mhurhangee/ep-ind-claims huggingface dataset:
An instrument assembly for treating heart valve malfunction by securing a chord to a valve leaflet under sufficient tension to restrict prolapsing of the valve leaflet, said instrument assembly comprising; a securing assembly comprising a securing member (22 or 68) and structured to dispose the securing member (22 or 68) in interconnecting relation between a proximal portion of the chord and the valve leaflet, said securing assembly including a head portion and a base relatively disposable between open and closed positions and structured to retain said securing member (22 or 68) in an operative position, a capturing area disposed between said head portion and said base, at least when said head portion and said base are in said open position, said capturing area dimensioned to receive and removably retain the valve leaflet therein in a connecting orientation to said securing member (22 or 68), a positioning member movable with said head portion between said open and closed positions to dispose said head portion and said base into said closed position to penetrate and pass said securing member (22 or 68) through the valve leaflet into said interconnecting relation between the chord and the valve leaflet; the instrument assembly being characterized in that it further comprises a severing member connected to and movable with said positioning member, said severing member disposable in severing relation to a proximal portion of the chord concurrent to disposition of said head portion into said closed position.
A machine for deburring workpieces, particularly sheet metal components, by means of brushes and/or grinding including at least one endless rotating drive belt, a plurality of brush holders fastened to the drive belt, brush supports, which are releasably fastened to the brush holders and carry a grinding element, characterised in that the brush holders are rigidly connected to the drive belt and include an insertion lugs, the brush supports are slidable in a positively locking manner on to the insertion lugs of the brush holders and automatically lock to the brush holders when they reach their end position.
A method for operating a screen printing unit (19; 23) in a printing press comprising a screen cylinder (18; 22), which carries a screen printing form (31; 32), in which a squeegee can be engaged from the inside against the screen printing form (31; 32) and disengaged therefrom, and which screen cylinder can be thrown onto an impression cylinder such that a print position (06; 07) is formed and can be thrown off of said impression cylinder such that a gap is formed, wherein - in a first phase, the screen cylinder (18; 22) is thrown off of the impression cylinder while the squeegee is in a disengaged position, characterized in that - in a second phase, multiple printing substrate sheets are conveyed through the print position (06; 07) while the squeegee remains in a disengaged position and the screen cylinder (18; 22) is at least temporarily thrown on for each substrate sheet, - and finally, in a third phase, for subsequent printing substrate sheets an operation is carried out in which the squeegee is in an engaged position, perpetually or cyclically at least once for each printing substrate sheet. - in a first phase, the screen cylinder (18; 22) is thrown off of the impression cylinder while the squeegee is in a disengaged position, characterized in that - in a second phase, multiple printing substrate sheets are conveyed through the print position (06; 07) while the squeegee remains in a disengaged position and the screen cylinder (18; 22) is at least temporarily thrown on for each substrate sheet, - and finally, in a third phase, for subsequent printing substrate sheets an operation is carried out in which the squeegee is in an engaged position, perpetually or cyclically at least once for each printing substrate sheet.
A cloud based processing system configured to: receive location information and health status information of a plurality of beacon devices, wherein the location information indicates real-time locations of the plurality of beacon devices, and the health status information indicates real-time conditions of the plurality of beacon devices, the health status information including an event associated with at least one of the real-time conditions occurring at the respective beacon device, wherein the event comprises operation error information including one of: an unforced reboot event, a system error event, a forced reboot event, a wi-fi reconnect event and a heartbeat event, and wherein transmission of the health status information is in response to occurrence of the condition at the respective device; track movements of at least some of the plurality of beacon devices based on the location information; and characterized in that the system is configured to compare details of the event to a prescribed bound, and, if the event is outside the prescribed bound, trigger a response to the event, wherein the response comprises outputting an update or other message to repair, replace, and/or adjust the device. receive location information and health status information of a plurality of beacon devices, wherein the location information indicates real-time locations of the plurality of beacon devices, and the health status information indicates real-time conditions of the plurality of beacon devices, the health status information including an event associated with at least one of the real-time conditions occurring at the respective beacon device, wherein the event comprises operation error information including one of: an unforced reboot event, a system error event, a forced reboot event, a wi-fi reconnect event and a heartbeat event, and wherein transmission of the health status information is in response to occurrence of the condition at the respective device; track movements of at least some of the plurality of beacon devices based on the location information; and characterized in that the system is configured to compare details of the event to a prescribed bound, and, if the event is outside the prescribed bound, trigger a response to the event, wherein the response comprises outputting an update or other message to repair, replace, and/or adjust the device.
Electrically conductive polymeric fabric (1, 10, 20) comprising an electrically conductive elastomer ply made of a polymer material and at least one electrically conductive filler, wherein at least one metallic electrical conduit is electrically connected to the elastomer ply via at least one mediator layer, characterized in that the mediator layer contains at least one matrix polymer and per 100 parts by weight of the matrix polymer a) 1 to 30 parts by weight of conductivity carbon black and b) 0.1 to 15 parts by weight of carbon nanotubes. a) 1 to 30 parts by weight of conductivity carbon black and b) 0.1 to 15 parts by weight of carbon nanotubes.
A pneumatic tire having a pair of spaced apart bead components, a connecting carcass between the bead components, a pair of sidewalls overlying the carcass, and a rubber chafer adjacent to each of the sidewalls and positioned around at least a portion of each of the bead components and intended for contacting a rigid rim of a wheel, wherein the chafers comprise 100 parts by weight of elastomer, 20 to 60 phr of a first carbon black having an Iodine absorption value in a range of from 10 to 50 as measured by ASTM D1510 and 20 to 60 phr of a second carbon black having an Iodine absorption value in a range of from 100 to 300 g/kg as measured by ASTM D1510; and wherein the sidewalls comprise 100 phr of the same elastomer used in the chafers, 20 to 60 phr of the same first carbon black used in the chafers, and 10 to 20 phr of the same second carbon black used in the chafers; wherein the weight ratio of the second carbon black in the chafers to the second carbon black in the sidewalls is greater than 1.
A method for MIMO decoding, based on a channel estimated value between a plurality of transmitting antennas and a plurality of receiving antennas, a received signal received by the plurality of receiving antennas, the method comprising: in a process of obtaining a unitary matrix Q and a triangular matrix R through QR decomposition of a channel estimated value matrix H, creating the triangular matrix R such that a sum of scalars of non-diagonal elements of the triangular matrix R is the minimum; and estimating a signal transmitted from the plurality of transmitting antennas through the use of the created triangular matrix R, the unitary matrix Q, and the received signal received by the plurality of receiving antennas. in a process of obtaining a unitary matrix Q and a triangular matrix R through QR decomposition of a channel estimated value matrix H, creating the triangular matrix R such that a sum of scalars of non-diagonal elements of the triangular matrix R is the minimum; and estimating a signal transmitted from the plurality of transmitting antennas through the use of the created triangular matrix R, the unitary matrix Q, and the received signal received by the plurality of receiving antennas.
A power tool system comprising: a first power tool (10A1) having a first power tool rated voltage and a first battery pack interface; a second power tool (10A2, 10A3) having a second power tool rated voltage that is higher than the first power tool rated voltage and a second battery pack interface; a first battery pack (20A1) having a rated voltage that corresponds to the first power tool rated voltage only, the first battery pack (20A1) having an interface that is coupleable to the first battery pack interface and not coupleable to the second battery pack interface; and a second battery pack (20A4) having a power tool interface that is coupleable to both the first battery pack interface and the second battery pack interface, wherein the second battery pack (20A4) comprises a plurality of sets of battery cells, characterized in that, when the power tool interface is coupled to the first battery pack interface, the sets of battery cells are connected to one another in parallel and the second battery pack (20A4) is configured to operate at a first battery pack rated voltage that corresponds to the first power tool rated voltage and at a high capacity, and when the power tool interface is coupled to the second battery pack interface, the sets of battery cells are connected to one another in series and the second battery pack (20A4) is configured to operate at a second battery pack rated voltage that corresponds to the second power tool rated voltage and at a lower capacity. a first power tool (10A1) having a first power tool rated voltage and a first battery pack interface; a second power tool (10A2, 10A3) having a second power tool rated voltage that is higher than the first power tool rated voltage and a second battery pack interface; a first battery pack (20A1) having a rated voltage that corresponds to the first power tool rated voltage only, the first battery pack (20A1) having an interface that is coupleable to the first battery pack interface and not coupleable to the second battery pack interface; and a second battery pack (20A4) having a power tool interface that is coupleable to both the first battery pack interface and the second battery pack interface, wherein the second battery pack (20A4) comprises a plurality of sets of battery cells, characterized in that, when the power tool interface is coupled to the first battery pack interface, the sets of battery cells are connected to one another in parallel and the second battery pack (20A4) is configured to operate at a first battery pack rated voltage that corresponds to the first power tool rated voltage and at a high capacity, and when the power tool interface is coupled to the second battery pack interface, the sets of battery cells are connected to one another in series and the second battery pack (20A4) is configured to operate at a second battery pack rated voltage that corresponds to the second power tool rated voltage and at a lower capacity.
A centrifugal force pendulum device having at least one flange element which can be rotated about an axis of rotation, which is arranged on the drive side and on which pendulum masses are arranged as centrifugal weights in an articulated manner so as to be displaceable, wherein the pendulum masses on the at least one flange element are distributed over the circumference thereof and are mounted on the at least one flange element by means of pendulum bearings, wherein the pendulum masses can oscillate relative to the at least one flange element in the centrifugal force field of the flange element about a zero position with a predetermined oscillation angle (α) by means of the pendulum bearings which are formed from roller elements rolling on guideways of the at least one flange element and the pendulum masses, and are suspended in a partially rotatable manner during a pendulum movement about the centre of gravity thereof and wherein the pendulum and rotational movement of the pendulum masses is predefined by the design of the guideways and the coupling element, characterised in that the pendulum masses are coupled to one another by means of a coupling element, wherein the coupling element acts on the respective pendulum mass at an isoradial point, which remains at the same radial height during a pendulum and rotational movement of the pendulum masses, wherein the respective distances between the isoradial points of the respective pendulum masses also remain constant relative to one another.
A dual-head contrast media injector system configure to perform injection of medical fluid according to a stored injector protocol, said system being configured to: identify a selected injection protocol; determine injection parameters for fluid flows defined by the injection protocol; set injecting parameters for a preliminary injection based on the determined injection parameters; automatically perform a preliminary test injection comprising an injection of contrast media, wherein said preliminary injection is a programmatically controlled injection that is functionally and operationally separated from, including separately enabled from, said selected injection protocol; and characterised by the system being configured to compute a scan delay from a reconstruction time of a scanner being used and an observed time delay between the beginning of said preliminary injection and detection by the scanner of the injected contrast media from said preliminary injection reaching an area of interest in a patient, wherein said scan delay is computed by said injection system by subtracting the reconstruction time from the observed time delay, and wherein said scan delay is the delay from the time said selected injection protocol is initiated until an x-ray or magnetic scan of the patient should begin. identify a selected injection protocol; determine injection parameters for fluid flows defined by the injection protocol; set injecting parameters for a preliminary injection based on the determined injection parameters; automatically perform a preliminary test injection comprising an injection of contrast media, wherein said preliminary injection is a programmatically controlled injection that is functionally and operationally separated from, including separately enabled from, said selected injection protocol; and characterised by the system being configured to compute a scan delay from a reconstruction time of a scanner being used and an observed time delay between the beginning of said preliminary injection and detection by the scanner of the injected contrast media from said preliminary injection reaching an area of interest in a patient, wherein said scan delay is computed by said injection system by subtracting the reconstruction time from the observed time delay, and wherein said scan delay is the delay from the time said selected injection protocol is initiated until an x-ray or magnetic scan of the patient should begin.
Method for manufacturing a connection device for clamping to a stripped end length of electrical cable, comprising the step of supplying a conductor element made of one piece and having a tubular portion extending in a generally longitudinal direction, an insertion opening via which said stripped end length may be introduced into said tubular portion, and a flat portion configured to cooperate with a predetermined electrical terminal, wherein said tubular portion, at an end opposite said insertion opening, is connected via a transition portion to said flat portion; said method comprising a step of deforming said transition portion until said transition portion forms a substantially straight base wall of said tubular portion, wherein said base wall extends substantially perpendicularly to said generally longitudinal direction of said tubular portion; and wherein the straight form of the base wall ensures that the stripped end length of the cable is positioned at a stop against said base wall; said method also comprising the following step: - supply of a cylindrical conductor tube having a first predetermined inner diameter and comprising said insertion opening; said method being characterised in that it also comprises the following step: - at least partially expanding said cylindrical conductor tube to form said tubular portion which is provided with at least a first tubular section having a second inner diameter larger than said first predetermined inner diameter, and a length equal to or greater than said second inner diameter. - supply of a cylindrical conductor tube having a first predetermined inner diameter and comprising said insertion opening; - at least partially expanding said cylindrical conductor tube to form said tubular portion which is provided with at least a first tubular section having a second inner diameter larger than said first predetermined inner diameter, and a length equal to or greater than said second inner diameter.
A method of scanning with a laser system, the method comprising: generating femtosecond seed pulses by an oscillator (100, 100'); stretching a duration of the seed pulses by a stretcher (200, 200'); amplifying stretched seed pulses by an amplifier (300, 300') into laser pulses with a regenerative amplifier comprising end mirrors (321, 322, 323, 324); compensating a group delay dispersion of the laser pulses in the range of 5,000 - 20,000 fs 2 with a dispersion compensator between said end-mirrors of the amplifier; outputting the laser pulses from the amplifier by an electro-optical modulator at a first repetition rate; compressing a duration of the laser pulses to the range of 1-1,000 fs by a compressor (200, 400); focusing the laser pulses to a focus spot in a first target region with a scanning laser delivery system; scanning the focus spot with the first repetition rate in the first target region with the scanning laser delivery system; changing the first repetition rate to a second repetition rate with a repetition-rate controller; and scanning the focus spot with the second repetition rate in a second target region with the scanning laser delivery system; wherein the laser system is configured to output a laser beam with a repetition rate with a range of 10kHz to 20 MHz, and, to output the laser beam with an output power greater than 0.1W. generating femtosecond seed pulses by an oscillator (100, 100'); stretching a duration of the seed pulses by a stretcher (200, 200'); amplifying stretched seed pulses by an amplifier (300, 300') into laser pulses with a regenerative amplifier comprising end mirrors (321, 322, 323, 324); compensating a group delay dispersion of the laser pulses in the range of 5,000 - 20,000 fs 2 with a dispersion compensator between said end-mirrors of the amplifier; outputting the laser pulses from the amplifier by an electro-optical modulator at a first repetition rate; compressing a duration of the laser pulses to the range of 1-1,000 fs by a compressor (200, 400); focusing the laser pulses to a focus spot in a first target region with a scanning laser delivery system; scanning the focus spot with the first repetition rate in the first target region with the scanning laser delivery system; changing the first repetition rate to a second repetition rate with a repetition-rate controller; and
Hatch cover for a loft ladder device that is pivotably displaceable on a hatch box of the loft ladder device, having hardware which has a hardware gear as well as a number of connecting rods (17, 18, 19), which are displaceable by means of the hardware gear and are arranged on different sides of the hatch cover, wherein at least two of the connecting rods (17, 18, 19) are operatively connected to one another via a corner linkage gear (21, 22), and wherein a locking pin (23, 24, 25, 26) is attached to at least one of the connecting rods (17, 18, 19), which pin interacts in at least one position with a locking part arranged on the hatch box to fix the hatch cover relative to the hatch box.
A post-treatment system, comprising: a temperature sensor, a three-way valve, a supercharger, a diesel oxide catalyst, and a first selectively catalytic reduction, which are arranged in a main exhaust pipeline in a listed sequence; a bypass pipeline arranged in parallel with the supercharger, wherein an input port of the bypass pipeline is connected to an outlet of the three-way valve, and an output port of the bypass pipeline is connected to a pipeline between the supercharger and the diesel oxide catalyst; a second selectively catalytic reduction arranged in the bypass pipeline; a first spray system for spraying a reductant into a pipeline between the first selectively catalytic reduction and the diesel oxide catalyst; a second spray system for spraying a reductant into a pipeline between the second selectively catalytic reduction and the three-way valve; and a controller connected to the temperature sensor, the three-way valve the first spray system and the second spray system. a temperature sensor, a three-way valve, a supercharger, a diesel oxide catalyst, and a first selectively catalytic reduction, which are arranged in a main exhaust pipeline in a listed sequence; a bypass pipeline arranged in parallel with the supercharger, wherein an input port of the bypass pipeline is connected to an outlet of the three-way valve, and an output port of the bypass pipeline is connected to a pipeline between the supercharger and the diesel oxide catalyst; a second selectively catalytic reduction arranged in the bypass pipeline; a first spray system for spraying a reductant into a pipeline between the first selectively catalytic reduction and the diesel oxide catalyst; a second spray system for spraying a reductant into a pipeline between the second selectively catalytic reduction and the three-way valve; and a controller connected to the temperature sensor, the three-way valve the first spray system and the second spray system.