mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: one or more processors ; memory storing computer-executable instructions that, when executed by the one or more processors, cause the system to perform operations comprising: maintaining a repository of dormant domain names associated with malicious activity; detecting that a particular domain name is a dormant domain name associated with malicious activity based on the particular domain name resolving to a local network address, resolving to a non-routable network address, or being irresolvable; adding the particular domain name to the repository based on the detecting; detecting changes to name resolutions or registrations of domain names included in the repository; and in response to detecting the changes, performing at least one of updating a security agent configuration, or alerting a security service user. one or more processors ; memory storing computer-executable instructions that, when executed by the one or more processors, cause the system to perform operations comprising: maintaining a repository of dormant domain names associated with malicious activity; detecting that a particular domain name is a dormant domain name associated with malicious activity based on the particular domain name resolving to a local network address, resolving to a non-routable network address, or being irresolvable; adding the particular domain name to the repository based on the detecting; detecting changes to name resolutions or registrations of domain names included in the repository; and in response to detecting the changes, performing at least one of updating a security agent configuration, or alerting a security service user. maintaining a repository of dormant domain names associated with malicious activity; detecting that a particular domain name is a dormant domain name associated with malicious activity based on the particular domain name resolving to a local network address, resolving to a non-routable network address, or being irresolvable; adding the particular domain name to the repository based on the detecting; detecting changes to name resolutions or registrations of domain names included in the repository; and in response to detecting the changes, performing at least one of updating a security agent configuration, or alerting a security service user.
Method for generating energy from a liquid oxidizer, as well as a liquid or gaseous fuel in a turboelectric system, characterized in that : 1.1) liquid oxidizer is used exclusively for the combustion process as an oxidizer in the turbine system, this oxidizer being injected in liquid form directly into the combustion chamber of the turbine , 1.2) instead of the compression phase, the oxidizer is pressurized in liquid form in a pump , 1.3) the oxidizer is evaporated only in the combustion chamber , then burned together with the fuel, the oxidizer being brought to the injection pressure below its critical temperature and injected into the combustion chamber, 1.4) the combustion gases are expanded in a turbine with a total pressure ratio of 200 or more (π >> 200), 1.5) the mechanical shaft energy is delivered from the turbine to a generator , which can also be switched to electric motor operation, 1.6) the electrical current from the generator is converted as required and 1.7) the electric current is passed on to one or more electric drive motor(s) with or without intermediate storage . 1.1) liquid oxidizer is used exclusively for the combustion process as an oxidizer in the turbine system, this oxidizer being injected in liquid form directly into the combustion chamber of the turbine , 1.2) instead of the compression phase, the oxidizer is pressurized in liquid form in a pump , 1.3) the oxidizer is evaporated only in the combustion chamber , then burned together with the fuel, the oxidizer being brought to the injection pressure below its critical temperature and injected into the combustion chamber, 1.4) the combustion gases are expanded in a turbine with a total pressure ratio of 200 or more (π >> 200), 1.5) the mechanical shaft energy is delivered from the turbine to a generator , which can also be switched to electric motor operation, 1.6) the electrical current from the generator is converted as required and 1.7) the electric current is passed on to one or more electric drive motor(s) with or without intermediate storage .
A method for a network controller that manages first, second, and third networks , the method comprising: configuring a first set of managed forwarding elements in the first network to implement a first logical forwarding element that forwards data packets for a first set of machines having addresses in a first address space that is being used by the second network ; configuring a second set of managed forwarding elements (135-150) in the first network to implement a second logical forwarding element that forwards data packets for a second set of machines having addresses in a second address space that is being used by the third network , wherein the first logical forwarding element has a first logical port for the second network and the second logical forwarding element has a second logical port for the third network , wherein at least a first managed forwarding element in the first network belongs to both the first and second sets of managed forwarding elements and thus is configured to implement both the first and second logical forwarding elements ; and directing the at least one first managed forwarding element to forward a first set of configuration data to a second managed forwarding element in the second network and a second set of configuration data to a third managed forwarding element in the third network without exposing a network address of the network controller to the second and third managed forwarding elements . configuring a first set of managed forwarding elements in the first network to implement a first logical forwarding element that forwards data packets for a first set of machines having addresses in a first address space that is being used by the second network ; configuring a second set of managed forwarding elements (135-150) in the first network to implement a second logical forwarding element that forwards data packets for a second set of machines having addresses in a second address space that is being used by the third network , wherein the first logical forwarding element has a first logical port for the second network and the second logical forwarding element has a second logical port for the third network , wherein at least a first managed forwarding element in the first network belongs to both the first and second sets of managed forwarding elements and thus is configured to implement both the first and second logical forwarding elements ; and directing the at least one first managed forwarding element to forward a first set of configuration data to a second managed forwarding element in the second network and a second set of configuration data to a third managed forwarding element in the third network without exposing a network address of the network controller to the second and third managed forwarding elements .
A blood pumping device comprising - a first pump and a second pump , wherein each of the first and second pumps comprises one upper chamber having an inlet channel and one lower chamber having an outlet channel , said upper and lower chambers are separated by a movable valve plane provided with a valve ; and - a first and second pump actuating means, wherein each of the first and second pump actuating means are configured to apply a movement to said valve plane in an upward and downward direction between said upper and lower chambers in response to control signals from a control unit, such that when said valve plane moves in an upward direction, the valve provided in the valve plane is in an open position allowing a flow of blood from the upper chamber to the lower chamber , and when the valve plane moves in a downward direction the valve is in the closed position and blood is ejected from the lower chamber through the outlet channel , thereby inducing a blood flow in a body's circulatory system, characterized in that a bottom part of the lower chamber is provided with a bag-like portion which bends between 90 to 340°, more preferably between 100 to 300°, more preferably between 105 to 200°, and most preferably between 110 to 150°. - a first pump and a second pump , wherein each of the first and second pumps comprises one upper chamber having an inlet channel and one lower chamber having an outlet channel , said upper and lower chambers are separated by a movable valve plane provided with a valve ; and - a first and second pump actuating means, wherein each of the first and second pump actuating means are configured to apply a movement to said valve plane in an upward and downward direction between said upper and lower chambers in response to control signals from a control unit, such that when said valve plane moves in an upward direction, the valve provided in the valve plane is in an open position allowing a flow of blood from the upper chamber to the lower chamber , and when the valve plane moves in a downward direction the valve is in the closed position and blood is ejected from the lower chamber through the outlet channel , thereby inducing a blood flow in a body's circulatory system, characterized in that a bottom part of the lower chamber is provided with a bag-like portion which bends between 90 to 340°, more preferably between 100 to 300°, more preferably between 105 to 200°, and most preferably between 110 to 150°.
A susceptor assembly for inductively heating an aerosol-forming substrate, comprising a first susceptor and a second susceptor , the second susceptor having a Curie temperature lower than 500 °C, wherein at least a portion of an outer surface of the second susceptor comprises an anti-corrosion covering and characterised in that at least a portion of an outer surface of the first susceptor is exposed.
A method for automatically monitoring settlement of an engineering building, wherein, a measuring station is provided (S301) at each point to be measured, the measuring station comprises: a multi-head camera station composed of two or more separate cameras that are connected fixedly; and markers that can settle with the engineering building, and wherein the method comprises: calibrating (S302) intrinsic parameters of each camera and a magnification of each camera to each marker that is correspondingly photographed by the camera; synchronously acquiring (S303) images of markers by the cameras, wherein each camera images more than one different marker fixed to different points of the engineering building; extracting (S304) a position of each marker in the images; and performing (S305) operations to coordinate data of each marker in accordance with a displacement transfer measurement relationship built by a camera chain imaging geometric constraint relationship, to obtain a vertical displacement amount of a position of each measuring station, thereby monitoring the settlement of the engineering building. calibrating (S302) intrinsic parameters of each camera and a magnification of each camera to each marker that is correspondingly photographed by the camera; synchronously acquiring (S303) images of markers by the cameras, wherein each camera images more than one different marker fixed to different points of the engineering building; extracting (S304) a position of each marker in the images; and performing (S305) operations to coordinate data of each marker in accordance with a displacement transfer measurement relationship built by a camera chain imaging geometric constraint relationship, to obtain a vertical displacement amount of a position of each measuring station, thereby monitoring the settlement of the engineering building.
A pharmaceutical composition comprising 2-(( -4-(((4-chlorophenyl)(phenyl) carbamoyloxy)methyl)cyclohexyl)methoxy)acetic acid, having the structure: or a pharmaceutically acceptable salt, solvate, or hydrate thereof, in an amount equivalent to a therapeutically effective amount of Compound 1; wherein the therapeutically effective amount of Compound 1 is about 0.01 mg to about 1 mg; wherein the pharmaceutical composition is a tablet; wherein the tablet comprises a core and a coating; wherein the composition further comprises: a filler, a glidant, a lubricant, a first excipient, and a second excipient; wherein: the first excipient comprises a release modifier having a viscosity of about 2300 mPA seconds to about 3800 mPA seconds when present in an amount of about 2% in water at 20 °C; and the second excipient comprises a release modifier having a viscosity of about 75 mPA seconds to about 120 mPA seconds when present in an amount of about 2% in water at 20 °C; and wherein: the first excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition; and the second excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition. or a pharmaceutically acceptable salt, solvate, or hydrate thereof, in an amount equivalent to a therapeutically effective amount of Compound 1; wherein the therapeutically effective amount of Compound 1 is about 0.01 mg to about 1 mg; wherein the pharmaceutical composition is a tablet; wherein the tablet comprises a core and a coating; wherein the composition further comprises: a filler, a glidant, a lubricant, a first excipient, and a second excipient; a filler, a glidant, a lubricant, a first excipient, and a second excipient; wherein: the first excipient comprises a release modifier having a viscosity of about 2300 mPA seconds to about 3800 mPA seconds when present in an amount of about 2% in water at 20 °C; and the second excipient comprises a release modifier having a viscosity of about 75 mPA seconds to about 120 mPA seconds when present in an amount of about 2% in water at 20 °C; the first excipient comprises a release modifier having a viscosity of about 2300 mPA seconds to about 3800 mPA seconds when present in an amount of about 2% in water at 20 °C; and the second excipient comprises a release modifier having a viscosity of about 75 mPA seconds to about 120 mPA seconds when present in an amount of about 2% in water at 20 °C; and wherein: the first excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition; and the second excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition. the first excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition; and the second excipient is present in an amount equal to about 12.5% to about 37.5% by weight of the composition.
A method for data transmission, wherein the method comprises: determining , by a base station , a first time period in which an end moment of a first control channel is located in a first transmission time interval, TTI, wherein the first TTI comprises at least two time periods and the first time period is one of the at least two time periods, and start moments of data channels corresponding to control channels that end in each of the at least two time periods are located in different TTIs; sending , by the base station to user equipment in the first TTI, control information carried on the first control channel, wherein the control information is configured to schedule a first data channel corresponding to the first control channel; determining , by the base station a second TTI in which a start moment of the first data channel is located based on a correspondence between the first time period occupied by the first control channel in the first TTI and the second TTI in which the start moment of the first data channel corresponding to the first control channel is located; exchanging , by the base station , data of the first data channel with the user equipment in the second TTI. determining , by a base station , a first time period in which an end moment of a first control channel is located in a first transmission time interval, TTI, wherein the first TTI comprises at least two time periods and the first time period is one of the at least two time periods, and start moments of data channels corresponding to control channels that end in each of the at least two time periods are located in different TTIs; sending , by the base station to user equipment in the first TTI, control information carried on the first control channel, wherein the control information is configured to schedule a first data channel corresponding to the first control channel; determining , by the base station a second TTI in which a start moment of the first data channel is located based on a correspondence between the first time period occupied by the first control channel in the first TTI and the second TTI in which the start moment of the first data channel corresponding to the first control channel is located; exchanging , by the base station , data of the first data channel with the user equipment in the second TTI.
A fluid supply line comprising a fluid flow monitoring unit and a check valve, the fluid flow monitoring unit being adapted for monitoring a fluid flowing through the check-valve, the fluid flow monitoring unit comprising: - a flow tube with a through-going opening for passage of a fluid between an inlet and an outlet ; - two or more ultrasonic transducers arranged at the flow tube for transmitting and receiving co- and counter propagating ultrasonic wave packets through the fluid; and - a control circuit configured for operating the ultrasonic transducers and calculating transit time differences between the co- and counter propagating wave packets; characterized in that the control circuit is further configured to compute a measure of statistical dispersion of a plurality of continuously measured transit time differences; and detecting whether the check-valve arranged in or in continuation of the flow tube is leaking by determining whether the measure of statistical dispersion is above a dispersion-threshold during a period subject to no-flow conditions, a no-flow condition is said to exist when the fluid flow monitoring unit determines the flow to be zero when no fluid is consumed at a point of consumption of the supply line. - a flow tube with a through-going opening for passage of a fluid between an inlet and an outlet ; - two or more ultrasonic transducers arranged at the flow tube for transmitting and receiving co- and counter propagating ultrasonic wave packets through the fluid; and - a control circuit configured for operating the ultrasonic transducers and calculating transit time differences between the co- and counter propagating wave packets;
Method for providing a secure database access from an application program implemented on a client device located in a first zone to a database located in a second zone , which is outside of the first zone , applying an Open Database Connectivity ODBC or a JAVA Database Connectivity JDBC application programming interface as a traditional database access application programming interface, wherein - implementing a database access driver on the client device in the first zone and implementing a database access proxy in the second zone , which is connected to the database , - performing an authentication of a user of the application program via an authentication agent located on the database access driver and an authentication server located in the second zone or in a third zone other than the first or second zone, for example a central zone, - Delivering a credential and a role of the user for accessing the database from the authentication server to the database access driver in case of a successful authentication, - Sending the credential and the role of the user from the database access driver to the database access proxy , and - Enabling database access to the user of the application program if the credential and the role of the user are accepted by the database access proxy , wherein the authentication server and the access proxy synchronize the role of the user for accessing the database periodically. - implementing a database access driver on the client device in the first zone and implementing a database access proxy in the second zone , which is connected to the database , - performing an authentication of a user of the application program via an authentication agent located on the database access driver and an authentication server located in the second zone or in a third zone other than the first or second zone, for example a central zone, - Delivering a credential and a role of the user for accessing the database from the authentication server to the database access driver in case of a successful authentication, - Sending the credential and the role of the user from the database access driver to the database access proxy , and - Enabling database access to the user of the application program if the credential and the role of the user are accepted by the database access proxy , wherein the authentication server and the access proxy synchronize the role of the user for accessing the database periodically.
Filling device for aseptic filling of pouches comprising: - a pouch fill assembly comprising: - a movement assembly defining an aseptic zone, the movement assembly configured to direct a pouch having a spout and a plug sealing the spout through the pouch fill assembly from an inlet to an outlet ; - a plug removing assembly having at least one plug removing station (15; 100), the plug removing station further including: - a grasping assembly positioned within the aseptic zone structurally configured to releasably capture a portion of the plug; - a plug retaining structure positioned within the aseptic zone structurally configured to releasably maintain the plug upon removal from the spout; and - an actuator assembly structurally configured to direct the plug between the spout and the plug retaining structure; and - a filling assembly having at least one filling station structurally configured to dispense a flowable material into the pouch through the spout. - a pouch fill assembly comprising: - a movement assembly defining an aseptic zone, the movement assembly configured to direct a pouch having a spout and a plug sealing the spout through the pouch fill assembly from an inlet to an outlet ; - a plug removing assembly having at least one plug removing station (15; 100), the plug removing station further including: - a grasping assembly positioned within the aseptic zone structurally configured to releasably capture a portion of the plug; - a plug retaining structure positioned within the aseptic zone structurally configured to releasably maintain the plug upon removal from the spout; and - an actuator assembly structurally configured to direct the plug between the spout and the plug retaining structure; and - a filling assembly having at least one filling station structurally configured to dispense a flowable material into the pouch through the spout. - a movement assembly defining an aseptic zone, the movement assembly configured to direct a pouch having a spout and a plug sealing the spout through the pouch fill assembly from an inlet to an outlet ; - a plug removing assembly having at least one plug removing station (15; 100), the plug removing station further including: - a grasping assembly positioned within the aseptic zone structurally configured to releasably capture a portion of the plug; - a plug retaining structure positioned within the aseptic zone structurally configured to releasably maintain the plug upon removal from the spout; and - an actuator assembly structurally configured to direct the plug between the spout and the plug retaining structure; and - a grasping assembly positioned within the aseptic zone structurally configured to releasably capture a portion of the plug; - a plug retaining structure positioned within the aseptic zone structurally configured to releasably maintain the plug upon removal from the spout; and - an actuator assembly structurally configured to direct the plug between the spout and the plug retaining structure; and - a filling assembly having at least one filling station structurally configured to dispense a flowable material into the pouch through the spout.