mhurhangee/patent-ind-claim-en huggingface dataset:
Molding tool for molding a rod-shaped housing for a rod antenna, the molding tool comprising: a rod-shaped mold core ; and a molding counterpart having a receptacle into which the mold core is insertable, wherein the molding counterpart has a plurality of recesses and/or protrusions formed in at least one surface of the receptacle and extending along a direction transversely oriented to a longitudinal direction of the molding counterpart , characterized in that a sidewall is provided with an inclination at an acute angle relative to the side surface of the housing for each recess formed by the molding tool in the rod-shaped housing , wherein this sidewall absorbs a force occurring during demolding of the mold core from the housing. a rod-shaped mold core ; and a molding counterpart having a receptacle into which the mold core is insertable, wherein the molding counterpart has a plurality of recesses and/or protrusions formed in at least one surface of the receptacle and extending along a direction transversely oriented to a longitudinal direction of the molding counterpart , characterized in that a sidewall is provided with an inclination at an acute angle relative to the side surface of the housing for each recess formed by the molding tool in the rod-shaped housing , wherein this sidewall absorbs a force occurring during demolding of the mold core from the housing.
An analysis apparatus analyzing content and a script of a website, the analysis apparatus comprising: an access unit adapted to access the website using a browser; a script analysis unit adapted to record, in transfer information, a URL of the website as a transfer source URL, a URL of another website as a transfer destination URL, a function name or a property name of the script used for transfer as a transfer method to the transfer destination URL, and identification information of the script as an execution source script when the transfer to the other website is caused by execution of the script in the website, and records, in the transfer information, identification information of a generation source script of a new script as the execution source script in the website, identification information of the new script as a generated script, and a function name or a property name of the generation source script used for generation as a script execution method when the script of the website generates the new script; and a graph construction unit adapted to construct a directed graph representing URLs of a series of websites that the browser has accessed, the transfer method to the URL, the script used for the transfer, and the script execution method while the transfer source URL and the transfer destination URL recorded in the transfer information are nodes, the execution source script and the generated script in the transfer source URL are nodes encapsulated in the node of the transfer source URL, and the transfer method and the script execution method recorded in the transfer information are edges. an access unit adapted to access the website using a browser; a script analysis unit adapted to record, in transfer information, a URL of the website as a transfer source URL, a URL of another website as a transfer destination URL, a function name or a property name of the script used for transfer as a transfer method to the transfer destination URL, and identification information of the script as an execution source script when the transfer to the other website is caused by execution of the script in the website, and records, in the transfer information, identification information of a generation source script of a new script as the execution source script in the website, identification information of the new script as a generated script, and a function name or a property name of the generation source script used for generation as a script execution method when the script of the website generates the new script; and a graph construction unit adapted to construct a directed graph representing URLs of a series of websites that the browser has accessed, the transfer method to the URL, the script used for the transfer, and the script execution method while the transfer source URL and the transfer destination URL recorded in the transfer information are nodes, the execution source script and the generated script in the transfer source URL are nodes encapsulated in the node of the transfer source URL, and the transfer method and the script execution method recorded in the transfer information are edges.
A method of lubricating a large two-stroke engine comprising a cylinder with a reciprocal piston inside and with a plurality of lubricant injectors distributed along a perimeter of the cylinder for injection of lubricant into the cylinder at various positions on the perimeter during injection phases; wherein each lubricant injector comprises a nozzle , the nozzle comprising a nozzle exit from which the lubricant leaves the nozzle into the cylinder; wherein the method comprises injection of lubricant into the cylinder as a spray during operation of the engine, wherein the nozzle exit has a diameter D if the nozzle is circular, or wherein the nozzle has an equivalent diameter D which is two times the square root of the nozzle exit area divided by pi=3.14 if the nozzle is not circular; characterized in that the method further comprises inducing lubricant cavitation in the nozzle during the injection and by the cavitation influencing characteristics of the spray, wherein the method comprises the method steps A or B or both; wherein the method step A comprises injecting the lubricant into the cylinder through the nozzle exit at a pressure P and viscosity μ, wherein μ, P, and D are selected such that C>0 for causing cavitation in the nozzle, wherein C is given by the following expression; C μ P D = A 1 ∗ e B 1 ∗ G 1 ln G 2 ∗ μ + C 1 ∗ e F 1 ∗ G 1 ln G 2 ∗ μ + A 2 ∗ e B 2 ∗ P + C 2 ∗ e F 2 ∗ P + A 3 ∗ D + B 3 wherein the values of the constants are given as: Constant Value A1 0.6689 B1 0.001233 C1 -11.39 F1 -0.03487 A2 0.7888 B2 0.000855 C2 -1.473 F2 -0.033 A3 16.27 B3 -5.28 G1 149.94 G2 163.93 wherein the method step B comprises providing the lubricant as a lubricant for marine engines, wherein the lubricant follows a viscosity given by the temperature as follows. μ T = 0.00610 ⋅ e 1246 / 8.31 ⋅ T , wherein T is in degrees Celsius and for T>20°C; wherein D, T, and P are given by A, B, C, D, E, or F for providing cavitation, wherein A) D≥0.3 mm, T≥60°C, P≥60 bar, B) D≥0.3 mm, T≥100°C, P>10 bar, C) D≥0.3 mm, T≥140°C, P≥10 bar, D) D>0.2mm, T≥100°C, P≥40 bar, E) D>0.3mm, T≥60°C, P≥40 bar, F) D>0.2 mm, T≥100°C, P≥20 bar. A) D≥0.3 mm, T≥60°C, P≥60 bar, B) D≥0.3 mm, T≥100°C, P>10 bar, C) D≥0.3 mm, T≥140°C, P≥10 bar, D) D>0.2mm, T≥100°C, P≥40 bar, E) D>0.3mm, T≥60°C, P≥40 bar, F) D>0.2 mm, T≥100°C, P≥20 bar.
A method of manufacturing a staking assembly comprising: preparing a first member , a second member including an engagement recess and a hole allowing the first member to be inserted thereinto, and a pressing punch including a protrusion portion ; combining the first member and the second member with each other in an axial direction; moving the pressing punch and the first member relatively in an axial direction so that a part of the first member deformed by the protruding portion of the pressing punch in the axial relative movement is disposed inside the engagement recess of the second member ; and forming a staking portion with respect to the second member in the first member ; wherein the first member is combined with the second member in the axial direction by the relative movement between the pressing punch and the first member , characterized in that after the part of the first member is disposed inside the engagement recess of the second member , the staking portion is formed with respect to the second member by using a pressing member that is different from the pressing punch . preparing a first member , a second member including an engagement recess and a hole allowing the first member to be inserted thereinto, and a pressing punch including a protrusion portion ; combining the first member and the second member with each other in an axial direction; moving the pressing punch and the first member relatively in an axial direction so that a part of the first member deformed by the protruding portion of the pressing punch in the axial relative movement is disposed inside the engagement recess of the second member ; and forming a staking portion with respect to the second member in the first member ; wherein the first member is combined with the second member in the axial direction by the relative movement between the pressing punch and the first member , characterized in that after the part of the first member is disposed inside the engagement recess of the second member , the staking portion is formed with respect to the second member by using a pressing member that is different from the pressing punch .
Battery module for a motor vehicle, comprising at least one battery cell , a negative pole , a positive pole , a charging transistor that conducts a discharging current, a discharging transistor that conducts a charging current, and a management system for controlling and monitoring the at least one battery cell and the transistors , wherein the transistors are electrically connected in series with the at least one battery cell , and wherein a node between the transistors is electrically connected to a supply input of the management system , wherein the charging transistor is electrically connected between one of the poles and the node , and wherein the discharging transistor is electrically connected between the at least one battery cell and the node . a negative pole , a positive pole , a charging transistor that conducts a discharging current, a discharging transistor that conducts a charging current, and a management system for controlling and monitoring the at least one battery cell and the transistors , wherein the transistors are electrically connected in series with the at least one battery cell , and wherein a node between the transistors is electrically connected to a supply input of the management system , wherein the charging transistor is electrically connected between one of the poles and the node , and wherein the discharging transistor is electrically connected between the at least one battery cell and the node .
A vacuum cleaner comprising: a motor housing ; a motor and fan assembly in communication with the motor housing ; a housing forming a receptacle in fluid communication with the motor housing ; and a filter assembly removably insertable into the receptacle , characterised in that the filter assembly further comprises: a filter housing supporting a filter and including a tray portion ; a front portion movably coupled to the tray portion such that the tray portion is movable relative to the front portion along a first axis ; a seal ; and a lock member movable relative to the filter housing between a locked position and an unlocked position along a second axis that is normal to the first axis , and in that movement of the lock member to the locked position engages the seal with the housing when the filter assembly is inserted in the receptacle . a motor housing ; a motor and fan assembly in communication with the motor housing ; a housing forming a receptacle in fluid communication with the motor housing ; and a filter assembly removably insertable into the receptacle , characterised in that the filter assembly further comprises: a filter housing supporting a filter and including a tray portion ; a front portion movably coupled to the tray portion such that the tray portion is movable relative to the front portion along a first axis ; a seal ; and a lock member movable relative to the filter housing between a locked position and an unlocked position along a second axis that is normal to the first axis , and in that movement of the lock member to the locked position engages the seal with the housing when the filter assembly is inserted in the receptacle . a filter housing supporting a filter and including a tray portion ; a front portion movably coupled to the tray portion such that the tray portion is movable relative to the front portion along a first axis ; a seal ; and a lock member movable relative to the filter housing between a locked position and an unlocked position along a second axis that is normal to the first axis , and in that movement of the lock member to the locked position engages the seal with the housing when the filter assembly is inserted in the receptacle .
Three-dimensional elastic gridshell structure having a tubular shape obtained from elastically deformable rods connected to each other so as to form a Tchebyshev type meshing, with connecting means between the rods of the mesh allowing a variation of angle without slipping between these rods , said structure being obtained by deformation of the meshing so as to obtain a flared corolla shape, said flared shape being held by means selected from the group comprising encirclements , spacers , and cables.
A system comprising: processing circuitry ; memory including instructions that, when executed by the processing circuitry, cause the processing circuitry to perform operations for custom wake word selection, the operations comprising: determining one or more characteristics of a custom wake word, wherein determining one or more characteristics of the custom wake word includes determining whether the custom wake word is a proper subset of another word; determining that use of the custom wake word will cause more than a threshold rate of false detections based on the characteristics; rejecting the custom wake word as the wake word for accessing a personal assistant in response to determining that the custom wake word is a proper subset of another word; and setting the custom wake word as the wake word in response to determining that use of the custom wake word will not cause more than the threshold rate of false detections. processing circuitry ; memory including instructions that, when executed by the processing circuitry, cause the processing circuitry to perform operations for custom wake word selection, the operations comprising: determining one or more characteristics of a custom wake word, wherein determining one or more characteristics of the custom wake word includes determining whether the custom wake word is a proper subset of another word; determining that use of the custom wake word will cause more than a threshold rate of false detections based on the characteristics; rejecting the custom wake word as the wake word for accessing a personal assistant in response to determining that the custom wake word is a proper subset of another word; and setting the custom wake word as the wake word in response to determining that use of the custom wake word will not cause more than the threshold rate of false detections. determining one or more characteristics of a custom wake word, wherein determining one or more characteristics of the custom wake word includes determining whether the custom wake word is a proper subset of another word; determining that use of the custom wake word will cause more than a threshold rate of false detections based on the characteristics; rejecting the custom wake word as the wake word for accessing a personal assistant in response to determining that the custom wake word is a proper subset of another word; and setting the custom wake word as the wake word in response to determining that use of the custom wake word will not cause more than the threshold rate of false detections.
Method for reducing the particle emissions of a combustion engine during a cold start of the combustion engine , comprising the following steps: - determining a combustion chamber temperature (T BR ) of the combustion engine and of an ambient temperature (T UMG ) - turning over the combustion engine via a starter if the combustion chamber temperature (T BR ) is below a first threshold temperature (Tsi) and the ambient temperature (T UMG ) is below a second threshold temperature (T S2 ), wherein - the air in the combustion chambers is compressed and heated, wherein - the heat is transferred to the combustion chamber walls of the combustion chambers of the combustion engine , and wherein - the injection of fuel into the combustion chambers of the combustion engine is prevented in this operating situation as long as the combustion chamber temperature (T BR ) is below the first threshold temperature (Tsi), and - activating the injection of fuel into the preheated combustion chambers if a defined time interval has elapsed, a certain number of engine revolutions has been reached, or the combustion chamber has reached a defined minimum temperature (T min ), characterized in that a throttle valve in the intake duct of the combustion engine is fully opened when the method is implemented. - determining a combustion chamber temperature (T BR ) of the combustion engine and of an ambient temperature (T UMG ) - turning over the combustion engine via a starter if the combustion chamber temperature (T BR ) is below a first threshold temperature (Tsi) and the ambient temperature (T UMG ) is below a second threshold temperature (T S2 ), wherein - the air in the combustion chambers is compressed and heated, wherein - the heat is transferred to the combustion chamber walls of the combustion chambers of the combustion engine , and wherein - the injection of fuel into the combustion chambers of the combustion engine is prevented in this operating situation as long as the combustion chamber temperature (T BR ) is below the first threshold temperature (Tsi), and - activating the injection of fuel into the preheated combustion chambers if a defined time interval has elapsed, a certain number of engine revolutions has been reached, or the combustion chamber has reached a defined minimum temperature (T min ), characterized in that a throttle valve in the intake duct of the combustion engine is fully opened when the method is implemented.
A rotary machine blade comprising: a clearance flow suppressing blade portion the rotary machine blade being characterised in that the clearance flow suppressing blade portion comprises one or more inflection points (P1, P2, P 3 ) at which a lean angle at an intersection point between a camber line (C1) in a cross section of the clearance flow suppressing blade portion and an imaginary straight line (K) extending from an axis (O1) of rotation in a radial direction is 0 degree, a lean angle at the intersection point toward a blade end from and adjacent to the inflection point (P1) which is located closest to the blade end being positive and a lean angle at the intersection point toward a side away from the blade end with respect to and adjacent to the inflection point (P1) which is located closest to the blade end being negative, when a direction from a positive pressure surface to a negative pressure surface is set as a positive direction at the inflection point (P1), which is located closest to the blade end, wherein in the clearance flow suppressing blade portion , a positive lean angle gradually decreases as the intersection point nears, from the blade end, the inflection point (P1) which is located closest to the blade end. a clearance flow suppressing blade portion the rotary machine blade being characterised in that the clearance flow suppressing blade portion comprises one or more inflection points (P1, P2, P 3 ) at which a lean angle at an intersection point between a camber line (C1) in a cross section of the clearance flow suppressing blade portion and an imaginary straight line (K) extending from an axis (O1) of rotation in a radial direction is 0 degree, a lean angle at the intersection point toward a blade end from and adjacent to the inflection point (P1) which is located closest to the blade end being positive and a lean angle at the intersection point toward a side away from the blade end with respect to and adjacent to the inflection point (P1) which is located closest to the blade end being negative, when a direction from a positive pressure surface to a negative pressure surface is set as a positive direction at the inflection point (P1), which is located closest to the blade end, wherein in the clearance flow suppressing blade portion , a positive lean angle gradually decreases as the intersection point nears, from the blade end, the inflection point (P1) which is located closest to the blade end.
A processor-implemented method for generating parameters for use in controlling the operation of a Heating Ventilation and Air Conditioning device, the method comprising: receiving , from a plurality of sensors , a plurality of ambient parameters with respect to a building at periodic intervals, wherein the plurality of ambient parameters comprises an inside air ambient temperature, an outside air ambient temperature, and an inside air ambient relative humidity; computing a plurality of performance parameters at the periodic intervals based on the plurality of ambient parameters , wherein the plurality of performance parameters comprises an inside air water vapor pressure and an inside air dew point temperature; determining a plurality of operation parameters during an unoccupied period based on the plurality of ambient parameters and the plurality of performance parameters, wherein an unoccupied period is a time during which the building is not occupied or is occupied by few people, and wherein the plurality of operation parameters comprises a condensation occurrence point inside the building; and dynamically providing a recommendation regarding optimum operation for the Heating Ventilation and Air Conditioning device during the unoccupied period based on the plurality of operation parameters during the unoccupied period, wherein the recommendation comprises an operational state and a dynamic set point of operation, wherein the dynamic set point is based on the condensation occurrence point inside the building. receiving , from a plurality of sensors , a plurality of ambient parameters with respect to a building at periodic intervals, wherein the plurality of ambient parameters comprises an inside air ambient temperature, an outside air ambient temperature, and an inside air ambient relative humidity; computing a plurality of performance parameters at the periodic intervals based on the plurality of ambient parameters , wherein the plurality of performance parameters comprises an inside air water vapor pressure and an inside air dew point temperature; determining a plurality of operation parameters during an unoccupied period based on the plurality of ambient parameters and the plurality of performance parameters, wherein an unoccupied period is a time during which the building is not occupied or is occupied by few people, and wherein the plurality of operation parameters comprises a condensation occurrence point inside the building; and dynamically providing a recommendation regarding optimum operation for the Heating Ventilation and Air Conditioning device during the unoccupied period based on the plurality of operation parameters during the unoccupied period, wherein the recommendation comprises an operational state and a dynamic set point of operation, wherein the dynamic set point is based on the condensation occurrence point inside the building.