mhurhangee/ep-ind-claims huggingface dataset:
A relay timing control method for a downhole low rate linear repeater network for a drilling rig comprising a drillstring extending subsurface downwardly from a surface wellhead, a node located near a drillstring end and including a sensor adapted for providing a signal data set output corresponding to downhole conditions, and multiple nodes located downhole between said node and said wellhead and associated with said drillstring, said nodes configured to receive and re-transmit said signals, the method comprising the steps of: controlling and specifying network timing constants including: packet transmission times as a function of internode data rate and packet bit length; guard times allocated between receipt and transmission to allow for processing time, acquisition of sensor data and subsiding of channel delay spread; signal propagation times between nodes as a function of node separation; and intra-node sensor acquisition times; determining node timing offsets relative to network nodes (ST, STO) based on a receipt time of a telemetry data packet originating from another node (ST, STO), type of packet received, and the network timing constants; and using said node timing offsets to set node (ST, STO) timing. controlling and specifying network timing constants including: packet transmission times as a function of internode data rate and packet bit length; guard times allocated between receipt and transmission to allow for processing time, acquisition of sensor data and subsiding of channel delay spread; signal propagation times between nodes as a function of node separation; and intra-node sensor acquisition times; packet transmission times as a function of internode data rate and packet bit length; guard times allocated between receipt and transmission to allow for processing time, acquisition of sensor data and subsiding of channel delay spread; signal propagation times between nodes as a function of node separation; and intra-node sensor acquisition times; determining node timing offsets relative to network nodes (ST, STO) based on a receipt time of a telemetry data packet originating from another node (ST, STO), type of packet received, and the network timing constants; and using said node timing offsets to set node (ST, STO) timing.
A watering device for livestock, comprising at least one watering shell, an assigned water supply device (16, 24) and a heating device (25, 26) for preventing water located in the watering shell from freezing, the heating device having at least one heating plate (25, 26) which forms a heating surface for transferring heat to a transmission surface (13, 14, 61) on the watering shell, characterised in that the transmission surface is formed by a support plate attached to the water inlet region of the watering valve arrangement, which support plate is at an angle to the water inlet region such that it extends along the wall of a support part of the watering shell and is immersed in the water within the watering shell.
A system for resolving inconsistencies in device models within a process control system while executing a control process, the system comprising: a process controller having a first copy of a model of an entity of the process control system; a control process execution engine having a second copy of the model of the entity of the process control system, wherein the control process execution engine is adapted to provide a control instruction to the process controller based on the second copy of the model of the entity, and wherein the process controller is adapted to execute the control instruction based on the first copy of the model of the entity; and a control execution object that detects a difference between the first and second copies of the model of the entity during execution of the control process and generates a prompt in response detection of the difference, and receives an operation instruction regarding continued operation of the control process, wherein the operation instruction comprises one of continuing execution of the control process or aborting execution of the control process. a process controller having a first copy of a model of an entity of the process control system; a control process execution engine having a second copy of the model of the entity of the process control system, wherein the control process execution engine is adapted to provide a control instruction to the process controller based on the second copy of the model of the entity, and wherein the process controller is adapted to execute the control instruction based on the first copy of the model of the entity; and a control execution object that detects a difference between the first and second copies of the model of the entity during execution of the control process and generates a prompt in response detection of the difference, and receives an operation instruction regarding continued operation of the control process, wherein the operation instruction comprises one of continuing execution of the control process or aborting execution of the control process.
A pool cleaning robot extraction system for extraction of a pool cleaning robot from a pool, the system comprises: a pool cleaning robot interface that is arranged to be coupled to a pool cleaning robot during an exit process during which the pool cleaning robot is extracted from the pool; and a pool cleaning robot manipulator that is coupled to the pool cleaning robot interface, wherein the pool cleaning robot manipulator is arranged to move the pool cleaning robot interface between a first and second portion; wherein when the pool cleaning robot interface is at the first position and is coupled to the pool cleaning robot, the pool cleaning robot is within the pool; wherein when the pool cleaning robot interface is at the second position and is coupled to the pool cleaning robot, the pool cleaning robot is positioned outside the pool; wherein the pool cleaning robot manipulator is an elevator drive system; wherein the pool cleaning robot extraction system is characterized by further comprising: an elevator housing that at least partially surrounds: an elevator motor; an elevator transmission system; and an elevating and descending interface that is elevated and is descended by the elevator transmission system and is connected to a pool cleaning robot interface that supports the pool cleaning robot that is elevated and/or descended by the elevator drive system. an elevator motor; an elevator transmission system; and an elevating and descending interface that is elevated and is descended by the elevator transmission system and is connected to a pool cleaning robot interface that supports the pool cleaning robot that is elevated and/or descended by the elevator drive system.
A sole structure for an article of footwear, wherein the article of footwear has a heel region, a midfoot region, and a forefoot region, the sole structure comprising: a plate having a heel portion, a midfoot portion, a forefoot portion, and an extension portion; wherein: the heel portion, the midfoot portion, and the forefoot portion correspond with the heel region, the midfoot region, and the forefoot region, respectively; and the extension portion extends from the forefoot portion forward to a distal end; and wherein the plate has a graduated stiffness that increases in magnitude from the heel portion forward to the extension portion. a plate having a heel portion, a midfoot portion, a forefoot portion, and an extension portion; wherein: the heel portion, the midfoot portion, and the forefoot portion correspond with the heel region, the midfoot region, and the forefoot region, respectively; and the extension portion extends from the forefoot portion forward to a distal end; the heel portion, the midfoot portion, and the forefoot portion correspond with the heel region, the midfoot region, and the forefoot region, respectively; and the extension portion extends from the forefoot portion forward to a distal end; and wherein the plate has a graduated stiffness that increases in magnitude from the heel portion forward to the extension portion.
A frequency domain resource processing method, comprising: configuring, by a radio access network, RAN, node, a plurality of frequency domain resources for a terminal, wherein the plurality of frequency domain resources are in a first frequency domain resource group configured by the RAN node for the terminal; sending, by the RAN node, first information to the terminal, wherein the first information is carried on a physical downlink control channel, PDCCH, the first information comprises a plurality of information bits and a group identifier of the first frequency domain resource group, the plurality of information bits correspond to the plurality of frequency domain resources respectively, and the information bits in the first information are used to instruct to activate or deactivate the frequency domain resources corresponding to the information bits; and instructing, by the RAN node, at a time, to activate or deactivate the plurality of frequency domain resources in the first frequency domain resource group based on the group identifier. configuring, by a radio access network, RAN, node, a plurality of frequency domain resources for a terminal, wherein the plurality of frequency domain resources are in a first frequency domain resource group configured by the RAN node for the terminal; sending, by the RAN node, first information to the terminal, wherein the first information is carried on a physical downlink control channel, PDCCH, the first information comprises a plurality of information bits and a group identifier of the first frequency domain resource group, the plurality of information bits correspond to the plurality of frequency domain resources respectively, and the information bits in the first information are used to instruct to activate or deactivate the frequency domain resources corresponding to the information bits; and instructing, by the RAN node, at a time, to activate or deactivate the plurality of frequency domain resources in the first frequency domain resource group based on the group identifier.
An inner shell of a central console of a motor vehicle, characterized in that it is formed by the assembly of two half-shells (11, 12), respectively a first half-shell and a second half-shell, made of a plastic material, said half-shells (11, 12) being hinged together so as to be able to move relative to one another from a partially assembled configuration of the inner shell, in which they are retained only at respectively two front and rear upper side edges (14, 14') of said inner shell, to a fully assembled configuration of the inner shell, in which they are fastened together by clipping.
A tool for operating on an object, comprising: a frame; a working head assembly having a movable section with a first end and a second end wherein the second end comprises an aperture, and a fixed section having a first end and a second end wherein the second end comprises an aperture, wherein the fixed section is secured to the frame, and wherein the first end of the movable section is movably secured to the first end of the fixed section and the second end of the movable section is releasably secured to the second end of the fixed section using a latch pin extendable through the apertures (40c, 42c) of the second end of the movable section and the second end of the fixed section; and characterized by a latch pin stop (80, 80') extensibly positioned in the second end of the movable section and configured to prevent the latch pin from securing the second end of the movable section, wherein the latch pin stop (80, 80') is movable between an active position where the latch pin stop (80, 80') blocks the insertion of the latch pin in the apertures (40c, 42c), and a retracted position in which the latch pin stop (80, 80') allows insertion of the latch pin into the apertures (40c, 42c), thereby securing the second end of the movable section to the second end of the fixed section when the movable section and the fixed section are positioned such that the aperture in the second end of the movable section is axially aligned with the aperture in the second end of the fixed section. a frame; a working head assembly having a movable section with a first end and a second end wherein the second end comprises an aperture, and a fixed section having a first end and a second end wherein the second end comprises an aperture, wherein the fixed section is secured to the frame, and wherein the first end of the movable section is movably secured to the first end of the fixed section and the second end of the movable section is releasably secured to the second end of the fixed section using a latch pin extendable through the apertures (40c, 42c) of the second end of the movable section and the second end of the fixed section; and characterized by a latch pin stop (80, 80') extensibly positioned in the second end of the movable section and configured to prevent the latch pin from securing the second end of the movable section, wherein the latch pin stop (80, 80') is movable between an active position where the latch pin stop (80, 80') blocks the insertion of the latch pin in the apertures (40c, 42c), and a retracted position in which the latch pin stop (80, 80') allows insertion of the latch pin into the apertures (40c, 42c), thereby securing the second end of the movable section to the second end of the fixed section when the movable section and the fixed section are positioned such that the aperture in the second end of the movable section is axially aligned with the aperture in the second end of the fixed section.
A continuous flow reactor, comprising a shell, wherein the shell is provided with a shell pass inlet and a shell pass outlet which are communicated with an inner cavity of the shell, tube plates and baffling tube boxes are provided with a reactant inlet and a reactant outlet, and are connected to upper and lower ends of the shell, a reaction tube bank is arranged in the shell and includes a plurality of reaction tubes, upper and lower ends of each of said reaction tubes are fixedly connected to the tube plates in a penetrating manner, the baffling tube boxes are integral components and are formed with a plurality of separated baffling slots, a plurality of separated baffling channels being formed by the tube plates and the baffling slots of the baffling tube boxes jointly, and the adjacent reaction tubes being sequentially communicated in series in a medium flow direction through the corresponding baffling channels, and the reaction tube bank is composed of a plurality of layers of reaction tubes which are sequentially arranged from inside to outside, and wherein all the reaction tubes are sequentially communicated in series through the baffling tube boxes, characterized in that the reaction tubes are spiral twined tubes having a helix angle, and in that the baffling slots in the upper and lower baffling tube boxes and installation holes in the upper and lower tube plates are arrayed in a manner capable of realizing the following arrangement form of tops and bottoms of all layers of reaction tubes: from outside to inside: the tops of a first layer of reaction tubes, namely the outermost layer of reaction tubes, are arrayed to form a first upper circle, the tops of a second layer of reaction tubes are arrayed to form a second upper circle which is concentric with the first upper circle and has a diameter smaller than that of the first upper circle, until a last layer of reaction tubes, namely an innermost layer of reaction tubes, is arrayed to form a corresponding upper circle; from outside to inside: the bottoms of the first layer of reaction tubes are arrayed to form a first lower circle, the bottoms of the second layer of reaction tubes are arrayed to form a second lower circle which is concentric with the first lower circle and has a diameter smaller than that of the first lower circle, until the last layer of reaction tubes are arrayed to form a corresponding lower circle; the centers of the upper circles and the centers of the lower circles are located on an axis of the shell, angles between vertical lines from the tops of the reaction tubes to the axis of the shell and vertical lines from the bottoms of the same reaction tubes to the axis of the shell are equal, and straight lines from the tops to the bottoms of all the reaction tubes are parallel to the axis of the shell.
An information processing apparatus comprising: an adjustment unit configured to generate an adjusted second virtual object by adjusting, on a basis of feature point information of a first person included in a first virtual object reflecting a body motion of the first person, characterized in that it further comprises a second virtual object reflecting a body motion of a second person to be superimposed on the first virtual object, wherein the adjustment unit adjusts at least a scale or a size of the second virtual object on the basis of the feature point information, a generation unit (161, 261) configured to generate, on a basis of the feature point information of a person, a virtual object reflecting a body motion of the person, wherein the generation unit (161, 261) extracts feature point information of the person on a basis of sensor data obtained by sensing the person, wherein the feature point information comprises acceleration information indicating a motion of the body of the person. an adjustment unit configured to generate an adjusted second virtual object by adjusting, on a basis of feature point information of a first person included in a first virtual object reflecting a body motion of the first person, characterized in that it further comprises a second virtual object reflecting a body motion of a second person to be superimposed on the first virtual object, wherein the adjustment unit adjusts at least a scale or a size of the second virtual object on the basis of the feature point information, a generation unit (161, 261) configured to generate, on a basis of the feature point information of a person, a virtual object reflecting a body motion of the person, wherein the generation unit (161, 261) extracts feature point information of the person on a basis of sensor data obtained by sensing the person, wherein the feature point information comprises acceleration information indicating a motion of the body of the person. wherein the generation unit (161, 261) extracts feature point information of the person on a basis of sensor data obtained by sensing the person, wherein the feature point information comprises acceleration information indicating a motion of the body of the person.
A reusable laser sight for a rocket launcher comprising: a base plate configured to be permanently mounted vertically on a side surface of a rocket launcher, wherein the base plate comprises a pivotable rail mounting member and a rotatable docking hub arranged on the rail mounting member; a laser module configured to removably couple to the base plate, wherein the laser module comprises a laser source, a range knob for adjusting a range setting, a base plate gripping feature configured to detachably couple to the rail mounting member, and a registration shaft coupled to and extending from the range knob, wherein the registration shaft removably engages with the rotatable docking hub; wherein the rotatable docking hub comprises a rotatable cam that engages a cam base on the base plate, wherein rotation of the range knob causes the registration shaft to rotate the cam, and wherein rotation of the cam causes pivotal movement of the rail mounting member about a pivot point with respect to the base plate. a base plate configured to be permanently mounted vertically on a side surface of a rocket launcher, wherein the base plate comprises a pivotable rail mounting member and a rotatable docking hub arranged on the rail mounting member; a laser module configured to removably couple to the base plate, wherein the laser module comprises a laser source, a range knob for adjusting a range setting, a base plate gripping feature configured to detachably couple to the rail mounting member, and a registration shaft coupled to and extending from the range knob, wherein the registration shaft removably engages with the rotatable docking hub; wherein the rotatable docking hub comprises a rotatable cam that engages a cam base on the base plate, wherein rotation of the range knob causes the registration shaft to rotate the cam, and wherein rotation of the cam causes pivotal movement of the rail mounting member about a pivot point with respect to the base plate.
A method for refocusing an optical setup on a target surface, using at least one beam (f u) originating from a short-pulse optical source, comprising at least one optic for focusing the beam (f u) on the target surface, the refocusing being applied after knowing reference conditions (d 1) for which the optical setup is considered to be focused, method in which: - a focusing signal is detected that is representative of a temporal overlapping of the pulses bewteen a beam reflected (f r) by the target surface and a reference beam not reflected (f ref) by the target surface and deriving from the source, one of the beams being delayed by a delay line (4, 14), - based on said reference conditions, the optical path of the beam on which the delay line (4, 14) is placed is made to vary so as to cause said focusing signal to reach or exceed a predefined threshold, and - the focusing is readjusted on the basis of the knowledge of the variation of optical path between the reference conditions (d 1) and the conditions (d 2) for which the focusing signal reaches or exceeds said predefined threshold. - a focusing signal is detected that is representative of a temporal overlapping of the pulses bewteen a beam reflected (f r) by the target surface and a reference beam not reflected (f ref) by the target surface and deriving from the source, one of the beams being delayed by a delay line (4, 14), - based on said reference conditions, the optical path of the beam on which the delay line (4, 14) is placed is made to vary so as to cause said focusing signal to reach or exceed a predefined threshold, and - the focusing is readjusted on the basis of the knowledge of the variation of optical path between the reference conditions (d 1) and the conditions (d 2) for which the focusing signal reaches or exceeds said predefined threshold.
A method, comprising: representing a range of target Doppler frequency offsets as a local oscillator waveform comprising a plurality of digital waveform samples spanning the range of target Doppler frequency offsets; selecting a portion of the plurality of digital waveform samples using a Doppler value to form an optical heterodyne; and generating a signal associated with a target within a bandwidth of a receiver using the optical heterodyne. representing a range of target Doppler frequency offsets as a local oscillator waveform comprising a plurality of digital waveform samples spanning the range of target Doppler frequency offsets; selecting a portion of the plurality of digital waveform samples using a Doppler value to form an optical heterodyne; and generating a signal associated with a target within a bandwidth of a receiver using the optical heterodyne.
A process for producing 2,3,3,3-tetrafluoropropene (HFO-1234yf), comprising distilling a mixture of water and HFO-1234yf to separate the mixture into a first stream and a second stream, the first stream containing HFO-1234yf with a water content higher than that of the original mixture, and the second stream containing HFO-1234yf with a water content lower than that of the original mixture; and obtaining HFO-1234yf with a reduced water content from the second stream.