mhurhangee/ep-ind-claims huggingface dataset:
Coupling device (28, 28', 28'', 28''') for connecting a carrier structure (2, 2', 2'') for offshore installations, in particular wind turbines, to a foundation (30, 30') which is anchored in a sea bed, and which comprises driven piles (36, 36') having an upper end which can be coupled to the carrier structure (2, 2', 2'') and a lower end which can be coupled to the foundation (30, 30'), wherein the coupling device has a height dimension which by means of adapting or changing the spacing between the upper and lower end of the coupling device is adapted to the respective water depth at the erection location, and a plurality of adapter rods (38, 38'. 38'', 38''') which can be coupled to the foundation (30, 30') and which extend substantially perpendicularly and which are configured at the upper ends thereof for connection to the carrier structure and at the lower ends thereof for insertion into receiving members on the driven piles (36, 36'), wherein the adapter rods (38, 38', 38'', 38''') which can be coupled to the foundation (30, 30') have at the lower ends thereof in each case locking elements for a positive-locking or non-positive-locking connection to coupling means of the driven piles (36, 36') and/or are configured to be secured via the lower ends thereof by means of a hardening filling medium which can be poured into the receiving members for the adapter rods (38, 38', 38'', 38''') at the driven piles (36, 36').
A method for determining a priority of a component carrier, characterized by comprising: a network control unit and/or a terminal determining the priority of the component carrier according to a sequence of index values of component carriers; wherein determining the priority of the component carrier according to the sequence of the index value of the component carrier comprises: when the terminal does not have a physical uplink shared channel, PUSCH, in an uplink main component carrier but has physical uplink shared channels in a plurality of uplink secondary component carriers, then the terminal selects the uplink component carrier with the smallest index value for reporting channel quality indicator, CQI, pre-coding matrix indicator, PMI, or rank indicator, RI, of a downlink component carrier; wherein the index value of the component carrier is a value of a serving carrier index and/or a secondary carrier index. a network control unit and/or a terminal determining the priority of the component carrier according to a sequence of index values of component carriers; wherein determining the priority of the component carrier according to the sequence of the index value of the component carrier comprises: when the terminal does not have a physical uplink shared channel, PUSCH, in an uplink main component carrier but has physical uplink shared channels in a plurality of uplink secondary component carriers, then the terminal selects the uplink component carrier with the smallest index value for reporting channel quality indicator, CQI, pre-coding matrix indicator, PMI, or rank indicator, RI, of a downlink component carrier; wherein the index value of the component carrier is a value of a serving carrier index and/or a secondary carrier index. when the terminal does not have a physical uplink shared channel, PUSCH, in an uplink main component carrier but has physical uplink shared channels in a plurality of uplink secondary component carriers, then the terminal selects the uplink component carrier with the smallest index value for reporting channel quality indicator, CQI, pre-coding matrix indicator, PMI, or rank indicator, RI, of a downlink component carrier; wherein the index value of the component carrier is a value of a serving carrier index and/or a secondary carrier index.
A method for operating a suction device of a textile machine comprising a plurality of workstations, in particular a spinning machine, wherein an air flow and a vacuum are produced with the aid of the suction device, and the air flow is filtered with the aid of a filter element, and wherein a present loss of pressure and/or a volume flow at the filter element are/is determined, on the basis of which an actual value at presently maximally simultaneously executable, vacuum-requiring operations of the workstations is calculated, characterized in that a setpoint value at at least simultaneously executable, vacuum-requiring operations is determined, in particular, based on a present yarn break position of the workstations, and this setpoint value is compared to the actual value. wherein an air flow and a vacuum are produced with the aid of the suction device, and the air flow is filtered with the aid of a filter element, and wherein a present loss of pressure and/or a volume flow at the filter element are/is determined, on the basis of which an actual value at presently maximally simultaneously executable, vacuum-requiring operations of the workstations is calculated, characterized in that a setpoint value at at least simultaneously executable, vacuum-requiring operations is determined, in particular, based on a present yarn break position of the workstations, and this setpoint value is compared to the actual value.
Static mixer for exhaust gas ducts of internal combustion engines, comprising an elongated hollow metal body having a shape which, relative to a symmetry axis, substantially corresponds to a solid of revolution defining at its inside a cavity, in which opposite bases (17,19) are defined, at least one of which is provided with an axial opening, and a closed lateral wall is defined connected to the opposite bases (17,19) and having at least one radial opening over which a concave blade is arranged extending radially outward of the lateral wall of the mixer body from a portion of the peripheral edge of the radial opening and surrounding a portion of the radial opening so as to define, in a first angular direction relative to the symmetry axis, a corresponding concave screen and, in a second, opposite direction, a mouth intended for the passage of gases and located substantially in front of the concave screen, wherein the body of the mixer has a frustoconical shape, characterized in that one of the basis of the body of the mixer is closed and thus exhaust-gas tight.
A polishing apparatus for polishing a notch portion of a substrate, said apparatus comprising: a rotary holding mechanism configured to hold the substrate horizontally and rotate the substrate; plural polishing head modules (70A, 70B) each configured to polish the substrate using a polishing tape; and a moving mechanism configured to move said plural polishing head modules (70A, 70B) independently of each other, characterised in that each of said plural polishing head modules (70A, 70B) includes a polishing head configured to bring the polishing tape into sliding contact with the notch portion of the substrate, and a tape supplying and recovering mechanism (24, 25) configured to supply the polishing tape to said polishing head and recover the polishing tape from said polishing head. a rotary holding mechanism configured to hold the substrate horizontally and rotate the substrate; plural polishing head modules (70A, 70B) each configured to polish the substrate using a polishing tape; and a moving mechanism configured to move said plural polishing head modules (70A, 70B) independently of each other, characterised in that each of said plural polishing head modules (70A, 70B) includes a polishing head configured to bring the polishing tape into sliding contact with the notch portion of the substrate, and a tape supplying and recovering mechanism (24, 25) configured to supply the polishing tape to said polishing head and recover the polishing tape from said polishing head.
A printer comprising: a printhead configured to selectively cause a mark to be created on a substrate; a stepper motor having an output shaft coupled to the printhead, the stepper motor being arranged to vary the position of the printhead relative to a printing surface against which printing is carried out, and to control the pressure exerted by the printhead on the printing surface; characterized by a sensor configured to generate a signal indicative of an angular position of the output shaft of the stepper motor; and a controller arranged to generate control signals for the stepper motor so as to cause a predetermined torque to be generated by the stepper motor; said control signals being at least partially based upon an output of said sensor. a printhead configured to selectively cause a mark to be created on a substrate; a stepper motor having an output shaft coupled to the printhead, the stepper motor being arranged to vary the position of the printhead relative to a printing surface against which printing is carried out, and to control the pressure exerted by the printhead on the printing surface; a sensor configured to generate a signal indicative of an angular position of the output shaft of the stepper motor; and a controller arranged to generate control signals for the stepper motor so as to cause a predetermined torque to be generated by the stepper motor; said control signals being at least partially based upon an output of said sensor.
A three-dimensionally formed object manufacturing apparatus comprising: an ejecting portion configured to eject a fluid material including particles, which can form a constituent material of a three-dimensionally formed object, and a solvent; a stage on which a layer formed of the fluid material, which is ejected from the ejecting portion, can be laminated; a drying portion configured to volatilize the solvent included in the fluid material of the stage; characterized by an obtaining portion configured to obtain an image of the layer formed of the fluid material formed on the stage; and a determination portion configured to determine whether or not a predetermined amount or more of the solvent is volatilized based on the image obtained by the obtaining portion, the apparatus configured such that a next layer formed of the fluid material is laminated after the determination portion determines that the predetermined amount or more of the solvent is volatilized per formation of a predetermined layer in a laminating direction of the layer formed of the fluid material. an ejecting portion configured to eject a fluid material including particles, which can form a constituent material of a three-dimensionally formed object, and a solvent; a stage on which a layer formed of the fluid material, which is ejected from the ejecting portion, can be laminated; a drying portion configured to volatilize the solvent included in the fluid material of the stage; characterized by an obtaining portion configured to obtain an image of the layer formed of the fluid material formed on the stage; and a determination portion configured to determine whether or not a predetermined amount or more of the solvent is volatilized based on the image obtained by the obtaining portion, the apparatus configured such that a next layer formed of the fluid material is laminated after the determination portion determines that the predetermined amount or more of the solvent is volatilized per formation of a predetermined layer in a laminating direction of the layer formed of the fluid material.
Aerosol-generating device comprising: a device housing having a cavity for receiving aerosol-forming substrate; a heating element extending into the cavity for heating aerosol-forming substrate received in the cavity; a movable cavity bottom, characterized by the position of the cavity bottom defining a length of the cavity; and a control adapted to move the cavity bottom to a selected position within the cavity, the selected position being a longitudinal position at the heating element, wherein the movable cavity bottom is a separate plate and comprises an opening for guiding the heating element in the opening. a device housing having a cavity for receiving aerosol-forming substrate; a heating element extending into the cavity for heating aerosol-forming substrate received in the cavity; a movable cavity bottom, characterized by the position of the cavity bottom defining a length of the cavity; and a control adapted to move the cavity bottom to a selected position within the cavity, the selected position being a longitudinal position at the heating element, wherein the movable cavity bottom is a separate plate and comprises an opening for guiding the heating element in the opening.
An apparatus of a user equipment, UE, the apparatus comprising: processing circuitry configured with logical entities that include a Terminal Equipment, TE, a Mobile Terminal, MT, and a Terminal Adaptor, TA, the TE arranged to communicate with the MT through the TA, the processing circuitry arranged to configure the logical entities to: provide Reliable Data Service, RDS, between the UE (560, 601, 602, 702, 800) and a network endpoint of a packet data network, PDN, connection when configured to support RDS, and limit uplink transmission of Internet Protocol, IP, packets to services related to 3GPP Packet Services Data Off, PSDO, Exempt Services when configured to support PSDO for the PDN connection and PSDO is activated, wherein the TE is arranged to generate at least one Attention, AT, command for communication to the MT through the TA to indicate a RDS status and a PSDO status of the PDN connection at the UE (560, 601, 602, 702, 800); and wherein the MT is arranged to communicate with the network endpoint and to: indicate to the network endpoint, based on the at least one AT command, the RDS status and the PSDO status; and a memory configured to store the PSDO status. processing circuitry configured with logical entities that include a Terminal Equipment, TE, a Mobile Terminal, MT, and a Terminal Adaptor, TA, the TE arranged to communicate with the MT through the TA, the processing circuitry arranged to configure the logical entities to: provide Reliable Data Service, RDS, between the UE (560, 601, 602, 702, 800) and a network endpoint of a packet data network, PDN, connection when configured to support RDS, and limit uplink transmission of Internet Protocol, IP, packets to services related to 3GPP Packet Services Data Off, PSDO, Exempt Services when configured to support PSDO for the PDN connection and PSDO is activated, provide Reliable Data Service, RDS, between the UE (560, 601, 602, 702, 800) and a network endpoint of a packet data network, PDN, connection when configured to support RDS, and limit uplink transmission of Internet Protocol, IP, packets to services related to 3GPP Packet Services Data Off, PSDO, Exempt Services when configured to support PSDO for the PDN connection and PSDO is activated, wherein the TE is arranged to generate at least one Attention, AT, command for communication to the MT through the TA to indicate a RDS status and a PSDO status of the PDN connection at the UE (560, 601, 602, 702, 800); and wherein the MT is arranged to communicate with the network endpoint and to: indicate to the network endpoint, based on the at least one AT command, the RDS status and the PSDO status; and a memory configured to store the PSDO status.
A method of displaying a Digital Living Network Alliance, DLNA, apparatus, comprising the following steps of: accessing a DLNA network via a wireless mode; acquiring a DLNA apparatus in the DLNA network; determining whether the DLNA apparatus is in a connectable status, and adding the DLNA apparatus to a single DLNA list if the DLNA apparatus is in a connectable status, or acquiring other DLNA apparatuses in the DLNA network if the DLNA apparatus is not in a connectable status (S203, S204, S202) until all DLNA apparatuses in the DLNA network are acquired; wherein the single DLNA list is correspondingly related to a shortcut icon, and the shortcut icon is a shortcut to open the single DLNA list, wherein the single DLNA list lists all of the DLNA apparatus which are acquired; displaying the shortcut icon at a predetermined position on a display interface after adding the DLNA apparatus to the single DLNA list; and concealing the shortcut icon if the shortcut icon is not operated during a preset time interval; calling the shortcut icon in response to a user's activation operation on the display interface; and displaying the shortcut icon at the predetermined position, and entering the single DLNA list by clicking the shortcut icon to select and operate the DLNA apparatus from the single DLNA list. accessing a DLNA network via a wireless mode; acquiring a DLNA apparatus in the DLNA network; determining whether the DLNA apparatus is in a connectable status, and adding the DLNA apparatus to a single DLNA list if the DLNA apparatus is in a connectable status, or acquiring other DLNA apparatuses in the DLNA network if the DLNA apparatus is not in a connectable status (S203, S204, S202) until all DLNA apparatuses in the DLNA network are acquired; wherein the single DLNA list is correspondingly related to a shortcut icon, and the shortcut icon is a shortcut to open the single DLNA list, wherein the single DLNA list lists all of the DLNA apparatus which are acquired; displaying the shortcut icon at a predetermined position on a display interface after adding the DLNA apparatus to the single DLNA list; and concealing the shortcut icon if the shortcut icon is not operated during a preset time interval; calling the shortcut icon in response to a user's activation operation on the display interface; and displaying the shortcut icon at the predetermined position, and entering the single DLNA list by clicking the shortcut icon to select and operate the DLNA apparatus from the single DLNA list.
Procedure designed to make a measuring tube of an electromagnetic flowmeter designed to measure the volume flow or the flow velocity of a medium flowing through a measuring tube, wherein said procedure comprises the following steps: Provisioning and positioning of an inner mold and an outer mold as well as two measuring electrodes in a first procedural step, wherein an annular channel is formed between the inner mold and the outer mold, wherein the annular channel has an annular channel axis, wherein the inner mold has at least two annular sealing surfaces, which face away from one another and each surround a recess of the inner mold, wherein the surface normals of the sealing surfaces extend in opposite directions in a manner that is perpendicular to the annular channel axis, wherein the measuring electrodes each have an electrode shaft and a front face that is oriented towards the annular channel axis with an annular periphery area (21.2) and a central area (21.1) surrounded by the periphery area, wherein the two measuring electrodes are each maintained by the outer mold in such a way that the electrode shafts pass through the annular channel in the direction of one of the surface normals, and that the annular periphery areas (21.2) each abut one of the annular sealing surfaces; Filling in of the annular channel with a plastic material forming a measuring tube body of the measuring tube by means of injection molding in a second procedural step; Hardening of the plastic material in a third procedural step; and Removal of the inner mold and the outer mold in a fourth procedural step, wherein the sealing surfaces and the annular periphery areas are planar. Provisioning and positioning of an inner mold and an outer mold as well as two measuring electrodes in a first procedural step, wherein an annular channel is formed between the inner mold and the outer mold, wherein the annular channel has an annular channel axis, wherein the inner mold has at least two annular sealing surfaces, which face away from one another and each surround a recess of the inner mold, wherein the surface normals of the sealing surfaces extend in opposite directions in a manner that is perpendicular to the annular channel axis, wherein the measuring electrodes each have an electrode shaft and a front face that is oriented towards the annular channel axis with an annular periphery area (21.2) and a central area (21.1) surrounded by the periphery area, wherein the two measuring electrodes are each maintained by the outer mold in such a way that the electrode shafts pass through the annular channel in the direction of one of the surface normals, and that the annular periphery areas (21.2) each abut one of the annular sealing surfaces; Filling in of the annular channel with a plastic material forming a measuring tube body of the measuring tube by means of injection molding in a second procedural step; Hardening of the plastic material in a third procedural step; and Removal of the inner mold and the outer mold in a fourth procedural step, wherein the sealing surfaces and the annular periphery areas are planar.
An inkjet recording device which has two sub-print heads, each of which includes a nozzle (114, 115) that is configured to form ink particles by applying vibration to ink being ejected under pressure, a charging electrode (116, 117) configured for charging the ink particles, a deflection electrode (118, 119) configured for deflecting the charged ink particles, and a gutter (120, 121) configured for recovering ink particles not used in printing, in which two nozzles (114, 115) are disposed in a deflection direction of the ink particles, and which performs printing on a printed object while moving the printed object relative to the ink particles in a direction substantially perpendicular to the deflection direction of the ink particles, characterized in that the inkjet recording device has a function for reducing a clearance between print results and a function of enlarging a clearance between print results, printed by the two nozzles (114, 115), by controlling a voltage applied to the charging electrode (116, 117) and a voltage applied to the deflection electrode (118, 119).