mhurhangee/patent-ind-claim-en huggingface dataset:
Propulsion apparatus for an aquatic vessel , the propulsion apparatus comprising an aerodynamic body which extends along a longitudinal axis between first and second ends and in a transverse direction between a leading edge and trailing edge , the aerodynamic body having one or more external wind-receiving surfaces which extend between the leading edge and the trailing edge, thereby defining an aerodynamic profile of the aerodynamic body in cross-section substantially perpendicular to the longitudinal axis, wherein the aerodynamic profile comprises a chord (C) extending between its leading edge and its trailing edge and a thickness perpendicular to the chord (T), such that the ratio of thickness (T) to chord (C) length is equal or greater than 1:2 and smaller than 1:1; wherein the aerodynamic profile has an elliptical cross-sectional shape that starts at the leading edge and extends up to between 50% and 100% of the chord (C) length, the remainder of the cross-sectional shape being optionally circular; wherein the propulsion apparatus further comprises at least one air vent and at least one air flow generator configured to expel air through the at least one air vent such that air expelled through the at least one vent flows across and remains attached to the one or more external wind-receiving surfaces, the at least one air vent and/or the at least one air flow generator being configured to direct expelled air across at least a portion of the one or more or more external wind-receiving surfaces, wherein the at least one air vent is located in a leading region of the aerodynamic body, the propulsion apparatus further comprising at least one air intake , located at or adjacent to the trailing edge of the aerodynamic body, the at least one air flow generator being configured to draw air through the at least one air intake, wherein the at least one air intake is configured such that air is drawn through the at least one intake from air which is attached to at least a portion of the one or more external wind-receiving surfaces.
A seat rotation locking mechanism, comprising a locking mechanism mounted on a rotating disc in a seat rotation mechanism and at least one lockhole disposed on an outer circumference of a fixed disc in the seat rotation mechanism , wherein the locking mechanism comprises: a lock support fixed on the rotating disc ; and at least two lock pins horizontally and moveably configured in the lock support , wherein a first end of the lock pin is of a truncated-cone-shaped structure; and the first end of the lock pin is inserted into the lockhole , to implement zero-clearance locking by using wedging between the truncated-cone-shaped structure of the first end of the lock pin and the lockhole ; wherein at least one outward protruding portion is disposed on the outer circumference of the fixed disc , the lockhole is disposed on each outward protruding portion , each outward protruding portion is transitionally connected to the remaining part of the outer circumference of the fixed disc through an arc-shaped guiding plane , the first end of the lock pin is not in contact with the remaining part of the outer circumference of the fixed disc before entering the arc-shaped guiding plane , and the first end of the lock pin is in contact with the arc-shaped guiding plane after entering the arc-shaped guiding plane . a lock support fixed on the rotating disc ; and at least two lock pins horizontally and moveably configured in the lock support , wherein a first end of the lock pin is of a truncated-cone-shaped structure; and the first end of the lock pin is inserted into the lockhole , to implement zero-clearance locking by using wedging between the truncated-cone-shaped structure of the first end of the lock pin and the lockhole ; wherein at least one outward protruding portion is disposed on the outer circumference of the fixed disc , the lockhole is disposed on each outward protruding portion , each outward protruding portion is transitionally connected to the remaining part of the outer circumference of the fixed disc through an arc-shaped guiding plane , the first end of the lock pin is not in contact with the remaining part of the outer circumference of the fixed disc before entering the arc-shaped guiding plane , and the first end of the lock pin is in contact with the arc-shaped guiding plane after entering the arc-shaped guiding plane .
A complex comprising: a) a nanoparticle-nucleic acid conjugate; b) a Type II or a Type V CRISPR system comprising: i) a Cas9 polypeptide or a Cpfl polypeptide; and ii) a guide RNA; and c) an endosomal disruptive polymer. a) a nanoparticle-nucleic acid conjugate; b) a Type II or a Type V CRISPR system comprising: i) a Cas9 polypeptide or a Cpfl polypeptide; and ii) a guide RNA; and i) a Cas9 polypeptide or a Cpfl polypeptide; and ii) a guide RNA; and c) an endosomal disruptive polymer.
An ultrasound probe comprising: a housing ; a transducer array that is retained in the housing and has a rear surface portion , from which a wiring cable (WC1, WC2) is drawn out; a circuit substrate that is retained in the housing, the wiring cable being connected to the circuit substrate; a battery that is retained in the housing and performs power supply; and characterized by a fire protection structure (F1, F2, MB, R1, R2, RR, S1, S2, S3) disposed between the transducer array and the circuit substrate in the housing, wherein the fire protection structure has a flame retardant member disposed inside the housing to separate between the rear surface portion of the transducer array and the circuit substrate . a housing ; a transducer array that is retained in the housing and has a rear surface portion , from which a wiring cable (WC1, WC2) is drawn out; a circuit substrate that is retained in the housing, the wiring cable being connected to the circuit substrate; a battery that is retained in the housing and performs power supply; and characterized by a fire protection structure (F1, F2, MB, R1, R2, RR, S1, S2, S3) disposed between the transducer array and the circuit substrate in the housing, wherein the fire protection structure has a flame retardant member disposed inside the housing to separate between the rear surface portion of the transducer array and the circuit substrate .
A folded absorbent pad having, in its flattened unfolded configuration a central longitudinal axis (I) and a central transversal axis (II) said pad comprising: a topsheet , a backsheet and an absorbent core disposed between said topsheet and backsheet , one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines , one or more folding portions , said folding portions being defined as portions of the storage layer overlapping said folding lines and characterised in that the folding portions extend for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm higher than the average basis weight of SAP in the entire storage layer . a topsheet , a backsheet and an absorbent core disposed between said topsheet and backsheet , one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines , one or more folding portions , said folding portions being defined as portions of the storage layer overlapping said folding lines and characterised in that the folding portions extend for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm higher than the average basis weight of SAP in the entire storage layer .
An electric brake device comprising: a brake rotor ; a brake pad ; an electric motor ; a linear motion mechanism configured to convert a rotary motion of the electric motor into a linear motion to transmit the linear motion to the brake pad ; and a controller configured to control the electric motor , the electric brake device further comprising a vehicle speed detector configured to detect a vehicle speed, wherein: the controller includes: a motor angular velocity control section configured to control an angular velocity of the electric motor ; and an angular-velocity-corresponding-to-vehicle-speed limiting section configured to limit the angular velocity of the electric motor according to the vehicle speed detected by the vehicle speed detector , and being characterized in that : the motor angular velocity control section has a PAM control section configured to perform PAM control of the electric motor , and the angular-velocity-corresponding-to-vehicle-speed limiting section provides a command to the PAM control section so as to limit an upper limit value or a lower limit value of an amplitude of an output voltage, thereby to limit the angular velocity of the electric motor in a no-load state. a motor angular velocity control section configured to control an angular velocity of the electric motor ; and an angular-velocity-corresponding-to-vehicle-speed limiting section configured to limit the angular velocity of the electric motor according to the vehicle speed detected by the vehicle speed detector , and being characterized in that : the motor angular velocity control section has a PAM control section configured to perform PAM control of the electric motor , and the angular-velocity-corresponding-to-vehicle-speed limiting section provides a command to the PAM control section so as to limit an upper limit value or a lower limit value of an amplitude of an output voltage, thereby to limit the angular velocity of the electric motor in a no-load state.
A touch panel , comprising: an electroactive layer ; a plurality of driving electrodes on one side of the electroactive layer, the driving electrodes configured to transmit a driving signal; a first touch sensor unit comprising a plurality of first sensing electrodes on another side of the electroactive layer and the plurality of driving electrodes , the first sensing electrodes configured to transmit voltage signals generated responsive to deformation of the electroactive layer; and a second touch sensor unit comprising a plurality of second sensing electrodes on the other side of the electroactive layer and the plurality of driving electrodes , the second sensing electrodes spaced apart from the plurality of first sensing electrodes and the plurality of driving electrodes, the second sensing electrodes configured to transmit capacitance signals indicating a change in capacitance between the driving electrodes and the second sensing electrodes , wherein the first touch sensor unit and the second touch sensor unit are arranged to share the plurality of driving electrodes as commonly used driving electrodes an electroactive layer ; a plurality of driving electrodes on one side of the electroactive layer, the driving electrodes configured to transmit a driving signal; a first touch sensor unit comprising a plurality of first sensing electrodes on another side of the electroactive layer and the plurality of driving electrodes , the first sensing electrodes configured to transmit voltage signals generated responsive to deformation of the electroactive layer; and a second touch sensor unit comprising a plurality of second sensing electrodes on the other side of the electroactive layer and the plurality of driving electrodes , the second sensing electrodes spaced apart from the plurality of first sensing electrodes and the plurality of driving electrodes, the second sensing electrodes configured to transmit capacitance signals indicating a change in capacitance between the driving electrodes and the second sensing electrodes , wherein the first touch sensor unit and the second touch sensor unit are arranged to share the plurality of driving electrodes as commonly used driving electrodes
A protein comprising: (a) an EGFR-binding scFv (VL-VH) sequence in the orientation of heavy chain variable domain (VH) positioned C-terminal to light chain variable domain (VL), linked to an Fc domain polypeptide to form a (VL-VH)-Fc polypeptide, comprising the amino acid sequence of SEQ ID NO: 167; and (b) an NKG2D-binding Fab fragment including: a heavy chain portion comprising a heavy chain variable domain (VH) and a CH1 domain, wherein the CH1 domain is connected to an Fc domain polypeptide to form a VH-CH1-Fc polypeptide comprising the amino acid sequence of SEQ ID NO:164, and a light chain portion comprising a light chain variable domain (VL) and a light chain constant (CL) domain to form a VL-CL polypeptide comprising the amino acid sequence of SEQ ID NO:165. (a) an EGFR-binding scFv (VL-VH) sequence in the orientation of heavy chain variable domain (VH) positioned C-terminal to light chain variable domain (VL), linked to an Fc domain polypeptide to form a (VL-VH)-Fc polypeptide, comprising the amino acid sequence of SEQ ID NO: 167; and (b) an NKG2D-binding Fab fragment including: a heavy chain portion comprising a heavy chain variable domain (VH) and a CH1 domain, wherein the CH1 domain is connected to an Fc domain polypeptide to form a VH-CH1-Fc polypeptide comprising the amino acid sequence of SEQ ID NO:164, and a light chain portion comprising a light chain variable domain (VL) and a light chain constant (CL) domain to form a VL-CL polypeptide comprising the amino acid sequence of SEQ ID NO:165. a heavy chain portion comprising a heavy chain variable domain (VH) and a CH1 domain, wherein the CH1 domain is connected to an Fc domain polypeptide to form a VH-CH1-Fc polypeptide comprising the amino acid sequence of SEQ ID NO:164, and a light chain portion comprising a light chain variable domain (VL) and a light chain constant (CL) domain to form a VL-CL polypeptide comprising the amino acid sequence of SEQ ID NO:165.
A pretensionable locking system for use in a medical-technical instrument, wherein the locking system comprises an outer locking body with an inner thread and an inner locking body with an outer thread , wherein in a pretensioned position, the inner thread lies against the outer thread in a first longitudinal axial direction and is pretensioned against the outer thread , wherein in a locked position, the outer locking body is fixed on the inner locking body by screwing the inner thread onto the outer thread , wherein the outer locking body has a resilient retaining element that projects radially inward and the inner locking body has a rigid bulge that projects radially outward, wherein in the pretensioned position, the retaining element lies against the bulge in a second longitudinal axial direction that is opposite the first longitudinal axial direction , wherein the bulge is configured in the shape of a ramp, wherein a gradient angle of the ramp-shaped bulge is between 5° and 45°, wherein the retaining element is a resilient retaining ring , wherein the retaining element on the outer locking body is arranged at a longitudinal axial distance from the inner thread , and the bulge on the inner locking body is arranged at a longitudinal axial distance from the outer thread .
System for creating a model for use in detecting a peripheral arterial pressure decoupling in a subject, the system comprising: means for providing a first set of arterial pressure waveform data from a first group of subjects that were experiencing the peripheral arterial pressure decoupling; means for providing a second set of arterial pressure waveform data from a second group of subjects that were not experiencing the peripheral arterial pressure decoupling; and means for building a multivariate Boolean model based on the first and second sets of arterial pressure waveform data, the multivariate Boolean model utilizing a model output value that corresponds to a first established value for the arterial pressure waveforms of the first set of arterial pressure waveform data and a second established value for the arterial pressure waveform of the second set of arterial pressure waveform data, characterized in that the multivariate Boolean model is built so as to minimize a first mean square error between an output value calculated for each subject of the first group of subjects and the first established value, and to minimize a second mean square error between an output value calculated for each subject of the second group of subjects and the second established value. means for providing a first set of arterial pressure waveform data from a first group of subjects that were experiencing the peripheral arterial pressure decoupling; means for providing a second set of arterial pressure waveform data from a second group of subjects that were not experiencing the peripheral arterial pressure decoupling; and means for building a multivariate Boolean model based on the first and second sets of arterial pressure waveform data, the multivariate Boolean model utilizing a model output value that corresponds to a first established value for the arterial pressure waveforms of the first set of arterial pressure waveform data and a second established value for the arterial pressure waveform of the second set of arterial pressure waveform data, characterized in that the multivariate Boolean model is built so as to minimize a first mean square error between an output value calculated for each subject of the first group of subjects and the first established value, and to minimize a second mean square error between an output value calculated for each subject of the second group of subjects and the second established value.
A method, comprising: asynchronously generating at least one pulse of microwave electromagnetic energy; frequency-multiplying the at least one pulse to generate at least one frequency-multiplied pulse ; filtering at least one spurious harmonic of the at least one frequency-multiplied pulse to generate at least one filtered pulse, the at least one spurious harmonic generated by frequency-multiplying the at least one pulse ; exciting a sample using the at least one filtered pulse ; and detecting an emission from the sample , the emission elicited at least in part by the at least one filtered pulse. asynchronously generating at least one pulse of microwave electromagnetic energy; frequency-multiplying the at least one pulse to generate at least one frequency-multiplied pulse ; filtering at least one spurious harmonic of the at least one frequency-multiplied pulse to generate at least one filtered pulse, the at least one spurious harmonic generated by frequency-multiplying the at least one pulse ; exciting a sample using the at least one filtered pulse ; and detecting an emission from the sample , the emission elicited at least in part by the at least one filtered pulse.
An accelerator sled (1000; 1550; 1610) comprising: circuitry to determine, based on (i) a total power budget for the accelerator sled , (ii) service level agreement, SLA, data indicative of a target performance of a kernel (1660-1666), and (iii) profile data indicative of a performance of the kernel (1660-1666) as a function of a power utilization of the kernel (1660-1666), a power utilization limit for the kernel (1660-1666) to be executed by an accelerator device on the accelerator sled , wherein to determine the power utilization limit comprises to determine the power utilization limit further as a function of a pattern of power utilization of the kernel (1660-1666) on the accelerator sled and to determine a time period over which the power utilization of the kernel (1660-1666) is predicted to change; allocate the determined power utilization limit to the kernel (1660-1666) if the time period over which the power utilization of the kernel (1660-1666) is predicted to change has a length that exceeds a threshold length of time; and execute the kernel (1660-1666) under the allocated power utilization limit. circuitry to determine, based on (i) a total power budget for the accelerator sled , (ii) service level agreement, SLA, data indicative of a target performance of a kernel (1660-1666), and (iii) profile data indicative of a performance of the kernel (1660-1666) as a function of a power utilization of the kernel (1660-1666), a power utilization limit for the kernel (1660-1666) to be executed by an accelerator device on the accelerator sled , wherein to determine the power utilization limit comprises to determine the power utilization limit further as a function of a pattern of power utilization of the kernel (1660-1666) on the accelerator sled and to determine a time period over which the power utilization of the kernel (1660-1666) is predicted to change; allocate the determined power utilization limit to the kernel (1660-1666) if the time period over which the power utilization of the kernel (1660-1666) is predicted to change has a length that exceeds a threshold length of time; and execute the kernel (1660-1666) under the allocated power utilization limit.
Self-propelled construction machine, in particular a road milling machine, recycler or stabiliser, having a machine frame and a milling drum which is arranged in a milling drum housing having a sealing device which has at least one sealing element arranged in the working direction of the construction machine behind the milling drum for closing the milling drum housing , an adjustment device for adjusting the height position of the sealing element in relation to the milling drum and a control device for controlling the adjustment device of the at least one sealing element, characterised in that the sealing device has at least one scraper element , which is pivotably arranged on the at least one sealing element such that the at least one scraper element rests on the milled material in one operating mode of the construction machine, so that the scraper element is pulled over the milled material with the advancing construction machine and is pivoted in relation to the milling drum on the basis of the height of the milled material , wherein a measuring device for determining the pivot position of the at least one scraper element is provided, which generates a measurement signal that correlates with the pivot position and is received by the control device of the adjustment device of the at least one sealing element , and the control device of the adjustment device of the at least one sealing element is configured such that the adjustment device adjusts the height position of the at least one sealing element on the basis of the pivot position of the scraper element such that the pivot position of the scraper element is within a predetermined pivoting range. the sealing device has at least one scraper element , which is pivotably arranged on the at least one sealing element such that the at least one scraper element rests on the milled material in one operating mode of the construction machine, so that the scraper element is pulled over the milled material with the advancing construction machine and is pivoted in relation to the milling drum on the basis of the height of the milled material , wherein a measuring device for determining the pivot position of the at least one scraper element is provided, which generates a measurement signal that correlates with the pivot position and is received by the control device of the adjustment device of the at least one sealing element , and the control device of the adjustment device of the at least one sealing element is configured such that the adjustment device adjusts the height position of the at least one sealing element on the basis of the pivot position of the scraper element such that the pivot position of the scraper element is within a predetermined pivoting range.