mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: identifying an entity and an entity location (34, 36; 210; 710; 810) of a plurality of equipment ; accessing a data repository comprising a plurality of equipment servicing data associated with the equipment (10; 210) at the entity location (34, 36; 210; 710; 810); and outputting a map image (204; 304; 504; 704; 804; 904) on a graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000); wherein the map image (204; 304; 504; 704; 804; 904) comprising one or more icons indicating one or more equipment locations and status of the equipment based on the equipment servicing data from the data repository; characterised in that the method further comprises: selectively displaying one or more equipment status details on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) responsive to a detected user input action; outputting a health score (222; 422; 622; 722; 1022) on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) that summarizes a plurality of conditions of the equipment at the one or more equipment locations displayed on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000); and/or outputting an uptime indicator on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) that summarizes a performance history of the equipment at the one or more equipment locations displayed on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) for a first predetermined period of time. identifying an entity and an entity location (34, 36; 210; 710; 810) of a plurality of equipment ; accessing a data repository comprising a plurality of equipment servicing data associated with the equipment (10; 210) at the entity location (34, 36; 210; 710; 810); and outputting a map image (204; 304; 504; 704; 804; 904) on a graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000); wherein the map image (204; 304; 504; 704; 804; 904) comprising one or more icons indicating one or more equipment locations and status of the equipment based on the equipment servicing data from the data repository; characterised in that the method further comprises: selectively displaying one or more equipment status details on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) responsive to a detected user input action; outputting a health score (222; 422; 622; 722; 1022) on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) that summarizes a plurality of conditions of the equipment at the one or more equipment locations displayed on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000); and/or outputting an uptime indicator on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) that summarizes a performance history of the equipment at the one or more equipment locations displayed on the graphical user interface (200; 300; 400; 500; 600; 700; 800; 900; 1000) for a first predetermined period of time.
User environment for use in a network architecture, comprising: a microkernel operating system, an associated runtime environment, and a plurality of devices, wherein the plurality of devices are domains and/or microkernel applications created by virtualization and the devices are isolated from each other, wherein a first device is configured to provide at least one isolated service and to provide to the other devices access to the at least one service, wherein a second device has a domain which has its own operating system which is configured to execute only predefined functions and programs in a user mode, wherein a third device comprises a domain configured to communicate with a dedicated external dispatch server and to receive communication requests from one or more other domains of the user environment and/or one or more microkernel applications, to process them into dispatch requests and forward them to the dispatch server and to receive responses to the dispatch requests from the dispatch server, wherein a fourth device comprises a firewall system configured to block any incoming or outgoing communication of the user environment other than communication via the dispatcher, and wherein a fifth device comprises a domain configured to execute each driver of the user environment in isolation and to provide the other components of the user environment with the corresponding services and/or interfaces of the driver. a microkernel operating system, an associated runtime environment, and a plurality of devices, wherein the plurality of devices are domains and/or microkernel applications created by virtualization and the devices are isolated from each other, wherein a first device is configured to provide at least one isolated service and to provide to the other devices access to the at least one service, wherein a second device has a domain which has its own operating system which is configured to execute only predefined functions and programs in a user mode, wherein a third device comprises a domain configured to communicate with a dedicated external dispatch server and to receive communication requests from one or more other domains of the user environment and/or one or more microkernel applications, to process them into dispatch requests and forward them to the dispatch server and to receive responses to the dispatch requests from the dispatch server, wherein a fourth device comprises a firewall system configured to block any incoming or outgoing communication of the user environment other than communication via the dispatcher, and wherein a fifth device comprises a domain configured to execute each driver of the user environment in isolation and to provide the other components of the user environment with the corresponding services and/or interfaces of the driver.
A method of recording a flow rate change history and identifying an appliance, comprising the steps of: measuring a flow rate at a given time interval; computing a difference value between the measured flow rates at the given time interval ; converting the computed difference value into a code with reference to a flow rate class table by which classes of difference values corresponding to a size of the difference value and codes representing the classes are associated with each other; generating a flow rate change history based on a set of the codes of a predetermined time period, wherein the classes in the flow rate class table are grouped into four events of an area where it is determined that the flow rate is zero, an area where it is determined that the flow rate is stable, an area where it is determined that the flow rate increases, and an area where it is determined that the flow rate decreases; comparing the generated flow rate change history with flow rate history information proper to each appliance stored for each appliance; and identifying an appliance in use from similarity between the generated flow rate change history information and the stored flow rate change history information. measuring a flow rate at a given time interval; computing a difference value between the measured flow rates at the given time interval ; converting the computed difference value into a code with reference to a flow rate class table by which classes of difference values corresponding to a size of the difference value and codes representing the classes are associated with each other; generating a flow rate change history based on a set of the codes of a predetermined time period, wherein the classes in the flow rate class table are grouped into four events of an area where it is determined that the flow rate is zero, an area where it is determined that the flow rate is stable, an area where it is determined that the flow rate increases, and an area where it is determined that the flow rate decreases; comparing the generated flow rate change history with flow rate history information proper to each appliance stored for each appliance; and identifying an appliance in use from similarity between the generated flow rate change history information and the stored flow rate change history information.
A cartridge comprising: a liquid portion ; a first heater arranged on one side of the liquid portion to heat the liquid portion ; a medium portion ; and a second heater surrounding at least a portion of the medium portion to heat the medium portion , wherein the first heater is porous, the first heater and the second heater are induction heating-type heaters, an aerosol generated by heating the liquid portion passes through the first heater and flows toward the medium portion , and the aerosol passing through the medium portion is discharged from one end portion of the medium portion . a liquid portion ; a first heater arranged on one side of the liquid portion to heat the liquid portion ; a medium portion ; and a second heater surrounding at least a portion of the medium portion to heat the medium portion , wherein the first heater is porous, the first heater and the second heater are induction heating-type heaters, an aerosol generated by heating the liquid portion passes through the first heater and flows toward the medium portion , and the aerosol passing through the medium portion is discharged from one end portion of the medium portion .
A screen projection method, performed by a receiving end device, characterized in that the method comprises: searching for a sending end device by using a preset wireless scanning technology (S101; S201); establishing a wireless connection with the sending end device when the sending end device, which has enabled a same wireless function as that of the receiving end device and a distance from the receiving end device being within a certain range, is found (S102; S202); wherein the establishing a wireless connection with the sending end device when the sending end device is found (S102; S202), comprises: sending a request packet to the sending end device when the sending end device is found; receiving a response packet fed back by the sending end device, wherein the response packet carries identification information indicating whether the sending end device has opened a screen projection software; and establishing the wireless connection with the sending end device when it is determined that the sending end device has opened the screen projection software based on the identification information; acquiring a screen projection code, and sending the screen projection code to the connected sending end device, so that the connected sending end device displays the screen projection code to prompt a screen projection operation (S103). searching for a sending end device by using a preset wireless scanning technology (S101; S201); establishing a wireless connection with the sending end device when the sending end device, which has enabled a same wireless function as that of the receiving end device and a distance from the receiving end device being within a certain range, is found (S102; S202); wherein the establishing a wireless connection with the sending end device when the sending end device is found (S102; S202), comprises: sending a request packet to the sending end device when the sending end device is found; receiving a response packet fed back by the sending end device, wherein the response packet carries identification information indicating whether the sending end device has opened a screen projection software; and establishing the wireless connection with the sending end device when it is determined that the sending end device has opened the screen projection software based on the identification information; acquiring a screen projection code, and sending the screen projection code to the connected sending end device, so that the connected sending end device displays the screen projection code to prompt a screen projection operation (S103).
A method for transmitting data between a central control apparatus and at least one decentralized device , having the following steps: - generating, in the central control apparatus , a data telegram for the multicast transmission of data to a group of devices that are located in a defined spatial region, the data telegram comprising identification information that identifies the defined spatial region, - unidirectionally transmitting the data telegram from the central control apparatus to at least one decentralized device , wherein the at least one decentralized device is designed to recognize whether it is currently located in the spatial region identified by the identification information, - monitoring the transmission duration of the transmission of the data telegram from the central control apparatus to the at least one decentralized device , and - triggering a predetermined safety reaction if the transmission duration exceeds a predetermined value. - generating, in the central control apparatus , a data telegram for the multicast transmission of data to a group of devices that are located in a defined spatial region, the data telegram comprising identification information that identifies the defined spatial region, - unidirectionally transmitting the data telegram from the central control apparatus to at least one decentralized device , wherein the at least one decentralized device is designed to recognize whether it is currently located in the spatial region identified by the identification information, - monitoring the transmission duration of the transmission of the data telegram from the central control apparatus to the at least one decentralized device , and - triggering a predetermined safety reaction if the transmission duration exceeds a predetermined value.
A key device comprising: a generally elongate shaft portion ; and at least one magnetic key combination element disposed in said shaft portion which is rotatable about a rotation axis , wherein said at least one magnetic key combination element is configured in use to rotate and align with a magnetic plug element such that said at least one magnetic key combination element magnetically interacts with said magnetic plug element and brings said magnetic plug element to a shear line of a cylinder lock , characterized in that said rotation axis is not parallel to said elongate shaft portion . a generally elongate shaft portion ; and at least one magnetic key combination element disposed in said shaft portion which is rotatable about a rotation axis , wherein said at least one magnetic key combination element is configured in use to rotate and align with a magnetic plug element such that said at least one magnetic key combination element magnetically interacts with said magnetic plug element and brings said magnetic plug element to a shear line of a cylinder lock , characterized in that said rotation axis is not parallel to said elongate shaft portion .
Windbreaker for reducing wind-induced vibrations or oscillations during the transportation or erection of a tower or tower segment of wind turbines, comprising a substructure that can be stretched over a surface of a tower or tower segment and a bearing face with a bearing surface for resting on the surface of the tower or tower segment and an outer face opposite the bearing face , and at least one wind resistance element for influencing a wind flow at the tower or tower segment , characterised in that the wind resistance element can be brought into contact with the outer face of the substructure and can be detachably connected to the substructure . a substructure that can be stretched over a surface of a tower or tower segment and a bearing face with a bearing surface for resting on the surface of the tower or tower segment and an outer face opposite the bearing face , and at least one wind resistance element for influencing a wind flow at the tower or tower segment , characterised in that the wind resistance element can be brought into contact with the outer face of the substructure and can be detachably connected to the substructure .
A plough, in particular reversible plough, for the partial topsoil deepening having a plough frame and a pivoting device for pivoting the plough frame , wherein on the plough frame at same distances, in particular at least four plough bodies are pivotably arranged on swing pockets by means of stalks , wherein the plough bodies on the plough frame are each configured as a shaft-forming first plough body and a conventional second plough body , wherein a working width of the conventional second plough body is greater than that of a shaft-forming first plough body , and a working depth of a shaft-forming first plough body is greater than the working depth of a conventional second plough body , characterised in that the swing pockets comprise bearing plates , with which the swing pockets are, in particular releasably, arranged on the plough frame , wherein first bearing plates of the first plough body have a greater width than second bearing plates of the second plough body .
A piston arrangement comprising: (a) a piston body having a cylindrical surface; (b) a circumferential piston groove in said piston body for accommodating a seal that seals between said piston body and a cylinder in which said piston body is reciprocable; characterised in that it further comprises (c) a first fluid flow passage defined by an orifice provided in said piston body that connects a forward side of said cylindrical surface of said piston body with a space within said piston groove defined in part by a bottom surface of said piston groove and by said seal when said seal is placed in said piston groove ; and (d) a second fluid flow passage defined at least in part by said piston body that connects a rearward side of said cylindrical surface of said piston body with said space ; wherein said first and second fluid flow passages are sized to allow a predetermined amount of fluid flow such that a fluid pressure drop is achieved across the seal during operation. (a) a piston body having a cylindrical surface; (b) a circumferential piston groove in said piston body for accommodating a seal that seals between said piston body and a cylinder in which said piston body is reciprocable; characterised in that it further comprises (c) a first fluid flow passage defined by an orifice provided in said piston body that connects a forward side of said cylindrical surface of said piston body with a space within said piston groove defined in part by a bottom surface of said piston groove and by said seal when said seal is placed in said piston groove ; and (d) a second fluid flow passage defined at least in part by said piston body that connects a rearward side of said cylindrical surface of said piston body with said space ;
A metal-rich siliceous composition comprising a metal oxide dispersion including one or more metal oxides, a siliceous material including one or more colloidal silica particles, wherein at least a portion of the metal oxide dispersion is coated with the siliceous material, wherein the metal oxide dispersion includes aluminum oxide or fumed zirconia, and wherein the metal oxide dispersion is from 0.01 weight percent to 99.99 weight percent based on silica.
Method of controlling the ignition of stop lights of an automotive vehicle, comprising: - a first step of acquisition, by a first electronic control device , of a first input signal representative of a mechanical loading on a pedal for actuating a device for braking the vehicle, characterized in that it comprises: - a second step of acquisition, by a second electronic control device, of a second input signal representative of a mechanical loading on the actuation pedal, independent of the first input signal, this second acquisition step being a direct acquisition step, and - a step of ignition of the stop lights which comprises: - a phase of transmission, by the first electronic control device, of an order of ignition of the stop lights which is representative of the first input signal to the second electronic control device by a multiplexed information network , - and then a phase of emission, by the second electronic control device, of an output signal ensuring command of the ignition of the stop lights by regulation of the electrical voltage or power applied to their terminals as a function of the order of ignition and/or as a function of the second input signal obtained with said direct acquisition. - a first step of acquisition, by a first electronic control device , of a first input signal representative of a mechanical loading on a pedal for actuating a device for braking the vehicle, - a second step of acquisition, by a second electronic control device, of a second input signal representative of a mechanical loading on the actuation pedal, independent of the first input signal, this second acquisition step being a direct acquisition step, and - a step of ignition of the stop lights which comprises: - a phase of transmission, by the first electronic control device, of an order of ignition of the stop lights which is representative of the first input signal to the second electronic control device by a multiplexed information network , - and then a phase of emission, by the second electronic control device, of an output signal ensuring command of the ignition of the stop lights by regulation of the electrical voltage or power applied to their terminals as a function of the order of ignition and/or as a function of the second input signal obtained with said direct acquisition.
A tuning fork vibration viscometer comprising: a pair of vibrators to be dunked in a sample; an electromagnetic drive for vibrating the vibrators ; an amplitude value changing means for outputting a target amplitude value of the vibrators; and a displacement detection sensor for measuring an amplitude of the vibrators, and performing feedback control with means configured to control a driving current applied to the electromagnetic drive so that an output value of the displacement detection sensor corresponds to the target amplitude value and measuring viscosity of the sample based on a value of the driving current, characterized in that the tuning fork vibration viscometer further comprises a gain control means configured to set a feedback gain in the feedback control high at first, in a state of a specific target amplitude value with respect to a sample having a specific viscosity, to reduce the gain until a limiting point that is just before a measured viscosity value starts oscillating is found, to define the gain at the limiting point as an optimum feedback gain, so as to perform a measurement of the viscosity by using the optimum feedback gain, and to perform the measurement every time the target amplitude value is changed. a pair of vibrators to be dunked in a sample; an electromagnetic drive for vibrating the vibrators ; an amplitude value changing means for outputting a target amplitude value of the vibrators; and a displacement detection sensor for measuring an amplitude of the vibrators, and performing feedback control with means configured to control a driving current applied to the electromagnetic drive so that an output value of the displacement detection sensor corresponds to the target amplitude value and measuring viscosity of the sample based on a value of the driving current, characterized in that the tuning fork vibration viscometer further comprises a gain control means configured to set a feedback gain in the feedback control high at first, in a state of a specific target amplitude value with respect to a sample having a specific viscosity, to reduce the gain until a limiting point that is just before a measured viscosity value starts oscillating is found, to define the gain at the limiting point as an optimum feedback gain, so as to perform a measurement of the viscosity by using the optimum feedback gain, and to perform the measurement every time the target amplitude value is changed.