mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a control device configured for controlling a media playback system , the media playback system comprising a plurality of playback zones each comprising at least one respective playback device , the method comprising: displaying a graphical user interface comprising an indication of a first zone, wherein the graphical user interface does not comprise an indication of a plurality of additional zones; and detecting , by the control device, a single user input that indicates a command to: determine a second zone of the plurality of additional zones; cause the first zone to form a zone group with the identified second zone, wherein all playback devices in a zone group play back media in synchrony; and cause the zone group to play back media in synchrony; and characterised by : based on the detected input: determining the second zone based on a detected signal strength, wherein the signal strength is the signal strength of a playback device playing media in a potential zone that the first zone might join with, and is detected by a playback device in the first zone; causing the first zone to form the zone group with the second zone; and causing the zone group to play back in synchrony the media that the second zone is currently playing. displaying a graphical user interface comprising an indication of a first zone, wherein the graphical user interface does not comprise an indication of a plurality of additional zones; and detecting , by the control device, a single user input that indicates a command to: determine a second zone of the plurality of additional zones; cause the first zone to form a zone group with the identified second zone, wherein all playback devices in a zone group play back media in synchrony; and cause the zone group to play back media in synchrony; and determine a second zone of the plurality of additional zones; cause the first zone to form a zone group with the identified second zone, wherein all playback devices in a zone group play back media in synchrony; and cause the zone group to play back media in synchrony; and characterised by : based on the detected input: determining the second zone based on a detected signal strength, wherein the signal strength is the signal strength of a playback device playing media in a potential zone that the first zone might join with, and is detected by a playback device in the first zone; causing the first zone to form the zone group with the second zone; and causing the zone group to play back in synchrony the media that the second zone is currently playing. determining the second zone based on a detected signal strength, wherein the signal strength is the signal strength of a playback device playing media in a potential zone that the first zone might join with, and is detected by a playback device in the first zone; causing the first zone to form the zone group with the second zone; and causing the zone group to play back in synchrony the media that the second zone is currently playing.
A vibratory flow meter , comprising: a curved flow tube ; and a balance system coupled to the curved flow tube and sized and located such that the combined center of mass (C cm ) of the curved flow tube and the balance system lies proximate an axis of rotation of the curved flow tube ; characterized in that : the balance system comprises a balance bar and one or more brace bars coupling the balance bar to the curved flow tube . a curved flow tube ; and a balance system coupled to the curved flow tube and sized and located such that the combined center of mass (C cm ) of the curved flow tube and the balance system lies proximate an axis of rotation of the curved flow tube ; characterized in that : the balance system comprises a balance bar and one or more brace bars coupling the balance bar to the curved flow tube .
A viral capsid protein comprising a sequence selected from the group consisting of xxDxTKx (SEQ ID NO:1) and xDxTKxx (SEQ ID NO:2), wherein the viral capsid protein has an amino acid sequence selected from the group consisting of SEQ ID NO: 6, 8, 10, 12, 14, 18, 22, 26, 28, 30, 32, 34, 36, 38, 40, 42, 44, 46, 48, 50, 54, 56, 60, 64, 66, 68, 70, 72, 74, 76, and 78.
A solar spectrum-like LED structure, comprising: a negative electrode for a three-dimensional integrated package, the negative electrode for a three-dimensional integrated package is a three-dimensional structure comprising a plurality of planes; a plurality of LED chips , the plurality of LED chips are installed on the plurality of planes of the negative electrode for the three-dimensional integrated package, each plane is correspondingly installed with one LED chip; a plurality of resistors, one end of each of the plurality of resistors is separately connected to the light emitting surface of the LED chips, and the other end of each of the plurality of resistors is connected to the positive electrode, wherein the negative electrode for a three-dimensional integrated package is a structure designed based on semi-cylindrical surface having a plurality of planes thereon, the lines from the center point of each plane to the center of the designed semi-cylindrical surface are separately perpendicular to each of the corresponding planes, the plurality of LED chips are separately installed on the each plane, and each plane is correspondingly installed with one LED chip, characterized in that , the computational formula of the design radius of the structure designed based on semi-cylindrical surface is as follows: Ra = 1 2 L + M / sin 90 ° n wherein, L is the size of the edge of LED chip, M is the spacing between the LED chips, n is the number of the LED chips, and Ra is the design radius of the electrode designed based on semi-cylindrical surface. a negative electrode for a three-dimensional integrated package, the negative electrode for a three-dimensional integrated package is a three-dimensional structure comprising a plurality of planes; a plurality of LED chips , the plurality of LED chips are installed on the plurality of planes of the negative electrode for the three-dimensional integrated package, each plane is correspondingly installed with one LED chip; a plurality of resistors, one end of each of the plurality of resistors is separately connected to the light emitting surface of the LED chips, and the other end of each of the plurality of resistors is connected to the positive electrode, wherein the negative electrode for a three-dimensional integrated package is a structure designed based on semi-cylindrical surface having a plurality of planes thereon, the lines from the center point of each plane to the center of the designed semi-cylindrical surface are separately perpendicular to each of the corresponding planes, the plurality of LED chips are separately installed on the each plane, and each plane is correspondingly installed with one LED chip, characterized in that , the computational formula of the design radius of the structure designed based on semi-cylindrical surface is as follows: Ra = 1 2 L + M / sin 90 ° n wherein, L is the size of the edge of LED chip, M is the spacing between the LED chips, n is the number of the LED chips, and Ra is the design radius of the electrode designed based on semi-cylindrical surface.
Assembly for the construction of a nuclear reactor which forms part of an onshore nuclear island, the assembly comprising: - a vessel which is adapted to contain a core of said nuclear reactor to be constructed, the vessel being adapted to be arranged in said onshore nuclear reactor; - a prefabricated structure having a shell allowing the prefabricated structure to be used as a floating structure; - the prefabricated structure comprising at least: * a basin which defines at least part of the shell of the prefabricated structure ; * a sealed containment arranged inside the basin , the sealed containment being adapted to constitute the containment structure of said onshore nuclear reactor, the vessel being placed in the containment , the basin being adapted for cooling the containment in an accident situation of the onshore nuclear reactor and/or being adapted to be a cold source that supplies a safety cooling circuit of the onshore nuclear reactor. - a vessel which is adapted to contain a core of said nuclear reactor to be constructed, the vessel being adapted to be arranged in said onshore nuclear reactor; - a prefabricated structure having a shell allowing the prefabricated structure to be used as a floating structure; - the prefabricated structure comprising at least: * a basin which defines at least part of the shell of the prefabricated structure ; * a sealed containment arranged inside the basin , the sealed containment being adapted to constitute the containment structure of said onshore nuclear reactor, the vessel being placed in the containment , the basin being adapted for cooling the containment in an accident situation of the onshore nuclear reactor and/or being adapted to be a cold source that supplies a safety cooling circuit of the onshore nuclear reactor. * a basin which defines at least part of the shell of the prefabricated structure ; * a sealed containment arranged inside the basin , the sealed containment being adapted to constitute the containment structure of said onshore nuclear reactor, the vessel being placed in the containment , the basin being adapted for cooling the containment in an accident situation of the onshore nuclear reactor and/or being adapted to be a cold source that supplies a safety cooling circuit of the onshore nuclear reactor.
A method for manufacturing face protection masks , comprising: - forming an array of mask bodies advancing in a machine direction (X), - forming a first and a second array (108', 108") of ear loops , wherein each ear loop includes a respective portion of U-bent elastic thread , - attaching successive pairs of ear loops to respective mask bodies , wherein said step of forming a first and a second array (108', 108") of ear loops , comprises: - feeding two continuous elastic threads in respective longitudinal directions, said method being characterised in that it further comprises: - retaining terminal portions of each of said continuous elastic threads by respective arrays of holding sectors carried by a mobile structure , wherein said holding sectors are arranged in groups of sectors which hold respective elastic thread portions , wherein each of said groups of sectors comprises a fixed sector and two movable sectors arranged laterally on opposite sides of the fixed sector , - cutting successive elastic thread portions between each pair of groups of sectors adjacent to each other so that each group of sectors holds a respective discrete elastic thread portion , - bending each of said discrete elastic thread portions into a U-shape by rotating said movable sectors of each of said groups of sectors with respect to the respective fixed sector , so as to form a succession of discrete U-bent elastic thread portions . - forming an array of mask bodies advancing in a machine direction (X), - forming a first and a second array (108', 108") of ear loops , wherein each ear loop includes a respective portion of U-bent elastic thread , - attaching successive pairs of ear loops to respective mask bodies , - feeding two continuous elastic threads in respective longitudinal directions, - retaining terminal portions of each of said continuous elastic threads by respective arrays of holding sectors carried by a mobile structure , wherein said holding sectors are arranged in groups of sectors which hold respective elastic thread portions , wherein each of said groups of sectors comprises a fixed sector and two movable sectors arranged laterally on opposite sides of the fixed sector , - cutting successive elastic thread portions between each pair of groups of sectors adjacent to each other so that each group of sectors holds a respective discrete elastic thread portion , - bending each of said discrete elastic thread portions into a U-shape by rotating said movable sectors of each of said groups of sectors with respect to the respective fixed sector , so as to form a succession of discrete U-bent elastic thread portions .
A rotor constituting an interior permanent magnet motor, the rotor comprising: a permanent magnet (2-1 to 2-6) generating a magnetic field; and a rotor core including a magnet insertion pocket (5-1 to 5-6) to which the permanent magnet (2-1 to 2-6) is inserted, wherein outer circumferential faces of the magnet insertion pocket and of the permanent magnet are shaped as an arc that projects toward an outer circumference of the rotor core, wherein, when the permanent magnet (2-1 to 2-6) is inserted, the magnet insertion pocket (5-1) to (5-6) is formed so as to provide a space in an area at both ends in a circumferential direction of the permanent magnet, and wherein the magnet (2-1 to 2-6) provided with cut-off portions made by cut surfaces on the end sides on both sides of an outer circumferential side, wherein the cut surfaces of two adjacent magnets (2-1 to 2-6) are defined, in an axial cross-section of the rotor, by a line (b-b') that is perpendicular to the center line (a-a') between adjacent magnets, wherein the space at each circumferential end of the magnet (2-1 to 2-6) is delimited, in an axial cross-section of the rotor, by the cut surface and the arcuate shape of the outer circumferential face of the magnet insertion pocket (5-1 - 5-6). a permanent magnet (2-1 to 2-6) generating a magnetic field; and a rotor core including a magnet insertion pocket (5-1 to 5-6) to which the permanent magnet (2-1 to 2-6) is inserted, wherein outer circumferential faces of the magnet insertion pocket and of the permanent magnet are shaped as an arc that projects toward an outer circumference of the rotor core, wherein, when the permanent magnet (2-1 to 2-6) is inserted, the magnet insertion pocket (5-1) to (5-6) is formed so as to provide a space in an area at both ends in a circumferential direction of the permanent magnet, and wherein the magnet (2-1 to 2-6) provided with cut-off portions made by cut surfaces on the end sides on both sides of an outer circumferential side, wherein the cut surfaces of two adjacent magnets (2-1 to 2-6) are defined, in an axial cross-section of the rotor, by a line (b-b') that is perpendicular to the center line (a-a') between adjacent magnets, wherein the space at each circumferential end of the magnet (2-1 to 2-6) is delimited, in an axial cross-section of the rotor, by the cut surface and the arcuate shape of the outer circumferential face of the magnet insertion pocket (5-1 - 5-6).
An automated road sweeper comprising: - means of transport suitable to allow said sweeper to travel on a road surface including debris , - a plurality of cleaning members arranged at fixed points located in different portions of said sweeper and suitable for cleaning within predetermined cleaning areas , and characterised in that it further comprises - selection means operatively connected to said cleaning members , suitable for scanning said road surface and locating said debris so as to select and exclusively operate said cleaning members , the said cleaning area of which covers said debris during the movement of said sweeper . - means of transport suitable to allow said sweeper to travel on a road surface including debris , - a plurality of cleaning members arranged at fixed points located in different portions of said sweeper and suitable for cleaning within predetermined cleaning areas , - selection means operatively connected to said cleaning members , suitable for scanning said road surface and locating said debris so as to select and exclusively operate said cleaning members , the said cleaning area of which covers said debris during the movement of said sweeper .
Control method for adjusting a driving behaviour of an electric bicycle when pushing the electric bicycle , at least comprising the following steps • identifying activation of a pushing assistant by a user, • detecting a speed (v) of the electric bicycle , • ascertaining a steering angle (α) of a handlebar of the electric bicycle , • controlling an electric motor of a drive unit of the electric bicycle depending on the identified activation of the pushing assistant, the detected speed (v) and the ascertained steering angle (α) for adjusting the speed (v) and/or an acceleration (a) of the electric bicycle , characterized in that , • by controlling the electric motor , a speed (v) of the electric bicycle which continuously decreases as the magnitude of the steering angle (α) increases and/or an acceleration (a) of the electric vehicle which continuously decreases as the magnitude of the steering angle (α) increases is set, and/or, • by controlling the electric motor , a constant speed (v min ) of the electric bicycle and/or a constant acceleration (a min ) of the electric bicycle is set for a magnitude of the steering angle ( α ) greater than or equal to a steering angle threshold value (SWa), and/or • the control of the electric motor is additionally performed depending on a plurality of predefined steering angle ranges , wherein a speed (v) of the electric bicycle associated with the respective steering angle range and/or an acceleration (a) of the electric bicycle associated with the respective steering angle range is set by the control of the electric motor depending on a magnitude of the steering angle (α). • identifying activation of a pushing assistant by a user, • detecting a speed (v) of the electric bicycle , • ascertaining a steering angle (α) of a handlebar of the electric bicycle , • controlling an electric motor of a drive unit of the electric bicycle depending on the identified activation of the pushing assistant, the detected speed (v) and the ascertained steering angle (α) for adjusting the speed (v) and/or an acceleration (a) of the electric bicycle , characterized in that , • by controlling the electric motor , a speed (v) of the electric bicycle which continuously decreases as the magnitude of the steering angle (α) increases and/or an acceleration (a) of the electric vehicle which continuously decreases as the magnitude of the steering angle (α) increases is set, and/or, • by controlling the electric motor , a constant speed (v min ) of the electric bicycle and/or a constant acceleration (a min ) of the electric bicycle is set for a magnitude of the steering angle ( α ) greater than or equal to a steering angle threshold value (SWa), and/or • the control of the electric motor is additionally performed depending on a plurality of predefined steering angle ranges , wherein a speed (v) of the electric bicycle associated with the respective steering angle range and/or an acceleration (a) of the electric bicycle associated with the respective steering angle range is set by the control of the electric motor depending on a magnitude of the steering angle (α).
Identification module for mobile devices, wherein the identification module has a housing , a transponder , an energy storage device and a printed circuit board that carries the transponder or that is connected to the transponder , wherein the housing has an opening , a chamber , a recess opposite the opening and means for arranging or fastening the identification module on/to a mobile device, wherein the transponder has a data storage device for storing identification data and a radio module for wirelessly transmitting the identification data and is supplied with energy by means of the energy storage device , wherein the chamber is delimited on the one hand by the opening and on the other hand by the recess , and wherein the energy storage device is arranged so as to be removable through the opening and the opening can be closed by a cover , characterized in that the printed circuit board is arranged in the recess of the housing and closes the chamber with the interposition of a sealing element , wherein the back side of the printed circuit board that faces away from the chamber is sealed by means of an encapsulation compound . wherein the transponder has a data storage device for storing identification data and a radio module for wirelessly transmitting the identification data and is supplied with energy by means of the energy storage device , wherein the chamber is delimited on the one hand by the opening and on the other hand by the recess , and wherein the energy storage device is arranged so as to be removable through the opening and the opening can be closed by a cover , characterized in that the printed circuit board is arranged in the recess of the housing and closes the chamber with the interposition of a sealing element , wherein the back side of the printed circuit board that faces away from the chamber is sealed by means of an encapsulation compound .
A method for providing a user authentication credential, the method comprising: - a) registering, in a device, at least one reference character, as a first user authentication credential; - b) submitting , by the user, to the device, at least one character, as a second user authentication credential; - c) retrieving , by the device, each of the at least one reference character comprised within the first user authentication credential along with a corresponding position within the first user authentication credential; - d) comparing , by the device, each of the just submitted character within the second user authentication credential to a corresponding reference character within the first user authentication credential at one and the same position within the second user authentication credential and the first user authentication credential; and - e) providing , by the device to the user, just after the character submission, only if the just submitted character does not match the corresponding reference character, at least one information item for prompting the user to correct the just submitted character, so that the user is able to correct individually each concerned wrong entered character with its place without having to re-enter all of the other characters. - a) registering, in a device, at least one reference character, as a first user authentication credential; - b) submitting , by the user, to the device, at least one character, as a second user authentication credential; - c) retrieving , by the device, each of the at least one reference character comprised within the first user authentication credential along with a corresponding position within the first user authentication credential; - d) comparing , by the device, each of the just submitted character within the second user authentication credential to a corresponding reference character within the first user authentication credential at one and the same position within the second user authentication credential and the first user authentication credential; and - e) providing , by the device to the user, just after the character submission, only if the just submitted character does not match the corresponding reference character, at least one information item for prompting the user to correct the just submitted character, so that the user is able to correct individually each concerned wrong entered character with its place without having to re-enter all of the other characters.