mhurhangee/ep-ind-claims huggingface dataset:
A medical system, comprising: a medical instrument configured for interventional deployment; a shape sensing system mounted on or in the medical instrument and configured to measure a shape of the medical instrument during the interventional deployment and to collect shape data at a plurality of times and positions; an imaging device mounted on or in the medical instrument and configured to image a lumen in which the imaging device is deployed, concurrently with the measurement of the shape of the medical instrument; and characterised in a registration module configured to compute a reference shape of the medical instrument based on motion of the lumen from the shape data and to register the reference shape of the medical instrument to an image of the lumen from the imaging device at a particular time to provide fused data which reconstructs a three-dimensional geometry of the lumen which accounts for the motion of the lumen during the measurement. a medical instrument configured for interventional deployment; a shape sensing system mounted on or in the medical instrument and configured to measure a shape of the medical instrument during the interventional deployment and to collect shape data at a plurality of times and positions; an imaging device mounted on or in the medical instrument and configured to image a lumen in which the imaging device is deployed, concurrently with the measurement of the shape of the medical instrument; and characterised in a registration module configured to compute a reference shape of the medical instrument based on motion of the lumen from the shape data and to register the reference shape of the medical instrument to an image of the lumen from the imaging device at a particular time to provide fused data which reconstructs a three-dimensional geometry of the lumen which accounts for the motion of the lumen during the measurement.
A virtual queue system, comprising: a virtual queue controller comprising a processor and a memory, wherein the processor is configured to execute instructions accessed from the memory to cause the virtual queue controller to: receive an indication of a reduced capacity event from an amusement park attraction; determine a reduction in capacity of the attraction associated with the reduced capacity event; identify each guest having a return time in a virtual queue of the attraction that is affected by the reduced capacity event based on the reduction in capacity; remove guests having affected return times from the virtual queue; generate a reaccommodation time slot (112, 114, 116) for the guests removed from the virtual queue, wherein a length of the reaccommodation time slot (112, 114, 116) is based on a total number of affected return times of the guests removed from the virtual queue, and wherein the reaccommodation time slot (112, 114, 116) is subsequent to all of the affected return times; select two or more updated return times within the reaccommodation time slot (112, 114, 116) for each of the guests removed from the virtual queue; provide a notification to each guest removed from the virtual queue (12 4) requesting guest input to select a single updated return time from the two or more updated return times; and return each guest to the virtual queue upon receiving a corresponding selection of the single updated return time. receive an indication of a reduced capacity event from an amusement park attraction; determine a reduction in capacity of the attraction associated with the reduced capacity event; identify each guest having a return time in a virtual queue of the attraction that is affected by the reduced capacity event based on the reduction in capacity; remove guests having affected return times from the virtual queue; generate a reaccommodation time slot (112, 114, 116) for the guests removed from the virtual queue, wherein a length of the reaccommodation time slot (112, 114, 116) is based on a total number of affected return times of the guests removed from the virtual queue, and wherein the reaccommodation time slot (112, 114, 116) is subsequent to all of the affected return times; select two or more updated return times within the reaccommodation time slot (112, 114, 116) for each of the guests removed from the virtual queue; provide a notification to each guest removed from the virtual queue (12 4) requesting guest input to select a single updated return time from the two or more updated return times; and return each guest to the virtual queue upon receiving a corresponding selection of the single updated return time.
A system comprising: a frequency stabilizer receiving a first reference clock (OSC_CLK) at an input, and producing a frequency-stabilized signal (PLL_CLK) at an output; a phase noise measurement unit respectively receiving at first and second inputs a second reference clock (OSC_CLK) and the frequency-stabilized signal (PLL_CLK), the phase noise measurement unit configured to produce a phase noise signal indicative of phase noise between the second reference clock (OSC_CLK) and the frequency-stabilized signal (PLL_CLK); and a sampling circuit configured to convert a first data signal into a second data signal, wherein the sampling circuit receives the frequency-stabilized signal (PLL_CLK) and the phase noise signal, and converts the first data signal into the second data signal based on the frequency-stabilized signal (PLL_CLK) and the phase noise signal. a frequency stabilizer receiving a first reference clock (OSC_CLK) at an input, and producing a frequency-stabilized signal (PLL_CLK) at an output; a phase noise measurement unit respectively receiving at first and second inputs a second reference clock (OSC_CLK) and the frequency-stabilized signal (PLL_CLK), the phase noise measurement unit configured to produce a phase noise signal indicative of phase noise between the second reference clock (OSC_CLK) and the frequency-stabilized signal (PLL_CLK); and a sampling circuit configured to convert a first data signal into a second data signal, wherein the sampling circuit receives the frequency-stabilized signal (PLL_CLK) and the phase noise signal, and converts the first data signal into the second data signal based on the frequency-stabilized signal (PLL_CLK) and the phase noise signal.
An electronic circuit structure comprising I. A substrate, II. a dielectric layer on top of said substrate and comprising a cavity having side-walls, III. A manganese or manganese nitride barrier layer covering said side-walls, and IV. A self-assembled monolayer, comprising an organic compound of formula Z-L-A, covering said manganese or manganese nitride barrier layer, wherein Z is selected from the list consisting of a primary amino group, a carboxylic acid group, a thiol group, a selenol group and a heterocyclic group having an unsubstituted tertiary amine in the cycle, wherein L is an organic linker comprising from 1 to 12 carbon atoms and from 0 to 3 heteroatoms, and wherein A is a group attaching the linker to the manganese or manganese nitride barrier layer. I. A substrate, II. a dielectric layer on top of said substrate and comprising a cavity having side-walls, III. A manganese or manganese nitride barrier layer covering said side-walls, and IV. A self-assembled monolayer, comprising an organic compound of formula Z-L-A, covering said manganese or manganese nitride barrier layer, wherein Z is selected from the list consisting of a primary amino group, a carboxylic acid group, a thiol group, a selenol group and a heterocyclic group having an unsubstituted tertiary amine in the cycle, wherein L is an organic linker comprising from 1 to 12 carbon atoms and from 0 to 3 heteroatoms, and wherein A is a group attaching the linker to the manganese or manganese nitride barrier layer.
A Digital Processing Module for providing electrocardiogram signals for a human body for storage and/or viewing on a remote/local device, the DPM comprising: - an input adapted to receive contactless ECG signals for the human body from an array of contactless ECG sensors located in proximity of the human body; - a processor adapted to perform a selection process including: ∘ obtaining a body outline of the human body based on a quality of each contactless ECG signal associated with each contactless ECG sensor; ∘ detecting one or more body parts located in the body outline using a set of rules embedded in the DPM; ∘ associating a group of contactless ECG sensors with each detected body part; ∘ selecting from each group a contactless ECG sensor having a highest signal quality for the body part associated with that group of contactless ECG sensors; the processor being adapted to produce a standard ECG signal based on the contactless ECG signals received from the selected contactless ECG sensors; and - an output for sending the standard ECG signal to the remote/local device, wherein the contactless ECG sensors each comprise a capacitive electrode. - an input adapted to receive contactless ECG signals for the human body from an array of contactless ECG sensors located in proximity of the human body; - a processor adapted to perform a selection process including: ∘ obtaining a body outline of the human body based on a quality of each contactless ECG signal associated with each contactless ECG sensor; ∘ detecting one or more body parts located in the body outline using a set of rules embedded in the DPM; ∘ associating a group of contactless ECG sensors with each detected body part; ∘ selecting from each group a contactless ECG sensor having a highest signal quality for the body part associated with that group of contactless ECG sensors; the processor being adapted to produce a standard ECG signal based on the contactless ECG signals received from the selected contactless ECG sensors; and ∘ obtaining a body outline of the human body based on a quality of each contactless ECG signal associated with each contactless ECG sensor; ∘ detecting one or more body parts located in the body outline using a set of rules embedded in the DPM; ∘ associating a group of contactless ECG sensors with each detected body part; ∘ selecting from each group a contactless ECG sensor having a highest signal quality for the body part associated with that group of contactless ECG sensors; - an output for sending the standard ECG signal to the remote/local device,
Apparatus, simultaneously detecting and displaying varying levels of a metal melt and an associated slag layer in a continuous casting mould, having a longitudinal direction defined as the direction of the metal flow, entering the mould, comprising: - at least one source of radiation, arranged on one side of the mould along a first distinct length in a longitudinal direction and emitting radiation photons towards an opposite side of the mould, - at least one series of sensitive detectors (30.1... 30.8), arranged one adjacent to the other along a second distinct length in said longitudinal direction on said opposite side of the mould, wherein there is no space between said adjacent detectors, - each detector (30.1... 30.8) being arranged so as to receive incident photons emitted all over the first length by said source of radiation, said detectors being arranged to form a row parallel to the longitudinal direction, each detector being independent and able to receive any signal independently, - a data processor, collecting the variable signals, received by each detector (30.1... 30.8), in a time-dependent manner and calculating with an algorithm and a calibration the respective level of the metal melt and the associated slag layer respectively, subject to the signals collected, at a specific time; and - means for evaluating and forwarding signals received from the detectors (30.1... 30.8) to the data processor wherein said source of radiation is linear extending and one piece source and allows that all detectors are able to detect a variable, individual signal, depending on the position of the respective melt and slag level, endpoints of said first and second distinct length being arranged above and below an estimated maximum and minimum level to be detected, the longitudinal length of the radiation source is longer or equal the longitudinal length of the row of detectors. - at least one source of radiation, arranged on one side of the mould along a first distinct length in a longitudinal direction and emitting radiation photons towards an opposite side of the mould, - at least one series of sensitive detectors (30.1... 30.8), arranged one adjacent to the other along a second distinct length in said longitudinal direction on said opposite side of the mould, wherein there is no space between said adjacent detectors, - each detector (30.1... 30.8) being arranged so as to receive incident photons emitted all over the first length by said source of radiation, - a data processor, collecting the variable signals, received by each detector (30.1... 30.8), in a time-dependent manner and calculating with an algorithm and a calibration the respective level of the metal melt and the associated slag layer respectively, subject to the signals collected, at a specific time; and - means for evaluating and forwarding signals received from the detectors (30.1... 30.8) to the data processor
An electronic device comprising: a housing including a first surface facing a first direction, a second surface facing a second direction opposite to the first direction, and a side surface surrounding a space between the first surface and the second surface; a touch screen display including a screen exposed through the first surface, wherein the touch screen display includes a conductive plane which is substantially parallel with the first surface; a printed circuit board positioned between the touch screen display and the second surface and being substantially parallel with the conductive plane; a wireless communication circuit positioned on the printed circuit board; and a side member forming at least a portion of the side surface, wherein the side member includes: a first elongated part that surrounds at least a portion of the conductive plane and is formed of a non-conductive material; and a second elongated part surrounding at least a portion of the printed circuit board and substantially none of the conductive plane, and extending in parallel with the first elongated part, wherein the second elongated part is formed of a conductive material, and wherein the second elongated part is electrically coupled to the wireless communication circuit. a housing including a first surface facing a first direction, a second surface facing a second direction opposite to the first direction, and a side surface surrounding a space between the first surface and the second surface; a touch screen display including a screen exposed through the first surface, wherein the touch screen display includes a conductive plane which is substantially parallel with the first surface; a printed circuit board positioned between the touch screen display and the second surface and being substantially parallel with the conductive plane; a wireless communication circuit positioned on the printed circuit board; and a side member forming at least a portion of the side surface, wherein the side member includes: a first elongated part that surrounds at least a portion of the conductive plane and is formed of a non-conductive material; and a second elongated part surrounding at least a portion of the printed circuit board and substantially none of the conductive plane, and extending in parallel with the first elongated part, wherein the second elongated part is formed of a conductive material, and wherein the second elongated part is electrically coupled to the wireless communication circuit. a first elongated part that surrounds at least a portion of the conductive plane and is formed of a non-conductive material; and a second elongated part surrounding at least a portion of the printed circuit board and substantially none of the conductive plane, and extending in parallel with the first elongated part, wherein the second elongated part is formed of a conductive material, and wherein the second elongated part is electrically coupled to the wireless communication circuit.
A shoe sole, comprising a midsole and a support structure, the support structure includes a support piece with elasticity, wherein the support piece is provided at the forefoot or/and arch position of the sole of the shoe and is laid out along the width direction of the sole, the support piece is provided with a number of raised arc sections or/and concave arc sections along the width direction of the sole, the support structure further comprises a support plate disposed on the upper or lower surface of the support piece, the support plate being connected to the support piece, wherein the support piece is a raised arc section on both sides along the width direction of the shoe sole with a flat surface in the middle; or a raised arc section on the inner side with a flat surface in the middle and outer side; or a raised arc section in the middle with a flat surface on both sides; or a raised arc section as a whole, the support structure being bonded or integrally formed to the upper surface of the shoe midsole, wherein the support structure is placed on the upper surface of the shoe midsole, and the shoe midsole is provided with a bottom convexity corresponding to the position of the raised arc section, or the shoe midsole is provided with a recess corresponding to the position of the lower concave arc section.
A method of treating bioprosthetic tissues for cardiovascular prostheses; said method comprising the step of removing phospholipids from the bioprosthetic tissues by using a Cyclodextrin that is able by itself to remove phospholipids from bioprosthetic tissues.
A double shell seat comprising a base for resting on a floor, an outer shell supported by the base, and an inner shell movably supported within the outer shell, the inner shell having a seat support, a backrest support, and a hinge between the seat support and the backrest support, the inner shell being movable with respect to the outer shell from an upright condition in which the seat support has a position toward the rear of the outer shell, the backrest support has a position that is relatively vertical, and the hinge is at a first angle, to a reclined condition in which the seat support is forward of its position in the upright condition, the backrest support is less vertical than its position in the upright condition, and the hinge is open at a greater angle than the first angle, wherein the outer shell has a seat with an upper face, and cooperating ramps and rollers (58, 56) that are on the upper face and the bottom of the seat support are located at positions on the upper face and the bottom of the seat support so that the rollers encounter the ramps, whereby a front of the seat support rises as the seat support moves from the upright condition to the reclined condition. a base for resting on a floor, an outer shell supported by the base, and an inner shell movably supported within the outer shell, the inner shell having a seat support, a backrest support, and a hinge between the seat support and the backrest support, the inner shell being movable with respect to the outer shell from an upright condition in which the seat support has a position toward the rear of the outer shell, the backrest support has a position that is relatively vertical, and the hinge is at a first angle, to a reclined condition in which the seat support is forward of its position in the upright condition, the backrest support is less vertical than its position in the upright condition, and the hinge is open at a greater angle than the first angle, wherein the outer shell has a seat with an upper face, and cooperating ramps and rollers (58, 56) that are on the upper face and the bottom of the seat support are located at positions on the upper face and the bottom of the seat support so that the rollers encounter the ramps, whereby a front of the seat support rises as the seat support moves from the upright condition to the reclined condition.
Method for producing a security paper, comprising the following steps: providing a substrate which extends in a planar manner and has a front side and a rear side, applying, to the front side, a transfer element (6; 8) which is delimited by at least one edge, and applying a stabilizing coating (7; 10) to the rear side in a portion of the substrate, the portion of the substrate that has the applied stabilizing coating (7; 10) covering the applied transfer element (6; 8) in plan view, characterized in that the stabilizing coating (7; 10) is applied in such a way that the portion has at least two surface portions on which different coating materials are applied and which differ with respect to an appearance of the stabilizing coating (7; 10) that is perceptible or measurable from the rear side. providing a substrate which extends in a planar manner and has a front side and a rear side, applying, to the front side, a transfer element (6; 8) which is delimited by at least one edge, and applying a stabilizing coating (7; 10) to the rear side in a portion of the substrate, the portion of the substrate that has the applied stabilizing coating (7; 10) covering the applied transfer element (6; 8) in plan view, characterized in that the stabilizing coating (7; 10) is applied in such a way that the portion has at least two surface portions on which different coating materials are applied and which differ with respect to an appearance of the stabilizing coating (7; 10) that is perceptible or measurable from the rear side.
Push-in clamp retainer for an electric connector with a lead wire receptacle which is open in a direction that is perpendicular to a lateral direction and which is at least partly encircled by a surrounding wall in said lateral direction, characterized in that the surrounding wall forms two opposing lateral contractions of the retainer, in that said lateral contractions comprise two opposing receiving members embodied as two opposing slits for fixing a spring member to the retainer and in that said lateral contractions separate the lead wire receptacle from a rear hollow space.
A lipid of Formula A: wherein: R 1 is H or methyl; n and m are 1; XisO; L 1 is selected from C 12 -C 24 alkyl and C 12 -C 24 alkenyl; and L 2 is C 8 alkyl; or any pharmaceutically acceptable salt or stereoisomer thereof. R 1 is H or methyl; n and m are 1; XisO; L 1 is selected from C 12 -C 24 alkyl and C 12 -C 24 alkenyl; and L 2 is C 8 alkyl; or any pharmaceutically acceptable salt or stereoisomer thereof.