mhurhangee/patent-ind-claim-en huggingface dataset:
A method to predict an onset of flow separation from a surface of an inner barrel (204; 304) of a nacelle of a gas turbine engine , the nacelle housing a fan , and the method comprising: determining a static pressure distribution about the inner barrel (204; 304) surface of the nacelle ; determining a mean static pressure value and a minimum static pressure value using the static pressure distribution; determining a separation indicator value using the mean static pressure value and the minimum static pressure value; and comparing the separation indicator value against a separation threshold value, wherein determining the static pressure distribution about the surface of the inner barrel (204; 304) includes receiving by a controller a discrete set of static pressure values taken from the surface of the inner barrel (204; 304), and wherein the discrete set of static pressure values is taken from a reference plane (208; 308) positioned circumferentially about the surface of the inner barrel (204; 304) and positioned upstream of the fan . determining a static pressure distribution about the inner barrel (204; 304) surface of the nacelle ; determining a mean static pressure value and a minimum static pressure value using the static pressure distribution; determining a separation indicator value using the mean static pressure value and the minimum static pressure value; and comparing the separation indicator value against a separation threshold value, wherein determining the static pressure distribution about the surface of the inner barrel (204; 304) includes receiving by a controller a discrete set of static pressure values taken from the surface of the inner barrel (204; 304), and wherein the discrete set of static pressure values is taken from a reference plane (208; 308) positioned circumferentially about the surface of the inner barrel (204; 304) and positioned upstream of the fan .
A hollow-core photonic crystal fiber gas cell structure, comprising a single-mode fiber having two ends , a fiber splicing protection sleeve , a hollow-core photonic crystal fiber for sealing the gas and having two ends , and a photoelectric detector having a detection surface , wherein one end of the single-mode fiber is fused with one end of the hollow-core photonic crystal fiber to form a fusion splice and the end of a sealed hollow-core photonic crystal fiber gas cell; the fiber splicing protection sleeve covers and protects the fusion splice ; wherein the other end of the hollow-core photonic crystal fiber gas cell is processed into an output end in by fusion sealing for sealing the gas in the hollow-core thus forming a non-planarity inside surface at the output end , characterized by an end surface of the output end forming a tilted surface by cutting or polishing the collapsed end of the hollow-core photonic crystal fiber and being fixed to the photoelectric detector such that the end surface faces, but is not parallel to, a detection surface of the photoelectric detector .
Means for generating and urging of a reaction coming from a surgical instrument detection means, said generating means comprising a means for interpreting said reaction , obtained in response to said urging , and an antenna by which the urging is emitted and the reaction received, said means for generating the urging being portable, such that it is movable in precise zones, characterised by the fact that said generating means is arranged to be fixed removably to a means for receiving said surgical instruments , said emission antenna having an opening through which the surgical instrument(s) are intended to pass during their deposition in the receiving means .
A computer-implemented method for electronic design automation, EDA, in a multi-tool design environment, and for interactive use by multiple design tools of a design of an integrated circuit, wherein said method comprises the steps of: - at a first EDA tool , receiving over an inter process communication channel a request generated from a second design session native to a second EDA tool to receive design data for said design from a first design session native to said first EDA tool supporting said design data , wherein said request is implemented in a data exchange format and wherein said data exchange format is different from a second format native to said second EDA tool ; - at said first design session , generating a response in said data exchange format to said request , wherein said response comprises said design data ; and - at said first design session of said first EDA tool , directly encoding said response comprising said design data in said data exchange format and immediately writing said response in a memory buffer ready for transmission over said inter process communication channel and transmitting said response to said second EDA tool over said inter process communication channel . - at a first EDA tool , receiving over an inter process communication channel a request generated from a second design session native to a second EDA tool to receive design data for said design from a first design session native to said first EDA tool supporting said design data , wherein said request is implemented in a data exchange format and wherein said data exchange format is different from a second format native to said second EDA tool ; - at said first design session , generating a response in said data exchange format to said request , wherein said response comprises said design data ; and - at said first design session of said first EDA tool , directly encoding said response comprising said design data in said data exchange format and immediately writing said response in a memory buffer ready for transmission over said inter process communication channel and transmitting said response to said second EDA tool over said inter process communication channel .
A method of determining power transmission line parameters using non-synchronous measurements acquired from different locations along a power transmission line, the method comprising acquiring first measurement data comprising corresponding pairs of voltage and current measurement values measured at a first location along the power transmission line at predetermined points in time relative to a first time reference, acquiring second measurement data comprising corresponding pairs of voltage and current measurement values measured at a second location along the power transmission line at predetermined points in time relative to a second time reference, calculating initial values of the power transmission line parameters and an initial value of the difference between the first time reference and the second time reference based on the first measurement data and the second measurement data, and calculating resulting values of the power transmission line parameters and a resulting value of the difference between the first time reference and the second time reference by utilizing a least squares algorithm and the initial values of the power transmission line parameters, the initial value of the difference between the first time reference and the second time reference, the first measurement data, and the second measurement data. acquiring first measurement data comprising corresponding pairs of voltage and current measurement values measured at a first location along the power transmission line at predetermined points in time relative to a first time reference, acquiring second measurement data comprising corresponding pairs of voltage and current measurement values measured at a second location along the power transmission line at predetermined points in time relative to a second time reference, calculating initial values of the power transmission line parameters and an initial value of the difference between the first time reference and the second time reference based on the first measurement data and the second measurement data, and calculating resulting values of the power transmission line parameters and a resulting value of the difference between the first time reference and the second time reference by utilizing a least squares algorithm and the initial values of the power transmission line parameters, the initial value of the difference between the first time reference and the second time reference, the first measurement data, and the second measurement data.
A wireless communication method, comprising: determining (S310), by a user equipment, an identifier offset of a hybrid automatic repeat request, HARQ, process; determining (S310), by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + ⌊ t / T ⌋ MOD m wherein HARQ PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling, SPS interval, m corresponds to a number of SPS HARQ processes, └┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = ( n_SFN ∗ M + n_Sub ) ∗ N_slot + n_slot wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame, n Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process, N_slot is a number of slots comprised in one radio subframe, and n slot is a slot serial number corresponding to the SPS radio resource used by the HARQ process; and performing (S320), by the user equipment, transmission of the HARQ process corresponding to the identifier of the HARQ process. determining (S310), by a user equipment, an identifier offset of a hybrid automatic repeat request, HARQ, process; determining (S310), by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + ⌊ t / T ⌋ MOD m wherein HARQ PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling, SPS interval, m corresponds to a number of SPS HARQ processes, └┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = ( n_SFN ∗ M + n_Sub ) ∗ N_slot + n_slot wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame, n Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process, N_slot is a number of slots comprised in one radio subframe, and n slot is a slot serial number corresponding to the SPS radio resource used by the HARQ process; and performing (S320), by the user equipment, transmission of the HARQ process corresponding to the identifier of the HARQ process.
A method comprising: identifying fixed sets of entities in an entity repository stored at a server , each identified fixed set of entities including a subset of entities stored in the entity repository , being computed independently of user requests, and being identified as relevant to a user of a mobile device based on context associated with the mobile device , ranking the sets in the identified fixed sets by relevancy; determining selected sets from the identified fixed sets using the rank and set usage parameters applicable to the user ; and updating a personalized entity repository stored in memory of the mobile device using the selected sets, the personalized entity repository including a plurality of fixed sets of entities from the entity repository stored at the server , wherein each fixed set has a respective identifier and includes information about the entities in the set. identifying fixed sets of entities in an entity repository stored at a server , each identified fixed set of entities including a subset of entities stored in the entity repository , being computed independently of user requests, and being identified as relevant to a user of a mobile device based on context associated with the mobile device , ranking the sets in the identified fixed sets by relevancy; determining selected sets from the identified fixed sets using the rank and set usage parameters applicable to the user ; and updating a personalized entity repository stored in memory of the mobile device using the selected sets, the personalized entity repository including a plurality of fixed sets of entities from the entity repository stored at the server , wherein each fixed set has a respective identifier and includes information about the entities in the set.
A device for determining a pattern height of a pattern produced with extreme ultraviolet, EUV, lithography in a resist film , the device comprising a processor configured to: obtain a scanning electron microscope, SEM, image of the pattern from an SEM ; determine a contrast value related to the pattern based on the obtained SEM image ; and determine the pattern height based on calibration data and the determined contrast value. obtain a scanning electron microscope, SEM, image of the pattern from an SEM ; determine a contrast value related to the pattern based on the obtained SEM image ; and determine the pattern height based on calibration data and the determined contrast value.
An awning assembly , comprising: an awning frame assembly comprising a mount portion , an extendable bar assembly , and at least one extendable arm having a first end coupled with the mount portion and a second end coupled with the extendable bar assembly ; an upper canopy having a first end coupled with a base roller of the mount portion and a second end coupled with a first roller of the extendable bar assembly , the upper canopy being retractable about the base roller ; a lower canopy having a first end coupled with a second roller of the extendable bar assembly and a second end extendable from the extendable bar assembly , the lower canopy being retractable about the second roller and extendable from the extendable bar assembly 212); the awning frame assembly having a stowed position in which the extendable bar assembly is adjacent the mount portion and an extended position in which the extendable bar assembly is extended by the extendable arm . characterized in that the first roller is rotationally coupled with the second roller by a transmission on the extendable bar assembly , and a rotation of the second roller is driven by a motion generator (290, 690, F 2) configured to deploy the lower canopy. an awning frame assembly comprising a mount portion , an extendable bar assembly , and at least one extendable arm having a first end coupled with the mount portion and a second end coupled with the extendable bar assembly ; an upper canopy having a first end coupled with a base roller of the mount portion and a second end coupled with a first roller of the extendable bar assembly , the upper canopy being retractable about the base roller ; a lower canopy having a first end coupled with a second roller of the extendable bar assembly and a second end extendable from the extendable bar assembly , the lower canopy being retractable about the second roller and extendable from the extendable bar assembly 212); the awning frame assembly having a stowed position in which the extendable bar assembly is adjacent the mount portion and an extended position in which the extendable bar assembly is extended by the extendable arm . characterized in that the first roller is rotationally coupled with the second roller by a transmission on the extendable bar assembly , and a rotation of the second roller is driven by a motion generator (290, 690, F 2) configured to deploy the lower canopy.
Thermoplastic, unsaturated semi-crystalline polyester (A) with a Mp of 35°C or above, measured via DSC according to the description, comprising allyl functional groups of formula 1 wherein X is selected from O, N, S and/or P, the value of n is 1 to 4, preferably 1 or 2, the value of p is 0 or 1, R is a substituted or unsubstituted aromatic, aliphatic or cycloaliphatic carbon chain with a number of carbon atoms from 0 to 10, preferably from 2 to 6, and m is at least 1, preferably between 1 and 3, said polyester (A) having a melt viscosity at 130°C below 5 Pas, preferably below 3, more preferably below 1,5 Pas, measured according to the description, the polyester (A) containing compounds supporting crystallinity selected from the group comprising saturated and unsaturated, unbranched aliphatic, cycloaliphatic and aromatic alcohols, polyols, carboxylic acids, di- and polycarboxylic acids, anhydrides and derivatives thereof and compounds exhibiting more than one of the listed functional groups, wherein the functional groups of cycloaliphatic and aromatic compounds are located opposite to each other, for example in case of six-membered rings in para/1,4-position, and in all cases the compounds supporting crystallinity contain no further substitution besides the above mentioned alcohol, anhydride or carboxylic groups or derivatives thereof, and wherein the mass fraction of compounds supporting crystallinity based on the mass of the polyester obtained from the synthesis is more than 70%, preferably more than 80%, more preferable more than 90% and most preferably more than 100%.
Hydraulic linear drive between two counter bearings of a baling press with at least three differential cylinders, which can be acted upon by a hydraulic pump and form a structural unit with their cylinder housings which are non-displaceably connected to each other, specifically two primary cylinders , connected in parallel and supported with their piston rods against a counter bearing , and a secondary cylinder , the piston rod of which is supported against another counter bearing , characterised in that the piston rod sides of the primary cylinders are in flow connection with the piston side of the secondary cylinder , that both primary cylinders can be acted upon on the piston side for the pressing stroke and the secondary cylinder can be acted upon on the piston side for the return stroke, and that, between the piston side and the piston rod side , the pistons of at least one primary cylinder and of the secondary cylinder comprise a flow connection with two oppositely directed, spring-loaded non-return valves , of which the piston rod-side non-return valve shuts off the flow outlet to the piston rod side and the piston-side non-return valve can be opened by an actuating stop on the cylinder base .
A method for detecting a ratio of T helper 2 (Th2) and T helper 1 (Th1) cells in a sample from a patient having or suspected of having atopic asthma, including mild, moderate, or severe asthma, comprising measuring levels of Th2-specific and Th1-specific cytokines, the method comprising: a) contacting the sample with i) two or more specific binding agents that bind two or more Th2 cytokines, wherein the two or more specific binding agents for the Th2-specific cytokines are labeled with a first fluorophore; and ii) at least one specific binding agent that binds a Th1 cytokine, wherein the specific binding agent for the Th1 cytokine is labeled with a second fluorophore that is different from the first fluorophore; b) measuring levels of the first and second fluorophores in the sample and designating the cell as a Th1 or Th2 cell based on the level of Th1-specific and Th2-specific fluorophore detected; and c) determining the ratio of Th2 to Th1 cells in the sample. a) contacting the sample with i) two or more specific binding agents that bind two or more Th2 cytokines, wherein the two or more specific binding agents for the Th2-specific cytokines are labeled with a first fluorophore; and ii) at least one specific binding agent that binds a Th1 cytokine, wherein the specific binding agent for the Th1 cytokine is labeled with a second fluorophore that is different from the first fluorophore; i) two or more specific binding agents that bind two or more Th2 cytokines, wherein the two or more specific binding agents for the Th2-specific cytokines are labeled with a first fluorophore; and ii) at least one specific binding agent that binds a Th1 cytokine, wherein the specific binding agent for the Th1 cytokine is labeled with a second fluorophore that is different from the first fluorophore; b) measuring levels of the first and second fluorophores in the sample and designating the cell as a Th1 or Th2 cell based on the level of Th1-specific and Th2-specific fluorophore detected; and c) determining the ratio of Th2 to Th1 cells in the sample.
An exhaust gas processing system for an engine in which a filter removing particulate in exhaust gas is provided in an exhaust passage , an exhaust gas temperature sensor detecting exhaust gas temperature is provided upstream the filter , a manual regeneration means commanding regeneration of the filter, and in a first step a target engine speed Nem is set to a first set value Ne1 when a regeneration command signal from the manual regeneration means is received, wherein when the exhaust gas temperature The does not reach the regeneration temperature Th1 of the filter until a predetermined time t2 passes after the engine speed converges to the target engine speed Nem which is the target engine speed for a predetermined time, in a second step the target engine speed Nem is set to a value increased by a predetermined engine speed ΔNe from the first set value Ne1, and after this, a) when the exhaust gas temperature The does not reach the regeneration temperature Th1 of the filter until the predetermined time t2 passes after the engine speed converges to the target engine speed Nem, b) the target engine speed Nem is set to a value increased by the predetermined engine speed ΔNe from the actual target engine speed Nem, and c) steps a) and b) are repeated, until the exhaust gas temperature The reaches the regeneration temperature Th1, d) actual target engine speed Nem is maintained when the exhaust gas temperature The reaches the regeneration temperature Th1. a) when the exhaust gas temperature The does not reach the regeneration temperature Th1 of the filter until the predetermined time t2 passes after the engine speed converges to the target engine speed Nem, b) the target engine speed Nem is set to a value increased by the predetermined engine speed ΔNe from the actual target engine speed Nem, and c) steps a) and b) are repeated, until the exhaust gas temperature The reaches the regeneration temperature Th1, d) actual target engine speed Nem is maintained when the exhaust gas temperature The reaches the regeneration temperature Th1.
An apparatus for blow-molding plastic containers, which comprises at least one blow-molding station that defines at least one molding cavity for forming plastic containers, said blow-molding station comprising two lateral bodies and, for each forming cavity defined by said blow-molding station, a bottom , whereby said bottom comprises an external body of the bottom that defines an annular portion that extends around the axis of extension of the respective forming cavity, and an internal body that can be accommodated at least partially inside said annular portion, between the external lateral surface of said internal body and the internal surface of said annular portion there being at least one air evacuation opening that extends around said axis of extension and is connected to first air evacuation means, characterized in that said internal body is adjustably movable on command with respect to said annular portion along said axis of extension .