mhurhangee/patent-ind-claim-en huggingface dataset:
A camera head , comprising: a housing, including: a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a plurality of imaging modules disposed on or within the front element; a plurality of illumination modules disposed on or within the front element between ones of the imaging modules; and a processing element programmed to: generate composite video output data from ones of outputs of the plurality of imaging modules; characterised in that the processing element is further programmed to selectively control the light output of the plurality of illumination modules in conjunction with an imaging operation of one or more of the imaging modules, such that the plurality of illumination modules provides a first level light output during periodic imaging time intervals and a second level light output during non-imaging time intervals, wherein the second level light output provides lower brightness than the first level light output or no brightness. a housing, including: a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a plurality of imaging modules disposed on or within the front element; a plurality of illumination modules disposed on or within the front element between ones of the imaging modules; and a processing element programmed to: generate composite video output data from ones of outputs of the plurality of imaging modules; characterised in that the processing element is further programmed to selectively control the light output of the plurality of illumination modules in conjunction with an imaging operation of one or more of the imaging modules, such that the plurality of illumination modules provides a first level light output during periodic imaging time intervals and a second level light output during non-imaging time intervals, wherein the second level light output provides lower brightness than the first level light output or no brightness.
A method for a user equipment, UE, for authenticating the UE by a network for wireless communications, to protect sequence numbers, SQNs, used in authentication and key agreement, AKA, protocols, comprising: receiving , from the network, an authentication request comprising at least a random challenge, after receiving the authentication request, generating a synchronization parameter, AUTS, based at least in part on a key, K, shared by the network and the UE, the random challenge, and a first message authentication code, MAC-S; wherein generating the synchronization parameter, AUTS, comprises: generating an anonymity key, AK 1 , based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS , with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and transmitting , in response to the authentication request, the synchronization parameter and the first MAC-S to the network. receiving , from the network, an authentication request comprising at least a random challenge, after receiving the authentication request, generating a synchronization parameter, AUTS, based at least in part on a key, K, shared by the network and the UE, the random challenge, and a first message authentication code, MAC-S; wherein generating the synchronization parameter, AUTS, comprises: generating an anonymity key, AK 1 , based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS , with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and generating an anonymity key, AK 1 , based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS , with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and transmitting , in response to the authentication request, the synchronization parameter and the first MAC-S to the network.
A method comprising: detecting, using a motion tracker, motion of a display device configured to display a virtual scene; selectively maintaining or modifying, at a processor, a position of an array of rendered pixels relative to the virtual scene in response to detecting the motion; upsampling, at the processor, the maintained or modified rendered pixels to generate values of display pixels for presentation by the display device; and translating, at the processor, the values of the display pixels in a rendering plane of the display device based on the detected motion. detecting, using a motion tracker, motion of a display device configured to display a virtual scene; selectively maintaining or modifying, at a processor, a position of an array of rendered pixels relative to the virtual scene in response to detecting the motion; upsampling, at the processor, the maintained or modified rendered pixels to generate values of display pixels for presentation by the display device; and translating, at the processor, the values of the display pixels in a rendering plane of the display device based on the detected motion.
A conductive carbon material dispersion comprising a conductive carbon material-dispersing agent, a conductive carbon material, a crosslinking agent and a solvent, characterized in that the conductive carbon material-dispersing agent consists of a water-soluble polymer having pendant oxazoline rings which is obtained by the radical-polymerization of at least two monomers: (a) an oxazoline monomer having a polymerizable carbon-carbon double bond-containing group at position 2, and (b) a (meth)acrylic monomer having a hydrophilic functional group; the crosslinking agent comprises one or more selected from the group consisting of sodium polyacrylate, lithium polyacrylate, ammonium polyacrylate, sodium alginate and ammonium alginate, wherein the conductive carbon material is dispersed in the solvent. (a) an oxazoline monomer having a polymerizable carbon-carbon double bond-containing group at position 2, and (b) a (meth)acrylic monomer having a hydrophilic functional group; the crosslinking agent comprises one or more selected from the group consisting of sodium polyacrylate, lithium polyacrylate, ammonium polyacrylate, sodium alginate and ammonium alginate, wherein the conductive carbon material is dispersed in the solvent. the crosslinking agent comprises one or more selected from the group consisting of sodium polyacrylate, lithium polyacrylate, ammonium polyacrylate, sodium alginate and ammonium alginate, wherein the conductive carbon material is dispersed in the solvent.
A method for producing one or more polynucleotides of interest, the method comprising: obtaining a plurality of RNAs associated with one or more samples, wherein the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; generating an adapter molecule using an enzymatic reaction in the reaction volume in which the RNAs to which the adapter molecule is added are present, and adding the adapter molecule to the RNAs associated with the sample, wherein the adapter molecule comprises a universal priming sequence, a barcode sequence, and a binding site; wherein the adapter molecule is an RNA molecule generated by contacting a template molecule with one or more enzymes and the template molecule is a dsDNA molecule comprising an RNA polymerase (RNAP) promoter, and the one or more enzymes include an RNA polymerase, optionally selected from the group consisting of T7, T3, and SP6; and reverse-transcribing the RNAs associated with the sample to obtain a plurality of cDNAs, wherein reverse-transcribing an RNA comprises synthesizing a first strand of cDNA using a reverse-transcriptase and a first-strand primer, wherein reverse-transcribing the RNAs associated with the sample occurs in the same reaction volume where the adapter molecule added to the RNAs is generated and incorporates the adapter sequence into the first strand cDNA, thereby producing the one or more polynucleotides of interest. obtaining a plurality of RNAs associated with one or more samples, wherein the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; generating an adapter molecule using an enzymatic reaction in the reaction volume in which the RNAs to which the adapter molecule is added are present, and adding the adapter molecule to the RNAs associated with the sample, wherein the adapter molecule comprises a universal priming sequence, a barcode sequence, and a binding site; wherein the adapter molecule is an RNA molecule generated by contacting a template molecule with one or more enzymes and the template molecule is a dsDNA molecule comprising an RNA polymerase (RNAP) promoter, and the one or more enzymes include an RNA polymerase, optionally selected from the group consisting of T7, T3, and SP6; and reverse-transcribing the RNAs associated with the sample to obtain a plurality of cDNAs, wherein reverse-transcribing an RNA comprises synthesizing a first strand of cDNA using a reverse-transcriptase and a first-strand primer, wherein reverse-transcribing the RNAs associated with the sample occurs in the same reaction volume where the adapter molecule added to the RNAs is generated and incorporates the adapter sequence into the first strand cDNA, thereby producing the one or more polynucleotides of interest.
Apparatus for introducing a protective gas into containers , in particular bottles, comprising: a transport system with a closed transport track, which is configured to transport the containers from a pick-up position to a drop-off position; and an injection apparatus (150; 250; 350), which is arranged at the transport track and configured in such a way that the protective gas can be introduced into the containers with it while transporting the containers from the pick-up position to the drop-off position; characterized in that the transport system is configured at least in between the pick-up position and the drop-off position with a long stator linear drive for individually controllable movement of a plurality of transport elements for the containers along the transport track, that the injection apparatus (150; 250; 350) has at least one injection nozzle (151; 251; 351) for injecting the protective gas into an opening of the containers, and that furthermore a control and/or regulating unit is provided, which is configured to move the transport elements with reduced velocity past the at least one injection nozzle or to temporarily stop at the at least one injection nozzle. a transport system with a closed transport track, which is configured to transport the containers from a pick-up position to a drop-off position; and an injection apparatus (150; 250; 350), which is arranged at the transport track and configured in such a way that the protective gas can be introduced into the containers with it while transporting the containers from the pick-up position to the drop-off position; characterized in that the transport system is configured at least in between the pick-up position and the drop-off position with a long stator linear drive for individually controllable movement of a plurality of transport elements for the containers along the transport track, that the injection apparatus (150; 250; 350) has at least one injection nozzle (151; 251; 351) for injecting the protective gas into an opening of the containers, and that furthermore a control and/or regulating unit is provided, which is configured to move the transport elements with reduced velocity past the at least one injection nozzle or to temporarily stop at the at least one injection nozzle.
A communication method performed by a mobile station, MS, using analog and digital hybrid beamforming, the method comprising: receiving , from a base station, BS, a first message including information related to measurement for beamforming; transmitting , to the BS, report information for analog beamforming, wherein the report information comprises information about at least one analog transmission beam selected from among a plurality of analog transmission beams based on the first message; receiving , from the BS, a second message including information about at least one analog transmission beam selected by the BS based on the report information; performing channel estimation for the at least one analog transmission beam selected by the BS; determining feedback information for digital beamforming based on the channel estimation result on the at least one analog transmission beam selected by the BS; transmitting the feedback information to the BS; and receiving , from the BS, data being scheduled according to a precoder and a multiple input multiple output, MIMO, mode selected based on the feedback information. receiving , from a base station, BS, a first message including information related to measurement for beamforming; transmitting , to the BS, report information for analog beamforming, wherein the report information comprises information about at least one analog transmission beam selected from among a plurality of analog transmission beams based on the first message; receiving , from the BS, a second message including information about at least one analog transmission beam selected by the BS based on the report information; performing channel estimation for the at least one analog transmission beam selected by the BS; determining feedback information for digital beamforming based on the channel estimation result on the at least one analog transmission beam selected by the BS; transmitting the feedback information to the BS; and receiving , from the BS, data being scheduled according to a precoder and a multiple input multiple output, MIMO, mode selected based on the feedback information.
A handling mechanism for raising and lowering a nuclear fuel cask having upper and lower pairs of trunnions off of and onto a cask transporter , the handling mechanism comprising: a fixed position frame configured to permit the cask transporter to move thereunder while supporting the nuclear fuel cask ; a cask engagement tool ; a pair of paddles pivotably attached to the cask engagement tool for selectively engaging the upper pair of trunnions of the nuclear fuel cask . characterized in that the cask engagement tool is movable in the vertical direction relative to the frame and configured to selectively move the nuclear fuel cask in the vertical direction relative to the frame when the nuclear fuel cask is secured to the cask engagement tool to selectively raise and lower the nuclear fuel cask onto and off of the cask transporter ; and a plurality of vertically-extending hydraulic cylinders extend between the frame and the cask engagement tool are and configured to move together for raising and lowering the cask engagement tool relative to the frame. a fixed position frame configured to permit the cask transporter to move thereunder while supporting the nuclear fuel cask ; a cask engagement tool ; a pair of paddles pivotably attached to the cask engagement tool for selectively engaging the upper pair of trunnions of the nuclear fuel cask . characterized in that the cask engagement tool is movable in the vertical direction relative to the frame and configured to selectively move the nuclear fuel cask in the vertical direction relative to the frame when the nuclear fuel cask is secured to the cask engagement tool to selectively raise and lower the nuclear fuel cask onto and off of the cask transporter ; and a plurality of vertically-extending hydraulic cylinders extend between the frame and the cask engagement tool are and configured to move together for raising and lowering the cask engagement tool relative to the frame.
An apparatus comprising: a pick head configured to transfer sample containers to and from a sample group holder ; at least one sensor connected to the pick head and configured to detect at least one predetermined feature of the sample group holder ; and a controller configured to receive a detection signal from the at least one sensor corresponding to detection of the at least one predetermined feature, the apparatus being characterized in that the controller is further configured to determine a thermal growth or shrinkage change in a dimension of a predetermined physical characteristic intrinsic to the sample group holder based on a detected position via the sensor of the at least one predetermined feature, and determine a location of one or more sample containers in the sample group holder to allow for the transfer of the one or more sample containers to and from the sample group holder based on the detection signal. a pick head configured to transfer sample containers to and from a sample group holder ; at least one sensor connected to the pick head and configured to detect at least one predetermined feature of the sample group holder ; and a controller configured to receive a detection signal from the at least one sensor corresponding to detection of the at least one predetermined feature, the apparatus being characterized in that the controller is further configured to determine a thermal growth or shrinkage change in a dimension of a predetermined physical characteristic intrinsic to the sample group holder based on a detected position via the sensor of the at least one predetermined feature, and determine a location of one or more sample containers in the sample group holder to allow for the transfer of the one or more sample containers to and from the sample group holder based on the detection signal. determine a thermal growth or shrinkage change in a dimension of a predetermined physical characteristic intrinsic to the sample group holder based on a detected position via the sensor of the at least one predetermined feature, and determine a location of one or more sample containers in the sample group holder to allow for the transfer of the one or more sample containers to and from the sample group holder based on the detection signal.
A control valve assembly for controlling the differential pressure and/or for controlling and regulating the volume flow of a flow circuit operated with a liquid, the control valve assembly including a housing with a first entry port (3.1), through which the volume flow of the flow circuit flows or is blocked totally or partially, with an exit port , through which the total volume flow of the flow circuit is discharged, and with a connection port disposed between the first entry port (3.1) and the exit port and passed by the total volume flow, in said connection port an insert formed of a regulation and control device being integrated, the regulation device consisting of a first flow regulation device associated with the first entry port (3.1) and an associated second flow regulation device , the control device keeping constant the differential pressure over the first flow regulation device and thus the volume flow that is supplied to the first entry port, and/or the control device keeping constant the differential pressure over the second flow regulation device including the valve assemblies arranged upstream thereof with adjustable flow resistances and/or heat emitting devices , and the connection port or parts disposed thereat having a connection geometry for an actuator , by means of which the first flow regulation device and the second flow regulation device of the regulation and control device is adjustable, a spindle disposed axially displaceably in the connection port of the control valve assembly including a first end section protruding from the connection port and being actuated by the actuator and at least one first throttle element attached at the spindle, said first throttle element being part of the first flow regulation device , and at least one second throttle element being part of the second flow regulation device, and wherein a portion of the spindle between the first end section and the first throttle element is provided as an axial guide for a movable throttle body of the control device , characterized by that the housing includes a second entry port (3.2), through which the volume flow of the flow circuit flows or is blocked totally or partially, the connection port being disposed between the first entry port (3.1) and the second entry port (3.2) and the exit port , that the second flow regulation device is associated with the second entry port (3.2), that the control device keeps constant the differential pressure over the second flow regulation device including the valve assemblies disposed upstream thereof with adjustable flow resistances and/or heat emitting devices , that the second flow regulation device with the actuator is also adjustable, that the second throttle element is attached at a second end section of the spindle opposed to the first end section , and that the first throttle element of the first flow regulation device is a sleeve.
A method for controlling a check valve in a refrigeration system , the refrigeration system , including: a refrigerant fluid, an evaporator , an expansion device , a condenser , a compressor , an economizer branch , an economizer heat exchanger in the economizer branch , an economizer expansion valve , wherein the economizer heat exchanger is positioned in the economizer branch between the economizer expansion valve and the compressor , wherein a check valve is connected between an economizer inlet of the compressor and the economizer heat exchanger , and comprises a housing and a shutter movable within the housing , wherein the check valve is movable, through movement of the shutter , between an open position, to allow the refrigerant fluid to flow from the economizer branch to the compressor , and a closed position, to prevent the refrigerant fluid from flowing from the economizer branch to the compressor , and wherein the refrigeration system further comprises a first bypass branch , connected to the refrigeration circuit to receive a first flow of the refrigerant fluid, and to the check valve on a first side of the shutter , and a second bypass branch , connected to the economizer branch , to receive a second flow of the refrigerant fluid, and to the refrigeration circuit, wherein the economizer branch is connected to the check valve on a second side of the shutter , opposite to the first side , the method comprising the following steps, responsive to the economizer expansion valve moving to a closed position to prevent the refrigerant fluid from flowing to the economizer heat exchanger : - commanding a first valve to move to the open position, to allow the first flow of the refrigerant fluid to flow in the first bypass branch , - commanding a second valve to move to the open position, to allow the second flow of the refrigerant fluid to flow in the second bypass branch . - commanding a first valve to move to the open position, to allow the first flow of the refrigerant fluid to flow in the first bypass branch , - commanding a second valve to move to the open position, to allow the second flow of the refrigerant fluid to flow in the second bypass branch .