mhurhangee/patent-ind-claim-en huggingface dataset:
A differential pressure monitoring system to mitigate false trips of a dry pipe valve supplying water to a fire suppression system , the system comprising: a differential pressure monitoring device comprising: a water pressure sensor that detects a water pressure at an inlet of the dry pipe valve ; a valve air pressure sensor that detects an air pressure at an outlet of the dry pipe valve ; and a control circuit comprising one or more processors and a memory storing instructions that when executed by the one or more processors, cause the one or more processors to: determine a minimum required air pressure value based on the water pressure and a design valve trip ratio of the dry pipe valve to maintain the dry pipe valve in a closed position; predict that a valve tripping event of the dry pipe valve is expected to occur based on the air pressure being less than the minimum required air pressure value; and in response to predicting that the valve tripping event is expected to occur, provide a prediction that the valve tripping event is expected to occur for remedial action; and at least one client device that receives the prediction from the control circuit and presents display data regarding the prediction. a water pressure sensor that detects a water pressure at an inlet of the dry pipe valve ; a valve air pressure sensor that detects an air pressure at an outlet of the dry pipe valve ; and a control circuit comprising one or more processors and a memory storing instructions that when executed by the one or more processors, cause the one or more processors to: determine a minimum required air pressure value based on the water pressure and a design valve trip ratio of the dry pipe valve to maintain the dry pipe valve in a closed position; predict that a valve tripping event of the dry pipe valve is expected to occur based on the air pressure being less than the minimum required air pressure value; and in response to predicting that the valve tripping event is expected to occur, provide a prediction that the valve tripping event is expected to occur for remedial action; and determine a minimum required air pressure value based on the water pressure and a design valve trip ratio of the dry pipe valve to maintain the dry pipe valve in a closed position; predict that a valve tripping event of the dry pipe valve is expected to occur based on the air pressure being less than the minimum required air pressure value; and in response to predicting that the valve tripping event is expected to occur, provide a prediction that the valve tripping event is expected to occur for remedial action; and at least one client device that receives the prediction from the control circuit and presents display data regarding the prediction.
Method for assembling at least two parts made of composite material by welding, the assembly comprising a first part comprising at least one first contact surface (20.1), a second part comprising at least one second contact surface (22.1) and at least one interface where the first and second contact surfaces (20.1, 22.1) are linked, each part made of composite material comprising several plies of superposed fibres embedded in a matrix, the method comprising a step of generation of an induced electrical current and a step of positioning of at least one conductive fibre joining ply inserted between the first contact surface (20.1) of the first part and the second contact surface (22.1) of the second part and/or positioned on at least one contact surface out of the first and second contact surfaces (20.1, 22.1), each joining ply having unidirectional fibres, oriented in a different direction from the directions of the fibres of at least the fibre plies of the first and second parts close to the first and second contact surfaces (20.1, 22.1), characterized in that the induced electrical current is generated in a direction approximately parallel to the direction of the fibres of each joining ply .
A sheath for a structural cable of a construction work, the structural cable having a path between an upper anchorage and a lower anchorage , the sheath comprising: sheath segments assembled along the path of the structural cable; at least one supporting rope extending along the sheath segments and having an upper end connected to the construction work adjacent to the upper anchorage; and connectors for connecting the sheath segments to the at least one supporting rope, characterized in that the connectors are configured to block relative upward movement of the at least one supporting rope with respect to the sheath segments and to allow relative downward movement of the at least one supporting rope with respect to the sheath segments. sheath segments assembled along the path of the structural cable; at least one supporting rope extending along the sheath segments and having an upper end connected to the construction work adjacent to the upper anchorage; and connectors for connecting the sheath segments to the at least one supporting rope, characterized in that the connectors are configured to block relative upward movement of the at least one supporting rope with respect to the sheath segments and to allow relative downward movement of the at least one supporting rope with respect to the sheath segments.
A method of wellbore operations comprising: a. directing gamma radiation from a source to a formation surrounding the wellbore ; b. detecting radiation scattered from the formation; c. estimating a rate and energy of the detected radiation; and d. identifying a fracture in the formation based on the rate and energy of the detected radiation; wherein the step of detecting radiation is performed using a detector axially offset from the source. a. directing gamma radiation from a source to a formation surrounding the wellbore ; b. detecting radiation scattered from the formation; c. estimating a rate and energy of the detected radiation; and d. identifying a fracture in the formation based on the rate and energy of the detected radiation; wherein the step of detecting radiation is performed using a detector axially offset from the source.
Method for producing a polyisocyanurate (PIR) insulation panel on a production line, wherein the produced insulation panel comprises a polyisocyanurate foam between two foils , wherein the method comprises the step in which a liquid polyisocyanurate foam formulation is deposited on a foil ; and at the position where the liquid foam formulation is deposited on the foil, the foil is supported by a heated table , wherein, in the method, the liquid polyisocyanurate foam formulation reacts to form a polyisocyanurate foam which is bonded to the foil , characterized in that at the position where the liquid polyisocyanurate foam formulation is deposited on the foil , the foil is moistened in an uninterrupted manner by the liquid polyisocyanurate foam formulation in the direction at right angles to the direction of production. wherein the method comprises the step in which a liquid polyisocyanurate foam formulation is deposited on a foil ; and at the position where the liquid foam formulation is deposited on the foil, the foil is supported by a heated table , wherein, in the method, the liquid polyisocyanurate foam formulation reacts to form a polyisocyanurate foam which is bonded to the foil , characterized in that at the position where the liquid polyisocyanurate foam formulation is deposited on the foil , the foil is moistened in an uninterrupted manner by the liquid polyisocyanurate foam formulation in the direction at right angles to the direction of production.
A method for processing a manufacturer usage description, MUD, file performed by a MUD control management device, wherein the method comprises: • receiving (S 301) a MUD uniform resource locator, URL, request message from a terminal device; • obtaining (S 302) at least one MUD file from a plurality of MUD file servers based on a target obtaining policy corresponding to the terminal device, and • processing the at least one MUD file to obtain a target MUD file, wherein the target MUD file is for constraining network behavior of the terminal device, ∘ characterized in that the at least one MUD file comprises a first MUD file and a second MUD file, the first MUD file comprises a first device description entry of the terminal device, the second MUD file comprises a second device description entry of the terminal device, the first device description entry is different from the second device description entry, and the target MUD file comprises the first device description entry and the second device description entry. • receiving (S 301) a MUD uniform resource locator, URL, request message from a terminal device; • obtaining (S 302) at least one MUD file from a plurality of MUD file servers based on a target obtaining policy corresponding to the terminal device, and • processing the at least one MUD file to obtain a target MUD file, wherein the target MUD file is for constraining network behavior of the terminal device, ∘ characterized in that the at least one MUD file comprises a first MUD file and a second MUD file, the first MUD file comprises a first device description entry of the terminal device, the second MUD file comprises a second device description entry of the terminal device, the first device description entry is different from the second device description entry, and the target MUD file comprises the first device description entry and the second device description entry. ∘ characterized in that
An appliance for the production of dairy products comprising a hollow body and a closing cover delimiting with said hollow body a housing compartment , a containment tank arranged with an axis extending vertically (L) in said compartment , electric heating means positioned inside said compartment , at least one first temperature sensor positioned inside said compartment , an electronic control board of said electric heating means , one first and at least one second stackable container for processing dairy products and having drainage openings in said containers which differ in shape and size, the appliance further having first forced positioning means of said containers in said tank at a first axial position combined with at least a first angular position around said vertical axis (L) and second forced positioning means of said containers in said tank at a second axial position combined with at least a second angular position around said vertical axis (L), wherein said second axial position is different from said first axial position and said first angular position is different from said second angular position.
Microcontroller system comprising a primary core (CPU1) and a secondary core (CPU2, CPU3) and a communication bus (AXBS) for transmitting data and a data memory (RAM, FLASH, SMPUreg) for storing data, wherein the data memory (RAM, FLASH, SMPUreg) has a memory area for which the secondary core (CPU2, CPU3) has at least no write rights, wherein the microcontroller system comprises a memory access module (CSSB) and a configuration memory area (CSSBreg), wherein there is provision in the configuration memory area (CSSBreg) for a configuration for authorizing writing of data provided by the secondary core (CPU2, CPU3) to the memory area of the data memory (RAM, FLASH, SMPUreg), wherein the data are written to the memory area of the data memory (RAM, FLASH, SMPUreg) by the memory access module (CSSB), characterized in that the primary core (CPU1) has unlimited access rights and the secondary core (CPU2, CPU3) has limited write access rights to the configuration memory area (CSSBreg), and the configuration memory area (CSSBreg) comprises at least one configuration segment for configuring the authorization of the secondary core (CPU2, CPU3), the configuration segment comprises a data field, a memory requirement field, an address field, an identifier field and a mask field, wherein the secondary core (CPU2, CPU3) has write access rights for the data field (DATA) and/or the memory requirement field (SIZE) of the configuration segment and no write access rights for the address field (ADDR) and/or the identifier field (ID) and/or the mask field (MASK) of the configuration segment .
A compound of formula (I) wherein W 1 is CH, W 2 is N, W 3 is CH, W 4 is CH; or wherein W 1 is N, W 2 is CH, W 3 is CH, W 4 is CH; R 1 is phenyl or pyridyl, which can be substituted by at least one substituent selected from the group of Hal, A, OY, CN, COY, COOY, CONYY, NYCOY, NYCONYY, SO 2 Y, SO 2 NYY, NYSO 2 Y, NYY, NO 2 , OCN, SCN, SH ; R 2 is Y, R 3 is H, , or R 2 and R 3 together with the atoms to which each is attached, form -(CH 2 ) n -NY-(CH 2 ) P ; Y is H or A; A is unbranched or branched alkyl having 1-10 C atoms, in which 1-7 H atoms can be replaced independently from one another by Hal; Hal is F, Cl, Br or I; m is 0 or 1; each n or p is independently 0, 1, 2 or 3; and q is 2, 3, 4, 5 or 6; and/or a physiologically acceptable salt thereof. W 1 is CH, W 2 is N, W 3 is CH, W 4 is CH; W 1 is N, W 2 is CH, W 3 is CH, W 4 is CH; R 1 is phenyl or pyridyl, which can be substituted by at least one substituent selected from the group of Hal, A, OY, CN, COY, COOY, CONYY, NYCOY, NYCONYY, SO 2 Y, SO 2 NYY, NYSO 2 Y, NYY, NO 2 , OCN, SCN, SH ; R 2 is Y, R 3 is H, R 2 and R 3 together with the atoms to which each is attached, form -(CH 2 ) n -NY-(CH 2 ) P ; Y is H or A; A is unbranched or branched alkyl having 1-10 C atoms, in which 1-7 H atoms can be replaced independently from one another by Hal; Hal is F, Cl, Br or I; m is 0 or 1; each n or p is independently 0, 1, 2 or 3; and q is 2, 3, 4, 5 or 6;
A polymer composition comprising: - an amorphous polyester copolymer - a semi-crystalline polyamide; and - 1 wt.% to 5 wt.%, preferably 2 wt.% to 4 wt.%, of an epoxy functionalized impact modifier; wherein wt.% is relative to the total weight of the polymer composition. - an amorphous polyester copolymer - a semi-crystalline polyamide; and - 1 wt.% to 5 wt.%, preferably 2 wt.% to 4 wt.%, of an epoxy functionalized impact modifier;
A control method for a user equipment , the control method comprising: receiving (S201) scheduling request configuration information related to a sidelink; selecting (S202) a scheduling request configuration for a scheduling request related to the sidelink according to at least one of a plurality of principles based on the received scheduling request configuration information; and performing (S203) the scheduling request related to the sidelink based on the selected scheduling request configuration, wherein the scheduling request configuration information is received from at least a network side or a base station side and comprises a scheduling request configuration identity, ID, or a specific scheduling request configuration, and the plurality of principles comprise: the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority. receiving (S201) scheduling request configuration information related to a sidelink; selecting (S202) a scheduling request configuration for a scheduling request related to the sidelink according to at least one of a plurality of principles based on the received scheduling request configuration information; and performing (S203) the scheduling request related to the sidelink based on the selected scheduling request configuration, wherein the scheduling request configuration information is received from at least a network side or a base station side and comprises a scheduling request configuration identity, ID, or a specific scheduling request configuration, and the plurality of principles comprise: the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority. the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority.
A method for controlling a wind turbine that comprises a series of blades, said method comprising the following steps: - determining, by means of a series of sensors, at least one parameter representative of the wind turbine operating status; - calculating a first signal sensitive to unbalanced variations in the aerodynamic profile between the blades based on the at least one parameter representative of the wind turbine operating status, the first signal being a result of a calculation of a harmonic 1p at the rotation frequency of a rotor of the wind turbine based on the at least one parameter representative of the wind turbine operating status; - comparing said first signal to a first threshold value; - determining the existence of an unbalanced variation in the aerodynamic profile between the blades if the first signal exceeds the first threshold value; - modifying at least one torque control loop if the existence of an unbalanced variation in the aerodynamic profile of the blades is determined in the former step; and - comparing the first signal to a second threshold value, where said second threshold value is a value as of which the wind turbine is disconnected, said second threshold value being greater than the first threshold value. - determining, by means of a series of sensors, at least one parameter representative of the wind turbine operating status; - calculating a first signal sensitive to unbalanced variations in the aerodynamic profile between the blades based on the at least one parameter representative of the wind turbine operating status, the first signal being a result of a calculation of a harmonic 1p at the rotation frequency of a rotor of the wind turbine based on the at least one parameter representative of the wind turbine operating status; - comparing said first signal to a first threshold value; - determining the existence of an unbalanced variation in the aerodynamic profile between the blades if the first signal exceeds the first threshold value; - modifying at least one torque control loop if the existence of an unbalanced variation in the aerodynamic profile of the blades is determined in the former step; and - comparing the first signal to a second threshold value, where said second threshold value is a value as of which the wind turbine is disconnected, said second threshold value being greater than the first threshold value.
Device for conveying additive manufacturing container/tray assemblies (C) or additive manufacturing trays (P), the conveying device being characterized in that it comprises at least two chambers for conveying an additive manufacturing container/tray assembly, each conveying chamber comprising at least one opening allowing the entry/exit of an additive manufacturing container/tray assembly (C), and each opening being provided with a door for closing the conveying chamber in a sealed manner.
A method for tightening a bolt and a nut that fasten a fastening target object , the method showing the steps of: exerting tightening force (F) on the fastening target object by rotating the nut or the bolt in a state in which predetermined tensile force (Ps) in an axial direction of the bolt is exerted on the bolt ; and the method characterised by : terminating the tightening resulting from the rotation of the nut or the bolt and removing the tensile force (P) exerted on the bolt when the tensile force (P) exerted on the bolt decreases as the tightening force (F) increases and after a timing when an inflection point occurs in a time course change in a ratio (dP/dθ) of an amount of change (dP) in the tensile force (P) exerted on the bolt to an amount of change (dθ) in an angle (θ) of rotation of the nut or the bolt . exerting tightening force (F) on the fastening target object by rotating the nut or the bolt in a state in which predetermined tensile force (Ps) in an axial direction of the bolt is exerted on the bolt ; and the method characterised by : terminating the tightening resulting from the rotation of the nut or the bolt and removing the tensile force (P) exerted on the bolt when the tensile force (P) exerted on the bolt decreases as the tightening force (F) increases and after a timing when an inflection point occurs in a time course change in a ratio (dP/dθ) of an amount of change (dP) in the tensile force (P) exerted on the bolt to an amount of change (dθ) in an angle (θ) of rotation of the nut or the bolt .
A method for machining a part , which is a blade or aerofoil, using a Computer Numerical Control (CNC) system , the method comprising: first directing , using a single Numerical Control (NC) program , a single machining tool in the CNC system along a semi-finishing toolpath to remove a portion of rough stock material over a first distance, leaving behind a semi-finishing thickness portion ; second directing , using the single NC program , the single machining tool in the CNC system along a finishing toolpath to remove the semi-finishing thickness portion over a second distance, wherein the second distance overlaps the first distance, and the second distance is shorter than the first distance by an offset distance set for the part ; and repeating the first directing and the second directing , using the single NC program , such that the part remains self-supporting as the single machining tool alternates between semi-finishing and finishing toolpaths to form the part , wherein the single NC program specifies a first set of spindle speed and feed rate values for the semi-finishing toolpath and a second set of spindle speed and feed rate values for the finishing toolpath , wherein the first set of spindle speed and feed rate values are different from the second set of spindle speed and feed rate values. first directing , using a single Numerical Control (NC) program , a single machining tool in the CNC system along a semi-finishing toolpath to remove a portion of rough stock material over a first distance, leaving behind a semi-finishing thickness portion ; second directing , using the single NC program , the single machining tool in the CNC system along a finishing toolpath to remove the semi-finishing thickness portion over a second distance, wherein the second distance overlaps the first distance, and the second distance is shorter than the first distance by an offset distance set for the part ; and repeating the first directing and the second directing , using the single NC program , such that the part remains self-supporting as the single machining tool alternates between semi-finishing and finishing toolpaths to form the part , wherein the single NC program specifies a first set of spindle speed and feed rate values for the semi-finishing toolpath and a second set of spindle speed and feed rate values for the finishing toolpath , wherein the first set of spindle speed and feed rate values are different from the second set of spindle speed and feed rate values.