mhurhangee/ep-ind-claims huggingface dataset:
A medical device system for delivery of left ventricular pacing, comprising: a subcutaneous sensing device comprising a subcutaneous electrode (16, 18) configured to sense a subcutaneous cardiac signal and an emitting device configured to emit a trigger signal in response to the sensed cardiac signal; an intracardiac therapy delivery device configured to deliver the left ventricular pacing in response to the emitted trigger signal; and a processor configured to determine whether the medical device system is in one of a WD pacing mode and a VVI pacing mode, determine whether the delivered left ventricular pacing captures the left ventricle, determine whether to adjust a pacing parameter in response to the determination of whether the device system is in one of a VVD pacing mode and a VVI pacing mode and the determination of whether the delivered left ventricular pacing captures the left ventricle, and to control the intracardiac therapy delivery device to deliver the left ventricular pacing in response to determining whether to adjust the pacing parameter. a subcutaneous sensing device comprising a subcutaneous electrode (16, 18) configured to sense a subcutaneous cardiac signal and an emitting device configured to emit a trigger signal in response to the sensed cardiac signal; an intracardiac therapy delivery device configured to deliver the left ventricular pacing in response to the emitted trigger signal; and a processor configured to determine whether the medical device system is in one of a WD pacing mode and a VVI pacing mode, determine whether the delivered left ventricular pacing captures the left ventricle, determine whether to adjust a pacing parameter in response to the determination of whether the device system is in one of a VVD pacing mode and a VVI pacing mode and the determination of whether the delivered left ventricular pacing captures the left ventricle, and to control the intracardiac therapy delivery device to deliver the left ventricular pacing in response to determining whether to adjust the pacing parameter.
A kit for isothermally amplifying a double-stranded nucleic acid target molecule comprising: (a) an upstream primer and a downstream primer, each comprising a single-stranded DNA molecule of less than 30 nucleotides, at least a portion of which is complementary to a sequence of the target molecule; (b) an oligonucleotide comprising a single-stranded DNA molecule of at least 30 nucleotides, wherein at least a portion of the oligonucleotide is complementary to a portion of the target sequence intervening the upstream and downstream primers and wherein the oligonucleotide has a non-extendable 3' terminus; (c) a recombinase; wherein the upstream and downstream primers do not amplify the target molecule independently of the oligonucleotide, when the oligonucleotide is contacted with the recombinase, it invades the double-stranded nucleic acid target molecule, thereby rendering the complementary region of the target molecule and adjacent regions single-stranded thereby allowing the primers access to bind to complementary single stranded DNA on the target molecule. (a) an upstream primer and a downstream primer, each comprising a single-stranded DNA molecule of less than 30 nucleotides, at least a portion of which is complementary to a sequence of the target molecule; (b) an oligonucleotide comprising a single-stranded DNA molecule of at least 30 nucleotides, wherein at least a portion of the oligonucleotide is complementary to a portion of the target sequence intervening the upstream and downstream primers and wherein the oligonucleotide has a non-extendable 3' terminus; (c) a recombinase;
A measurement arrangement for measuring an electromagnetic field, the measurement arrangement comprising: 1.1 a measurement probe adapted to measure an electromagnetic signal and provide a measurement signal corresponding to the measured electromagnetic signal; 1.21 a mechanical probe positioning structure adapted to carry the measurement probe and to controllably move the measurement probe, wherein the mechanical probe positioning structure is adapted to perform a rotational movement of the measurement probe around a predetermined axis; and 1.22 wherein the mechanical probe positioning structure comprises a moving device for moving the measurement probe in a direction perpendicular to the predetermined axis and the measurement probe is adapted to measure at least two different polarizations of the electromagnetic signal; and 1.3 an analyzing device adapted to determine a rotational angle (a) of the mechanical probe positioning structure with respect to a predetermined reference position, 1.4 and to compute an electromagnetic field based on measurement signals measured by the measurement probe at a number of at least two different rotational angles (a). 1.1 a measurement probe adapted to measure an electromagnetic signal and provide a measurement signal corresponding to the measured electromagnetic signal; 1.21 a mechanical probe positioning structure adapted to carry the measurement probe and to controllably move the measurement probe, wherein the mechanical probe positioning structure is adapted to perform a rotational movement of the measurement probe around a predetermined axis; and 1.22 wherein the mechanical probe positioning structure comprises a moving device for moving the measurement probe in a direction perpendicular to the predetermined axis and the measurement probe is adapted to measure at least two different polarizations of the electromagnetic signal; and 1.3 an analyzing device adapted to determine a rotational angle (a) of the mechanical probe positioning structure with respect to a predetermined reference position, 1.4 and to compute an electromagnetic field based on measurement signals measured by the measurement probe at a number of at least two different rotational angles (a).
A dismountable table comprising a tabletop fastened by fasteners on a structure forming a frame, the structure including a flange coming flat under the tabletop, each fastener comprising a latch, rotatable along an axis of rotation which is vertical, having at least one boss projecting laterally, and comprising a recess, formed across the thickness of the tabletop and emerging in the lower face of the tabletop, having at least one protrusion formed across the thickness of the tabletop and oriented towards the axis of rotation, in a mounting position the at least one boss of each latch fitting into the respective recess next to the respective at least one protrusion, and in a blocking position after rotation the at least one boss of each latch fitting above the respective at least one protrusion, a lower bearing plane of each latch coming under the flange of the structure.
An electricity storage device characterized by comprising: a plurality of batteries juxtaposed in a first direction, each battery having a gas discharge valve on a first side, the gas discharge valve being configured to discharge a gas produced inside the battery, the first side being an one side of a second direction, and the second direction being orthogonal to thefirst direction; and a cooling path placed between the plurality of batteries that face each other in the first direction, a coolant that cools the batteries flowing through the cooling path, and the cooling path having: an intake opening configured to take in the coolant to the cooling path, the intake opening being provided on a second side that is an opposite side to the first side; and a discharge opening configured to discharge the coolant the discharge opening being provided on at least one of a third side or afourth side, the third side and the fourth side being both sides of a third direction, the third direction being orthogonal to the second direction and to the first direction. a plurality of batteries juxtaposed in a first direction, each battery having a gas discharge valve on a first side, the gas discharge valve being configured to discharge a gas produced inside the battery, the first side being an one side of a second direction, and the second direction being orthogonal to thefirst direction; and a cooling path placed between the plurality of batteries that face each other in the first direction, a coolant that cools the batteries flowing through the cooling path, and the cooling path having: an intake opening configured to take in the coolant to the cooling path, the intake opening being provided on a second side that is an opposite side to the first side; and a discharge opening configured to discharge the coolant the discharge opening being provided on at least one of a third side or afourth side, the third side and the fourth side being both sides of a third direction, the third direction being orthogonal to the second direction and to the first direction. an intake opening configured to take in the coolant to the cooling path, the intake opening being provided on a second side that is an opposite side to the first side; and a discharge opening configured to discharge the coolant the discharge opening being provided on at least one of a third side or afourth side, the third side and the fourth side being both sides of a third direction, the third direction being orthogonal to the second direction and to the first direction.
A mincing drum for a cutting and separating device, at the first end section of which there is an inlet opening and at the second end section of which there is an outlet opening, a plurality of cutting openings being arranged in a pressure housing section of the mincing drum and passing continuously through the pressure housing section from an inner wall to an outer wall, each cutting opening having, on the inner wall, a cutting opening edge facing the outlet opening and a drawing-in opening edge facing the inlet opening, characterized in that, a feed channel which is recessed relative to the inner wall is situated between the cutting opening edge and the drawing-in opening edge.
Product comprising a substrate and a multilayer coating for the thermal control of a surface of said substrate comprising a first inner layer intended to be deposited on said surface, a second intermediate layer applied on said first inner layer and a third outer layer applied on said second intermediate layer in which: - said first inner layer comprises a co-dispersion of conductive nanoparticles and dielectric nanoparticles, wherein the volume fraction of conductive nanoparticles increases along the thickness of said first inner layer moving away from said second intermediate layer and wherein said first inner layer has a hemispheric emissivity between 0.5 and 0.8; - said second intermediate layer comprises a plurality of layers wherein at least one layer of a dielectric material transparent in the visible with a high refractive index in the visible is alternated with at least one layer of a dielectric material transparent in the visible with a low refractive index in the visible (3") and wherein the refractive index of each layer of dielectric material transparent in the visible with high refractive index in the visible is higher than the refractive index of each adjacent layer of dielectric material transparent in the visible with low refractive index in the visible (3"); and - said third outer layer is made of a conductive oxide transparent in the visible having a resistivity of less than 1×10 -3 ohm × cm. - said first inner layer comprises a co-dispersion of conductive nanoparticles and dielectric nanoparticles, wherein the volume fraction of conductive nanoparticles increases along the thickness of said first inner layer moving away from said second intermediate layer and wherein said first inner layer has a hemispheric emissivity between 0.5 and 0.8; - said second intermediate layer comprises a plurality of layers wherein at least one layer of a dielectric material transparent in the visible with a high refractive index in the visible is alternated with at least one layer of a dielectric material transparent in the visible with a low refractive index in the visible (3") and wherein the refractive index of each layer of dielectric material transparent in the visible with high refractive index in the visible is higher than the refractive index of each adjacent layer of dielectric material transparent in the visible with low refractive index in the visible (3"); and - said third outer layer is made of a conductive oxide transparent in the visible having a resistivity of less than 1×10 -3 ohm × cm.
A substrate separating method comprising: holding, in a predetermined position, a substrate sandwiched between a first holder (301, 701) and a second holder (303, 701) opposed to each other; and relatively moving the first holder (301, 701) and the second holder (303, 701) while the substrate is held in the predetermined position, further comprising a first fixing step of fixing, by suctioning, the first holder (301, 701) to a first fixing section (332, 732, 731), wherein in relatively moving the first holder (301, 701) and the second holder (303, 701), the first holder (301, 701) fixed to the first fixing section (332, 732, 731) in the first fixing step is moved relative to the second holder (303, 701), characterized in that the method further comprises a second fixing step of fixing, by suctioning, the second holder (303, 701) to a second fixing section (342, 742, 741), wherein in relatively moving the first holder (301, 701) and the second holder (303, 701), the first fixing section (332, 732, 731) fixed to the first holder (301, 701) and the second fixing section (342, 742, 741) fixed to the second holder (303, 701) are relatively moved. holding, in a predetermined position, a substrate sandwiched between a first holder (301, 701) and a second holder (303, 701) opposed to each other; and relatively moving the first holder (301, 701) and the second holder (303, 701) while the substrate is held in the predetermined position, further comprising a first fixing step of fixing, by suctioning, the first holder (301, 701) to a first fixing section (332, 732, 731), wherein in relatively moving the first holder (301, 701) and the second holder (303, 701), the first holder (301, 701) fixed to the first fixing section (332, 732, 731) in the first fixing step is moved relative to the second holder (303, 701), characterized in that the method further comprises a second fixing step of fixing, by suctioning, the second holder (303, 701) to a second fixing section (342, 742, 741), wherein in relatively moving the first holder (301, 701) and the second holder (303, 701), the first fixing section (332, 732, 731) fixed to the first holder (301, 701) and the second fixing section (342, 742, 741) fixed to the second holder (303, 701) are relatively moved.
A method for processing a signal comprising: adjusting a gain of the signal a first time; filtering the adjusted signal with a first low shelf filter; compressing the filtered signal with a first compressor; processing the compressed signal with a graphic equalizer; compressing the processed signal with a second compressor; adjusting the gain of the compressed signal a second time; and outputting the signal. adjusting a gain of the signal a first time; filtering the adjusted signal with a first low shelf filter; compressing the filtered signal with a first compressor; processing the compressed signal with a graphic equalizer; compressing the processed signal with a second compressor; adjusting the gain of the compressed signal a second time; and outputting the signal.
A method for exiting a MPPT centralized mode of a photovoltaic inverter, wherein the photovoltaic inverter comprises a plurality of DC chopper circuits and an inverting circuit, and the inverting circuit is connected to an output side of the plurality of DC chopper circuits on which side the plurality of DC chopper circuits are connected in parallel to a DC bus, the method comprising: performing a MPPT control individually on each of photovoltaic strings to obtain a maximum power point for each of the photovoltaic strings, when the photovoltaic inverter is operating in the MPPT centralized mode, wherein the photovoltaic strings are connected in parallel to the DC bus via DC chopper circuits which are stopped from operating; characterised in that it further comprises: detennining the maximum voltage among the voltages of the maximum power points of the photovoltaic strings as a standard value for the maximum power points of the photovoltaic strings if the plurality of DC chopper circuits are boost chopper circuits or determining the minimum voltage among the voltages of the maximum power points of the photovoltaic strings as the standard value if the plurality of DC chopper circuits are buck chopper circuits; and determining whether any of the voltage differences between voltages of the maximum power points and the standard value exceed a preset voltage difference, and restarting DC chopper circuits connected to photovoltaic strings with voltage differences exceeding the preset voltage difference. detennining the maximum voltage among the voltages of the maximum power points of the photovoltaic strings as a standard value for the maximum power points of the photovoltaic strings if the plurality of DC chopper circuits are boost chopper circuits or determining the minimum voltage among the voltages of the maximum power points of the photovoltaic strings as the standard value if the plurality of DC chopper circuits are buck chopper circuits; and determining whether any of the voltage differences between voltages of the maximum power points and the standard value exceed a preset voltage difference, and restarting DC chopper circuits connected to photovoltaic strings with voltage differences exceeding the preset voltage difference.
Device for measuring horological shakes comprising a structure carrying an articulated mechanism comprising a gripper arranged so as to clamp a horological mobile component within a horological assembly or an assembled horological movement, in which said articulated mechanism comprises a first element fixed to said structure, and relative to which a second element is capable of undertaking a substantially linear movement under the effect of at least one actuator arranged so as to manoeuvre, in a contactless manner and in both directions, said second element substantially parallel to a measurement direction, in which said articulated mechanism comprises a compliant mechanism with necks and/or flexible strips, having a substantially linear force/stroke characteristic, connecting said second element to said first element, and in which said device comprises at least one position sensor arranged to determine the position of said second element in said measurement direction, and at least one load sensor arranged to determine the variation in the axial pushing or pulling load of said second element carrying said gripper, and/or the variation in the gradient of said load, and to send, to a control system comprised in said device, a signal for triggering the position measurement during each sudden change in gradient of the load in each direction of running, and to determine the value of the shake E of said mobile component within the assembly in which it is mounted, by comparing the position values measured in the two positions in which a sudden change in gradient occurs during the outward stroke and the return stroke.
An elongated light strip element (10; 10'; 10", 10"') for the formation of a modular light strip system, comprising: - at least one elongated circuit board assembly (11; 11'; 11"; 11'") on which at least on one side of the circuit board assembly (11; 11'; 11"; 11'") several light sources are arranged in the longitudinal extension of the circuit board assembly (11; 11'; 11"; 11"'); - at least two electrical connector assemblies arranged at or on the circuit board assembly (11; 11'; 11"; 11'"), which connector assemblies are arranged on opposite end regions of the elongated light strip element (10; 10'; 10", 10'"), wherein between the at least two connector assemblies on the side of the circuit board assembly (11; 11'; 11"; 11'") opposite the light sources a cabling is provided for the power supply of the several light sources, characterized in that - the light sources are electrically connected by means of insulation displacement connectors with the cabling arranged on the opposite side of the circuit board assembly (11; 11'; 11"; 11'"), and wherein the insulation displacement connectors are passed through the circuit board assembly (11; 11'; 11"; 11'"). - at least one elongated circuit board assembly (11; 11'; 11"; 11'") on which at least on one side of the circuit board assembly (11; 11'; 11"; 11'") several light sources are arranged in the longitudinal extension of the circuit board assembly (11; 11'; 11"; 11"'); - at least two electrical connector assemblies arranged at or on the circuit board assembly (11; 11'; 11"; 11'"), which connector assemblies are arranged on opposite end regions of the elongated light strip element (10; 10'; 10", 10'"), wherein between the at least two connector assemblies on the side of the circuit board assembly (11; 11'; 11"; 11'") opposite the light sources a cabling is provided for the power supply of the several light sources, - the light sources are electrically connected by means of insulation displacement connectors with the cabling arranged on the opposite side of the circuit board assembly (11; 11'; 11"; 11'"), and wherein the insulation displacement connectors are passed through the circuit board assembly (11; 11'; 11"; 11'").
Treatment chamber for a chemical vapor deposition reactor, comprising, within a body defining an enclosure under partial vacuum, a system for injecting reactive species with a view to being deposited on a substrate placed on a support element, and a temperature control system for controlling the temperature of said injection system or keeping said temperature substantially constant, said temperature control system having an interface zone with said injection system, the treatment chamber further comprising, in said interface zone, at least one thermal transfer zone which is (i) insulated from said enclosure under partial vacuum by a barrier that provides insulation from the pressure and the diffusion of contaminating species and (ii) filled with a thermal interface material, characterized in that the thermal transfer zone is delimited by at least two interlocked insulating barriers, the insulating barrier being arranged so as to produce one or more sealing zones around the thermal transfer zone making it possible to have a different pressure between the enclosure under partial vacuum and said thermal transfer zone, and in that the temperature control system is provided with one or more holes for putting the thermal interface material under atmospheric pressure.