mhurhangee/patent-ind-claim-en huggingface dataset:
Laboratory sample distribution system , comprising: - a number of container carriers , said container carriers being adapted to carry a sample container and each having a stand , - a transport plane being adapted to carry said container carriers, and - a number of electro-magnetic actuators being stationary arranged below said transport plane, said electro-magnetic actuators being adapted to move a container carrier on top of said transport plane by applying a magnetic force to said container carrier, - wherein the electro-magnetic actuators are arranged in rows and columns forming a grid, wherein adjacent rows have different grid dimensions selected either from a first grid dimension (g1) or a second grid dimension (g2), wherein adjacent columns have different grid dimensions selected either from the first grid dimension (g1) or the second grid dimension (g2), wherein the grid dimensions (g1, g2) specify a distance between adjacent electro-magnetic actuators in a given row or column and wherein the second grid dimension (g2) is larger erthan the first grid dimension (g1), wherein - said container carriers each comprise one magnetically active device, preferably one permanent magnet , and - said stand has a circular cross section having a diameter (D) that is equal to or smaller than the larger grid dimension (g2). - a number of container carriers , said container carriers being adapted to carry a sample container and each having a stand , - a transport plane being adapted to carry said container carriers, and - a number of electro-magnetic actuators being stationary arranged below said transport plane, said electro-magnetic actuators being adapted to move a container carrier on top of said transport plane by applying a magnetic force to said container carrier, - wherein the electro-magnetic actuators are arranged in rows and columns forming a grid, wherein adjacent rows have different grid dimensions selected either from a first grid dimension (g1) or a second grid dimension (g2), wherein adjacent columns have different grid dimensions selected either from the first grid dimension (g1) or the second grid dimension (g2), wherein the grid dimensions (g1, g2) specify a distance between adjacent electro-magnetic actuators in a given row or column and wherein the second grid dimension (g2) is larger erthan the first grid dimension (g1), wherein - said container carriers each comprise one magnetically active device, preferably one permanent magnet , and - said stand has a circular cross section having a diameter (D) that is equal to or smaller than the larger grid dimension (g2).
A cleaner comprising: a suction inlet configured to guide air and dusts; a main body comprising a first cyclone unit configured to separate the air and the dusts, which are suctioned through the suction inlet , from each other; a dust separation module separably connected to the main body and comprising a second cyclone unit configured to separate the dusts from the air discharged from the first cyclone unit ; and a discharge guide separably coupled to the dust separation module and configured to guide the air discharged from the second cyclone unit , wherein the dust separation module is disposed in an inner space of the first cyclone unit in a state in which the dust separation module is mounted on the main body , wherein the main body comprises a dust container configured to store the dusts separated in the each of the cyclone unit and a cover configured to open and close the dust container , when the dust separation module is separated from the discharge guide by rotation and separated to the lower side of the dust container through a discharge opening . a suction inlet configured to guide air and dusts; a main body comprising a first cyclone unit configured to separate the air and the dusts, which are suctioned through the suction inlet , from each other; a dust separation module separably connected to the main body and comprising a second cyclone unit configured to separate the dusts from the air discharged from the first cyclone unit ; and a discharge guide separably coupled to the dust separation module and configured to guide the air discharged from the second cyclone unit , wherein the dust separation module is disposed in an inner space of the first cyclone unit in a state in which the dust separation module is mounted on the main body , wherein the main body comprises a dust container configured to store the dusts separated in the each of the cyclone unit and a cover configured to open and close the dust container , wherein the dust separation module is disposed in an inner space of the first cyclone unit in a state in which the dust separation module is mounted on the main body , wherein the main body comprises a dust container configured to store the dusts separated in the each of the cyclone unit and a cover configured to open and close the dust container , when the dust separation module is separated from the discharge guide by rotation and separated to the lower side of the dust container through a discharge opening .
A vacuum arc remelting system for forming an ingot from an electrode , the system comprising: a crucible assembly configured to accommodate the electrode and the ingot ; and an electromagnetic energy source arranged around the crucible assembly , wherein the electromagnetic energy source and the crucible assembly are configured to move relative to one another along a longitudinal axis of the crucible assembly , wherein the electromagnetic energy source is a coil assembly comprising a magnetic core and a plurality of coil pairs wrapped around the core , wherein the coil assembly is operable to generate a magnetic field from the coil based on electric current flowing in the plurality of coil pairs, wherein a rotating magnetic field is formed by cycling electric current through the coil assembly in a sinusoidal manner with a predetermined phase angle offset to generate the rotating magnetic field, wherein the rotating magnetic field is limited to an arc region of the ingot during remelting, wherein the arc region is a gap between the electrode and the ingot . a crucible assembly configured to accommodate the electrode and the ingot ; and an electromagnetic energy source arranged around the crucible assembly , wherein the electromagnetic energy source and the crucible assembly are configured to move relative to one another along a longitudinal axis of the crucible assembly , wherein the electromagnetic energy source is a coil assembly comprising a magnetic core and a plurality of coil pairs wrapped around the core , wherein the coil assembly is operable to generate a magnetic field from the coil based on electric current flowing in the plurality of coil pairs, wherein a rotating magnetic field is formed by cycling electric current through the coil assembly in a sinusoidal manner with a predetermined phase angle offset to generate the rotating magnetic field,
A semiconductor device manufacturing method comprising: forming a base conductive member on a surface of a substrate , and in a hole section formed in the substrate ; forming a resist on a part of the base conductive member ; removing the resist until the remaining resist has a thickness of 1 μm, after forming a conductive layer on a part, including the hole section , except for a part at which the resist is formed and before forming the mask metal on the conductive layer; forming a mask metal on the conductive layer with a surface of the conductive layer protected by the remaining resist ; removing the remaining resist after forming the mask metal ; and etching the base conductive member using the mask metal as a mask to form the conductive layer into a predetermined shape, resulting in formation of an electrode pad section for three-dimensional packaging. forming a base conductive member on a surface of a substrate , and in a hole section formed in the substrate ; forming a resist on a part of the base conductive member ; removing the resist until the remaining resist has a thickness of 1 μm, after forming a conductive layer on a part, including the hole section , except for a part at which the resist is formed and before forming the mask metal on the conductive layer; forming a mask metal on the conductive layer with a surface of the conductive layer protected by the remaining resist ; removing the remaining resist after forming the mask metal ; and etching the base conductive member using the mask metal as a mask to form the conductive layer into a predetermined shape, resulting in formation of an electrode pad section for three-dimensional packaging.
An electric cleaning apparatus, comprising: an autonomous cleaning unit which moves autonomously over a surface to be cleaned and collects dust; and a station unit which has a charging electrode for the autonomous cleaning unit , wherein the autonomous cleaning unit includes a first body case having a first inlet at a bottom surface of the first body case , a charging terminal , a secondary battery which accumulates electric power supplied via the charging terminal from the charging electrode , a first dust collecting container which accumulates dust sucked from the first inlet , and an electric blower which is driven by electric power supplied from the secondary battery and makes negative pressure act on the first dust collecting container , and wherein the station unit is provided with a second body case having a second inlet which sucks other dust different from the dust which the autonomous cleaning unit collects, and wherein a base onto which the autonomous cleaning unit having the first inlet can move is provided at a forward portion of the station unit and the second body case having the second inlet is provided at a rear portion of the station unit (5,5 A), characterized in that the second inlet is provided at a lower portion of a side wall surface of the second body case . an autonomous cleaning unit which moves autonomously over a surface to be cleaned and collects dust; and a station unit which has a charging electrode for the autonomous cleaning unit , wherein the autonomous cleaning unit includes a first body case having a first inlet at a bottom surface of the first body case , a charging terminal , a secondary battery which accumulates electric power supplied via the charging terminal from the charging electrode , a first dust collecting container which accumulates dust sucked from the first inlet , and an electric blower which is driven by electric power supplied from the secondary battery and makes negative pressure act on the first dust collecting container , and wherein the station unit is provided with a second body case having a second inlet which sucks other dust different from the dust which the autonomous cleaning unit collects, and wherein a base onto which the autonomous cleaning unit having the first inlet can move is provided at a forward portion of the station unit and the second body case having the second inlet is provided at a rear portion of the station unit (5,5 A), characterized in that the second inlet is provided at a lower portion of a side wall surface of the second body case .
A communication method, wherein the communication method is performed by a network device, wherein the method comprises: determining (S1301) not to send, in a first time period, a physical downlink control channel, PDCCH, in at least one search space set included in a plurality of search space sets configured to be monitored by a terminal device; and sending (S1302) a first signal to the terminal device, wherein the first signal indicates to the terminal device not to monitor the at least one search space set in the first time period; wherein the first signal is one of a plurality of types of first signals, and different types of first signals indicate different search space sets; or wherein the method comprises: determining (S1301) not to send, in a first time period, at least one type of physical downlink control channel, PDCCH, included in multiple types of PDCCH configured to be monitored by a terminal device; and sending (S1302) a first signal to the terminal device, wherein the first signal indicates to the terminal device not to monitor the at least one type of PDCCH in the first time period; wherein the first signal is one of a plurality of types of first signals, and different types of first signals indicate different types of PDCCHs. determining (S1301) not to send, in a first time period, a physical downlink control channel, PDCCH, in at least one search space set included in a plurality of search space sets configured to be monitored by a terminal device; and sending (S1302) a first signal to the terminal device, wherein the first signal indicates to the terminal device not to monitor the at least one search space set in the first time period; wherein the first signal is one of a plurality of types of first signals, and different types of first signals indicate different search space sets; or wherein the method comprises: determining (S1301) not to send, in a first time period, at least one type of physical downlink control channel, PDCCH, included in multiple types of PDCCH configured to be monitored by a terminal device; and sending (S1302) a first signal to the terminal device, wherein the first signal indicates to the terminal device not to monitor the at least one type of PDCCH in the first time period; wherein the first signal is one of a plurality of types of first signals, and different types of first signals indicate different types of PDCCHs. determining (S1301) not to send, in a first time period, at least one type of physical downlink control channel, PDCCH, included in multiple types of PDCCH configured to be monitored by a terminal device; and sending (S1302) a first signal to the terminal device, wherein the first signal indicates to the terminal device not to monitor the at least one type of PDCCH in the first time period; wherein the first signal is one of a plurality of types of first signals, and different types of first signals indicate different types of PDCCHs.
A seaming device comprising: a seaming turret including a plurality of chuck units and a plurality of seaming units ; and a washing unit configured to wash seaming rolls of the seaming units, wherein the washing unit includes a washing member having a cleaning brush that is advanceable and retractable along a direction toward the seaming turret from outside when a washing mode is selected, the seaming device being characterized in that the washing unit is further configured to wash chucks of the chuck units, and the seaming device further includes a washing control mechanism that performs a washing operation to cause the cleaning brush to move toward the seaming turret, with the chucks that are provided in the chuck units being rotatable on axes thereof while stopping revolution of the chuck units by the seaming turret. a seaming turret including a plurality of chuck units and a plurality of seaming units ; and a washing unit configured to wash seaming rolls of the seaming units, wherein the washing unit includes a washing member having a cleaning brush that is advanceable and retractable along a direction toward the seaming turret from outside when a washing mode is selected, the seaming device being characterized in that the washing unit is further configured to wash chucks of the chuck units, and the seaming device further includes a washing control mechanism that performs a washing operation to cause the cleaning brush to move toward the seaming turret, with the chucks that are provided in the chuck units being rotatable on axes thereof while stopping revolution of the chuck units by the seaming turret.
An aerosol-generating system comprising: a heating element ; and a capillary body , wherein the capillary body is wound around the heating element and wherein the heating element and capillary body are intertwined with one another. a heating element ; and a capillary body , wherein the capillary body is wound around the heating element and wherein the heating element and capillary body are intertwined with one another.
A turbomachine blade having a multi-wall blade , a cooling system and a platform , the cooling system comprising: a cooling circuit , the cooling circuit including a central cavity and a plurality of outer cavities, wherein the plurality of outer cavities are a plurality of pressure side cavities (20C-E) disposed adjacent a pressure side of the turbomachine blade , or the plurality of outer cavities are a plurality of suction side cavities (22A-F) disposed adjacent a suction side of the turbomachine blade ; the plurality of outer cavities having a surface adjacent a side wall of the blade, and the central cavity being disposed between the pressure side and the suction side cavities and including no surfaces adjacent the pressure and suction side wall of the blade, wherein the central cavity forms an intermediate passage of the cooling circuit , and wherein a flow of cooling air is fed into the cooling circuit through a first outer cavity of the plurality of outer cavities ; providing a serial flow connection from the first outer cavity to a further outer cavity to the central cavity and to a final outer cavity; and a connection for fluidly connecting the final outer cavity of the plurality of outer cavities to a platform core of the platform , the flow of cooling air passing through the connection into the platform core of the platform . a cooling circuit , the cooling circuit including a central cavity and a plurality of outer cavities, wherein the plurality of outer cavities are a plurality of pressure side cavities (20C-E) disposed adjacent a pressure side of the turbomachine blade , or the plurality of outer cavities are a plurality of suction side cavities (22A-F) disposed adjacent a suction side of the turbomachine blade ; the plurality of outer cavities having a surface adjacent a side wall of the blade, and the central cavity being disposed between the pressure side and the suction side cavities and including no surfaces adjacent the pressure and suction side wall of the blade, wherein the central cavity forms an intermediate passage of the cooling circuit , and wherein a flow of cooling air is fed into the cooling circuit through a first outer cavity of the plurality of outer cavities ; providing a serial flow connection from the first outer cavity to a further outer cavity to the central cavity and to a final outer cavity; and a connection for fluidly connecting the final outer cavity of the plurality of outer cavities to a platform core of the platform , the flow of cooling air passing through the connection into the platform core of the platform .
A board work machine comprising: a cutting device including a cutting tool including a first part and a second part configured to cut a lead of a leaded component inserted into an insertion hole formed in the first part of the cutting tool and the second part of the cutting tool , and a main body section to which the first part of the cutting tool and the second part of the cutting tool are removably attached; an imaging device ; and a control device , wherein characterized in that: recognition marks for recognizing a type of the first part of the cutting tool and the second part of the cutting tool are provided on the first part of the cutting tool and the second part of the cutting tool , and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device , and a recognizing section configured to recognize the type of the first part of the cutting tool and the second part of the cutting tool based on image data obtained from the imaging section . a cutting device including a cutting tool including a first part and a second part configured to cut a lead of a leaded component inserted into an insertion hole formed in the first part of the cutting tool and the second part of the cutting tool , and a main body section to which the first part of the cutting tool and the second part of the cutting tool are removably attached; an imaging device ; and a control device , wherein characterized in that: recognition marks for recognizing a type of the first part of the cutting tool and the second part of the cutting tool are provided on the first part of the cutting tool and the second part of the cutting tool , and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device , and a recognizing section configured to recognize the type of the first part of the cutting tool and the second part of the cutting tool based on image data obtained from the imaging section . recognition marks for recognizing a type of the first part of the cutting tool and the second part of the cutting tool are provided on the first part of the cutting tool and the second part of the cutting tool , and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device , and a recognizing section configured to recognize the type of the first part of the cutting tool and the second part of the cutting tool based on image data obtained from the imaging section .
A beam director with improved optics comprising a rotatable first reflector rotatable about a longitudinal axis for receiving a beam from a beam source along the longitudinal axis, the first reflector including a reflective surface at an acute angle to the longitudinal axis for reflecting the beam; an actuator for rotating the first reflector about the longitudinal axis, whereby the first reflector rotates and reflects the beam at a constant angle to the longitudinal axis; a second annular reflector around the longitudinal axis of first reflector as first reflector rotates, configured to reflect the beam towards a work surface at a constant angle thereto, the second annular reflector being formed as a paraboloid such that the beam has the same dimension in the first and second directions when incident on the work surface; a beam corrector for the correction of x and y components of the beam, the beam corrector comprising the second annular reflector , whereby when the beam is activated and the actuator rotates the first reflector, the beam strikes the rotating first reflector rotating the beam and reflecting the beam to the second reflector, which reflects the beam to the work surface. a rotatable first reflector rotatable about a longitudinal axis for receiving a beam from a beam source along the longitudinal axis, the first reflector including a reflective surface at an acute angle to the longitudinal axis for reflecting the beam; an actuator for rotating the first reflector about the longitudinal axis, whereby the first reflector rotates and reflects the beam at a constant angle to the longitudinal axis; a second annular reflector around the longitudinal axis of first reflector as first reflector rotates, configured to reflect the beam towards a work surface at a constant angle thereto, the second annular reflector being formed as a paraboloid such that the beam has the same dimension in the first and second directions when incident on the work surface; a beam corrector for the correction of x and y components of the beam, the beam corrector comprising the second annular reflector , whereby when the beam is activated and the actuator rotates the first reflector, the beam strikes the rotating first reflector rotating the beam and reflecting the beam to the second reflector, which reflects the beam to the work surface.