustable implant; an external adjustment device configured for placement on or adjacent the skin of the patient comprising at least one magnet (1134, 1136) configured for rotation, the external adjustment device further comprising a motor to rotate the at least one magnet (1134, 1136) and an optical encoder comprising a light source and a light receiver configured to monitor the position of a surface mechanically coupled to the motor, whereby rotation of the at least one magnet (1134, 1136) of the external adjustment device effectuates rotational movement of the magnetically responsive element (1064, 1118) of the adjustable implant and changes the dimension of the adjustable implant; and characterized in that it further comprises: a motor control circuit operatively connected to a programmable logic controller, configured to receive an input signal from the optical encoder corresponding to the angular position of the at least one magnet and control the rotation of the at least one magnet (1134, 1136) of the external adjustment device to achieve a change in dimension of the adjustable implant. an adjustable implant configured for implantation internally within a patient, the adjustable implant comprising a magnetically responsive element (1064, 1118) configured for rotation about an axis of rotation, the magnetically responsive element (1064, 1118) operatively coupled to a drive transmission (1020, 1106) configured to change a dimension of the adjustable implant; an external adjustment device configured for placement on or adjacent the skin of the patient comprising at least one magnet (1134, 1136) configured for rotation, the external adjustment device further comprising a motor to rotate the at least one magnet (1134, 1136) and an optical encoder comprising a light source and a light receiver configured to monitor the position of a surface mechanically coupled to the motor, whereby rotation of the at least one magnet (1134, 1136) of the external adjustment device effectuates rotational movement of the magnetically responsive element (1064, 1118) of the adjustable implant and changes the dimension of the adjustable implant; and characterized in that it further comprises: a motor control circuit operatively connected to a programmable logic controller, configured to receive an input signal from the optical encoder corresponding to the angular position of the at least one magnet and control the rotation of the at least one magnet (1134, 1136) of the external adjustment device to achieve a change in dimension of the adjustable implant.
A bismuth-based glass composition comprising Bi 2 O 3, B 2 O 3 and ZnO, wherein the bismuth-based glass composition comprises 55 to 80 mass% of Bi 2 O 3, 10 to 15 mass % of B 2 O 3, 5 to 15 mass% of ZnO, 0 to 8 mass% of SiO 2, 0.1 to 2 mass% of Al 2 O 3, 0 to 3 mass% of TiO 2 and 0 to 3 mass% of ZrO 2; wherein the bismuth-based glass composition contains BaO and optionally SrO, wherein the combined content of BaO and SrO is 0.1 to 5 mass%; and wherein the bismuth-based glass composition is free of a coloring component and has a linear coefficient of thermal expansion of (70 to 90)x10 -7 /°C at 30 to 300°C and a softening point of 450 to 530°C.
A wireless power receiving device comprising: a power storage device, a communication device, a power receiving unit configured to wirelessly receive power from a power transmitting unit of a power transmitting device; a rectifier circuit configured to rectify the power received by the power receiving unit and output the rectified power to the power storage device; a charging relay provided between the rectifier circuit and the power storage device; a voltage sensor configured to sense a voltage on a power line between the power receiving unit and the rectifier circuit; and a controller configured to wirelessly communicate with the power transmitting device via the communication device, characterized in that the controller is configured to, after wireless communication with the power transmitting device is established and before a power transmission request signal as a signal for requesting the power transmitting device to transmit power is output to the power transmitting device, close the charging relay, and also perform a short-circuit determination process, by using a value of a voltage sensed by the voltage sensor with the charging relay closed, to determine whether the rectifier circuit has a short circuit fault. a power storage device, a communication device, a power receiving unit configured to wirelessly receive power from a power transmitting unit of a power transmitting device; a rectifier circuit configured to rectify the power received by the power receiving unit and output the rectified power to the power storage device; a charging relay provided between the rectifier circuit and the power storage device; a voltage sensor configured to sense a voltage on a power line between the power receiving unit and the rectifier circuit; and a controller configured to wirelessly communicate with the power transmitting device via the communication device, characterized in that the controller is configured to, after wireless communication with the power transmitting device is established and before a power transmission request signal as a signal for requesting the power transmitting device to transmit power is output to the power transmitting device, close the charging relay, and also perform a short-circuit determination process, by using a value of a voltage sensed by the voltage sensor with the charging relay closed, to determine whether the rectifier circuit has a short circuit fault.
An interconnection network simulator for computational nodes, said interconnection network simulator including a topology simulation module adapted and built to: - select and launch a defined number of simulated modules (12, 13, 20), the simulated modules launched being formed by: ∘ a plurality of launched simulated switch modules belonging to the interconnection network, ∘ a plurality of launched simulated network controller modules belonging to said interconnection network, ∘ a plurality of launched simulated management modules adapted and built to simulate interactions between the simulated interconnection network and a management device for the simulated interconnection network, - generate, by the launched simulated controller modules (12, 13, 20), simulation logs, transmit said simulation logs to the topology simulated module, aggregate, analyse and display said simulation logs on a screen of a user interface, - establish connection links between said launched simulated modules (12, 13) so as to form a simulated interconnection network, - enable a user to interact with said launched simulated modules (12, 13, 20) through said user interface. - select and launch a defined number of simulated modules (12, 13, 20), the simulated modules launched being formed by: ∘ a plurality of launched simulated switch modules belonging to the interconnection network, ∘ a plurality of launched simulated network controller modules belonging to said interconnection network, ∘ a plurality of launched simulated management modules adapted and built to simulate interactions between the simulated interconnection network and a management device for the simulated interconnection network, ∘ a plurality of launched simulated switch modules belonging to the interconnection network, ∘ a plurality of launched simulated network controller modules belonging to said interconnection network, ∘ a plurality of launched simulated management modules adapted and built to simulate interactions between the simulated interconnection network and a management device for the simulated interconnection network, - generate, by the launched simulated controller modules (12, 13, 20), simulation logs, transmit said simulation logs to the topology simulated module, aggregate, analyse and display said simulation logs on a screen of a user interface, - establish connection links between said launched simulated modules (12, 13) so as to form a simulated interconnection network, - enable a user to interact with said launched simulated modules (12, 13, 20) through said user interface.
Use of liquid antiscalant composition comprising a polyanionic antiscalant agent having a plurality of anionic groups, which antiscalant agent is selected from the group consisting of polyphosphates, polymers comprising at least one carboxylic group and any of their mixtures, wherein the antiscalant composition further comprises magnesium ions, for inhibiting and/or reducing formation of calcium oxalate scale in pulp and paper making processes
Method for removing a support of an object from volume data representing a radiation image of said object by - subjecting said volume data to a coarse filtering process comprising the following steps - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - obtaining a first classification by assigning either a support type class or a non-support type class to a connected component thereby generating a support mask and a non-support mask, - subjecting said volume data additionally to an iterative low threshold filtering process under successively lower thresholding value to correct the results of said first thresholding process so as to obtain a corrected result, said iterative low threshold filtering process comprising a shape based filtering step based on a convex hull of said connected components, - subjecting said corrected result to a location based filtering process. - subjecting said volume data to a coarse filtering process comprising the following steps - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - obtaining a first classification by assigning either a support type class or a non-support type class to a connected component thereby generating a support mask and a non-support mask, - subjecting said volume data additionally to an iterative low threshold filtering process under successively lower thresholding value to correct the results of said first thresholding process so as to obtain a corrected result, said iterative low threshold filtering process comprising a shape based filtering step based on a convex hull of said connected components, - subjecting said corrected result to a location based filtering process.
A vehicle comprising an engine, a generator including a rotor attached to a shaft of the engine, a motor, a dc bus connected to one inverter connected to the generator and to another inverter connected to the motor and further comprising a controller (130, 200) for controlling a voltage of the vehicle dc bus, the controller (130, 200) comprising: an interface configured to generate a first parameter based on a power demand for a motoring mode operation of the motor, the power demand being indicated in a message received via a data bus dedicated to feed the power demand to the controller (130, 200), the first parameter being used to control the vehicle dc bus voltage, characterized in that the data bus is a high speed data bus, that the controller (130, 200) comprises a product module configured to generate a second parameter, the second parameter being based on the first parameter and a usage coefficient, the usage coefficient based on at least one of the motoring operating mode, a generating operating mode, the voltage of the dc bus and a test performance indication based on system testing and representing the efficiency of at least one of the motor and the generator, and that the controller (130, 200) is configured to control the vehicle dc bus voltage also based on the second parameter. an interface configured to generate a first parameter based on a power demand for a motoring mode operation of the motor, the power demand being indicated in a message received via a data bus dedicated to feed the power demand to the controller (130, 200), the first parameter being used to control the vehicle dc bus voltage, characterized in that the data bus is a high speed data bus, that the controller (130, 200) comprises a product module configured to generate a second parameter, the second parameter being based on the first parameter and a usage coefficient, the usage coefficient based on at least one of the motoring operating mode, a generating operating mode, the voltage of the dc bus and a test performance indication based on system testing and representing the efficiency of at least one of the motor and the generator, and that the controller (130, 200) is configured to control the vehicle dc bus voltage also based on the second parameter.