mhurhangee/patent-ind-claim-en huggingface dataset:
A modular prosthetic percutaneous valve device comprising a plurality of device modules including a support structure and a valve module, said valve module including a locking mechanism formed integral thereto which locks together said support structure and said valve module, characterized in that the valve module comprises a leaflets substructure having a flattened unassembled one-layer structure which is folded into a delivery configuration , said leaflets substructure having a first end and a second end which are brought into a ring shape as a working configuration, wherein said device modules are assembled into a working configuration valve device after deployment from a percutaneous delivery device and locked in said working configuration via said locking mechanism.
A material comprising a transparent substrate made of glass or of a polymeric organic substance coated with a stack of thin layers comprising at least one silver-based functional metallic layer and at least two dielectric coatings, each dielectric coating including at least one dielectric layer, so that each functional metallic layer is disposed between two dielectric coatings, characterized in that the stack comprises: - at least one blocking layer, in particular a blocking overlayer and/or underlayer, located directly in contact with a silver-based functional metallic layer, chosen from metallic layers based on nickel comprising at least 20 % by weight of nickel relative to the weight of the nickel-based metallic layer, - at least one zinc-based metallic layer, located above or below this silver-based functional metallic layer, directly in contact or separated by one or more layers having a total thickness of less than or equal to 20 nm. - at least one blocking layer, in particular a blocking overlayer and/or underlayer, located directly in contact with a silver-based functional metallic layer, chosen from metallic layers based on nickel comprising at least 20 % by weight of nickel relative to the weight of the nickel-based metallic layer, - at least one zinc-based metallic layer, located above or below this silver-based functional metallic layer, directly in contact or separated by one or more layers having a total thickness of less than or equal to 20 nm.
Retractable leash for coiling and uncoiling a leash , in particular for guiding an animal, with a leash reel , which is rotatably mounted on a carrier and can be returned by means of resetting means to a coiled position in which the leash is wound onto the leash reel , with blocking means for blocking an uncoiling of the leash from the leash reel and with a transmission which is coupled to the leash reel and effects a blocking of the leash reel by means of the blocking means when a predetermined leash length is uncoiled from the leash reel , wherein the transmission has a first transmission element rotatably arranged on the carrier , and a second transmission element arranged on the carrier in a rotationally secure manner, and the first transmission element and the second transmission element associated with each other have an external circumference and an internal circumference which engage with one another at least in an active state, characterized in that the first transmission element is mounted eccentrically on the leash reel and rotatably with respect thereto, wherein the transmission is a cycloidal transmission.
A composite sheet material for the use in an absorbent article comprising: a fluid acquisition component comprising a carded nonwoven fabric comprised of a plurality of staple fibers that are air through bonded to each other to form a coherent nonwoven fabric; and an airlaid component overlying the fluid acquisition component, the airlaid component comprising a blend of cellulose staple fibers and non-cellulose staple fibers, the airlaid component comprising a first surface disposed towards, and air through bonded, to a surface of the fluid acquisition component, and a second surface defining an outer surface of the composite sheet material. a fluid acquisition component comprising a carded nonwoven fabric comprised of a plurality of staple fibers that are air through bonded to each other to form a coherent nonwoven fabric; and an airlaid component overlying the fluid acquisition component, the airlaid component comprising a blend of cellulose staple fibers and non-cellulose staple fibers, the airlaid component comprising a first surface disposed towards, and air through bonded, to a surface of the fluid acquisition component, and a second surface defining an outer surface of the composite sheet material.
A pin control method, applied to a master chip comprising: when a sleep pin receives a data sending signal sent by a chip, setting a Request To Send, RTS, pin into an active status according to the data sending signal, the sleep pin being a pin connected with a wakeup pin on the chip and the RTS pin being a pin connected with a Clear To Send, CTS, pin on the chip; receiving data sent by the chip, through a Receive Data, RXD, pin on the master chip, the RXD pin being in the active status when the RTS pin is in the active status and the RXD pin being a pin connected with a Transmit Data, TXD, pin on the chip; characterized in that the method comprises: when the sleep pin receives a transmission completion signal sent by the wake up pin on the chip, setting the RTS pin into an inactive status according to the transmission completion signal, when the RTS pin is in an inactive status, the RXD pin on the master chip is not allowed to receive the data; and detecting whether there exists a data transmission task with the chip or another chip , wherein the master chip, the chip and the another chip are in a same device; if there exists no data transmission task, determining to enter a sleep status ; if there exists a certain data transmission task, determining to keep a working status . when a sleep pin receives a data sending signal sent by a chip, setting a Request To Send, RTS, pin into an active status according to the data sending signal, the sleep pin being a pin connected with a wakeup pin on the chip and the RTS pin being a pin connected with a Clear To Send, CTS, pin on the chip; receiving data sent by the chip, through a Receive Data, RXD, pin on the master chip, the RXD pin being in the active status when the RTS pin is in the active status and the RXD pin being a pin connected with a Transmit Data, TXD, pin on the chip; characterized in that the method comprises: when the sleep pin receives a transmission completion signal sent by the wake up pin on the chip, setting the RTS pin into an inactive status according to the transmission completion signal, when the RTS pin is in an inactive status, the RXD pin on the master chip is not allowed to receive the data; and detecting whether there exists a data transmission task with the chip or another chip , wherein the master chip, the chip and the another chip are in a same device; if there exists no data transmission task, determining to enter a sleep status ; if there exists a certain data transmission task, determining to keep a working status . when the sleep pin receives a transmission completion signal sent by the wake up pin on the chip, setting the RTS pin into an inactive status according to the transmission completion signal, when the RTS pin is in an inactive status, the RXD pin on the master chip is not allowed to receive the data; and detecting whether there exists a data transmission task with the chip or another chip , wherein the master chip, the chip and the another chip are in a same device; if there exists no data transmission task, determining to enter a sleep status ; if there exists a certain data transmission task, determining to keep a working status .
Method for evaluating the firmness of the ground on which is running a vehicle equipped with at least one mounted assembly having a radial stiffness k radial comprising a tyre casing having a crown, two sidewalls and two beads, equipped with at least one sensor sensitive to the circumferential curvature and positioned in line with the crown, comprising the following steps:. - Estimating a value of the curvature ρ A of the tyre casing corresponding to first steady-state conditions of the tyre casing in contact with the ground; - Evaluating the relative firmness of the ground with respect to the radial stiffness k radial of the mounted assembly as being a function of the value of the curvature ρ A of the tyre casing. - Estimating a value of the curvature ρ A of the tyre casing corresponding to first steady-state conditions of the tyre casing in contact with the ground; - Evaluating the relative firmness of the ground with respect to the radial stiffness k radial of the mounted assembly as being a function of the value of the curvature ρ A of the tyre casing.
A sensing device , comprising: a magnetic bias layer having a first magnetic surface and an opposing second magnetic surface , the magnetic bias layer comprising a first electromagnetic material, a resonator having a first resonator major surface and an opposing second resonator major surface , the resonator comprising a second magnetic material, the second resonator major surface facing toward the first magnetic surface, a spacer disposed between the magnetic bias layer and the resonator, and an environmental change receptor disposed on the first resonator major surface, wherein the mass of the environmental change receptor is changed in response to a change in environment, characterized in that the resonant frequency of the sensing device is increased in response to the mass change of the environmental change receptor when the center of the resonator is a vibration node, wherein the environmental change receptor is disposed proximate to an end of the resonator. a magnetic bias layer having a first magnetic surface and an opposing second magnetic surface , the magnetic bias layer comprising a first electromagnetic material, a resonator having a first resonator major surface and an opposing second resonator major surface , the resonator comprising a second magnetic material, the second resonator major surface facing toward the first magnetic surface, a spacer disposed between the magnetic bias layer and the resonator, and an environmental change receptor disposed on the first resonator major surface, wherein the mass of the environmental change receptor is changed in response to a change in environment, characterized in that the resonant frequency of the sensing device is increased in response to the mass change of the environmental change receptor when the center of the resonator is a vibration node, wherein the environmental change receptor is disposed proximate to an end of the resonator.
An isolated monoclonal antibody, or a fragment thereof which comprises the binding domain, capable of immunospecific binding to CUB domain-containing protein 1, for use in treating breast cancer, wherein the antibody or fragment thereof is conjugated to a cytotoxic moiety or a drug moiety.
Measurement system for a broadband signal, comprising a cross-over network , including an input port for the broadband signal; a plurality of output ports ; and a plurality of frequency dividers , being configured to supply respective sub-bands of the broadband signal to the plurality of output ports ; and a processing unit , being configured to analyze the respective sub-bands of the broadband signal concurrently; the plurality of frequency dividers comprising one or more of a low-pass filter and a high-pass filter. a cross-over network , including an input port for the broadband signal; a plurality of output ports ; and a plurality of frequency dividers , being configured to supply respective sub-bands of the broadband signal to the plurality of output ports ; and an input port for the broadband signal; a plurality of output ports ; and a plurality of frequency dividers , being configured to supply respective sub-bands of the broadband signal to the plurality of output ports ; and a processing unit , being configured to analyze the respective sub-bands of the broadband signal concurrently; the plurality of frequency dividers comprising one or more of a low-pass filter and a high-pass filter.
Bar , in particular for a sandwich panel , comprising at least the following components: i. a bar base , ii. at least one tube segment , which comprises a wall that is delimited in the circumferential direction of the respective tube segment by at least two, in particular exactly two, cut ends , wherein the wall is delimited in the longitudinal extension direction of the tube segment by two cut surfaces and wherein the at least one tube segment comprises a segment height (h), respectively, which represents the maximum extension of the respective tube segment perpendicular to the bar base , and wherein the at least one tube segment comprises a segment depth (d) running in the longitudinal extension direction, and wherein the bar comprises a bar depth (D) which runs in the longitudinal extension direction of the at least one tube segment , characterized in that the at least one tube segment is mechanically connected to the bar base by means of the at least two cut ends , respectively, wherein the bar depth (D) is equal to the segment depth (d) of the at least one tube segment , wherein the at least one tube segment consists of a wood material or comprises a wood material. i. a bar base , ii. at least one tube segment , which comprises a wall that is delimited in the circumferential direction of the respective tube segment by at least two, in particular exactly two, cut ends , wherein the wall is delimited in the longitudinal extension direction of the tube segment by two cut surfaces and wherein the at least one tube segment comprises a segment height (h), respectively, which represents the maximum extension of the respective tube segment perpendicular to the bar base , and wherein the at least one tube segment comprises a segment depth (d) running in the longitudinal extension direction, and wherein the bar comprises a bar depth (D) which runs in the longitudinal extension direction of the at least one tube segment , characterized in that the at least one tube segment is mechanically connected to the bar base by means of the at least two cut ends , respectively, wherein the bar depth (D) is equal to the segment depth (d) of the at least one tube segment , wherein the at least one tube segment consists of a wood material or comprises a wood material.
Device for transporting on a velocipede cylindrical or slightly conical bottles or cans of different lengths and of different diameters the measurement of which may be from single to double, comprising a removable support the geometry of which represents a U-shaped profile , four of its ends of which have fins on the vertical parts of the U-shape , characterized in that their opening angle geometrically constitutes in a longitudinal direction in perspective a V-shape fitted with silent blocks , allowing a gradual wedging by throttling of a cylindrical or slightly conical object, under its own weight and according to its measurements, when it is positioned inside the V-shape formed by the fins and by contact with them.
A method for forming a three-dimensional memory device , comprising: forming a stack structure comprising interleaved first dielectric layers and second dielectric layers ; forming channel structures extending through the first dielectric layers and the second dielectric layers in a first region of the stack structure ; replacing all the second dielectric layers in the first region and parts of the second dielectric layers in a second region of the stack structure with conductive layers ; and forming word line pick-up structures extending through the first dielectric layers and remainders of the second dielectric layers in the second region of the stack structure at different depths, such that the word line pick-up structures are electrically connected to the conductive layers , respectively, in the second region of the stack structure , wherein the word line pick-up structure is formed in a word line pick-up region . forming a stack structure comprising interleaved first dielectric layers and second dielectric layers ; forming channel structures extending through the first dielectric layers and the second dielectric layers in a first region of the stack structure ; replacing all the second dielectric layers in the first region and parts of the second dielectric layers in a second region of the stack structure with conductive layers ; and forming word line pick-up structures extending through the first dielectric layers and remainders of the second dielectric layers in the second region of the stack structure at different depths, such that the word line pick-up structures are electrically connected to the conductive layers , respectively, in the second region of the stack structure , wherein the word line pick-up structure is formed in a word line pick-up region .
Joint socket replacement for sliding pairing in arthroplasty, consisting of a metal shell and a ceramic insert clamped into the metal shell , wherein the insert has an outer face and an inner face and a hemispherical sliding region is formed on the inner face to accommodate a spherical sliding partner, wherein the insert is designed as a ring or is ring-shaped and has a conical or cylindrical clamping surface on the outer face at least in portions, such that the insert is connected to the metal shell only via the clamping surface.
A microelectromechanical sensor (MEMS) package, comprising: a first cavity enclosed by a first cavity seal , wherein the first cavity seal provides a barrier between a first cavity pressure within the first cavity and an external pressure; a second cavity enclosed by a second cavity seal , wherein the second cavity seal is located entirely within the first cavity seal to provide a barrier between a second cavity pressure within the second cavity and the first cavity pressure; a MEMS accelerometer located within the second cavity and configured to measure one or more linear accelerations; and a MEMS gyroscope located within the first cavity and configured to measure one or more angular velocities, wherein the MEMS gyroscope is further configured to sense a change in pressure within the first cavity when at least one of the first cavity seal or the second cavity seal has been broken; and processing circuitry coupled to the MEMS gyroscope to identify a failure based on the change in pressure sensed by the MEMS gyroscope . a first cavity enclosed by a first cavity seal , wherein the first cavity seal provides a barrier between a first cavity pressure within the first cavity and an external pressure; a second cavity enclosed by a second cavity seal , wherein the second cavity seal is located entirely within the first cavity seal to provide a barrier between a second cavity pressure within the second cavity and the first cavity pressure; a MEMS accelerometer located within the second cavity and configured to measure one or more linear accelerations; and a MEMS gyroscope located within the first cavity and configured to measure one or more angular velocities, wherein the MEMS gyroscope is further configured to sense a change in pressure within the first cavity when at least one of the first cavity seal or the second cavity seal has been broken; and processing circuitry coupled to the MEMS gyroscope to identify a failure based on the change in pressure sensed by the MEMS gyroscope .
A filter connection for a smoke evacuation system , comprising: a filter canister comprising: a body disposed between a first end and a second end of the filter canister; a connection nipple disposed at the second end of the filter canister; a seal disposed around the connection nipple; and a first electronic connector ; a housing having a socket , the socket comprising: a first recess configured to receive the body of the filter canister; a second recess configured to receive the connection nipple; and a second electronic connector ; and wherein a first longitudinal distance between the seal and the first electronic connector is greater than a second longitudinal distance between the second electronic connector and a first end of the second recess from which the connection nipple is received by the second recess so that a sealed airflow path extending from the connection nipple to the second recess is made before the first and second electronic connectors meet when the filter canister is inserted into the socket. a filter canister comprising: a body disposed between a first end and a second end of the filter canister; a connection nipple disposed at the second end of the filter canister; a seal disposed around the connection nipple; and a first electronic connector ; a body disposed between a first end and a second end of the filter canister; a connection nipple disposed at the second end of the filter canister; a seal disposed around the connection nipple; and a first electronic connector ; a housing having a socket , the socket comprising: a first recess configured to receive the body of the filter canister; a second recess configured to receive the connection nipple; and a second electronic connector ; and a first recess configured to receive the body of the filter canister; a second recess configured to receive the connection nipple; and a second electronic connector ; and wherein a first longitudinal distance between the seal and the first electronic connector is greater than a second longitudinal distance between the second electronic connector and a first end of the second recess from which the connection nipple is received by the second recess so that a sealed airflow path extending from the connection nipple to the second recess is made before the first and second electronic connectors meet when the filter canister is inserted into the socket.
A catheter system for treating a treatment site within or adjacent to a vessel wall or a heart valve, the catheter system comprising: an inflatable balloon ; an optical fiber having a fiber distal end positioned within the inflatable balloon , the optical fiber being configured to receive an energy pulse so that the optical fiber emits light energy in a direction away from the optical fiber to generate a plasma pulse within the inflatable balloon ; and a laser including (i) a seed source that is configured to emit a seed pulse , and (ii) an amplifier that is configured to increase energy of the seed pulse so that the laser generates the energy pulse that is received by the optical fiber , the energy pulse having a waveform having a pulse duration (T), a minimum power (Po), a peak power (Pp) and a rise time (Tp) of increasing power from the minimum power (Po) to the peak power (Pp), the rise time (Tp) being not greater than 40% of the pulse duration (T); characterized in that the peak power (Pp) of the energy pulse is within the range of greater than 50 kW and less than 1000 kW. an inflatable balloon ; an optical fiber having a fiber distal end positioned within the inflatable balloon , the optical fiber being configured to receive an energy pulse so that the optical fiber emits light energy in a direction away from the optical fiber to generate a plasma pulse within the inflatable balloon ; and a laser including (i) a seed source that is configured to emit a seed pulse , and (ii) an amplifier that is configured to increase energy of the seed pulse so that the laser generates the energy pulse that is received by the optical fiber , the energy pulse having a waveform having a pulse duration (T), a minimum power (Po), a peak power (Pp) and a rise time (Tp) of increasing power from the minimum power (Po) to the peak power (Pp), the rise time (Tp) being not greater than 40% of the pulse duration (T); characterized in that the peak power (Pp) of the energy pulse is within the range of greater than 50 kW and less than 1000 kW.