mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency 'RF' power delivery control system comprising: a) a power amplifier that is configured to output a RF signal to a load; b) a sensor configured to monitor the RF signal and to generate a sensor signal based on the RF signal; c) an energy feedback loop configured to determine an energy of the RF signal in accordance with the sensor signal and to generate an energy feedback error signal; d) an energy control module configured to receive the energy feedback error signal and a power control signal from a power control module and to generate a control signal to control the output from the power amplifier by varying an energy duration or an energy amplitude of the RF signal to be output by the power amplifier; e) a power feedback loop configured to determine a power of the RF signal in accordance with the sensor signal; and f) the power control module, configured to generate the power control signal in accordance with the power determined by the power feedback loop, wherein the energy control module is configured to apply a transfer function to the energy feedback error signal and the power control signal to generate the control signal to control the output from the power amplifier to the load. a) a power amplifier that is configured to output a RF signal to a load; b) a sensor configured to monitor the RF signal and to generate a sensor signal based on the RF signal; c) an energy feedback loop configured to determine an energy of the RF signal in accordance with the sensor signal and to generate an energy feedback error signal; d) an energy control module configured to receive the energy feedback error signal and a power control signal from a power control module and to generate a control signal to control the output from the power amplifier by varying an energy duration or an energy amplitude of the RF signal to be output by the power amplifier; e) a power feedback loop configured to determine a power of the RF signal in accordance with the sensor signal; and f) the power control module, configured to generate the power control signal in accordance with the power determined by the power feedback loop,
A conveniently-mounted wall support assembly, comprising a screw and a support fixedly connectable to a wall; characterized in that the conveniently-mounted wall support assembly further comprises clamping blocks and a rotating sleeve, and a matching hole allowing one end of the screw to be inserted therein is formed in the support, radial through holes are formed in the inner side face of the matching hole, and the clamping blocks are mounted in the radial through holes; the support is sleeved with the rotating sleeve, and driving surfaces and receding grooves are arranged on the inner surface of the rotating sleeve; after one end of the screw is inserted into the matching hole, the clamping blocks are driven by the driving surfaces to move towards the screw so as to tightly clamp the screw when the rotating sleeve is rotated to enable the driving surfaces to be matched with the clamping blocks, and the clamping blocks can be separated from the screw when the rotating sleeve is rotated to enable the receding grooves to be matched with the clamping blocks.
A battery capacity tracking method, wherein the method is applied to an electronic device, the electronic device comprises a coulomb counter chip, and a first battery and a second battery that are connected in series, the coulomb counter chip is connected to two ends of the second battery in parallel, and the method comprises: obtaining a first remaining capacity change value corresponding to the first battery when the first battery is switched between a fully charged state and a fully discharged state; obtaining a second remaining capacity change value corresponding to the second battery when the second battery is switched between a fully charged state and a fully discharged state; and determining a full charge capacity of the first battery based on the first remaining capacity change value, the second remaining capacity change value, and a full charge capacity of the second battery, wherein the full charge capacity of the second battery is directly obtained by using the coulomb counter chip. obtaining a first remaining capacity change value corresponding to the first battery when the first battery is switched between a fully charged state and a fully discharged state; obtaining a second remaining capacity change value corresponding to the second battery when the second battery is switched between a fully charged state and a fully discharged state; and determining a full charge capacity of the first battery based on the first remaining capacity change value, the second remaining capacity change value, and a full charge capacity of the second battery, wherein the full charge capacity of the second battery is directly obtained by using the coulomb counter chip.
A device for analysis of cells, said device comprising: an integrated circuit arrangement on a substrate; a dielectric layer formed above the integrated circuit arrangement; a microelectrode array layer formed above the dielectric layer, said microelectrode array layer comprising a plurality of individual electrodes, wherein each electrode is connected to the integrated circuit arrangement through a via in the dielectric layer; and a plurality of longitudinal trenches in the dielectric layer and the microelectrode array layer for stimulating cell growth on a surface of the device characterised in that the plurality of longitudinal trenches are formed after the formation of the via in the dielectric layer and after the formation of the microelectrode array layer. an integrated circuit arrangement on a substrate; a dielectric layer formed above the integrated circuit arrangement; a microelectrode array layer formed above the dielectric layer, said microelectrode array layer comprising a plurality of individual electrodes, wherein each electrode is connected to the integrated circuit arrangement through a via in the dielectric layer; and a plurality of longitudinal trenches in the dielectric layer and the microelectrode array layer for stimulating cell growth on a surface of the device characterised in that the plurality of longitudinal trenches are formed after the formation of the via in the dielectric layer and after the formation of the microelectrode array layer.
A coordinate positioning machine comprising a structure moveable within a working volume of the machine, a hexapod metrology arrangement for measuring the position of the structure within the working volume, and a non-hexapod drive arrangement for moving the structure around the working volume, wherein the metrology arrangement and drive arrangement are each coupled to the moveable structure and a fixed structure (24, 51) of the machine, characterised in that the moveable structure is adapted to carry an operational tool with the metrology and drive arrangements (26, 28) also coupled to the moveable structure, wherein the operational tool is a tool for interacting with or operating on a workpiece located in the working volume during operational use of the machine.
A method for the real-time ethological monitoring of crayfish in water, during which the crayfish in an aquarium is exposed to infra-red radiation beams from a source of radiation designed to monitor the cardiac activity of the crayfish and at the same time the crayfish movement is monitored by a camera and measured data is transmitted to a computer in the form of a digital signal which is processed in a software module designed to evaluate the reaction of the crayfish to pollutants in water characterized in that the carapace of the crayfish is first equipped with at least two reflective markers whose mutual distance delimits the heart area of the crayfish, the aquarium, including the crayfish is illuminated by the beams of infra-red radiation and a distant receiver of infra-red radiation at the same time receives in a wireless manner the infra-red radiation beams reflected from the reflective markers and the infra-red radiation beams reflected from the pericardium of the crayfish within the delimited heart area, and the acquired data of the beams (8, 9) is transferred in the form of a digital signal of the video recording to a computer, where using a software module the position and directional orientation of the crayfish, the position and directional orientation of the delimited heart area, heart beat and the trajectory of the crayfish movement is determined on a real-time basis.
Method for marking seeds comprising - applying to said seeds a microparticle comprising a cross-linked polymer and a marker component selected from a group consisting of a dye, an enzyme incapable of degrading the polymer of the microparticle, a pH indicator, and any combination of the above, wherein the release of said marker component from said microparticle is triggered by contact of the microparticle with an external stimulus and wherein said polymer is a carbohydrate or a protein. - applying to said seeds a microparticle comprising a cross-linked polymer and a marker component selected from a group consisting of a dye, an enzyme incapable of degrading the polymer of the microparticle, a pH indicator, and any combination of the above, wherein the release of said marker component from said microparticle is triggered by contact of the microparticle with an external stimulus and wherein said polymer is a carbohydrate or a protein.
A remotely-operated system including: - at least one first interface on the ground from which an operator may control a remotely-operated vehicle, - one second interface on the ground having a higher criticality level than the first interface on the ground, - at least one mission assembly (7, 8) in said vehicle, - a data link between said interface (3, 5) and said mission assembly (7, 8), the system including a safety checking system in the vehicle, adapted for checking whether the remotely-operated vehicle is maintained in a safety coverage predefined by the ground and for triggering a predetermined action when this is not the case, the system also including on the ground a safety checking system and in that the safety checking systems (6, 10) on the ground and in the vehicle are adapted for signing and/or authenticating critical data and/or commands exchanged between the ground and the vehicle, and/or for checking the integrity of these data, the safety checking system on the ground being adapted for checking the consistency between the emitted command data intended for on-board the vehicle and a command return which is transmitted from on-board the vehicle by a remotely-operated critical assembly. - at least one first interface on the ground from which an operator may control a remotely-operated vehicle, - one second interface on the ground having a higher criticality level than the first interface on the ground, - at least one mission assembly (7, 8) in said vehicle, - a data link between said interface (3, 5) and said mission assembly (7, 8),
Method for determining a deceleration setpoint of an autonomous vehicle, the autonomous vehicle comprising an adaptive cruise control capable of decelerating the autonomous vehicle according to a first setpoint deceleration, called standard deceleration, the autonomous vehicle traveling on a first lane with a first speed, the vehicle heading on a second lane comprising a speed limitation at a distance, D, with respect to the start of the second lane channel, said method comprising the steps of: - calculation of a necessary deceleration, called calculated acceleration, to decelerate the autonomous vehicle, over distance D, from the first speed to a second speed, the second speed being greater than or equal to the speed limitation of the second track; - determination of the deceleration setpoint of the autonomous vehicle ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; - application by the adaptive cruise control of the determined deceleration setpoint in order to decelerate the autonomous vehicle from the start of the second lane. - calculation of a necessary deceleration, called calculated acceleration, to decelerate the autonomous vehicle, over distance D, from the first speed to a second speed, the second speed being greater than or equal to the speed limitation of the second track; - determination of the deceleration setpoint of the autonomous vehicle ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; - application by the adaptive cruise control of the determined deceleration setpoint in order to decelerate the autonomous vehicle from the start of the second lane.
A camera substrate assembly, comprising a rigid support plate, a printed circuit board, and a flexible circuit board; wherein the printed circuit board, the flexible circuit board and the rigid support plate are laminated, wherein at least two mounting holes (11, 12) for accommodating camera chips are disposed on the printed circuit board, wherein the flexible circuit board is disposed between two plates of the printed circuit board, the rigid support plate is disposed on one side of the printed circuit board and blocks the mounting holes (11, 12) on the printed circuit board, wherein the rigid support plate has mounting surfaces (21, 22) that face the mounting holes respectively and that are configured to support the camera chips, wherein strength of the rigid support plate is greater than strength of the printed circuit board, and flatness of the mounting surfaces is less than a specified threshold; wherein there is a height difference between mounting surfaces facing different mounting holes. wherein the printed circuit board, the flexible circuit board and the rigid support plate are laminated, wherein at least two mounting holes (11, 12) for accommodating camera chips are disposed on the printed circuit board, wherein the flexible circuit board is disposed between two plates of the printed circuit board, the rigid support plate is disposed on one side of the printed circuit board and blocks the mounting holes (11, 12) on the printed circuit board, wherein the rigid support plate has mounting surfaces (21, 22) that face the mounting holes respectively and that are configured to support the camera chips, wherein strength of the rigid support plate is greater than strength of the printed circuit board, and flatness of the mounting surfaces is less than a specified threshold; wherein there is a height difference between mounting surfaces facing different mounting holes.
A method for displaying objects, applicable to an electronic device and comprising: detecting, in pieces of video data to be displayed in a first display region, if there are video frames that contain objects of predefined types; if video frames that contain objects of the predefined types are detected, extracting the objects of the predefined types from the detected video frames; displaying the extracted objects in sub-regions of a second display region that is different from the first display region, with each object being displayed in one of the sub-regions; and wherein extracting the objects of the predefined types from the detected video frames, comprises: extracting objects of the predefined types that are different from reference objects from the detected video frames, wherein the reference objects are of the predefined types and are extracted from previously detected video frames, wherein after displaying the extracted objects in sub-regions of a second display region, the method further comprises: obtaining an object selection instruction comprising a target type for a selected object, wherein the target type is one of the predefined types; identifying objects of other types than the target type from the extracted objects being displayed in the second display region according to the object selection instruction; and removing the objects of other types from the second display region. detecting, in pieces of video data to be displayed in a first display region, if there are video frames that contain objects of predefined types; if video frames that contain objects of the predefined types are detected, extracting the objects of the predefined types from the detected video frames; displaying the extracted objects in sub-regions of a second display region that is different from the first display region, with each object being displayed in one of the sub-regions; and wherein extracting the objects of the predefined types from the detected video frames, comprises: extracting objects of the predefined types that are different from reference objects from the detected video frames, wherein the reference objects are of the predefined types and are extracted from previously detected video frames, wherein after displaying the extracted objects in sub-regions of a second display region, the method further comprises: obtaining an object selection instruction comprising a target type for a selected object, wherein the target type is one of the predefined types; identifying objects of other types than the target type from the extracted objects being displayed in the second display region according to the object selection instruction; and removing the objects of other types from the second display region. obtaining an object selection instruction comprising a target type for a selected object, wherein the target type is one of the predefined types; identifying objects of other types than the target type from the extracted objects being displayed in the second display region according to the object selection instruction; and removing the objects of other types from the second display region.
An arrangement for installing a casing in a borehole, the arrangement comprising - the casing, - a boring pipe which is adapted to be rotated within the casing, the boring pipe comprising a flow channel for compressed air, - a flushing medium flow channel arranged within the casing and arranged to lead the flushing medium to the bottom of the borehole, - a percussion hammer which comprises a compressed air operated percussion piston adapted in a cylinder of the percussion hammer, and hole drilling means for drilling a hole for the casing, the flushing medium flow channel being adapted to bypass the percussion piston, or in which arrangement the flushing medium flow channel is adapted to pass through the percussion piston and in which arrangement the drilling means additionally comprise splines transmitting the rotating motion and adapted to conduct the compressed air used by the percussion piston through the splines. - the casing, - a boring pipe which is adapted to be rotated within the casing, the boring pipe comprising a flow channel for compressed air, - a flushing medium flow channel arranged within the casing and arranged to lead the flushing medium to the bottom of the borehole, - a percussion hammer which comprises a compressed air operated percussion piston adapted in a cylinder of the percussion hammer, and hole drilling means for drilling a hole for the casing, the flushing medium flow channel being adapted to bypass the percussion piston, or in which arrangement the flushing medium flow channel is adapted to pass through the percussion piston and in which arrangement the drilling means additionally comprise splines transmitting the rotating motion and adapted to conduct the compressed air used by the percussion piston through the splines.
A method of managing communications between a plurality of heterogeneous devices connected to a plurality of networks, the method being performed in a first device of the plurality of heterogeneous devices and comprising: receiving, from a network portal, a connectivity report, the connectivity report including a list of the plurality of heterogeneous devices, at least one network type to which a device is connected and available bandwidth of each of the at least one network types; storing the connectivity report; determining (S130, S132, S134, S136, S138, S140, S142, S144, S146, S148, S150, S152) whether a communication link between the first device and a second device of the plurality of heterogeneous devices can be established via at least one of the network types in the connectivity report, including: - determining (S132, S136, S140, S144, S148, S152) whether a selected one of a plurality of networks from a corresponding network type has sufficient bandwidth to support a desired level of communications between the first device and the second device; and establishing a communication link between the first device and the second device via a highest ranked network type through which the communication link can be established. receiving, from a network portal, a connectivity report, the connectivity report including a list of the plurality of heterogeneous devices, at least one network type to which a device is connected and available bandwidth of each of the at least one network types; storing the connectivity report; determining (S130, S132, S134, S136, S138, S140, S142, S144, S146, S148, S150, S152) whether a communication link between the first device and a second device of the plurality of heterogeneous devices can be established via at least one of the network types in the connectivity report, including: - determining (S132, S136, S140, S144, S148, S152) whether a selected one of a plurality of networks from a corresponding network type has sufficient bandwidth to support a desired level of communications between the first device and the second device; and - determining (S132, S136, S140, S144, S148, S152) whether a selected one of a plurality of networks from a corresponding network type has sufficient bandwidth to support a desired level of communications between the first device and the second device; and establishing a communication link between the first device and the second device via a highest ranked network type through which the communication link can be established.