mhurhangee/ep-ind-claims huggingface dataset:
A high definition digital camera system comprising: an optical assembly for gathering light from a desired scene; a modular imaging sub-system comprising an imager including at least one array of pixels aligned with the optical assembly, wherein the array produces a minimum of 10-bits per pixel of color data; and a frame grabber capturing raw image data output from the imager on a selective continuous or intermittent basis; and outputting a serial data rate of at least 50 megabytes per second of non-interpolated color filtered pixel data; and a modular docking recorder including a processing system receiving output from the frame grabber; wherein light gathered by the optical assembly is received by the imager for generating and outputting raw image data at film or video rates, in particular wherein a lens mount interconnects the optical assembly and modular imaging sub-system, provides for film or video lenses to be removably connected to the modular imaging sub-system; and wherein the modular imaging sub-system electro-mechanically engages the modular docking recorder when docked with the modular docking recorder or connects to the modular docking recorder by wired or wireless connection for remote operation of the modular imaging sub-system when detached from the modular docking recorder. an optical assembly for gathering light from a desired scene; a modular imaging sub-system comprising an imager including at least one array of pixels aligned with the optical assembly, wherein the array produces a minimum of 10-bits per pixel of color data; and a frame grabber capturing raw image data output from the imager on a selective continuous or intermittent basis; and outputting a serial data rate of at least 50 megabytes per second of non-interpolated color filtered pixel data; and a modular docking recorder including a processing system receiving output from the frame grabber; wherein light gathered by the optical assembly is received by the imager for generating and outputting raw image data at film or video rates, in particular wherein a lens mount interconnects the optical assembly and modular imaging sub-system, provides for film or video lenses to be removably connected to the modular imaging sub-system; and wherein the modular imaging sub-system electro-mechanically engages the modular docking recorder when docked with the modular docking recorder or connects to the modular docking recorder by wired or wireless connection for remote operation of the modular imaging sub-system when detached from the modular docking recorder.
A motion conversion mechanism comprising: a shaft having an external thread; and a cylinder having an internal thread that is screwed with the external thread, wherein the motion conversion mechanism converts rotating motion of one of the shaft and the cylinder into linear motion of the other of the shaft and the cylinder, and wherein the cylinder is provided with two internal thread portions (78b, 78c), each having the internal thread, such that a threadless portion having no internal thread is interposed between the two internal thread portions in an axial direction, characterized in that: the threadless portion is longer in axial length than a shorter one, in axial length, of the two internal thread portions (78b, 78c). a shaft having an external thread; and a cylinder having an internal thread that is screwed with the external thread, wherein the motion conversion mechanism converts rotating motion of one of the shaft and the cylinder into linear motion of the other of the shaft and the cylinder, and wherein the cylinder is provided with two internal thread portions (78b, 78c), each having the internal thread, such that a threadless portion having no internal thread is interposed between the two internal thread portions in an axial direction, characterized in that: the threadless portion is longer in axial length than a shorter one, in axial length, of the two internal thread portions (78b, 78c).
A biological sample collection and storage assembly, including: (i) at least one filtering component; and (ii) an absorbent storage component; wherein the at least one filtering component is configured to filter a received biological sample in fluid form containing free cells and other biological components to separate the free cells from the other biological components such that the other biological components flow to the absorbent storage component for subsequent testing or analysis, characterized in that the filtering and storage components are collectively in the form of a lateral flow strip (200, 300, 400, 500, 700), wherein the components are supported by a common non-absorbent backing layer, and the adhesion of the absorbent storage component to the backing layer is configured to facilitate selective removal of the absorbent storage component; the assembly including a housing in which the lateral flow strip is disposed to protect the lateral flow strip from contamination, and to protect the external environment and users from contamination from the biological sample within the housing, the housing including a port to receive the biological sample; wherein the housing includes a sample removal component that is operable by a user to provide access to the storage component disposed within the housing and to selectively engage the storage component and separate it from the at least one filtering component, and to subsequently release it for testing or analysis. (i) at least one filtering component; and (ii) an absorbent storage component;
A power conversion system having a DC power distribution bus, comprising: a first converter and a second converter, each connected to the DC power distribution bus; a first controller connected to the first converter and controlling the first converter using space vector; a second controller connected to the second converter and controlling the second converter using space vector modulation, wherein: the second controller space vector modulation frames are synchronized to the first controller space vector modulation frames; and the second controller space vector modulation frames are phase shifted relative to the first controller space vector modulation frames characterized in that: the first controller and the second controller are configured to adjust the phase shift from one modulation period to the next as time passes by providing an offset value added to a counter value of a counter that changes from one modulation period to the next as time passes. a first converter and a second converter, each connected to the DC power distribution bus; a first controller connected to the first converter and controlling the first converter using space vector; a second controller connected to the second converter and controlling the second converter using space vector modulation, wherein: the second controller space vector modulation frames are synchronized to the first controller space vector modulation frames; and the second controller space vector modulation frames are phase shifted relative to the first controller space vector modulation frames characterized in that: the first controller and the second controller are configured to adjust the phase shift from one modulation period to the next as time passes by providing an offset value added to a counter value of a counter that changes from one modulation period to the next as time passes. the second controller space vector modulation frames are synchronized to the first controller space vector modulation frames; and the second controller space vector modulation frames are phase shifted relative to the first controller space vector modulation frames characterized in that: the first controller and the second controller are configured to adjust the phase shift from one modulation period to the next as time passes by providing an offset value added to a counter value of a counter that changes from one modulation period to the next as time passes.
An active ray-curable composition, comprising: a photobase generator; a double bond-containing compound; and a β-dicarbonyl compound, characterized in that the photobase generator is a compound selected from compounds represented by Structural Formulas (A-1) to (A-12): a photobase generator; a double bond-containing compound; and a β-dicarbonyl compound, characterized in that the photobase generator is a compound selected from compounds represented by Structural Formulas (A-1) to (A-12):
Collection container arranged for collecting an object of a certain constitution from the ground by passing the object through a penetrable wall section (9, 10) of the collection container, the penetrable wall section (9, 10) comprising a resilient structure operable to be forced against the object to thereby induce resilient deformation of the resilient structure (9, 10) to generate a penetration passage for penetrating therethrough the object into the collection container, with a modifying unit comprising a modifying mechanism associated with the resilient structure, and operable, by a user, to modify the resilience of the resilient structure, characterized by the modifying mechanism comprising at least one finger movably associated with the collection container, and being operable, for modifying resilience, to engage or disengage a gap formed in the resilient structure (9, 10).
Surfactant composition, consisting of 70 wt%-99.9 wt% sophorolactone, 0-1 wt% sophorolipid acid, less than 0.1 % residual substrate and remainder water.
An apparatus comprising: a first station adapted communicate within a wireless network that operates in compliance with a methodology; wherein said methodology defines a High Throughput Control, HTC, field used for signaling such that the HTC field can be transmitted as part of a control frame and defines that a receiving station shall assert a network allocation vector, NAV, in response to receiving a frame of a type indicative of a management frame, data frame, or a control frame; and wherein the first station is configured to use the control frame with a first subtype and is constructed to deliver the HTC field within the Control Frame to receiving stations conforming methodology, thereby enabling the receiving stations including a legacy station to be able to assert the network allocation vector, NAV, in a duration field of the control frame, the HTC field to offer a tunneling approach with High Throughput Control backward compatibility for legacy systems and to offer High Throughput Control for systems comprising digital beamforming, the tunneling approach to deliver NAVs using transmission rates and waveforms of legacy systems and to deliver NAVs using rate and waveforms of HT systems. a first station adapted communicate within a wireless network that operates in compliance with a methodology; wherein said methodology defines a High Throughput Control, HTC, field used for signaling such that the HTC field can be transmitted as part of a control frame and defines that a receiving station shall assert a network allocation vector, NAV, in response to receiving a frame of a type indicative of a management frame, data frame, or a control frame; and wherein the first station is configured to use the control frame with a first subtype and is constructed to deliver the HTC field within the Control Frame to receiving stations conforming methodology, thereby enabling the receiving stations including a legacy station to be able to assert the network allocation vector, NAV, in a duration field of the control frame, the HTC field to offer a tunneling approach with High Throughput Control backward compatibility for legacy systems and to offer High Throughput Control for systems comprising digital beamforming, the tunneling approach to deliver NAVs using transmission rates and waveforms of legacy systems and to deliver NAVs using rate and waveforms of HT systems.
A plasma etching method capable of detecting an end point in which a Si film of a silicon substrate including the Si film formed on a surface side and a lower layer film formed below the Si film is etched, the plasma etching method for etching the Si film by supplying etching gas containing SF 6 gas so that plasma is formed, at least two steps of a large-amount supply step (e 1) of supplying a large amount of SF 6 gas for etching the Si film and a small-amount supply step (e 2) at which a supply amount is reduced to supply a small amount of SF 6 gas for etching the Si film being repeatedly implemented, characterized in that an emission intensity of Si, SiFx or F in the plasma at the small-amount supply step (e 2) is measured, and when the measured emission intensity of Si or SiFx becomes equal to or less than a previously set reference value, or when the measured emission intensity of F becomes equal to or more than a previously set reference value, a process is ended, determining that an etching end point is reached.
A root canal treatment support apparatus for providing information that can be used for root canal treatment, the root canal treatment support apparatus comprising: an accepting unit configured to accept image information obtained by imaging a root canal of a tooth; an information generation unit configured to generate information related to root canal treatment suitable to a root canal shape based on the image information accepted by the accepting unit; and an output unit configured to output the information generated by the information generation unit, wherein the information generation unit includes a classification specification unit configured to specify a classification of the root canal shape based on the image information accepted by the accepting unit, a memory in which the information related to root canal treatment is stored for each classification of the root canal shape, and a selection unit configured to select the information related to root canal treatment from the memory based on the classification specified by the classification specification unit. an accepting unit configured to accept image information obtained by imaging a root canal of a tooth; an information generation unit configured to generate information related to root canal treatment suitable to a root canal shape based on the image information accepted by the accepting unit; and an output unit configured to output the information generated by the information generation unit, wherein the information generation unit includes a classification specification unit configured to specify a classification of the root canal shape based on the image information accepted by the accepting unit, a memory in which the information related to root canal treatment is stored for each classification of the root canal shape, and a selection unit configured to select the information related to root canal treatment from the memory based on the classification specified by the classification specification unit. a classification specification unit configured to specify a classification of the root canal shape based on the image information accepted by the accepting unit, a memory in which the information related to root canal treatment is stored for each classification of the root canal shape, and a selection unit configured to select the information related to root canal treatment from the memory based on the classification specified by the classification specification unit.
A method in a media aggregating node, connected to a local network environment and to a first electronic device and to a set of second electronic devices comprising at least one second electronic device, for authorizing the at least one second electronic device to control a media rendering unit and the media rendering upon it, said media rendering unit being comprised in the local network environment and controllable from the first electronic device, the method comprising: - sending (S4, 201) presence information regarding a at least one media rendering unit to the first electronic device; - receiving, from the first electronic device, a user selection of the at least one media rendering unit; - receiving, from the first electronic device, an instruction to authorize the at least one second electronic device to control the at least one media rendering unit; - authorizing the at least one second electronic device to control the at least one media rendering unit; wherein the at least one media rendering unit and the media rendering upon it can be controlled using instructions received from the at least one second electronic device. - sending (S4, 201) presence information regarding a at least one media rendering unit to the first electronic device; - receiving, from the first electronic device, a user selection of the at least one media rendering unit; - receiving, from the first electronic device, an instruction to authorize the at least one second electronic device to control the at least one media rendering unit; - authorizing the at least one second electronic device to control the at least one media rendering unit; wherein the at least one media rendering unit and the media rendering upon it can be controlled using instructions received from the at least one second electronic device.
An unmanned aerial vehicle, control method, comprising: determining, that a control device of an unmanned aerial vehicle, UAV, needs to be handed over; and sending (S 102) a hosting command for handing over the control device of the UAV to a network device, characterized in that the method is performed by an unmanned aerial vehicle traffic management, UTM, network element disposed in a communications network, wherein the UTM network element is configured to manage the UAV and the UAV control device that access the communications network; and the hosting command is sent, by the UTM network element, to the network device to enable the network device to indicate, according to the hosting command, that the UAV needs to hand over the control device of the UAV, wherein the hosting command comprises information about a to-be-handed-over-to control device of the UAV. determining, that a control device of an unmanned aerial vehicle, UAV, needs to be handed over; and sending (S 102) a hosting command for handing over the control device of the UAV to a network device, characterized in that the method is performed by an unmanned aerial vehicle traffic management, UTM, network element disposed in a communications network, wherein the UTM network element is configured to manage the UAV and the UAV control device that access the communications network; and the hosting command is sent, by the UTM network element, to the network device to enable the network device to indicate, according to the hosting command, that the UAV needs to hand over the control device of the UAV, wherein the hosting command comprises information about a to-be-handed-over-to control device of the UAV.
A computer-readable storage medium storing instructions that when executed cause a processor to perform a process, the instructions comprising instructions to: receive, at a first device, a target attribute associated with a first user account; access, at the first device, a code representing the target attribute and including a plurality of values; the instructions characterized by instructions to: send, to a second device, a portion of the code and an indicator of a relative location within the code of the portion of the code; and receive an indicator from the second device that the portion of the code is included at the relative location within at least one code from a plurality of codes associated with a plurality of attributes associated with a second user account. receive, at a first device, a target attribute associated with a first user account; access, at the first device, a code representing the target attribute and including a plurality of values; the instructions characterized by instructions to: send, to a second device, a portion of the code and an indicator of a relative location within the code of the portion of the code; and receive an indicator from the second device that the portion of the code is included at the relative location within at least one code from a plurality of codes associated with a plurality of attributes associated with a second user account. send, to a second device, a portion of the code and an indicator of a relative location within the code of the portion of the code; and receive an indicator from the second device that the portion of the code is included at the relative location within at least one code from a plurality of codes associated with a plurality of attributes associated with a second user account.
A chemical reaction device configured to supply a raw material liquid into a solution and cause particles to precipitate in the solution, the chemical reaction device comprising: an agitation tank configured to accommodate the solution: an impeller configured to agitate the solution: a baffle protruding from an inner peripheral surface of the agitation tank; and a plurality of discharge parts configured to discharge the raw material liquid into the solution; wherein the plurality of discharge parts are disposed radially inward with respect to the baffle in top view; and wherein the plurality of discharge parts are disposed radially outward with respect to the impeller in top view; and wherein the plurality of discharge parts are (i) set apart from one another on a bottom portion of the agitation tank and are configured to discharge the raw material liquid upward, or (ii) formed into a doughnut-shaped plate in top view and arranged on the bottom portion of the agitation tank. a baffle protruding from an inner peripheral surface of the agitation tank; and a plurality of discharge parts configured to discharge the raw material liquid into the solution; wherein the plurality of discharge parts are disposed radially inward with respect to the baffle in top view; and wherein the plurality of discharge parts are disposed radially outward with respect to the impeller in top view; and wherein the plurality of discharge parts are (i) set apart from one another on a bottom portion of the agitation tank and are configured to discharge the raw material liquid upward, or (ii) formed into a doughnut-shaped plate in top view and arranged on the bottom portion of the agitation tank.