mhurhangee/ep-ind-claims huggingface dataset:
A stented valve comprising: a compressible and expandable stent structure comprising a generally tubular body portion having an interior area and a longitudinal axis and V-shaped structures that extend longitudinally along the length of the stent, wherein the stent structure comprises a series of wires arranged in a generally tubular shape that includes multiple diamond-shaped structures extending around the perimeter at an inflow end, and wherein the V-shaped structures each have an end that generally extends from the peaks of the diamond-shaped structures; and a bioprosthetic valve positioned at least partially within the interior area of the tubular body portion of the stent structure and comprising: an outer tubular portion comprising at least two commissure extensions and an inner wall from which a plurality of leaflets extend; and at least one scalloped portion extending between adjacent commissure extensions; wherein the at least two commissure extensions are secured to the V-shaped structures of the stent structure with attachment material that is slideable along the V-shaped structures of the stent structure to allow for free movement of the valve relative to the stent structure along its longitudinal axis, wherein each of the commissure extensions is attached to a V-shaped structure with stitches that are spaced apart from each other and extend along the both sides and the peak of each V-shaped structure. a compressible and expandable stent structure comprising a generally tubular body portion having an interior area and a longitudinal axis and V-shaped structures that extend longitudinally along the length of the stent, wherein the stent structure comprises a series of wires arranged in a generally tubular shape that includes multiple diamond-shaped structures extending around the perimeter at an inflow end, and wherein the V-shaped structures each have an end that generally extends from the peaks of the diamond-shaped structures; and a bioprosthetic valve positioned at least partially within the interior area of the tubular body portion of the stent structure and comprising: an outer tubular portion comprising at least two commissure extensions and an inner wall from which a plurality of leaflets extend; and at least one scalloped portion extending between adjacent commissure extensions; an outer tubular portion comprising at least two commissure extensions and an inner wall from which a plurality of leaflets extend; and at least one scalloped portion extending between adjacent commissure extensions; wherein the at least two commissure extensions are secured to the V-shaped structures of the stent structure with attachment material that is slideable along the V-shaped structures of the stent structure to allow for free movement of the valve relative to the stent structure along its longitudinal axis, wherein each of the commissure extensions is attached to a V-shaped structure with stitches that are spaced apart from each other and extend along the both sides and the peak of each V-shaped structure.
An apparatus for providing printing ink to a printing plate of a printing unit, wherein the printing ink is arranged in a container having an outlet for the printing ink, wherein the container containing the printing ink is arranged, or at least is arrangeable, on the printing unit in or on a holder, said holder having a first heating device, wherein a first elongated hollow body made of a flexible or inflexible material is arranged on the container, wherein said first elongated hollow body is connected to the outlet of the container, wherein a second elongated hollow body made of a flexible or inflexible material is provided, wherein the second elongated hollow body is arranged on the holder, wherein the second elongated hollow body has a second heating device, characterized in that the container containing the printing ink is formed as a exchangeable container and is arranged to be exchangeable without tools on the printing unit in or on the holder, wherein said first elongated hollow body is arranged, or at least arrangeable, in the interior of the second elongated hollow body when the container is arranged in or on the holder, wherein said first elongated hollow body is arranged, or at least arrangeable, coaxially inside of the second elongated hollow body.
Vacuum cleaner, in particular a floor-type vacuum cleaner, comprising a multipart housing, first housing parts (3, 4) defining a dust-collecting chamber which can be closed by a lid-like upper part which is pivotally mounted on the housing, and the pivotable mounting taking place by means of at least one curved attachment arranged on the upper part and at least one curved guide part arranged on another housing part, characterised in that the curved attachment comprises a first and a second curved part (15, 16), the first curved part being integrally formed on the upper part and the second curved part being connected to the first curved part as a separately manufactured part.
A hybrid fuel cell system comprising: a fuel supply system including a fuel source, a reforming subsystem and a depressurization system (204, 304), the fuel source in fluid communication with the reforming subsystem, the reforming subsystem reforming the fuel from the fuel source to generate hydrogen enriched gases, the reforming subsystem in fluid communication with the depressurization system, and the depressurization system reduces a pressure of the hydrogen enriched gases; and a fuel cell stack in communication with the depressurization system to receive the hydrogen enriched gases at the reduced pressure. a fuel supply system including a fuel source, a reforming subsystem and a depressurization system (204, 304), the fuel source in fluid communication with the reforming subsystem, the reforming subsystem reforming the fuel from the fuel source to generate hydrogen enriched gases, the reforming subsystem in fluid communication with the depressurization system, and the depressurization system reduces a pressure of the hydrogen enriched gases; and a fuel cell stack in communication with the depressurization system to receive the hydrogen enriched gases at the reduced pressure.
A drone comprising: a body; a platform disposed at a center of the body; at least four deployment devices disposed radially on an outer side of the platform, each deployment device including a fixed support extending outwards radially from an outer surface of the platform by a predetermined length, a rotating support coupled to an outer free end of the fixed support, and a hinge device provided to support the rotating support to be rotatably coupled to the outer free end of the fixed support; at least four propellers, each propeller fixed radially at an outer end of a respective rotating support; and a landing structure integrally coupled to a lower portion of the body, wherein the drone is operable to fly both in a folded mode in which the rotating supports and hence propellers are folded inwards radially from an outline of the platform by operation of the hinge devices, and in a deployed mode in which the propellers are unfolded, and wherein the propellers are configured such that a deployment angle can be differently adjusted for each propeller such that, in response to a failure occurring in a portion of the propellers, a virtual propeller can be formed using a resultant force of normally-operating neighboring propellers (120, 130) that are radially adjacent to the portion of the propellers experiencing the failure, where the virtual propeller is in balance with a corresponding propeller on an opposite side of the drone, thereby to maintain a balanced flight posture. a body; a platform disposed at a center of the body; at least four deployment devices disposed radially on an outer side of the platform, each deployment device including a fixed support extending outwards radially from an outer surface of the platform by a predetermined length, a rotating support coupled to an outer free end of the fixed support, and a hinge device provided to support the rotating support to be rotatably coupled to the outer free end of the fixed support; at least four propellers, each propeller fixed radially at an outer end of a respective rotating support; and a landing structure integrally coupled to a lower portion of the body, wherein the drone is operable to fly both in a folded mode in which the rotating supports and hence propellers are folded inwards radially from an outline of the platform by operation of the hinge devices, and in a deployed mode in which the propellers are unfolded, and wherein the propellers are configured such that a deployment angle can be differently adjusted for each propeller such that, in response to a failure occurring in a portion of the propellers, a virtual propeller can be formed using a resultant force of normally-operating neighboring propellers (120, 130) that are radially adjacent to the portion of the propellers experiencing the failure, where the virtual propeller is in balance with a corresponding propeller on an opposite side of the drone, thereby to maintain a balanced flight posture.
A method of counting a number of puffs in an aerosol generating device, the method comprising: obtaining a first start time (s_t1) which is a time when a pressure measured by a sensor included in the aerosol generating device decreases below a first reference pressure value (pr_th1), wherein the first reference pressure value (pr_th1) is a value smaller than a pressure value (pr_s) which is measured by the sensor at an arbitrary time, after the power of the aerosol generating device is turned on and before a puff occurs; obtaining a first end time (e_t1) which is a time when the pressure measured by the sensor reaches the first reference pressure value (pr_th1) after the first start time (s_tl); determining whether a first period, which is a period between the first end time (e_t1) and the first start time (s_tl), is longer than or equal to a first reference period (pe_th1); and increasing the number of puffs by one based on the first period being longer than or equal to the first reference period (pe_th1). obtaining a first start time (s_t1) which is a time when a pressure measured by a sensor included in the aerosol generating device decreases below a first reference pressure value (pr_th1), wherein the first reference pressure value (pr_th1) is a value smaller than a pressure value (pr_s) which is measured by the sensor at an arbitrary time, after the power of the aerosol generating device is turned on and before a puff occurs; obtaining a first end time (e_t1) which is a time when the pressure measured by the sensor reaches the first reference pressure value (pr_th1) after the first start time (s_tl); determining whether a first period, which is a period between the first end time (e_t1) and the first start time (s_tl), is longer than or equal to a first reference period (pe_th1); and increasing the number of puffs by one based on the first period being longer than or equal to the first reference period (pe_th1).
A method for characterizing a human subject as having an increased risk for developing age-related macular degeneration, said method comprising: detecting in a sample obtained from said subject the presence of at least one A allele of the rs9621532 single nucleotide polymorphism; wherein the presence of at least one A allele of the rs9621532 single nucleotide polymorphism is indicative of an increased risk for developing AMD.
A skin test device for allergy testing comprising: a grip portion for holding the skin test device; at least one leg extending from the grip portion, the leg being oriented to interact with a well containing a test solution; wherein the leg has a test head, the test head being configured to be dipped into the well, the test head having a plurality of elongated spikes (202;302;402;502) each having a sharp end (204;304;404) configured to receive the test solution from the well and to be removed from the well, and to puncture skin for delivering the test solution, the test head having at least one touch activator (208;308;408;508) wherein the touch activator is longer than the elongated spikes and does not move relative to the elongated spikes, such that during use, the touch activator comes into contact with the skin prior to the elongated spikes, causing the touch activator to activate nerve tissue that suppresses pain, resulting in a reduction of pain during testing; the skin test device characterized in that the elongated spikes surround the touch activator. a grip portion for holding the skin test device;
A plug-in vehicle security system comprising: a relay module configured for plug-in installation into a vehicle, said relay module comprising a relay switch operable to an open-state and a closed-state, and a wireless receiver coupled to the relay switch in a manner effective to influence operation of the relay switch based on reception of an authorization signal; a telematics device configured for plug-in installation into a vehicle, said telematics device comprising a wireless transmitter configured to transmit the authorization signal in response to a network signal, said telematics device further comprising a network transceiver configured to receive the network signal from a communication network, and a processor configured to determine if current through the relay switch is greater than a current threshold, wherein current greater than the current threshold is indicative of an attempt to start an engine of the vehicle. a relay module configured for plug-in installation into a vehicle, said relay module comprising a relay switch operable to an open-state and a closed-state, and a wireless receiver coupled to the relay switch in a manner effective to influence operation of the relay switch based on reception of an authorization signal; a telematics device configured for plug-in installation into a vehicle, said telematics device comprising a wireless transmitter configured to transmit the authorization signal in response to a network signal, said telematics device further comprising a network transceiver configured to receive the network signal from a communication network, and a processor configured to determine if current through the relay switch is greater than a current threshold, wherein current greater than the current threshold is indicative of an attempt to start an engine of the vehicle.
A computer-implemented method (100; 400) for accounting for temporal dispersion in low-order finite difference seismic wave propagation, characterised by comprising: a. transforming (10; 40) a seismic dataset from time domain to frequency domain to obtain a frequency-domain seismic dataset; b. applying (12; 42) a frequency-domain time varying filter F ( ω,T) to the frequency-domain seismic dataset to obtain a filtered frequency-domain seismic dataset; and c. transforming (14; 44) the filtered frequency-domain seismic dataset from the frequency domain to the time domain to obtain a time-domain filtered seismic dataset, wherein: the seismic dataset is a synthetic dataset which contains temporal dispersion caused by said low-order finite difference seismic wave propagation and the filter is defined based on F ω T = exp − iωT 1 − ω Δ t 2 − 2 cos ω Δ t where Δt is the finite-difference time step, ω is the radial frequency and T represents the travel time computed by finite difference modeling, and the temporal dispersion is reduced in the time-domain filtered seismic dataset by the filtering; or the seismic dataset is a recorded seismic dataset which does not contain temporal dispersion caused by said low-order finite difference seismic wave propagation and the filter is defined based on F ω T = exp iωT 1 − ω Δ t 2 − 2 cos ω Δ t where Δt is the finite-difference time step, ω is the radial frequency and T represents the travel time computed by finite difference modeling, and the temporal dispersion is introduced by the filtering into the time-domain filtered seismic dataset. a. transforming (10; 40) a seismic dataset from time domain to frequency domain to obtain a frequency-domain seismic dataset; b. applying (12; 42) a frequency-domain time varying filter F ( ω,T) to the frequency-domain seismic dataset to obtain a filtered frequency-domain seismic dataset; and c. transforming (14; 44) the filtered frequency-domain seismic dataset from the frequency domain to the time domain to obtain a time-domain filtered seismic dataset, the seismic dataset is a synthetic dataset which contains temporal dispersion caused by said low-order finite difference seismic wave propagation and the filter is defined based on F ω T = exp − iωT 1 − ω Δ t 2 − 2 cos ω Δ t where Δt is the finite-difference time step, ω is the radial frequency and T represents the travel time computed by finite difference modeling, and the temporal dispersion is reduced in the time-domain filtered seismic dataset by the filtering; or the seismic dataset is a recorded seismic dataset which does not contain temporal dispersion caused by said low-order finite difference seismic wave propagation and the filter is defined based on F ω T = exp iωT 1 − ω Δ t 2 − 2 cos ω Δ t where Δt is the finite-difference time step, ω is the radial frequency and T represents the travel time computed by finite difference modeling, and the temporal dispersion is introduced by the filtering into the time-domain filtered seismic dataset.
A mobile home robot, comprising: a storage configured to store in-home map data; a communication interface comprising communication interface circuitry; a camera; a user interface; and a processor configured to: generate location information of each of a plurality of Internet of Things, IoT, devices based on device information of the plurality of IoT devices installed in the home and an image captured through the camera while the mobile home robot moves around in the home; map the generated location information with the map data; characterized in that the processor is configured to, in response to a user command for controlling one IoT device from among the plurality of IoT devices being received through the user interface, identify location information of the one IoT device based on the map data with which the location information is mapped, generate a control command corresponding to the user command based on a position of a user inputting the user command and the location information of the one IoT device, and transmit the generated control command to the one IoT device through the communication interface. a storage configured to store in-home map data; a communication interface comprising communication interface circuitry; a camera; a user interface; and a processor configured to: generate location information of each of a plurality of Internet of Things, IoT, devices based on device information of the plurality of IoT devices installed in the home and an image captured through the camera while the mobile home robot moves around in the home; map the generated location information with the map data; characterized in that the processor is configured to, in response to a user command for controlling one IoT device from among the plurality of IoT devices being received through the user interface, identify location information of the one IoT device based on the map data with which the location information is mapped, generate a control command corresponding to the user command based on a position of a user inputting the user command and the location information of the one IoT device, and transmit the generated control command to the one IoT device through the communication interface. generate location information of each of a plurality of Internet of Things, IoT, devices based on device information of the plurality of IoT devices installed in the home and an image captured through the camera while the mobile home robot moves around in the home; map the generated location information with the map data; characterized in that the processor is configured to, in response to a user command for controlling one IoT device from among the plurality of IoT devices being received through the user interface, identify location information of the one IoT device based on the map data with which the location information is mapped, generate a control command corresponding to the user command based on a position of a user inputting the user command and the location information of the one IoT device, and transmit the generated control command to the one IoT device through the communication interface.
A fluid cooling device as a structural unit with a drive motor which drives a rotatable fan impeller, and with a storage tank with a filling opening as well as a fill-level indicator, from which at least one fluid can be conveyed into a hydraulic working circuit, wherein in the hydraulic working circuit the fluid is heated and cooled via a heat exchanger of the fluid cooling device, preferably can be returned again to the storage tank, characterised in that the structural unit is made as a turning assembly, in which the filling opening for fluid and the fill-level indicator are arranged on the storage tank such that the indicator can be used or read in a first, vertical installation direction (X, Y) of the structural unit and in a second installation direction (Y, X) of the structural unit which is provided at a right angle to the first installation direction (X, Y), and that the filling opening and the fill-level indicator are arranged in a corner region of the storage tank.