mhurhangee/patent-ind-claim-en huggingface dataset:
Device for continuously producing crystalline silicon carbide, comprising: a reactor ; and a collecting container spatially separated at least partially from the reactor , wherein the reactor has a supply means for supplying a precursor mixture, a substrate for depositing crystalline silicon carbide is provided, a reaction chamber of the reactor can be temperature controlled to a first temperature T 1 and the substrate can be temperature controlled to a second temperature T 2 which is different from the first temperature T 1 , wherein the reactor can be heated to a temperature in a range of ≥ 1400°C to ≤ 2000°C and wherein the temperature of the substrate can be decreased by a temperature in a range of ≥ 50°C to ≤ 100°C relative to the temperature set principally in the reactor in the aforementioned range of ≥ 1400°C to ≤ 2000°C, wherein the substrate for depositing crystalline silicon carbide can be arranged in a deposition position in or adjacent to the reaction chamber and is movable at least partially from the deposition position to the collecting container , and wherein a wiper is arranged such that after or during an at least partial movement of the substrate to the collecting container crystalline silicon carbide deposited on the substrate can be separated by the wiper from the substrate and the separated crystalline silicon carbide can be transferred into the collecting container . a reactor ; and a collecting container spatially separated at least partially from the reactor , wherein the reactor has a supply means for supplying a precursor mixture, a substrate for depositing crystalline silicon carbide is provided, a reaction chamber of the reactor can be temperature controlled to a first temperature T 1 and the substrate can be temperature controlled to a second temperature T 2 which is different from the first temperature T 1 , wherein the reactor can be heated to a temperature in a range of ≥ 1400°C to ≤ 2000°C and wherein the temperature of the substrate can be decreased by a temperature in a range of ≥ 50°C to ≤ 100°C relative to the temperature set principally in the reactor in the aforementioned range of ≥ 1400°C to ≤ 2000°C, wherein the substrate for depositing crystalline silicon carbide can be arranged in a deposition position in or adjacent to the reaction chamber and is movable at least partially from the deposition position to the collecting container , and wherein a wiper is arranged such that after or during an at least partial movement of the substrate to the collecting container crystalline silicon carbide deposited on the substrate can be separated by the wiper from the substrate and the separated crystalline silicon carbide can be transferred into the collecting container .
An apparatus configured to: monitor a runtime power consumption of two or more of a plurality of hardware components in a platform to obtain a plurality of runtime power determinations, wherein to obtain one or more of the plurality of runtime power determinations the apparatus is configured to measure power drawn from a voltage rail of the platform, conduct an analog to digital conversion of the measured power drawn, accumulate the measured power drawn for a time period, write the measured power drawn to a result register entry corresponding to the voltage rail, expose one or more of the plurality of runtime power determinations to an operating system associated with the platform, wherein the apparatus is further configured to expose a table to the operating system, wherein the table comprises information to identify a voltage rail for two or more of the plurality of hardware components, and control the voltage rail based on a throttle value of a control register. monitor a runtime power consumption of two or more of a plurality of hardware components in a platform to obtain a plurality of runtime power determinations, wherein to obtain one or more of the plurality of runtime power determinations the apparatus is configured to measure power drawn from a voltage rail of the platform, conduct an analog to digital conversion of the measured power drawn, accumulate the measured power drawn for a time period, write the measured power drawn to a result register entry corresponding to the voltage rail, expose one or more of the plurality of runtime power determinations to an operating system associated with the platform, wherein the apparatus is further configured to expose a table to the operating system, wherein the table comprises information to identify a voltage rail for two or more of the plurality of hardware components, and control the voltage rail based on a throttle value of a control register.
A prognostic method for identifying if a woman subject undergoing a change in hormone levels is at risk of developing a blood clotting disease, the method comprising the steps of: a) Determining in a sample from said woman subject the genotype of single nucleotide polymorphism of rs1799853 (SEQ ID NO:1), rs4379368 (SEQ ID NO:2), rs6025 (SEQ ID NO:3), rs1799963 (SEQ ID NO:4), rs8176719 (SEQ ID NO:5), rs8176750 (SEQ ID NO:6), rs9574 (SEQ ID NO:7), rs2289252 (SEQ ID NO:8), and rs710446 (SEQ ID NO:9); b) Determining the clinical risk factors of said woman subject, said clinical risk factors are selected from the group comprising the smoking status, the BMI, the age, the familial history of blood clotting diseases and the change in hormone levels; c) Combining the genotyping data of step a) and the clinical risk factors of step b) on a decision support algorithm that gives a risk score; and d) Analysing the risk score in order to determine the risk of said woman subject to develop a blood clotting disease. a) Determining in a sample from said woman subject the genotype of single nucleotide polymorphism of rs1799853 (SEQ ID NO:1), rs4379368 (SEQ ID NO:2), rs6025 (SEQ ID NO:3), rs1799963 (SEQ ID NO:4), rs8176719 (SEQ ID NO:5), rs8176750 (SEQ ID NO:6), rs9574 (SEQ ID NO:7), rs2289252 (SEQ ID NO:8), and rs710446 (SEQ ID NO:9); b) Determining the clinical risk factors of said woman subject, said clinical risk factors are selected from the group comprising the smoking status, the BMI, the age, the familial history of blood clotting diseases and the change in hormone levels; c) Combining the genotyping data of step a) and the clinical risk factors of step b) on a decision support algorithm that gives a risk score; and d) Analysing the risk score in order to determine the risk of said woman subject to develop a blood clotting disease.
A process for the manufacturing of a long metallic product in a continuous casting plant, wherein said product follows a trajectory comprising a curvilinear section and a straight section, said process comprises at least a first and a second deformation phase, each of said phases comprising a contemporaneous deformation of the perimeter and of the transversal section of said product , the first deformation phase being effected in said curvilinear section and the second deformation phase being effected in said straight section, the first and the second deformation phases being effected in an area defined as a metallurgical line (LM) where liquid metal is still present in the product , and at a location where each reduction provokes an increase of the speed of the product, characterized in that said deformation phases create a deformation of the section of said product in two directions perpendicular to each other in an alternating horizontal and vertical direction, by positioning pairs of rolls with vertical axis and adding at least two pairs of rolls with an horizontal axis.
Person-counting device - for a lift having a lift car having an entrance, - for determining that a person has entered or exited a lift car, - having a presence sensor, - able to be installed at the entrance of the lift car, - for detecting the presence of a person in the region of the entrance or the passage of a person through the entrance and - for outputting a detection signal in the event of presence or passage, - having an accelerometer, - able to be installed on the lift car, - for detecting the vertical acceleration of the lift car and - for outputting positive and negative acceleration values in relation to the upwards direction of movement of the lift car, and - having an evaluation device, - characterized in that the evaluation unit is designed, - upon reception of the detection signal, to receive a sequence of current acceleration values for a specific duration and - to analyse whether one of the acceleration values or the movement profile resulting therefrom exceeds an upper threshold value or falls below a lower threshold value and - to output or to process a signal indicating that a person has entered the lift car when the lower threshold value has been fallen below and - to output or to process a signal indicating that a person has exited the lift car when the upper threshold value has been exceeded. - for a lift having a lift car having an entrance, - for determining that a person has entered or exited a lift car, - having a presence sensor, - able to be installed at the entrance of the lift car, - for detecting the presence of a person in the region of the entrance or the passage of a person through the entrance and - for outputting a detection signal in the event of presence or passage, - having an accelerometer, - able to be installed on the lift car, - for detecting the vertical acceleration of the lift car and - for outputting positive and negative acceleration values in relation to the upwards direction of movement of the lift car, and - having an evaluation device, - characterized in that the evaluation unit is designed, - upon reception of the detection signal, to receive a sequence of current acceleration values for a specific duration and - to analyse whether one of the acceleration values or the movement profile resulting therefrom exceeds an upper threshold value or falls below a lower threshold value and - to output or to process a signal indicating that a person has entered the lift car when the lower threshold value has been fallen below and - to output or to process a signal indicating that a person has exited the lift car when the upper threshold value has been exceeded.
An integrated circuit for executing instructions comprising: a first cluster including a first set of physical registers and a first execution resource circuit configured to perform operations that take contents of one or more registers of the first set of physical registers as input, wherein the inputs for operations of the first execution resource circuit are of a first data type; a second cluster including a second set of physical registers and a second execution resource circuit configured to perform operations that take contents of one or more registers of the second set of physical registers as input, wherein the inputs for operations of the second execution resource circuit are of a second data type that is different than the first data type; and a register renaming circuit comprising a data type predictor circuit configured to predict a data type prediction for a result of a first instruction that will be stored in a first logical register, the register renaming circuit configured to: based on the data type prediction matching the first data type, rename the first logical register to be stored in a physical register of the first set of physical registers. a first cluster including a first set of physical registers and a first execution resource circuit configured to perform operations that take contents of one or more registers of the first set of physical registers as input, wherein the inputs for operations of the first execution resource circuit are of a first data type; a second cluster including a second set of physical registers and a second execution resource circuit configured to perform operations that take contents of one or more registers of the second set of physical registers as input, wherein the inputs for operations of the second execution resource circuit are of a second data type that is different than the first data type; and a register renaming circuit comprising a data type predictor circuit configured to predict a data type prediction for a result of a first instruction that will be stored in a first logical register, the register renaming circuit configured to: based on the data type prediction matching the first data type, rename the first logical register to be stored in a physical register of the first set of physical registers.
A method implemented by a client device, the method comprising: sending a heartbeat request to a server device in a lease period, and receiving a heartbeat request response from the server device; and determining, by the client device, a retry sending adaptive interval in response to the heartbeat request response being abnormal, wherein determining the retry sending interval comprises determining the retry sending interval based at least in part on an anomaly determining time point of the heartbeat request response and a lease expiration time point using a reverse exponential backoffalgorithm, and sending a retry heartbeat request to the server device again after the retry sending interval is past, until the lease period expires or a corresponding heartbeat request response is normal. sending a heartbeat request to a server device in a lease period, and receiving a heartbeat request response from the server device; and determining, by the client device, a retry sending adaptive interval in response to the heartbeat request response being abnormal, wherein determining the retry sending interval comprises determining the retry sending interval based at least in part on an anomaly determining time point of the heartbeat request response and a lease expiration time point using a reverse exponential backoffalgorithm, and sending a retry heartbeat request to the server device again after the retry sending interval is past, until the lease period expires or a corresponding heartbeat request response is normal.
Method for treating a metal strip in a directly fired furnace through which the metal strip is guided, where the furnace is fired directly by gas burners and has a non-fired zone ahead of the directly fired zone , when viewed in strip running direction, through which the exhaust gases from the fired zone flow and pre-heat the metal strip , characterized in that the exhaust gases undergo post-combustion in an afterburner chamber after the non-fired zone , where methane is injected or blown into the exhaust gas in the non-fired zone , which causes nitrogen oxides contained in the exhaust gas to be converted into hydrogen cyanide.
A method for producing multilayer molded bodies, in particularly interior fittings for vehicles, wherein the method comprises the following steps: - producing a self-supporting barrier layer which is impenetrable to the foamed plastic ; - applying and fixing at least part of the reverse side of a cover material to the self-supporting barrier layer such that a pre-laminate is formed between the barrier layer and the cover material (14-1, 14-2); - introducing the pre-laminate of barrier layer and covering material (14-1, 14-2) into a foaming mold such that the barrier layer is arranged between the cover material (14-1, 14-2) and a foam chamber of the foaming mold; and - introducing foamed plastic into the foam chamber of the foaming mold , wherein the barrier layer is produced in a shape which at least substantially corresponds to the outer contour of the molded body to be produced. - producing a self-supporting barrier layer which is impenetrable to the foamed plastic ; - applying and fixing at least part of the reverse side of a cover material to the self-supporting barrier layer such that a pre-laminate is formed between the barrier layer and the cover material (14-1, 14-2); - introducing the pre-laminate of barrier layer and covering material (14-1, 14-2) into a foaming mold such that the barrier layer is arranged between the cover material (14-1, 14-2) and a foam chamber of the foaming mold; and - introducing foamed plastic into the foam chamber of the foaming mold ,
A pipe for the transport of a loose-fill insulation product for a blowing machine for blowing the insulating product, the pipe extending along a longitudinal (L) main elongation direction (P) and comprising at least one cylindrical wall which delimits a space configured for the circulation at least of the loose-fill insulation product, the cylindrical wall comprising at least a first end portion and a second end portion that are opposite ends from one another along the longitudinal direction (L), the pipe being characterized in that the cylindrical wall comprises a plurality of sections between its first end portion and its second end portion , at least two of the sections each comprising at least one evacuation orifice so as to form at least two perforated sections , the pipe comprising at least two obturating means that are movable in translation along the longitudinal direction (L) around the cylindrical wall , each of the obturating means being able to cover specifically one of the perforated sections .
Glued arrangement , preferably for a motor vehicle, comprising a first component , a second component , as well as at least one adhesive layer for connecting the two components , • wherein the central layer comprises a central zone and an edge zone surrounding the central zone , • wherein in the hardened state the adhesive in the edge zone has a greater elasticity than the adhesive in the central zone , and • wherein both components are in contact both with the central zone and with the edge zone , characterized by a quotient (Q=F/G) of the area (F) of the edge zone and the total area (G) of the adhesive layer , • wherein the lower limit of the quotient (Q) is at least 0.01, preferably at least 0.05, • wherein the upper limit of the quotient (Q) is at most 0.4, especially preferably at most 0.3, and • wherein the E modulus of the central zone is at least 120%, preferably at least 150%, especially preferably at least 200%, of the E modulus of the edge zone . • wherein the central layer comprises a central zone and an edge zone surrounding the central zone , • wherein in the hardened state the adhesive in the edge zone has a greater elasticity than the adhesive in the central zone , and • wherein both components are in contact both with the central zone and with the edge zone , characterized by a quotient (Q=F/G) of the area (F) of the edge zone and the total area (G) of the adhesive layer , • wherein the lower limit of the quotient (Q) is at least 0.01, preferably at least 0.05, • wherein the upper limit of the quotient (Q) is at most 0.4, especially preferably at most 0.3, and • wherein the E modulus of the central zone is at least 120%, preferably at least 150%, especially preferably at least 200%, of the E modulus of the edge zone .
A method , comprising: at an electronic device having one or more processors, a touch screen and a display: displaying a user input interface on the display including a text area and a stroke input area, wherein the text area does not overlap the stroke input area; receiving a first continuous stroke on the touch screen in the stroke input area; determining a first character based on the first stroke; displaying the first character in the text area; receiving a second continuous stroke on the touch screen in the stroke input area after receiving the first stroke and displaying the first character, wherein the second stroke is received after a period of time since receiving the first stroke; in accordance with a determination that the period of time since receiving the first stroke is below a threshold value: determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and in accordance with a determination that the period of time since receiving the first stroke exceeds the threshold value: determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area. displaying a user input interface on the display including a text area and a stroke input area, wherein the text area does not overlap the stroke input area; receiving a first continuous stroke on the touch screen in the stroke input area; determining a first character based on the first stroke; displaying the first character in the text area; receiving a second continuous stroke on the touch screen in the stroke input area after receiving the first stroke and displaying the first character, wherein the second stroke is received after a period of time since receiving the first stroke; in accordance with a determination that the period of time since receiving the first stroke is below a threshold value: determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and in accordance with a determination that the period of time since receiving the first stroke exceeds the threshold value: determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area. determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area.
In vitro use of a preparation of particles for the transduction of immune cells, wherein the preparation comprises stable concentrated lentiviral particles pseudotyped with an endogenous retroviral syncytin (ERV syncytin) and packaging a heterologous gene of interest, comprising a titer of physical particles higher than 1 x 10 5 ng p24/mL and/or infectious particles higher than 2 x 10 4 TU/ml.