mhurhangee/patent-ind-claim-en huggingface dataset:
A lithium metal electrode, comprising: a current collector, having at least a well having an inner sidewall and a bottom surface; at least a lithium metal layer, disposed on the bottom surface of the well and covering some parts of the inner sidewall of the well, and the lithium metal layer has a thickness; at least an insulation frame, disposed along a periphery of an opening of the well, and the insulation frame extends radially outward the opening to cover a top surface of the current collector partially and extends vertically toward the inner sidewall of the well, and the insulation frame contacts with a top surface of the lithium metal layer so that the inner sidewall of the well is completely covered for electrically insulating; a porous electrical insulation layer, covering the opening of the well and having a plurality of through holes, and diameter of the through hole is smaller than diameter of the well; and at least an ionic diffusion layer, disposed inside the well and been under the porous electrical insulation layer and the through holes completely, and the ionic diffusion layer is porous. a current collector, having at least a well having an inner sidewall and a bottom surface; at least a lithium metal layer, disposed on the bottom surface of the well and covering some parts of the inner sidewall of the well, and the lithium metal layer has a thickness; at least an insulation frame, disposed along a periphery of an opening of the well, and the insulation frame extends radially outward the opening to cover a top surface of the current collector partially and extends vertically toward the inner sidewall of the well, and the insulation frame contacts with a top surface of the lithium metal layer so that the inner sidewall of the well is completely covered for electrically insulating; a porous electrical insulation layer, covering the opening of the well and having a plurality of through holes, and diameter of the through hole is smaller than diameter of the well; and at least an ionic diffusion layer, disposed inside the well and been under the porous electrical insulation layer and the through holes completely, and the ionic diffusion layer is porous.
A scooter vehicle with integrated pillion transport container , the scooter vehicle including at least two wheels , one driven wheel and one steering wheel , a set of handlebars for steering the steering wheel to direct the scooter vehicle , a seat for a user, a step through frame, a platform for a user's feet, bodywork panels fitted to the frame and the integrated pillion transport container including a generally U-shaped lower portion to be attached to the scooter frame, the container having an enclosure defined by number of walls and having an interior portion adapted for receiving articles to be transported, the scooter vehicle being characterised in that it runs mainly on electrical power and it further includes a rechargeable battery for powering the scooter vehicle, at least one LED panel screen located in the container for illuminating at least part of at least one external wall of the container , at least some of the walls to allow at least some of the illumination to pass therethrough, and a power supply configured to supply electrical power to the container.
An electromagnetic transducer comprising: a voice coil including at least a first coil and a second coil axially spaced from each other and disposed around a central region of the transducer , the voice coil including a former having a closed end cap , wherein the voice coil and former are configured to oscillate due to electromagnetic forces generated in response to an electrical signal passed through the voice coil , and the end cap is configured to oscillate with the former ; a movable diaphragm extending generally outwardly from the central region and including an inner edge attached to the voice coil , where the diaphragm includes a concave surface ; at least one magnet assembly positioned forward of the concave surface , the at least one magnet assembly defining at least two magnetic gaps disposed about the central region where the first coil is at least partially disposed in a first magnetic gap and the second coil is at least partially disposed in a second magnetic gap ; and a center hub disposed about a central axis of the transducer and coupled to the at least one magnet assembly , characterized in that the at least one magnet assembly defines a port disposed about the central axis of the transducer , wherein the port provides a path for hot air to be pumped by the end cap from within a space between the at least one magnet assembly and the end cap through the port and out through the center hub to dissipate heat into the ambient air. a voice coil including at least a first coil and a second coil axially spaced from each other and disposed around a central region of the transducer , the voice coil including a former having a closed end cap , wherein the voice coil and former are configured to oscillate due to electromagnetic forces generated in response to an electrical signal passed through the voice coil , and the end cap is configured to oscillate with the former ; a movable diaphragm extending generally outwardly from the central region and including an inner edge attached to the voice coil , where the diaphragm includes a concave surface ; at least one magnet assembly positioned forward of the concave surface , the at least one magnet assembly defining at least two magnetic gaps disposed about the central region where the first coil is at least partially disposed in a first magnetic gap and the second coil is at least partially disposed in a second magnetic gap ; and a center hub disposed about a central axis of the transducer and coupled to the at least one magnet assembly , characterized in that the at least one magnet assembly defines a port disposed about the central axis of the transducer , wherein the port provides a path for hot air to be pumped by the end cap from within a space between the at least one magnet assembly and the end cap through the port and out through the center hub to dissipate heat into the ambient air.
Trailer comprising an elongate chassis and a superstructure arranged on the chassis, wherein the trailer has a first side and an opposite second side, each extending substantially parallel relative to a central longitudinal axis of the chassis; wherein on the first side a side wall of the superstructure takes for the most part a fixed form, for instance with fixedly disposed plate parts, and wherein on the second side a side wall of the superstructure is embodied for the most part with doors ; characterized in that the chassis has an asymmetrical form relative to the central longitudinal axis for the purpose of at least partially compensating for a decrease in bending stiffness on the second side of the trailer as a result of the doors being open. wherein on the first side a side wall of the superstructure takes for the most part a fixed form, for instance with fixedly disposed plate parts, and wherein on the second side a side wall of the superstructure is embodied for the most part with doors ; characterized in that the chassis has an asymmetrical form relative to the central longitudinal axis for the purpose of at least partially compensating for a decrease in bending stiffness on the second side of the trailer as a result of the doors being open.
An apparatus comprising: a collection module to obtain flight stage information of an aircraft ; and a sequence and control module to: calculate a first position of a folding wingtip assembly operatively coupled to a wing of the aircraft; determine actions during a first stage and a second stage to complete in sequence to move the folding wingtip assembly; determine an operational status of a component of the folding wingtip assembly based on a measurement of a sensor ; and control a movement of the folding wingtip assembly in accordance with the actions and based on the operational status; the sequence and control module including a controller configured to control the folding wingtip assembly to move from a second position to the first position when the operational status of the component is operational; wherein the sequence and control module is configured to calculate a third position, and the controller is configured to control the folding wingtip assembly to move from the second position to the third position, when the operational status of the component is non-responsive. a collection module to obtain flight stage information of an aircraft ; and a sequence and control module to: calculate a first position of a folding wingtip assembly operatively coupled to a wing of the aircraft; determine actions during a first stage and a second stage to complete in sequence to move the folding wingtip assembly; determine an operational status of a component of the folding wingtip assembly based on a measurement of a sensor ; and control a movement of the folding wingtip assembly in accordance with the actions and based on the operational status; calculate a first position of a folding wingtip assembly operatively coupled to a wing of the aircraft; determine actions during a first stage and a second stage to complete in sequence to move the folding wingtip assembly; determine an operational status of a component of the folding wingtip assembly based on a measurement of a sensor ; and control a movement of the folding wingtip assembly in accordance with the actions and based on the operational status; the sequence and control module including a controller configured to control the folding wingtip assembly to move from a second position to the first position when the operational status of the component is operational; wherein the sequence and control module is configured to calculate a third position, and the controller is configured to control the folding wingtip assembly to move from the second position to the third position, when the operational status of the component is non-responsive.
A method for assembling dispensing devices for dispensing a medicament , wherein the dispensing devices which are to be assembled each comprise a conveying element which can be moved in particular axially for conveying the medicament , a guide element for guiding the conveying element , and a preferably ring-shaped sealing element for sealing the conveying element against the guide element , wherein the guide element at least partially delimits a receiving space for receiving the sealing element and the sealing element can be fixed in the receiving space , wherein according to the method, a preferably ring-shaped sealing element is arranged in a receiving space of the dispensing device or in a receiving space in a test system, wherein the receiving space in the test system has the same dimensions as the receiving space of the dispensing device, characterized in that the sealing element arranged in the receiving space is deformed, and an assembling process parameter (M) is determined in the process on the basis of the deformation behavior and/or friction behavior of the sealing element during the deformation, wherein the sealing element , or a different sealing element to be installed, is fixed in a receiving space of a dispensing device using the assembling process parameter (M). wherein the dispensing devices which are to be assembled each comprise a conveying element which can be moved in particular axially for conveying the medicament , a guide element for guiding the conveying element , and a preferably ring-shaped sealing element for sealing the conveying element against the guide element , wherein the guide element at least partially delimits a receiving space for receiving the sealing element and the sealing element can be fixed in the receiving space , wherein according to the method, a preferably ring-shaped sealing element is arranged in a receiving space of the dispensing device or in a receiving space in a test system, wherein the receiving space in the test system has the same dimensions as the receiving space of the dispensing device, characterized in that the sealing element arranged in the receiving space is deformed, and an assembling process parameter (M) is determined in the process on the basis of the deformation behavior and/or friction behavior of the sealing element during the deformation, wherein the sealing element , or a different sealing element to be installed, is fixed in a receiving space of a dispensing device using the assembling process parameter (M).
A method operating on a computing device , the method comprising: receiving, via a receiver, a first signal that conveys a first packet encoding a command in a first infrared protocol; identifying a controlled device , the controlled device having a controlled device infrared protocol for controlling the controlled device having an associated recovery time after receiving malformed communication; obtaining translation data for the controlled device, the translation data conveying translations from another infrared protocol into the controlled device infrared protocol; performing translation processing of a first command in the another infrared protocol to a second command in the controlled device infrared protocol; determining a duration of the translation processing; configuring a delay based at least on a duration of the translation processing from the another infrared protocol to the controlled device infrared protocol; and transmitting the second command to the controlled device after the delay based on the associated recovery time. receiving, via a receiver, a first signal that conveys a first packet encoding a command in a first infrared protocol; identifying a controlled device , the controlled device having a controlled device infrared protocol for controlling the controlled device having an associated recovery time after receiving malformed communication; obtaining translation data for the controlled device, the translation data conveying translations from another infrared protocol into the controlled device infrared protocol; performing translation processing of a first command in the another infrared protocol to a second command in the controlled device infrared protocol; determining a duration of the translation processing; configuring a delay based at least on a duration of the translation processing from the another infrared protocol to the controlled device infrared protocol; and transmitting the second command to the controlled device after the delay based on the associated recovery time.
A hybrid vehicle that travels by using motive power output from at least one of an internal combustion engine and a motor for vehicle traveling, comprising: a power storage device for storing electric power to be supplied to said motor; and an electric power receiving unit for receiving electric power supplied from a power supply external to the vehicle; characterized by comprising: a charging device configured to convert a voltage of electric power input from said electric power receiving unit and charge said power storage device; a heater for receiving operation power from said charging device and warming up said internal combustion engine; and a controller for controlling said charging device to give higher priority to power feeding to said heater than to charging of said power storage device, when said heater is electrically connected to said charging device. a power storage device for storing electric power to be supplied to said motor; and an electric power receiving unit for receiving electric power supplied from a power supply external to the vehicle; characterized by comprising: a charging device configured to convert a voltage of electric power input from said electric power receiving unit and charge said power storage device; a heater for receiving operation power from said charging device and warming up said internal combustion engine; and a controller for controlling said charging device to give higher priority to power feeding to said heater than to charging of said power storage device, when said heater is electrically connected to said charging device. a charging device configured to convert a voltage of electric power input from said electric power receiving unit and charge said power storage device; a heater for receiving operation power from said charging device and warming up said internal combustion engine; and a controller for controlling said charging device to give higher priority to power feeding to said heater than to charging of said power storage device, when said heater is electrically connected to said charging device.
A distributed battery management system comprising: a master module and at least one slave module , wherein each slave module is adapted to manage a corresponding battery pack, the battery pack being connected in series in a power circuit through a power cable, and wherein the master module and each slave module are respectively connected in the power circuit through the power cable, and the master module can be configured to communicate with the slave module through the power cable, and wherein the master module is connected to the positive electrode of the first battery pack of battery packs connected in series through a first switch (S1) of the master module , and the master module is connected to the negative electrode of the last battery of battery backs connected in series through a second switch (S2) of the master module , and characterised in that when the first switch is closed and the second switch is opened, the master module is configured to communicate with one or more slave modules before a breaker point of the power cable among the at least one slave module in a direction from a first battery pack to a last battery pack, and when the first switch is opened and the second switch is closed, the master module is configured to communicate with one or more slave modules after the breaker point in the direction. a master module and at least one slave module , wherein each slave module is adapted to manage a corresponding battery pack, the battery pack being connected in series in a power circuit through a power cable, and wherein the master module and each slave module are respectively connected in the power circuit through the power cable, and the master module can be configured to communicate with the slave module through the power cable, and wherein the master module is connected to the positive electrode of the first battery pack of battery packs connected in series through a first switch (S1) of the master module , and the master module is connected to the negative electrode of the last battery of battery backs connected in series through a second switch (S2) of the master module , and
An assembly comprising: a turbine housing that comprises a bore , a wastegate seat , wastegate passages (423-1, 423-2, 523-1, 523-2, 623-1, 623-2) that extend to the wastegate seat and a divider wall disposed between the wastegate passages wherein the divider wall comprises a divider wall surface ; a rotatable wastegate shaft configured for receipt by the bore; a wastegate arm extending from the wastegate shaft; and a wastegate plug extending from the wastegate arm; wherein the wastegate plug comprises a contact portion that contacts the wastegate seat to cover the wastegate passages in a closed state ; characterised in that the wastegate plug comprises furthermore a mesh that contacts the divider wall surface in the closed state. a turbine housing that comprises a bore , a wastegate seat , wastegate passages (423-1, 423-2, 523-1, 523-2, 623-1, 623-2) that extend to the wastegate seat and a divider wall disposed between the wastegate passages wherein the divider wall comprises a divider wall surface ; a rotatable wastegate shaft configured for receipt by the bore; a wastegate arm extending from the wastegate shaft; and a wastegate plug extending from the wastegate arm; wherein the wastegate plug comprises a contact portion that contacts the wastegate seat to cover the wastegate passages in a closed state ; characterised in that the wastegate plug comprises furthermore a mesh that contacts the divider wall surface in the closed state.
A piezoelectric actuated droplet generating device for delivering a fluid to an eye of a subject as an ejected stream of droplets, the device comprising: a housing ; a reservoir disposed within the housing for receiving a volume of fluid; an ejector mechanism comprising an ejector plate coupled to a fluid delivery area of the reservoir, the ejector plate including a plurality of openings formed through its thickness; and a piezoelectric actuator coupled to the ejector plate; characterized in that each of the plurality of openings has a nominal exit diameter between 15 microns and 60 microns and the piezoelectric actuator is configured to oscillate the ejector plate at a frequency to thereby generate an ejected stream of droplets having an average ejected droplet diameter between 20 microns and 100 microns and an average initial droplet ejecting velocity between 0.5 m/s and 10 m/s, such that during use at least 85% of the mass of the ejected stream of droplets deposit on the eye of a subject when the droplet generating device is less than 6 cm, preferably less than 3 cm, away from the eye of the subject. a housing ; a reservoir disposed within the housing for receiving a volume of fluid; an ejector mechanism comprising an ejector plate coupled to a fluid delivery area of the reservoir, the ejector plate including a plurality of openings formed through its thickness; and a piezoelectric actuator coupled to the ejector plate; characterized in that each of the plurality of openings has a nominal exit diameter between 15 microns and 60 microns and the piezoelectric actuator is configured to oscillate the ejector plate at a frequency to thereby generate an ejected stream of droplets having an average ejected droplet diameter between 20 microns and 100 microns and an average initial droplet ejecting velocity between 0.5 m/s and 10 m/s, such that during use at least 85% of the mass of the ejected stream of droplets deposit on the eye of a subject when the droplet generating device is less than 6 cm, preferably less than 3 cm, away from the eye of the subject.