mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a location of a member in a 3D image data based on a 2D image data, comprising: accessing the 3D image data of a subject; acquiring the 2D image data of the subject, comprising filtering an x-ray beam into a plurality of fan beams and acquiring a plurality of projections of the subject with the fan beams along a selected axis of the subject; generating a 2D long view of the subject including the region of interest of the subject based on the acquired 2D image data, comprising stitching together at least a selected sub-plurality of projections of the acquired plurality of projections of the subject; registering the 3D image data to the generated 2D long view; determining a location of a member in the generated 2D long view; and correlating the location of the member in the generated 2D long view to the 3D image data based at least on the registering of the 3D image data to the generated 2D long view; wherein determining a location of a member in the generated 2D long view further comprises: accessing parameters of the member; generating a member projection based on the accessed parameters; comparing a generated 2D projection and the member projection to the generated 2D long view; and optimizing a similarity metric between the generated 2D projection and the member projection and the generated 2D long view at least by altering a rotation or a translation of the member when generating the generated member projection and the generated 2D projection. accessing the 3D image data of a subject; acquiring the 2D image data of the subject, comprising filtering an x-ray beam into a plurality of fan beams and acquiring a plurality of projections of the subject with the fan beams along a selected axis of the subject; generating a 2D long view of the subject including the region of interest of the subject based on the acquired 2D image data, comprising stitching together at least a selected sub-plurality of projections of the acquired plurality of projections of the subject; registering the 3D image data to the generated 2D long view; determining a location of a member in the generated 2D long view; and correlating the location of the member in the generated 2D long view to the 3D image data based at least on the registering of the 3D image data to the generated 2D long view; accessing parameters of the member; generating a member projection based on the accessed parameters; comparing a generated 2D projection and the member projection to the generated 2D long view; and optimizing a similarity metric between the generated 2D projection and the member projection and the generated 2D long view at least by altering a rotation or a translation of the member when generating the generated member projection and the generated 2D projection.
A refrigeration system comprising: a compressor ; a condenser fluidly coupled to the compressor; an evaporator having an inlet and an outlet, the evaporator fluidly coupled between the condenser and the compressor; a liquid suction heat exchanger fluidly coupled between the condenser and the evaporator , the liquid suction heat exchanger disposed within the evaporator for heat exchange between liquid refrigerant from the condenser and refrigerant vapor in the evaporator; a superheat sensor disposed in the evaporator outlet; and an expansion valve disposed between the liquid suction heat exchanger and the evaporator , wherein the expansion valve is operably coupled to the superheat sensor. a compressor ; a condenser fluidly coupled to the compressor; an evaporator having an inlet and an outlet, the evaporator fluidly coupled between the condenser and the compressor; a liquid suction heat exchanger fluidly coupled between the condenser and the evaporator , the liquid suction heat exchanger disposed within the evaporator for heat exchange between liquid refrigerant from the condenser and refrigerant vapor in the evaporator; a superheat sensor disposed in the evaporator outlet; and an expansion valve disposed between the liquid suction heat exchanger and the evaporator , wherein the expansion valve is operably coupled to the superheat sensor.
An automated system for updating firmware on an industrial device , the system comprising: a user interface device storing a computer program with executable instructions ; one or more industrial devices , which are selected from a programmable logic controller , a human machine interface device , a switch , an electric machine, a sensor, an actuator, and a combination thereof, comprising firmware; and a communication network , which is an industrial network, interfacing with the user interface device and the one or more industrial devices and adapted to transmit data, characterized in that the computer program of the user interface device comprises instructions to scan the communication network and to identify at least one industrial device that requires an update of the firmware, and wherein the computer program of the user interface device comprises further instructions to update the firmware on the at least one industrial device via the communication network after establishing communication with the at least one industrial device , wherein the computer program of the user interface device comprises further instructions to generate an inventory list comprising current firmware versions and/or update files for the at least one industrial device , and wherein the computer program comprises further instructions to acquire the update files based on the inventory list. a user interface device storing a computer program with executable instructions ; one or more industrial devices , which are selected from a programmable logic controller , a human machine interface device , a switch , an electric machine, a sensor, an actuator, and a combination thereof, comprising firmware; and a communication network , which is an industrial network, interfacing with the user interface device and the one or more industrial devices and adapted to transmit data, characterized in that the computer program of the user interface device comprises instructions to scan the communication network and to identify at least one industrial device that requires an update of the firmware, and wherein the computer program of the user interface device comprises further instructions to update the firmware on the at least one industrial device via the communication network after establishing communication with the at least one industrial device , wherein the computer program of the user interface device comprises further instructions to generate an inventory list comprising current firmware versions and/or update files for the at least one industrial device , and wherein the computer program comprises further instructions to acquire the update files based on the inventory list.
A water-dispersible nonwoven substrate comprising: at least two plies of an unstructured web that are laminated together, each ply of the unstructured web is produced individually on different forming apparatus and comprises hydroentangled cellulosic fibers and spaces arranged between the two plies; wherein the cellulosic fibers are individualized, substantially straight, smooth and elongated, and substantially pectin-free bast fibers. at least two plies of an unstructured web that are laminated together, each ply of the unstructured web is produced individually on different forming apparatus and comprises hydroentangled cellulosic fibers and spaces arranged between the two plies; wherein the cellulosic fibers are individualized, substantially straight, smooth and elongated, and substantially pectin-free bast fibers.
A passive start drip chamber device comprising: a body comprising a chamber formed between a top portion and a bottom portion of the body, the chamber fluidly coupled to a primary flow port for entry of a first liquid into the chamber, a secondary flow port at the top portion for entry of a second liquid into the chamber, and an output flow port at the bottom portion to permit any of the first and second liquid to exit the chamber; and a primary flow path coupled to the primary flow port which is at the bottom portion of the body, the primary flow path being disposed through the body from the bottom portion of the body to a top portion of the body such that the first liquid moves through the primary flow path and enters the chamber through the top portion of the body; and a float valve disposed within the chamber and configured to move, based on a level of liquid within the chamber, between an occluding configuration, wherein the primary flow path is occluded, and an open configuration, wherein the primary flow path is not occluded. a body comprising a chamber formed between a top portion and a bottom portion of the body, the chamber fluidly coupled to a primary flow port for entry of a first liquid into the chamber, a secondary flow port at the top portion for entry of a second liquid into the chamber, and an output flow port at the bottom portion to permit any of the first and second liquid to exit the chamber; and a primary flow path coupled to the primary flow port which is at the bottom portion of the body, the primary flow path being disposed through the body from the bottom portion of the body to a top portion of the body such that the first liquid moves through the primary flow path and enters the chamber through the top portion of the body; and a float valve disposed within the chamber and configured to move, based on a level of liquid within the chamber, between an occluding configuration, wherein the primary flow path is occluded, and an open configuration, wherein the primary flow path is not occluded.
A method for depositing a layer in a sputter-deposition system having a target cathode, comprising ordered steps of: a) selecting first and second parameters from a group of operating parameters consisting of cathode voltage, cathode current, and cathode power, such that the first and second parameters are different operating parameters; b) providing a first dependence relationship of a deposition rate of the layer on the first parameter, wherein the first dependence relationship is a power function including a reference constant and a nonzero dependence exponent, wherein the reference constant and the nonzero dependence exponent are determined from one or more previous depositions of one or more layers using the target cathode and under similar operating conditions; c) starting the deposition of the layer; d) holding the second parameter substantially constant at a reference value during the deposition of the layer; e) measuring a second dependence relationship of the first parameter on time during the deposition of the layer; f) determining a deposition time for the layer on the basis of the first and second dependence relationships during deposition of the layer, including calculating an integral over time including the second dependence relationship; and g) stopping the deposition of the layer at the deposition time. a) selecting first and second parameters from a group of operating parameters consisting of cathode voltage, cathode current, and cathode power, such that the first and second parameters are different operating parameters; b) providing a first dependence relationship of a deposition rate of the layer on the first parameter, wherein the first dependence relationship is a power function including a reference constant and a nonzero dependence exponent, wherein the reference constant and the nonzero dependence exponent are determined from one or more previous depositions of one or more layers using the target cathode and under similar operating conditions; c) starting the deposition of the layer; d) holding the second parameter substantially constant at a reference value during the deposition of the layer; e) measuring a second dependence relationship of the first parameter on time during the deposition of the layer; f) determining a deposition time for the layer on the basis of the first and second dependence relationships during deposition of the layer, including calculating an integral over time including the second dependence relationship; and g) stopping the deposition of the layer at the deposition time.
A device for securing an accessory to an operating table, comprising a first securing unit for securing the device to the operating table, in particular to a rail of the operating table, and comprising a second securing unit for securing a rod (100 to 110) of the accessory to the device , wherein the second securing unit comprises an opening for receiving a rod (100 to 110) of the accessory, the second securing unit comprises a clamping unit for clamping a rod (100 to 110) received in the opening , and the cross section of the opening is configured such that both rods (100 to 110) having a first profile type and rods (100 to 110) having at least a second profile type can be secured in the opening, in particular in a positively locked connection, with the aid of the clamping unit , characterized in that the cross section of the opening results from the superimposition of a square and one or two rectangles , and in that the diagonal of the square is longer than the longer side of each rectangle .
A synthetic particle, comprising: a plurality of oligonucleotide barcodes coupled thereto, wherein each of the plurality of oligonucleotide barcodes comprises an identical cellular label sequence, a molecular label sequence, and a target-binding region hybridizes with a target nucleic acid in a sample, and wherein at least 10 of the plurality of oligonucleotide barcodes comprise different molecular label sequences, wherein each cellular label sequence comprises at least 6 nucleotides, wherein each molecular label sequence comprises at least 6 nucleotides; and a first plurality of spacer oligonucleotides coupled thereto, wherein each of the first plurality of spacer oligonucleotides does not comprise the target-binding region, and wherein the first plurality of spacer oligonucleotides reduces the density of the plurality of oligonucleotide barcodes on the synthetic particle, wherein the ratio of the plurality of oligonucleotide barcodes and the first plurality of spacer oligonucleotides ranges from 1:10 to 10:1. a plurality of oligonucleotide barcodes coupled thereto, wherein each of the plurality of oligonucleotide barcodes comprises an identical cellular label sequence, a molecular label sequence, and a target-binding region hybridizes with a target nucleic acid in a sample, and wherein at least 10 of the plurality of oligonucleotide barcodes comprise different molecular label sequences, wherein each cellular label sequence comprises at least 6 nucleotides, wherein each molecular label sequence comprises at least 6 nucleotides; and a first plurality of spacer oligonucleotides coupled thereto, wherein each of the first plurality of spacer oligonucleotides does not comprise the target-binding region, and wherein the first plurality of spacer oligonucleotides reduces the density of the plurality of oligonucleotide barcodes on the synthetic particle, wherein the ratio of the plurality of oligonucleotide barcodes and the first plurality of spacer oligonucleotides ranges from 1:10 to 10:1.
A method for use in a first node of a transport network for supporting latency monitoring in the transport network, the transport network transporting traffic to and from at least one wireless base station, the transport network comprising the first node and a second node, the method comprising: determining a first timestamp representing a time at which a data element is received at the first node; adding the first timestamp to a communication signal for sending to the second node, the communication signal carrying data for the at least one wireless base station, the data including the received data element; and sending an indication of an association between the first timestamp and the data element that the first timestamp relates to, wherein the indication of association is a pointer pointing to a part of a payload where the timestamped data element is carried. determining a first timestamp representing a time at which a data element is received at the first node; adding the first timestamp to a communication signal for sending to the second node, the communication signal carrying data for the at least one wireless base station, the data including the received data element; and sending an indication of an association between the first timestamp and the data element that the first timestamp relates to, wherein the indication of association is a pointer pointing to a part of a payload where the timestamped data element is carried.
A polycrystalline cubic boron nitride, PCBN, composite material consisting of: between 60 and 90 vol.% cubic boron nitride, cBN, particles and between 40 and 10 vol.% binder matrix material in which the cBN particles are dispersed, the cBN particles having an average grain size lying in the range 8 to 20 μm, the binder matrix material comprising between 90 and 99 wt.% an alloy of the refractory metals tungsten (W) and rhenium (Re) and which further comprises aluminium (Al) in a form other than as an oxide, the binder phase including an interface layer on the cBN grains, said interface layer comprising borides or nitrides of Al, characterised in that said aluminium (Al) is present in a quantity between 2 and 10 wt.% of the binder matrix material and the interface layer has an average thickness which lies in the range 100 - 250 nm.
A rechargeable lithium battery comprising: a positive electrode including a positive active material ; a negative electrode including a negative active material; a separator interposed between the positive electrode and the negative electrode, the separator including a porous substrate and a coating layer including ceramic; and an electrolyte solution; wherein the positive active material comprises a lithium metal oxide and a compound coated on a surface of the lithium metal oxide, wherein the compound is represented by the following formula: Li 1+x Al x M 2-x (PO 4 ) 3 where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer is formed only on one side of the porous substrate to face the negative electrode . a positive electrode including a positive active material ; a negative electrode including a negative active material; a separator interposed between the positive electrode and the negative electrode, the separator including a porous substrate and a coating layer including ceramic; and an electrolyte solution; wherein the positive active material comprises a lithium metal oxide and a compound coated on a surface of the lithium metal oxide, wherein the compound is represented by the following formula: Li 1+x Al x M 2-x (PO 4 ) 3 where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer is formed only on one side of the porous substrate to face the negative electrode . where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer is formed only on one side of the porous substrate to face the negative electrode .
A mattress comprising an outer casing , and an inner core that is surrounded by the outer casing, the mattress having two major faces , two long side faces , and two end faces , the core including a plurality of pocket springs that each comprise at least one spring within a fabric pocket, each spring being compressible along a compressive axis, and the pocket springs being arranged within the core such that the compressive axes extend perpendicularly to the two major faces, wherein the pocket springs are arranged into: two lateral sets , wherein in each lateral set the fabric pockets of adjacent pocket springs are interconnected in regions adjacent the major faces of the mattress; and a central set , wherein the fabric pockets of adjacent pocket springs in the central set are interconnected in regions adjacent the major faces of the mattress, the central set being disposed between the two lateral sets, and extending in a direction parallel to the long side faces of the mattress; and wherein the central set is joined directly or indirectly to each of the two lateral sets by first connections that are disposed substantially centrally between the two major faces, such that springs in each lateral set are compressible independently of the springs in the other lateral set. two lateral sets , wherein in each lateral set the fabric pockets of adjacent pocket springs are interconnected in regions adjacent the major faces of the mattress; and a central set , wherein the fabric pockets of adjacent pocket springs in the central set are interconnected in regions adjacent the major faces of the mattress, the central set being disposed between the two lateral sets, and extending in a direction parallel to the long side faces of the mattress; and wherein the central set is joined directly or indirectly to each of the two lateral sets by first connections that are disposed substantially centrally between the two major faces, such that springs in each lateral set are compressible independently of the springs in the other lateral set.
A data packet processing method, comprising: sending , by a control plane network element , a first request message to a user plane network element , wherein the first request message is used to request to establish a first user plane channel between the control plane network element and the user plane network element , and the first request message comprises a control plane side endpoint identifier of the first user plane channel; receiving , by the control plane network element , a first response message from the user plane network element , wherein the first response message is used to indicate that the first user plane channel is successfully established; and receiving , by the control plane network element via the first user plane channel, a first data packet sent by the user plane network element , wherein the control plane network element and the user plane network element are network elements serving target user equipment, the control plane network element and the user plane network element of a same core network element are separated, and wherein the method is characterized in that the sending , by a control plane network element , the first request message to a user plane network element comprises: sending , by the control plane network element , the first request message to the user plane network element when the control plane network element determines that the target user equipment is in an idle mode. sending , by a control plane network element , a first request message to a user plane network element , wherein the first request message is used to request to establish a first user plane channel between the control plane network element and the user plane network element , and the first request message comprises a control plane side endpoint identifier of the first user plane channel; receiving , by the control plane network element , a first response message from the user plane network element , wherein the first response message is used to indicate that the first user plane channel is successfully established; and receiving , by the control plane network element via the first user plane channel, a first data packet sent by the user plane network element , wherein the control plane network element and the user plane network element are network elements serving target user equipment, the control plane network element and the user plane network element of a same core network element are separated, and wherein the method is characterized in that the sending , by a control plane network element , the first request message to a user plane network element comprises: sending , by the control plane network element , the first request message to the user plane network element when the control plane network element determines that the target user equipment is in an idle mode.