mhurhangee/patent-ind-claim-en huggingface dataset:
A cardiac rhythm management device comprising at least first and second electrical signal input nodes defining at least a first sensing vector and operational circuitry for analyzing cardiac signals on at least two data streams, the operational circuitry comprising: receiver means for receiving a signal from the first sensing vector; in a first data stream , a first means for applying first filtering parameters to the signal from the first sensing vector; in a second data stream , a second means for applying second filtering parameters to the signal from the first sensing vector, the second filtering parameters being different from the first filtering parameters; means for combining the first and second data streams together to create a series of combined sample points for the cardiac signal each having an amplitude determined at least partly from each of the first and second data streams; means for performing cardiac cycle detection on the series of combined sample points. receiver means for receiving a signal from the first sensing vector; in a first data stream , a first means for applying first filtering parameters to the signal from the first sensing vector; in a second data stream , a second means for applying second filtering parameters to the signal from the first sensing vector, the second filtering parameters being different from the first filtering parameters; means for combining the first and second data streams together to create a series of combined sample points for the cardiac signal each having an amplitude determined at least partly from each of the first and second data streams; means for performing cardiac cycle detection on the series of combined sample points.
Field probe combination for use at medium and high voltages, having a first field probe and a second field probe , wherein the first field probe and the second field probe are formed by a first conductive field probe layer applied to an insulator for the first field probe and by a second conductive field probe layer applied to the insulator for the second field probe , wherein the insulator is the shape of a hollow cylinder, or a hollow cylinder that is slotted parallel to an axis of symmetry of the field probe combination , wherein the insulator has an insulator thickness perpendicular to the axis of symmetry , that is to say in the radial direction, which separates the first conductive field probe layer from the second conductive field probe layer , wherein the first conductive field probe layer is arranged on a first side of the insulator radially facing towards the interior of the hollow cylinder and the second conductive field probe layer is arranged on a second side of the insulator radially facing outward from the hollow cylinder, wherein the first conductive field probe layer has first contacting means and the second conductive field probe layer has second contacting means , wherein a support structure applied to the insulator supports the field probe combination in maintaining the hollow cylinder shape, characterized in that the support structure is formed from a conductive plastic and the support structure is arranged circumferentially on an open edge of the hollow cylinder of the insulator . the first field probe and the second field probe are formed by a first conductive field probe layer applied to an insulator for the first field probe and by a second conductive field probe layer applied to the insulator for the second field probe , wherein the insulator is the shape of a hollow cylinder, or a hollow cylinder that is slotted parallel to an axis of symmetry of the field probe combination , wherein the insulator has an insulator thickness perpendicular to the axis of symmetry , that is to say in the radial direction, which separates the first conductive field probe layer from the second conductive field probe layer , wherein the first conductive field probe layer is arranged on a first side of the insulator radially facing towards the interior of the hollow cylinder and the second conductive field probe layer is arranged on a second side of the insulator radially facing outward from the hollow cylinder, wherein the first conductive field probe layer has first contacting means and the second conductive field probe layer has second contacting means , wherein a support structure applied to the insulator supports the field probe combination in maintaining the hollow cylinder shape, characterized in that the support structure is formed from a conductive plastic and the support structure is arranged circumferentially on an open edge of the hollow cylinder of the insulator .
A composition comprising a resin material, exfoliated boron nitride, a silane as a functionalization additive, and a hard filler material having a Mohs hardness greater than the Mohs hardness of hexagonal boron nitride, wherein the exfoliated boron nitride is produced in situ by mixing boron nitride crystals with the resin material in the presence of the hard filler, wherein the boron nitride, hard filler material, and silane are provided as a blended filler composition comprising a blend of the boron nitride, hard filler material, and the silane, and wherein the silane is chosen from a thiocarboxylate silane, a blocked mercapto silane, or a combination thereof.
Polymer mixture, characterized in that it contains at least one fluororubber and at least one active filler and at least one thermoplastic and at least one compatibility additive, wherein the compatibility additive is glycidyl acrylate, glycidyl methacrylate or glycidyl ethylacrylate.
A prosthetic heart valve for replacing a native heart valve, comprising: an outer frame assembly including an outer frame having a cuff portion at an atrial end of the outer frame configured to be disposed at least partially within an atrium of a heart and a body portion configured to be disposed in a ventricle of the heart, the body portion having a posterior side and an opposite anterior side, the anterior side having a maximum height (La1, La2) larger than a maximum height of the posterior side (Lp1, Lp2) such that when the prosthetic heart valve is in a biased configuration, an anterior end of the cuff portion of the outer frame is disposed at an acute angle (α) relative to a centerline (A) of the body portion of the outer frame; and an inner valve assembly disposed within and coupled to the outer frame assembly, the inner valve assembly including an inner frame having an atrium end and a ventricle end and having a centerline substantially parallel to the centerline of the body portion of the outer frame when the prosthetic heart valve is in the biased configuration, the inner valve assembly including a valve leaflet assembly supported on the inner frame, wherein the anterior side of the body portion is configured to be positioned adjacent an anterior segment of the native heart valve when the prosthetic heart valve is implanted into the native heart valve. an outer frame assembly including an outer frame having a cuff portion at an atrial end of the outer frame configured to be disposed at least partially within an atrium of a heart and a body portion configured to be disposed in a ventricle of the heart, the body portion having a posterior side and an opposite anterior side, the anterior side having a maximum height (La1, La2) larger than a maximum height of the posterior side (Lp1, Lp2) such that when the prosthetic heart valve is in a biased configuration, an anterior end of the cuff portion of the outer frame is disposed at an acute angle (α) relative to a centerline (A) of the body portion of the outer frame; and an inner valve assembly disposed within and coupled to the outer frame assembly, the inner valve assembly including an inner frame having an atrium end and a ventricle end and having a centerline substantially parallel to the centerline of the body portion of the outer frame when the prosthetic heart valve is in the biased configuration, the inner valve assembly including a valve leaflet assembly supported on the inner frame, wherein the anterior side of the body portion is configured to be positioned adjacent an anterior segment of the native heart valve when the prosthetic heart valve is implanted into the native heart valve.
An absorbable metal stent, comprising: an absorbable metal substrate , the absorbable metal substrate comprising a plurality of wave-shaped annular structures and a plurality of axial connecting portions , two ends of each axial connecting portion are connected to two adjacent wave-shaped annular structures , respectively, so as to axially connect the plurality of wave-shaped annular structures ; a corrosion-promoting coating is formed on each axial connecting portion , the corrosion-promoting coating containing a corrosion-promoting substance, and the corrosion-promoting substance is at least one of a degradable polymer and a degradable polymer antioxidant, wherein a chain segment or monomer released when the degradable polymer antioxidant is degraded includes at least one of ascorbic acid, glutathione, lipoic acid, and proanthocyanidin; and the corrosion-promoting coatings make the corrosion of the axial connecting portions to occur earlier than the corrosion of the plurality of wave-shaped annular structures . an absorbable metal substrate , the absorbable metal substrate comprising a plurality of wave-shaped annular structures and a plurality of axial connecting portions , two ends of each axial connecting portion are connected to two adjacent wave-shaped annular structures , respectively, so as to axially connect the plurality of wave-shaped annular structures ; a corrosion-promoting coating is formed on each axial connecting portion , the corrosion-promoting coating containing a corrosion-promoting substance, and the corrosion-promoting substance is at least one of a degradable polymer and a degradable polymer antioxidant, wherein a chain segment or monomer released when the degradable polymer antioxidant is degraded includes at least one of ascorbic acid, glutathione, lipoic acid, and proanthocyanidin; and the corrosion-promoting coatings make the corrosion of the axial connecting portions to occur earlier than the corrosion of the plurality of wave-shaped annular structures .
An electric shaver, comprising a shaver housing , a shaver head including at least one cutter element drivable by a drive unit in an oscillating manner along a cutter oscillation axis and a non-cutting auxiliary function element for applying an auxiliary skin or hair treatment other than hair cutting to a skin portion to be shaved, said auxiliary function element having an applicator head positioned aside the cutter element characterized in that said shaver head and/or said at least one cutter element is supported pivotably relative to said auxiliary function element at least about a pivot axis parallel to said cutter oscillation axis .
A device for transferring a liquefied gas from a supply tank of a first structure to a receiving tank of a second structure , at least one of the structures being a floating structure, the transfer device comprising at least one pipe for loading the receiving tank with liquid and at least one gas return pipe for returning the gas present in the receiving tank to the supply tank , characterized in that the gas return pipe comprises at least one pressure regulation system comprising at least one first branch equipped with an expansion member for expanding the gas and a second branch disposed in parallel with the expansion member and equipped with a valve configured to allow or interrupt circulation of the gas in the second branch .
A method, comprising detecting the presence of a polynucleotide encoding a FIG-ROS fusion polypeptide in a biological sample from a mammalian lung cancer or suspected mammalian lung cancer, wherein the detecting comprises performing: (i) a PCR assay, (ii) a fluorescence in-situ hybridization (FISH) assay, (iii) nucleic acid hybridization, or (iv) nucleic acid sequencing. (i) a PCR assay, (ii) a fluorescence in-situ hybridization (FISH) assay, (iii) nucleic acid hybridization, or (iv) nucleic acid sequencing.
An electrical circuitry coupled to a bone fixation device having at least one linear actuator coupled between two rings , the electrical circuitry configured to control operation of the bone fixation device according to a treatment protocol, the electrical circuitry comprising: an interface circuitry; a memory configured to store the treatment protocol; a control circuitry , wherein said control circuitry: controls movement of the at least one linear actuator according to the treatment protocol; measures a value of the movement or extension of said at least one linear actuator and/or the distance or change in distance between said two rings, wherein said memory stores said value; and determines treatment compliance by comparing said value to a desired range of values stored in said memory, and signals said interface circuitry to generate a treatment compliance indication based on said treatment compliance; and at least one current sensor configured to measure the current of the at least one linear actuator, wherein the electrical circuitry is configured, if the measured current is not in a desired range of currents, to stop the movement of the at least one linear actuator. an interface circuitry; a memory configured to store the treatment protocol; a control circuitry , wherein said control circuitry: controls movement of the at least one linear actuator according to the treatment protocol; measures a value of the movement or extension of said at least one linear actuator and/or the distance or change in distance between said two rings, wherein said memory stores said value; and determines treatment compliance by comparing said value to a desired range of values stored in said memory, and signals said interface circuitry to generate a treatment compliance indication based on said treatment compliance; and controls movement of the at least one linear actuator according to the treatment protocol; measures a value of the movement or extension of said at least one linear actuator and/or the distance or change in distance between said two rings, wherein said memory stores said value; and determines treatment compliance by comparing said value to a desired range of values stored in said memory, and signals said interface circuitry to generate a treatment compliance indication based on said treatment compliance; and at least one current sensor configured to measure the current of the at least one linear actuator, wherein the electrical circuitry is configured, if the measured current is not in a desired range of currents, to stop the movement of the at least one linear actuator.
A light emitting diode, LED, panel array (10 or 10'), comprising: a first LED panel including a first support having a first LED side and a first non-LED side opposite the first LED side, and a first window that extends from the first LED side to the first non-LED side ; a second LED panel including a second support having a second LED side , a second non-LED side opposite the second LED side, and a second window that extends from the second LED side to the second non-LED side ; a first LED affixed to the first LED side of the first LED panel ; a second LED affixed to the second LED side J Z of the second LED panel ; and an air flow diverter affixed to the second non-LED side of the second LED panel , wherein the first LED panel is disposed parallel to the second LED panel , wherein the first non-LED side of the first LED panel faces toward the second non-LED side of the second LED panel , wherein the air flow diverter includes an angled portion , wherein the angled portion extends over a window portion that is less than all of the second window of the second LED panel , and wherein the first window of the first LED panel is aligned with the second window of the second LED panel in both x and y directions. a first LED panel including a first support having a first LED side and a first non-LED side opposite the first LED side, and a first window that extends from the first LED side to the first non-LED side ; a second LED panel including a second support having a second LED side , a second non-LED side opposite the second LED side, and a second window that extends from the second LED side to the second non-LED side ; a first LED affixed to the first LED side of the first LED panel ; a second LED affixed to the second LED side J Z of the second LED panel ; and an air flow diverter affixed to the second non-LED side of the second LED panel , wherein the first LED panel is disposed parallel to the second LED panel , wherein the first non-LED side of the first LED panel faces toward the second non-LED side of the second LED panel , wherein the air flow diverter includes an angled portion , wherein the angled portion extends over a window portion that is less than all of the second window of the second LED panel , and wherein the first window of the first LED panel is aligned with the second window of the second LED panel in both x and y directions.
A method for thermal management of a battery module through use of a battery loop having a battery loop coolant flowing through the battery loop , wherein a thermal management system includes the battery loop , a heating loop , a cooling loop , a refrigerant loop , a liquid cooled gas cooler, LCGC, and a chiller , and the refrigerant loop includes a refrigerant flowing therethrough and flowing to the LCGC and to the chiller , the method comprising: measuring a temperature of the battery loop coolant; increasing the temperature of the battery loop coolant flowing to the battery module by directing a flow of the battery loop coolant to one of a heating loop heat exchanger in thermal communication with the heating loop or the LCGC ; and decreasing the temperature of the battery loop coolant flowing to the battery module by directing the flow of the battery loop coolant to one of a cooling loop heat exchanger in thermal communication with the cooling loop or the chiller . measuring a temperature of the battery loop coolant; increasing the temperature of the battery loop coolant flowing to the battery module by directing a flow of the battery loop coolant to one of a heating loop heat exchanger in thermal communication with the heating loop or the LCGC ; and decreasing the temperature of the battery loop coolant flowing to the battery module by directing the flow of the battery loop coolant to one of a cooling loop heat exchanger in thermal communication with the cooling loop or the chiller .
A vehicle, comprising: a suspension that supports a front wheel thereon; and a road surface state decision unit that decides a road surface state by detection of a sensor , wherein the sensor is provided at a lower portion of the suspension and is capable of detecting an acceleration at least in a one-axis direction, the suspension is a front fork that supports the front wheel of the vehicle that is a saddle riding vehicle , the front fork includes a bottom case that connects a lower portion of the front fork and an axle of the front wheel to each other, and the sensor is attached to the bottom case , characterized in that a brake caliper attachment hole to which a brake caliper for braking the wheel is attached is provided in the bottom case , and the sensor is fastened to the brake caliper attachment hole together with the brake caliper , and the sensor is disposed between the axle of the wheel and the brake caliper as viewed in side elevation of the vehicle. a suspension that supports a front wheel thereon; and a road surface state decision unit that decides a road surface state by detection of a sensor , wherein the sensor is provided at a lower portion of the suspension and is capable of detecting an acceleration at least in a one-axis direction, the suspension is a front fork that supports the front wheel of the vehicle that is a saddle riding vehicle , the front fork includes a bottom case that connects a lower portion of the front fork and an axle of the front wheel to each other, and the sensor is attached to the bottom case , characterized in that a brake caliper attachment hole to which a brake caliper for braking the wheel is attached is provided in the bottom case , and the sensor is fastened to the brake caliper attachment hole together with the brake caliper , and the sensor is disposed between the axle of the wheel and the brake caliper as viewed in side elevation of the vehicle.
A method of testing a dog to determine the susceptibility of the dog to liver copper accumulation, comprising detecting in a sample the presence or absence in the genome of the dog of the polymorphism Chr20_55461150 (represented by position 101 of SEQ ID NO: 146).
An assembly comprising a display element and a bow for fastening the display element of a watch, configured to display at least one item of information, to at least one movement of a watch, said bow having a C shape defining a circular arc and/or a clip shape with a gap or an opening so as to have two free ends, the bow being configured to distort as the two ends of the bow are brought together and thus to be distorted in a plane that is coplanar with the bow and to fit said display element so as to fasten the display element to said at least one movement .
A composition for topical application comprising: a first discontinuous phase comprising a first oil and tacrolimus; a second discontinuous phase comprising a second oil; and a continuous aqueous phase; wherein the first oil is different from the second oil and the phases are physically and chemically distinct; and wherein the tacrolimus is substantially soluble in the first oil and substantially insoluble in the second oil. a first discontinuous phase comprising a first oil and tacrolimus; a second discontinuous phase comprising a second oil; and a continuous aqueous phase; wherein the first oil is different from the second oil and the phases are physically and chemically distinct; and wherein the tacrolimus is substantially soluble in the first oil and substantially insoluble in the second oil.
Electromechanical actuator for controlling screens , comprising a brushless direct current electronically controlled electric motor , a rotor and a stator of the electric motor being positioned coaxially around an axis of rotation (X), the rotor comprising a cylindrical rotor body fitted with magnetic elements distributed over the exterior surface of the rotor , the magnetic elements of the rotor being surrounded by the stator , itself formed by a stator core comprising a circular peripheral wall and polar elements supporting windings , the polar elements being distributed over the peripheral wall and the rotor equipped with magnetic elements being positioned in a cylindrical internal space (E) with a circular section of the stator, the electromechanical actuator being characterised in that the exterior diameter (D3) of the electric motor of the actuator is less than 40 mm, preferably less than 36 mm, whilst the magnetic elements are formed by permanent magnets made of ferrite, the radial thickness (e32) of which has a maximum value, over a section taken transversely to the axis of rotation (X), which is greater than 3 mm.
A silencer apparatus for a gas turbine inlet system, the inlet system including an Inlet Bleed Heat, the silencer apparatus comprising: a gas turbine inlet ducting , a main silencer disposed along a gas flow direction in the gas turbine inlet ducting , and a pre-silencer also disposed along the gas flow direction in the gas turbine inlet ducting , and the turbine Inlet Bleed Heat , said Inlet Bleed Heat being located between the main silencer and the pre-silencer . a gas turbine inlet ducting , a main silencer disposed along a gas flow direction in the gas turbine inlet ducting , and a pre-silencer also disposed along the gas flow direction in the gas turbine inlet ducting , and the turbine Inlet Bleed Heat , said Inlet Bleed Heat being located between the main silencer and the pre-silencer .