mhurhangee/patent-ind-claim-en huggingface dataset:
A headrest comprising: a structural support surface ; and a torque hinge comprising a rotatable portion; a ball joint comprising a ball portion connected to a shaft , wherein the ball portion is positioned within the rotatable portion; and a plate assembly fitted over the shaft ; wherein the shaft is coupled to the structural support surface , and the plate assembly limits a rotational arc of the rotatable portion relative to the shaft , the rotatable portion comprising a lower hinge assembly comprising an articulating base and an upper hinge assembly comprising a shaft receptacle , the ball portion being positioned between the articulating base and the shaft receptacle , characterized in that the articulating base and the shaft receptacle are coupled to one another by a connector comprising a stop screw . a structural support surface ; and a torque hinge comprising a rotatable portion; a ball joint comprising a ball portion connected to a shaft , wherein the ball portion is positioned within the rotatable portion; and a plate assembly fitted over the shaft ; a rotatable portion; a ball joint comprising a ball portion connected to a shaft , wherein the ball portion is positioned within the rotatable portion; and a plate assembly fitted over the shaft ; wherein the shaft is coupled to the structural support surface , and the plate assembly limits a rotational arc of the rotatable portion relative to the shaft , the rotatable portion comprising a lower hinge assembly comprising an articulating base and an upper hinge assembly comprising a shaft receptacle , the ball portion being positioned between the articulating base and the shaft receptacle , characterized in that the articulating base and the shaft receptacle are coupled to one another by a connector comprising a stop screw .
A method for manufacturing a non-oriented electrical steel sheet, the method comprising: performing hot rolling on a slab after heating the slab to manufacture a hot rolled sheet; performing hot rolled sheet annealing on the hot rolled sheet; performing cold rolling on a steel sheet on which the hot rolled sheet annealing is completed to manufacture a cold rolled sheet; and performing cold rolled sheet annealing on the cold rolled sheet, wherein a difference between a cold rolled sheet annealing temperature in the cold rolled sheet annealing and a hot rolled sheet annealing temperature in the hot rolled sheet annealing is 100°C or lower wherein the slab consists of Si: 1.5% to 4.0%, Mn: 0.02% to 3.0%, C: 0.005% or lower (does not include 0%), N: 0.005% or lower (does not include 0%), Ti: 0.003% or lower (does not include 0%), Al: 0.0005% to 0.02%, Sn: 0.005% to 0.15%, P: 0.001% to 0.15%, Sb: 0.005% to 0.15% and S: 0.0008% to 0.015% in wt% and Fe and impurities as a balance amount, wherein a value of ([Sn]+[Sb]+[P]+20*[S])/[Al] is 40 or higher. (Here, [Al], [Sn], [Sb], [P], and [S] refer to weight percent (%) of Al, Sn, Sb, P, and S, respectively.) performing hot rolling on a slab after heating the slab to manufacture a hot rolled sheet; performing hot rolled sheet annealing on the hot rolled sheet; performing cold rolling on a steel sheet on which the hot rolled sheet annealing is completed to manufacture a cold rolled sheet; and performing cold rolled sheet annealing on the cold rolled sheet, wherein a difference between a cold rolled sheet annealing temperature in the cold rolled sheet annealing and a hot rolled sheet annealing temperature in the hot rolled sheet annealing is 100°C or lower wherein the slab consists of Si: 1.5% to 4.0%, Mn: 0.02% to 3.0%, C: 0.005% or lower (does not include 0%), N: 0.005% or lower (does not include 0%), Ti: 0.003% or lower (does not include 0%), Al: 0.0005% to 0.02%, Sn: 0.005% to 0.15%, P: 0.001% to 0.15%, Sb: 0.005% to 0.15% and S: 0.0008% to 0.015% in wt% and Fe and impurities as a balance amount, wherein a value of ([Sn]+[Sb]+[P]+20*[S])/[Al] is 40 or higher. (Here, [Al], [Sn], [Sb], [P], and [S] refer to weight percent (%) of Al, Sn, Sb, P, and S, respectively.)
A filter assembly which comprises a filter element for filtering a fluid, and a mount having at least one port , each of the filter element and the mount having interengaging connection formations by which the filter element and the mount can be detachably connected to one another, and the mount defining a flow path for fluid to flow between the port and the filter element when the filter element is connected to the mount, in which the mount includes a valve for controlling flow of fluid along the flow path, the valve including a valve member which can move between an open position in which fluid can flow along the flow path and a closed position in which the valve at least partially prevents flow of fluid along the flow path, in which one of the filter element and the mount has at least one lug and the other of the filter element and the mount has a ramp surface , the lug engaging the ramp surface when the filter element and the mount are brought together along an assembly axis and a cam action between the lug and the ramp surface causing axial movement of the valve member when the filter element is then rotated relative to the mount, the filter element and the mount having cooperating sealing surfaces, the sealing surface on the mount being provided on a sealing part of the mount which moves into sealing engagement with the sealing surface on the filter element when the valve member is made to move by the cam action between the lug and the ramp surface from its closed position towards its open position, said filter assembly being further characterized in that the filter element and the mount are arranged so that they are brought together by moving the filter element relative to the mount in a first direction (A) along the assembly axis, and the lug and the ramp surface are arranged so that the valve member moves from the closed position to the open position in a second direction (B) along the assembly axis, the second direction being opposite to the first direction.
Composite pane, comprising an outer pane and an inner pane , which are interconnected via a thermoplastic intermediate layer , wherein the composite pane has an opaque masking region (M) and a transparent see-through region (D), wherein the intermediate layer has a functional element which covers the entire see-through region (D), wherein at least one region of the side edge of the functional element does not extend as far as the side edge of the composite pane but is arranged within the masking region (M), and wherein the surface (I) of the outer pane facing away from the intermediate layer has a pattern of coated regions (b) in the masking region (M) which are provided with a partially transparent reflective coating , wherein the partially transparent reflective coating transmits a significant portion of the electromagnetic radiation incident thereon in the visible spectral range from 380 nm to 780 nm and reflects a likewise significant portion of said radiation, so that the integrated light transmission and the integrated light reflection are each at least 10%, measured as specified in the description. wherein the composite pane has an opaque masking region (M) and a transparent see-through region (D), wherein the intermediate layer has a functional element which covers the entire see-through region (D), wherein at least one region of the side edge of the functional element does not extend as far as the side edge of the composite pane but is arranged within the masking region (M), and wherein the surface (I) of the outer pane facing away from the intermediate layer has a pattern of coated regions (b) in the masking region (M) which are provided with a partially transparent reflective coating , wherein the partially transparent reflective coating transmits a significant portion of the electromagnetic radiation incident thereon in the visible spectral range from 380 nm to 780 nm and reflects a likewise significant portion of said radiation, so that the integrated light transmission and the integrated light reflection are each at least 10%, measured as specified in the description.
A method of dynamically calibrating a heater having a plurality of zones defined by one or more resistive heating elements , the method characterized in that the method comprises: controlling power to the heater having a plurality of zones based on a dynamic resistance-temperature (R-T) model to control a temperature of the heater to a temperature setpoint; for each of the plurality of zones, measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors , a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; providing the dynamic R-T model that correlates the calibrated resistance values of the plurality of zones with the temperature setpoint as a calibrated R-T model; and controlling the heater based on the calibrated R-T model. controlling power to the heater having a plurality of zones based on a dynamic resistance-temperature (R-T) model to control a temperature of the heater to a temperature setpoint; for each of the plurality of zones, measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors , a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; measuring the temperature of the respective zone based on the resistance of the one or more resistive heating elements of the respective zone and the dynamic R-T model; measuring, by one or more sensors , a reference temperature for the respective zone; and incrementally adjusting a resistance value associated with the temperature setpoint provided in the dynamic R-T model for the respective zone to a calibrated resistance value based on the difference between the reference temperature and the temperature of the respective zone; providing the dynamic R-T model that correlates the calibrated resistance values of the plurality of zones with the temperature setpoint as a calibrated R-T model; and controlling the heater based on the calibrated R-T model.
An egg identification system for determining viability of an avian egg, comprising: a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat , the emitter assembly comprising a collimator device configured to collimate the electromagnetic radiation emitted therefrom and an emitter housing with an emitter baffle arrangement configured to reject off-axis electromagnetic radiation emitted from the emitter assembly ; a non-contact detector assembly for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that an egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly comprises a detector housing with a detector baffle arrangement configured to reject undesired electromagnetic radiation from being received by the non-contact detector assembly for generating the output signal, and further comprises a detector lens system configured to collect the electromagnetic radiation transmitted through the egg; and a processor configured to process an output signal of the non-contact detector assembly to determine whether there exists at least one of a periodic and aperiodic variation in an intensity of the electromagnetic radiation transmitted through a respective egg corresponding to action of a heart or embryo movement, the existence of one of the periodic and aperiodic variations indicating that the egg is viable. a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat , the emitter assembly comprising a collimator device configured to collimate the electromagnetic radiation emitted therefrom and an emitter housing with an emitter baffle arrangement configured to reject off-axis electromagnetic radiation emitted from the emitter assembly ; a non-contact detector assembly for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that an egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly comprises a detector housing with a detector baffle arrangement configured to reject undesired electromagnetic radiation from being received by the non-contact detector assembly for generating the output signal, and further comprises a detector lens system configured to collect the electromagnetic radiation transmitted through the egg; and a processor configured to process an output signal of the non-contact detector assembly to determine whether there exists at least one of a periodic and aperiodic variation in an intensity of the electromagnetic radiation transmitted through a respective egg corresponding to action of a heart or embryo movement, the existence of one of the periodic and aperiodic variations indicating that the egg is viable.
A method performed by a first wireless device for device to device (D2D) communication with a second wireless device , the method comprising: determining a set of wireless communication resources to reserve for a transmission of data from the second wireless device to the first wireless device ; reserving the determined set of wireless communication resources; determining which of the first wireless device and the second wireless device , or both, that can unbook the reserved set of wireless communication resources; transmitting to the second wireless device a packet that 1) contains a message and 2) informs the second wireless device of the set of wireless communication resources determined for the transmission of data from the second wireless device to the first wireless device ; transmitting to the second wireless device , information on the determined unbooking capabilities of at least the second wireless device; and receiving , from the second wireless device , a reply message transmitted on any of the reserved set of wireless communication resources, or information that the second wireless device is not going to use the reserved set of wireless communication resources. determining a set of wireless communication resources to reserve for a transmission of data from the second wireless device to the first wireless device ; reserving the determined set of wireless communication resources; determining which of the first wireless device and the second wireless device , or both, that can unbook the reserved set of wireless communication resources; transmitting to the second wireless device a packet that 1) contains a message and 2) informs the second wireless device of the set of wireless communication resources determined for the transmission of data from the second wireless device to the first wireless device ; transmitting to the second wireless device , information on the determined unbooking capabilities of at least the second wireless device; and receiving , from the second wireless device , a reply message transmitted on any of the reserved set of wireless communication resources, or information that the second wireless device is not going to use the reserved set of wireless communication resources.
A pharmaceutical composition comprising a peptide conjugate having the following general formula: α-amino protecting moiety - PAR-1 peptide - protease-disabling moiety, wherein the PAR-1 peptide is selected from the group consisting of Asp-Pro- Arg and SEQ ID NOs:1-17, for use in the treatment of a malignant glioma in a subject in combination with temozolomide. α-amino protecting moiety - PAR-1 peptide - protease-disabling moiety, wherein the PAR-1 peptide is selected from the group consisting of Asp-Pro- Arg and SEQ ID NOs:1-17, for use in the treatment of a malignant glioma in a subject in combination with temozolomide.
A Coriolis flowmeter comprising: a conduit configured to convey a fluid through the flowmeter; a driver configured to oscillate the conduit; a first sensor configured to generate a first sensor signal indicative of movement of the conduit at a first location; a second sensor configured to generate a second sensor signal indicative of movement of the conduit at a second location, the first and second locations being arranged so a phase difference between the first and second signals when the conduit is oscillated by the driver is related to a mass flow rate of the fluid through the flowmeter; a digital signal processor configured to detect the phase difference and determine the mass flow rate of the fluid using the detected phase difference and output a signal indicative of the determined mass flow rate, wherein the digital signal processor comprises a plurality of detectors tuned to a set of different frequencies, the detectors being configured to analyze at least one of the sensor signals in parallel and generate an output indicative of how closely an actual frequency of said at least one of the sensor signals matches the frequency to which the respective detector is tuned. a conduit configured to convey a fluid through the flowmeter; a driver configured to oscillate the conduit; a first sensor configured to generate a first sensor signal indicative of movement of the conduit at a first location; a second sensor configured to generate a second sensor signal indicative of movement of the conduit at a second location, the first and second locations being arranged so a phase difference between the first and second signals when the conduit is oscillated by the driver is related to a mass flow rate of the fluid through the flowmeter; a digital signal processor configured to detect the phase difference and determine the mass flow rate of the fluid using the detected phase difference and output a signal indicative of the determined mass flow rate, wherein the digital signal processor comprises a plurality of detectors tuned to a set of different frequencies, the detectors being configured to analyze at least one of the sensor signals in parallel and generate an output indicative of how closely an actual frequency of said at least one of the sensor signals matches the frequency to which the respective detector is tuned.
A user terminal device comprising a first antenna arrangement , a second antenna arrangement , a first radio chain arrangement and a second radio chain arrangement , where the first antenna arrangement comprises at least a first antenna element (6, 7; 16), a first antenna port and a second antenna port , characterized in that the second antenna arrangement comprises a third antenna port , a fourth antenna port , a first polarized antenna element arranged for transmitting and/or receiving signals at a first polarization (P1) via the third antenna port and a second polarized antenna element arranged for transmitting and/or receiving signals at a second polarization (P2) via the fourth antenna port , where the polarizations (P1, P2) are mutually orthogonal in at least one direction, and where the user terminal device further comprises a first switching device and a second switching device , where the first switching device is arranged to connect the first radio chain arrangement with either the first antenna port or the third antenna port , and where the second switching device is arranged to connect the second radio chain arrangement with either the second antenna port or the fourth antenna port .
A method for setting options of a user device comprising: detecting interactions via a sensor module comprising an illuminance sensor during execution of a specific mode; identifying an option corresponding to a detected interaction; altering an option setting value of the identified option according to another detected interaction, and displaying the altered option setting value; and storing the option of the specific mode with the altered option setting value, characterized in that the option setting value of the specific mode is applied to a corresponding application only in the specific mode, wherein the option setting value of the specific mode is applied after a user's operation of blocking the illuminance sensor is released. detecting interactions via a sensor module comprising an illuminance sensor during execution of a specific mode; identifying an option corresponding to a detected interaction; altering an option setting value of the identified option according to another detected interaction, and displaying the altered option setting value; and storing the option of the specific mode with the altered option setting value, characterized in that the option setting value of the specific mode is applied to a corresponding application only in the specific mode, wherein the option setting value of the specific mode is applied after a user's operation of blocking the illuminance sensor is released.
A method for data driven scheduling of a plurality of computing cores of a processor , the method comprising: executing a plurality of threads on the plurality of computing cores, according to a default schedule; analyzing , by correlation circuitry, the plurality of threads, based on the execution, to determine correlation values for various possible subsets of the plurality of threads, the correlation values representing correlations between threads in each subset, wherein the correlations comprise an amount of memory re-use among the subsets of the plurality of threads; generating , by scheduling circuitry a data driven schedule based on the correlation values, wherein the subsets of the plurality of threads are scheduled for execution in parallel on the plurality of computing cores such that the correlation values are maximized across the execution of all of the plurality of threads; and executing the plurality of threads on the plurality of computing cores according to the data driven schedule. executing a plurality of threads on the plurality of computing cores, according to a default schedule; analyzing , by correlation circuitry, the plurality of threads, based on the execution, to determine correlation values for various possible subsets of the plurality of threads, the correlation values representing correlations between threads in each subset, wherein the correlations comprise an amount of memory re-use among the subsets of the plurality of threads; generating , by scheduling circuitry a data driven schedule based on the correlation values, wherein the subsets of the plurality of threads are scheduled for execution in parallel on the plurality of computing cores such that the correlation values are maximized across the execution of all of the plurality of threads; and executing the plurality of threads on the plurality of computing cores according to the data driven schedule.