mhurhangee/patent-ind-claim-en huggingface dataset:
An electric motor generator system comprising: a hollow rotatable shaft , the hollow shaft having a central longitudinal axis ; a coil spar , the coil spar being positioned concentrically within the hollow rotatable shaft , the coil spar comprising a plurality of coil assemblies , a radially outwardly facing surface of the coil spar is crenelated, the crenelated surface comprising a plurality of crenels and merlons arranged in an axial sequence; a plurality of magnet portions , each magnet portion shaped to conform to a radially inwardly facing surface of the shaft ; and at least three bearing assemblies , each bearing assembly being positioned on a respective one of the merlons ; wherein each bearing assembly provides for rotational support between the radially inwardly facing surface of the hollow shaft and the radially outwardly facing surface of the coil spar , a mechanical linkage between the shaft and the coil spar being provided by the bearing assemblies , each coil assembly is positioned on a radially outwardly facing surface of a respective one of the merlons , each of the plurality of magnet portions abuts conformally against the radially inwardly facing surface of the shaft between the radially inwardly facing surface and one of the plurality of coil assemblies , wherein the plurality of magnet portions extends around a complete circumference of the radially inwardly facing surface . a hollow rotatable shaft , the hollow shaft having a central longitudinal axis ; a coil spar , the coil spar being positioned concentrically within the hollow rotatable shaft , the coil spar comprising a plurality of coil assemblies , a radially outwardly facing surface of the coil spar is crenelated, the crenelated surface comprising a plurality of crenels and merlons arranged in an axial sequence; a plurality of magnet portions , each magnet portion shaped to conform to a radially inwardly facing surface of the shaft ; and at least three bearing assemblies , each bearing assembly being positioned on a respective one of the merlons ;
A method of authenticating a user to operate an electrical network device (102; 104; 106) in a network , the method comprising: encoding an identification symbol with identification data that identifies the user; capturing and storing a first image of the identification symbol by the user operating a solid-state imaging sensor in a mobile communications device that is a different piece of equipment from the electrical network device (102; 104; 106); encoding a composite symbol with the identification data and with operating data that enables the electrical network device (102; 104; 106) to be operated, the composite symbol being also encoded with Boolean logic data that specifies a Boolean logic condition; associating the composite symbol with the electrical network device (102; 104; 106) to be operated; capturing a second image of the composite symbol by the user again operating the solid-state imaging sensor in the mobile communications device ; comparing the first and second images; enabling the user to operate the electrical network device (102; 104; 106) when the identification data in the composite symbol matches the identification data in the identification symbol , and when the Boolean logic condition has been satisfied; and operating the electrical network device (102; 104; 106) with the operating data after enabling the user. encoding an identification symbol with identification data that identifies the user; capturing and storing a first image of the identification symbol by the user operating a solid-state imaging sensor in a mobile communications device that is a different piece of equipment from the electrical network device (102; 104; 106); encoding a composite symbol with the identification data and with operating data that enables the electrical network device (102; 104; 106) to be operated, the composite symbol being also encoded with Boolean logic data that specifies a Boolean logic condition; associating the composite symbol with the electrical network device (102; 104; 106) to be operated; capturing a second image of the composite symbol by the user again operating the solid-state imaging sensor in the mobile communications device ; comparing the first and second images; enabling the user to operate the electrical network device (102; 104; 106) when the identification data in the composite symbol matches the identification data in the identification symbol , and when the Boolean logic condition has been satisfied; and operating the electrical network device (102; 104; 106) with the operating data after enabling the user.
An ink server comprising: at least one ink storage unit that stores ink to be supplied to a printer ; a switching unit that switches whether to supply the ink stored in the at least one ink storage unit to the printer; a detection unit that detects a state of the ink stored in the at least one ink storage unit; a controller that controls the switching unit and the detection unit; and a power supply circuit that supplies a power supply voltage to the switching unit, the detection unit, and the controller, wherein the detection unit detects one or more of a remaining amount of ink stored in the at least one ink storage unit, a viscosity of ink stored in the at least one ink storage unit, a use period of ink stored in the at least one ink storage unit, and a degree of sedimentation of ink components stored in the at least one ink storage unit, and characterized in that the controller has a first mode in which the controller is configured to acquire a detection result from the detection unit depending on an instruction from the printer, and a second mode in which the controller is configured to acquire a detection result from the detection unit without depending on a command from the printer. at least one ink storage unit that stores ink to be supplied to a printer ; a switching unit that switches whether to supply the ink stored in the at least one ink storage unit to the printer; a detection unit that detects a state of the ink stored in the at least one ink storage unit; a controller that controls the switching unit and the detection unit; and a power supply circuit that supplies a power supply voltage to the switching unit, the detection unit, and the controller, wherein the detection unit detects one or more of a remaining amount of ink stored in the at least one ink storage unit, a viscosity of ink stored in the at least one ink storage unit, a use period of ink stored in the at least one ink storage unit, and a degree of sedimentation of ink components stored in the at least one ink storage unit, and characterized in that the controller has a first mode in which the controller is configured to acquire a detection result from the detection unit depending on an instruction from the printer, and a second mode in which the controller is configured to acquire a detection result from the detection unit without depending on a command from the printer.
A forming apparatus of the housing cone of a needle in a syringe body of a glass syringe for medical substances, comprising - a forming tool shaped to make a hole for the creation of said housing cone in the glass syringe body , - at least one dispensing device of lubricant-coolant liquid in the contact zone between said forming tool and the glass syringe body , wherein the forming tool comprises - a grip or shank portion , suitable to be gripped and moved by means of relevant motor means, - a tip suitable for forming said hole on the syringe body , - a tip body , between the tip and the grip portion , suitable for making said hole , - the grip portion , the tip body and the tip being in one piece and aligned along a prevailing extension and rotation axis (X-X) of the syringe body and/or the forming tool , characterized in that - the tip body , with respect to a cross-sectional plane perpendicular to the prevailing extension axis (X-X), has a non-circular cross section, inscribed within the maximum circle , having as its radius the maximum distance between a point (P) of said cross section and the prevailing extension axis (X-X), measured on said cross-sectional plane perpendicular to the prevailing extension axis (X-X), so as to have an overall cross section smaller than the cross section of the maximum circle . - a forming tool shaped to make a hole for the creation of said housing cone in the glass syringe body , - at least one dispensing device of lubricant-coolant liquid in the contact zone between said forming tool and the glass syringe body , - a grip or shank portion , suitable to be gripped and moved by means of relevant motor means, - a tip suitable for forming said hole on the syringe body , - a tip body , between the tip and the grip portion , suitable for making said hole , - the grip portion , the tip body and the tip being in one piece and aligned along a prevailing extension and rotation axis (X-X) of the syringe body and/or the forming tool , - the tip body , with respect to a cross-sectional plane perpendicular to the prevailing extension axis (X-X), has a non-circular cross section, inscribed within the maximum circle , having as its radius the maximum distance between a point (P) of said cross section and the prevailing extension axis (X-X), measured on said cross-sectional plane perpendicular to the prevailing extension axis (X-X), so as to have an overall cross section smaller than the cross section of the maximum circle .
A radiography system comprising: a radiation source configured to irradiate a subject with radiation; a radiation detection unit configured to detect the radiation transmitted through the subject to obtain a radiographic image; a positioning imaging device configured to image the subject facing the radiation detection unit to obtain a positioning image of the subject; and a processor, wherein the processor is configured to select an imaging menu corresponding to the positioning image from a plurality of imaging menus registered in an imaging menu registration memory and to perform imaging control on the radiation source or the radiation detection unit according to the selected imaging menu; characterized in that : an order of the imaging control based on the imaging menus is pre-set as a specific order of the plurality of the imaging menus in the imaging menu registration memory and the processor is further configured to perform the imaging control in an order different from the specific order based on the selected imaging menu. a radiation source configured to irradiate a subject with radiation; a radiation detection unit configured to detect the radiation transmitted through the subject to obtain a radiographic image; a positioning imaging device configured to image the subject facing the radiation detection unit to obtain a positioning image of the subject; and a processor, wherein the processor is configured to select an imaging menu corresponding to the positioning image from a plurality of imaging menus registered in an imaging menu registration memory and to perform imaging control on the radiation source or the radiation detection unit according to the selected imaging menu; characterized in that : an order of the imaging control based on the imaging menus is pre-set as a specific order of the plurality of the imaging menus in the imaging menu registration memory and the processor is further configured to perform the imaging control in an order different from the specific order based on the selected imaging menu.
An apparatus for supporting collaborative robots and humans in a narrowing work envelope, comprising: a base platform ; a work platform positioned above the base platform for supporting one or more humans, wherein the work platform is narrower than the base platform , and the work platform is positioned relative to the base platform to provide areas for positioning a plurality of robots on one or more sides of the work platform ; wherein the robots are supported on the base platform independently of the work platform , so that movement of the work platform does not affect the positions of the robots , wherein the base platform and work platform are configured to be positioned within a fuselage assembly of an aircraft. a base platform ; a work platform positioned above the base platform for supporting one or more humans, wherein the work platform is narrower than the base platform , and the work platform is positioned relative to the base platform to provide areas for positioning a plurality of robots on one or more sides of the work platform ; wherein the robots are supported on the base platform independently of the work platform , so that movement of the work platform does not affect the positions of the robots , wherein the base platform and work platform are configured to be positioned within a fuselage assembly of an aircraft.
Use of a flame retarder to be contained in a resin composition to confer flame retardant properties on said resin composition, said flame retarder comprising: an acrylonitrile-styrene based polymer having a weight-average molecular weight of 5000 to 1000000 obtained by photometric gel permeation chromatography employing known molecular weight samples and containing at least acrylonitrile and styrene; wherein said acrylonitrile-styrene based polymer is sulfonated with a sulfonating agent containing less than 3 wt% of moisture, whereby sulfonic acid groups and/or sulfonate groups have been introduced into said acrylonitrile-styrene based polymer and wherein the amount of said sulfonic acid groups and/or sulfonate groups based on the content of sulfur in the flame retarder is 0.001 wt% to 16 wt%, for providing compatibility to the resin. an acrylonitrile-styrene based polymer having a weight-average molecular weight of 5000 to 1000000 obtained by photometric gel permeation chromatography employing known molecular weight samples and containing at least acrylonitrile and styrene; wherein said acrylonitrile-styrene based polymer is sulfonated with a sulfonating agent containing less than 3 wt% of moisture, whereby sulfonic acid groups and/or sulfonate groups have been introduced into said acrylonitrile-styrene based polymer and wherein the amount of said sulfonic acid groups and/or sulfonate groups based on the content of sulfur in the flame retarder is 0.001 wt% to 16 wt%, for providing compatibility to the resin.
A liquid-crystal display panel , comprising: a display region (AA) and a non-display region (BB) surrounding the display region (AA); a first base , including a first substrate , and a plurality of gate lines , a plurality of data lines , and a plurality of sub-pixels (P), disposed on the first substrate , wherein the plurality of sub-pixels (P) are disposed in the display region (AA); a second base , including a second substrate ; and a liquid-crystal layer , disposed between the first base and the second base ; characterized in that , the liquid-crystal display panel further comprises: multiple pairs of heating power terminals , disposed in the non-display region (BB), and each pair including a first heating power terminal and a second heating power terminal ; wherein the first heating power terminal is adapted to output a voltage which is higher than a voltage output by the second heating power terminal ; and a plurality of heating electrodes , disposed between the first substrate and the second substrate and used to heat the liquid-crystal layer , wherein two ends of each heating electrode are connected to the first heating power terminal and the second heating power terminal of a corresponding pair of heating power terminals , respectively. a display region (AA) and a non-display region (BB) surrounding the display region (AA); a first base , including a first substrate , and a plurality of gate lines , a plurality of data lines , and a plurality of sub-pixels (P), disposed on the first substrate , wherein the plurality of sub-pixels (P) are disposed in the display region (AA); a second base , including a second substrate ; and a liquid-crystal layer , disposed between the first base and the second base ; characterized in that , the liquid-crystal display panel further comprises: multiple pairs of heating power terminals , disposed in the non-display region (BB), and each pair including a first heating power terminal and a second heating power terminal ; wherein the first heating power terminal is adapted to output a voltage which is higher than a voltage output by the second heating power terminal ; and a plurality of heating electrodes , disposed between the first substrate and the second substrate and used to heat the liquid-crystal layer , wherein two ends of each heating electrode are connected to the first heating power terminal and the second heating power terminal of a corresponding pair of heating power terminals , respectively. multiple pairs of heating power terminals , disposed in the non-display region (BB), and each pair including a first heating power terminal and a second heating power terminal ; wherein the first heating power terminal is adapted to output a voltage which is higher than a voltage output by the second heating power terminal ; and a plurality of heating electrodes , disposed between the first substrate and the second substrate and used to heat the liquid-crystal layer , wherein two ends of each heating electrode are connected to the first heating power terminal and the second heating power terminal of a corresponding pair of heating power terminals , respectively.
A method for computer-implemented controlling of one or more wind turbines in a wind farm, wherein the wind farm comprises an upstream first wind turbine and a downstream second wind turbine , wherein at each time point of one or more time points during the operation of the wind farm the following steps are performed: i) obtaining environmental data (ED) and stress data (SD) of the first wind turbine , the environmental data (ED) and the stress data (SD) being current data being taken by one or more sensors installed at the first wind turbine ; ii) determining, based on the environmental data (ED) and the stress data (SD), a status information (STI) indicating whether or not a predetermined event is present at the time of taking the environmental data (ED) and the stress data (SD), wherein the predetermined event requires immediate controlling of the first wind turbine ; iii) broadcasting a message (M) into the wind farm in case that the status information (STI) indicates the predetermined event, wherein the message (M) contains as event information (EVI) at least some of the environmental data (ED) and a timestamp (TS); iv) evaluating, on receiving the broadcast message (M), the event information (EVI) whether or not the predetermined event at the first wind turbine will hit the second wind turbine ; v) generating a control command (CO) for controlling the second wind turbine to counteract the predetermined event in case the evaluation holds that the predetermined event will hit the second wind turbine , wherein evaluating the event information (EVI) comprises determining a probability value whether the event information (EVI) is true, wherein generating the control command (CO) is initiated only if the probability value exceeds a predetermined probability threshold. i) obtaining environmental data (ED) and stress data (SD) of the first wind turbine , the environmental data (ED) and the stress data (SD) being current data being taken by one or more sensors installed at the first wind turbine ; ii) determining, based on the environmental data (ED) and the stress data (SD), a status information (STI) indicating whether or not a predetermined event is present at the time of taking the environmental data (ED) and the stress data (SD), wherein the predetermined event requires immediate controlling of the first wind turbine ; iii) broadcasting a message (M) into the wind farm in case that the status information (STI) indicates the predetermined event, wherein the message (M) contains as event information (EVI) at least some of the environmental data (ED) and a timestamp (TS); iv) evaluating, on receiving the broadcast message (M), the event information (EVI) whether or not the predetermined event at the first wind turbine will hit the second wind turbine ; v) generating a control command (CO) for controlling the second wind turbine to counteract the predetermined event in case the evaluation holds that the predetermined event will hit the second wind turbine ,
A laser system , comprising: a laser resonator , wherein the laser resonator is configured to emit an input laser beam, and wherein the input laser beam has an elliptical cross-sectional shape; a first reflective device, wherein the first reflective device is configured to reflect the input laser beam to produce a first reflected laser beam , and wherein the first reflective device includes a spherical surface for reflecting the input laser beam ; a second reflective device, wherein the second reflective device is configured to reflect the first reflected laser beam to produce a second reflected laser beam ; characterized in that the laser system comprises : a coupling device configured to focus the second reflected laser beam to produce an output laser beam , wherein the coupling device includes a spherical surface for receiving the second reflected laser beam , and wherein the output laser beam has a circular cross-sectional shape; and an optic fiber configured to transmit the output laser beam for emission of the output laser beam onto a target area, wherein the second reflective device includes a galvo mirror with a planar reflective surface . a laser resonator , wherein the laser resonator is configured to emit an input laser beam, and wherein the input laser beam has an elliptical cross-sectional shape; a first reflective device, wherein the first reflective device is configured to reflect the input laser beam to produce a first reflected laser beam , and wherein the first reflective device includes a spherical surface for reflecting the input laser beam ; a second reflective device, wherein the second reflective device is configured to reflect the first reflected laser beam to produce a second reflected laser beam ; characterized in that the laser system comprises : a coupling device configured to focus the second reflected laser beam to produce an output laser beam , wherein the coupling device includes a spherical surface for receiving the second reflected laser beam , and wherein the output laser beam has a circular cross-sectional shape; and an optic fiber configured to transmit the output laser beam for emission of the output laser beam onto a target area, wherein the second reflective device includes a galvo mirror with a planar reflective surface . a coupling device configured to focus the second reflected laser beam to produce an output laser beam , wherein the coupling device includes a spherical surface for receiving the second reflected laser beam , and wherein the output laser beam has a circular cross-sectional shape; and an optic fiber configured to transmit the output laser beam for emission of the output laser beam onto a target area, wherein the second reflective device includes a galvo mirror with a planar reflective surface .