mhurhangee/ep-ind-claims huggingface dataset:
A force sensor (1, 1A, 1B, 1C, 1D) comprising: a base; a first movable portion arranged to face the base; and a second movable portion arranged to face the first movable portion, characterized in that: the force sensor (1, 1A, 1B, 1C, 1D) further comprising: a support that is provided on the base and rockably supports the first movable portion and the second movable portion so that the first movable portion is tilted by an angle with respect to the base; a joint that is provided to the support and rotatably supports the second movable portion; a first detection unit that includes an AD conversion unit, a distance computing unit, and a force computing unit, and three or more first sensors; and a second detection unit includes an AD conversion unit, an angle computing unit, and a force computing unit, and a second sensor, wherein the first detection unit is configured to detect a force component causing the first movable portion and the second movable portion to rock, and the second detection unit is configured to detect a force component causing the second movable portion to rotate, when external force is applied to at least one of the first movable portion and the second movable portion. a base; a first movable portion arranged to face the base; and a second movable portion arranged to face the first movable portion, characterized in that: the force sensor (1, 1A, 1B, 1C, 1D) further comprising: a support that is provided on the base and rockably supports the first movable portion and the second movable portion so that the first movable portion is tilted by an angle with respect to the base; a joint that is provided to the support and rotatably supports the second movable portion; a first detection unit that includes an AD conversion unit, a distance computing unit, and a force computing unit, and three or more first sensors; and a second detection unit includes an AD conversion unit, an angle computing unit, and a force computing unit, and a second sensor, a support that is provided on the base and rockably supports the first movable portion and the second movable portion so that the first movable portion is tilted by an angle with respect to the base; a joint that is provided to the support and rotatably supports the second movable portion; a first detection unit that includes an AD conversion unit, a distance computing unit, and a force computing unit, and three or more first sensors; and a second detection unit includes an AD conversion unit, an angle computing unit, and a force computing unit, and a second sensor, wherein the first detection unit is configured to detect a force component causing the first movable portion and the second movable portion to rock, and the second detection unit is configured to detect a force component causing the second movable portion to rotate, when external force is applied to at least one of the first movable portion and the second movable portion.
An inhalation-synchronized fluid dispenser device comprising a body provided with a mouthpiece, a fluid reservoir containing a fluid and a propellant gas being mounted to slide axially in said body, a metering valve including a valve member being assembled on said reservoir for selectively dispensing the fluid, said device further comprising: - an actuator element that is movable and/or deformable between a non-actuation position, in which said metering valve cannot be actuated, and an actuation position, in which said metering valve can be actuated, and - an inhalation-controlled trigger system including an inhalation-sensitive member (61; 65), deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (61; 65), when it is deformed and/or moved, moving and/or deforming said actuator element from its non-actuation position towards its actuation position, characterized in that said actuator element is a locking element that, in non-actuation position, enables axial movement of said valve member of the metering valve together with said reservoir in the body, preventing the actuation of said metering valve when said reservoir is moved axially in the body without inhaling. - an actuator element that is movable and/or deformable between a non-actuation position, in which said metering valve cannot be actuated, and an actuation position, in which said metering valve can be actuated, and - an inhalation-controlled trigger system including an inhalation-sensitive member (61; 65), deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (61; 65), when it is deformed and/or moved, moving and/or deforming said actuator element from its non-actuation position towards its actuation position,
An inkjet head, comprising: an actuator configured to expand and contract a pressure chamber; and a controller configured to apply a discharge pulse to the actuator, wherein the discharge pulse comprises an expansion pulse for expanding the pressure chamber, a first contraction pulse with a first peak value for contracting the pressure chamber, a pause period, and a second contraction pulse with a second peak value for further contracting the pressure chamber, the expansion pulse, the first contraction pulse, the pause period, and the second contraction pulse are applied in this order, characterised in that the second peak value is higher than the first peak value. an actuator configured to expand and contract a pressure chamber; and a controller configured to apply a discharge pulse to the actuator, wherein the discharge pulse comprises an expansion pulse for expanding the pressure chamber, a first contraction pulse with a first peak value for contracting the pressure chamber, a pause period, and a second contraction pulse with a second peak value for further contracting the pressure chamber, the expansion pulse, the first contraction pulse, the pause period, and the second contraction pulse are applied in this order,
Energy guiding chain for guiding lines and cables between two consumers, at least one of which is mobile, where the energy guiding chain (1, 20, 30, 40) displays a plurality of links (2, 21, 31, 41) connected to each other in articulated fashion, each of which displays opposite side pieces (3, 23, 33, 42) and at least one cross-member (4a, 4b, 24, 34) connecting them, forming a cable guide duct, where the individual links (2, 21, 31, 41) are connected to each other by at least one pivoted connection that permits pivoting of adjacent links (2, 21, 31, 41) through a pivoting angle relative to each other, where the energy guiding chain (1, 20, 30, 40) can be arranged to form a lower run, a curved section and an upper run, and where at least one connecting element (8, 22, 48) connecting two or more links (2, 21, 31, 41) to each other in each case is provided, which provides contact areas (15, 58) remaining in unchanging position in relation to the links (2, 21, 31, 41), characterized in that the links (2, 21, 31, 41) consist at least partly of an electrically conductive material that permits the discharge of electrical charges over at least part of the chain length, and thus use of the chain (1, 20, 30, 40) in ESD protection zones and in that the contact areas (15, 18, 44, 46), and the areas of the links (2, 21, 31, 41) or the connecting element connecting them, form a continuous conductivity path with low electrical resistance, which extends at least over several links and permits use of the chain (1, 20, 30, 40) in ESD protection zones.
A device for treating valvular regurgitation comprising: (a) an expandable anchor including a plurality of struts designed for transitioning from a linear configuration when trapped within a delivery tube to a crown-like configuration when released from said tube, said transitioning includes a radial expansion phase in which ends of said struts curl out away from a center line of said crown-like configuration and an inversion phase in which ends of said struts curl towards said center line of said crown-like configuration; and (b) a transvalvular spacer configured for providing a coaptation surface to valve leaflets and being attached to said expandable anchor, said transvalvular spacer including a flexible column enclosed in an inflatable balloon, said flexible column is laminated with a polymer sheath, said polymer sheath includes an opening covered by a tube valve, said balloon is fillable with a fluid through said tube valve, wherein said flexible column includes a tab for guiding an actuating mechanism to said tube valve. (a) an expandable anchor including a plurality of struts designed for transitioning from a linear configuration when trapped within a delivery tube to a crown-like configuration when released from said tube, said transitioning includes a radial expansion phase in which ends of said struts curl out away from a center line of said crown-like configuration and an inversion phase in which ends of said struts curl towards said center line of said crown-like configuration; and (b) a transvalvular spacer configured for providing a coaptation surface to valve leaflets and being attached to said expandable anchor, said transvalvular spacer including a flexible column enclosed in an inflatable balloon, said flexible column is laminated with a polymer sheath, said polymer sheath includes an opening covered by a tube valve, said balloon is fillable with a fluid through said tube valve, wherein said flexible column includes a tab for guiding an actuating mechanism to said tube valve.
Measuring unit with at least a pressure sensor and signal transmission means (54, 55, 59, 60), intended to be fitted on a tire/wheel assembly, and comprising a logic indicator with two states, active and inactive, and in that the logic indicator becomes active each time the pressure measured by the pressure sensor is below a given threshold, close to zero and equal to 100 or 200 mbars.
A method of monitoring the level of electrolyte in a cell of a multi-cell battery, the method comprising the steps of: inserting an electrically conductive probe into the cell; first current sampling the probe as a cathode to determine a cathode current signal; second current sampling the probe as an anode to determine an anode current signal; characterized in that the method comprises the following steps: determining, as a function of both of the cathode current signal and the anode current signal, if the probe is in contact with electrolyte within the cell; and indicating if the probe is in contact with electrolyte in the cell. inserting an electrically conductive probe into the cell; first current sampling the probe as a cathode to determine a cathode current signal; second current sampling the probe as an anode to determine an anode current signal; characterized in that the method comprises the following steps: determining, as a function of both of the cathode current signal and the anode current signal, if the probe is in contact with electrolyte within the cell; and indicating if the probe is in contact with electrolyte in the cell.
A surface nitriding treatment method of a titanium material, performing a nitriding treatment of the surface of a titanium material by using nitrogen gas, characterized in that a hardened nitrided layer is formed on the surface of the titanium material by blowing nitrogen gas at a flow rate of 70 L/min or more to the surface of the titanium material while the titanium material is being heated to 800°C to 1000°C in an inert gas atmosphere, the titanium material is heated by a high-frequency induction heating method, the heating time of the titanium material involving the blowing of nitrogen gas is 1 minute to 60 minutes, and the nitrogen gas contains a blasting material, the blasting material is jetted to the surface of the titanium material being heated, and thus the titanium material is subjected to a surface treatment. characterized in that a hardened nitrided layer is formed on the surface of the titanium material by blowing nitrogen gas at a flow rate of 70 L/min or more to the surface of the titanium material while the titanium material is being heated to 800°C to 1000°C in an inert gas atmosphere, the titanium material is heated by a high-frequency induction heating method, the heating time of the titanium material involving the blowing of nitrogen gas is 1 minute to 60 minutes, and the nitrogen gas contains a blasting material, the blasting material is jetted to the surface of the titanium material being heated, and thus the titanium material is subjected to a surface treatment.
A method for transmitting channel status information, CSI, using a physical uplink control channel, PUCCH, for a wireless access system supporting multi-carrier aggregation, the method comprising: transmitting, by a user equipment, UE, to a base station, first CSI with a first periodicity for a first downlink component carrier, DL CC; and transmitting, by the UE to the base station, second CSI with a second periodicity for a second DL CC, wherein the first CSI is classified into a first report type group including a report type 3 indicating only a rank indicator, RI, a report type 5 indicating an RI and a wideband first precoding matrix index, WB first PMI, and a report type 6 indicating an RI and a precoding type indicator, PTI, wherein the second CSI is classified into a second report type group including a report type 2a indicating only a WB first PMI, wherein the first report type group has a same priority with the second report type group, and wherein if the first CSI and the second CSI are transmitted at a same subframe in a same uplink CC, then one of the first CSI and the second CSI is transmitted based on a priority between the first and the second DL CCs. transmitting, by a user equipment, UE, to a base station, first CSI with a first periodicity for a first downlink component carrier, DL CC; and transmitting, by the UE to the base station, second CSI with a second periodicity for a second DL CC, wherein the first CSI is classified into a first report type group including a report type 3 indicating only a rank indicator, RI, a report type 5 indicating an RI and a wideband first precoding matrix index, WB first PMI, and a report type 6 indicating an RI and a precoding type indicator, PTI, wherein the second CSI is classified into a second report type group including a report type 2a indicating only a WB first PMI, wherein the first report type group has a same priority with the second report type group, and wherein if the first CSI and the second CSI are transmitted at a same subframe in a same uplink CC, then one of the first CSI and the second CSI is transmitted based on a priority between the first and the second DL CCs.
A computer-readable medium for remotely executing operations of an application that is in use on a computing device, the computer-readable medium carrying instructions, that when executed by one or more processors of a computing system in communication with the computing device, cause performance of operations comprising: (a) accessing a schema that logically represents a nodal hierarchy determining programmatic behavior of the application in response to user input, the hierarchy including multiple nodes (320, 330), including one or more category nodes and one or more content nodes; (b) providing, with the schema, an executable script that is associated with at least one node (133, 135) of the hierarchy; (c) processing a user input from the computing device using the schema, the user input corresponding to selection of one or more nodes (133, 135) of the hierarchy; (d) in response to processing the user input, providing user interface content to the computing device, the user interface content corresponding to one of (i) one or more nodes (133, 135), or (ii) a script content, the script content generated as an output of an executed script that is associated with a selected node. (a) accessing a schema that logically represents a nodal hierarchy determining programmatic behavior of the application in response to user input, the hierarchy including multiple nodes (320, 330), including one or more category nodes and one or more content nodes; (b) providing, with the schema, an executable script that is associated with at least one node (133, 135) of the hierarchy; (c) processing a user input from the computing device using the schema, the user input corresponding to selection of one or more nodes (133, 135) of the hierarchy; (d) in response to processing the user input, providing user interface content to the computing device, the user interface content corresponding to one of (i) one or more nodes (133, 135), or (ii) a script content, the script content generated as an output of an executed script that is associated with a selected node.
A synchronous electrical machine comprising: a direct-drive permanent magnet generator; at least one rotor with an inner rotor core comprising inner permanent magnets and an outer rotor core comprising outer permanent magnets, wherein the outer rotor core is inverted with respect to the inner rotor core; and at least one double-sided stator with an inner stator side and an outer stator side comprising a double-sided lamination stack configured to enable the magnetic flux to flow radially between the inner stator side and the outer stator side, thereby enabling at least a portion of magnetic flux to be shared between the inner stator side and the outer stator side; wherein the at least one double-sided stator is concentrically disposed between the inner rotor core and the outer rotor core of the synchronous electrical machine. a direct-drive permanent magnet generator; at least one rotor with an inner rotor core comprising inner permanent magnets and an outer rotor core comprising outer permanent magnets, wherein the outer rotor core is inverted with respect to the inner rotor core; and at least one double-sided stator with an inner stator side and an outer stator side comprising a double-sided lamination stack configured to enable the magnetic flux to flow radially between the inner stator side and the outer stator side, thereby enabling at least a portion of magnetic flux to be shared between the inner stator side and the outer stator side; wherein the at least one double-sided stator is concentrically disposed between the inner rotor core and the outer rotor core of the synchronous electrical machine.
An apparatus for maintaining the inflation level of a bubble formed by nips in a moving roll of tubular film, said apparatus comprising: a. a processor which receives input signals and transmits output signals; b. at least one inflation sensor which senses the inflation level of the bubble and sends a signal to the processor; c. at least one valve which receives a signal from the processor and opens, releasing pressurized air to a nozzle; and d. at least one nozzle which is positioned to release a burst of pressurized air such that the pressurized air pierces the film at a position that will become a discarded handle cutout and injects air into the bubble. a. a processor which receives input signals and transmits output signals; b. at least one inflation sensor which senses the inflation level of the bubble and sends a signal to the processor; c. at least one valve which receives a signal from the processor and opens, releasing pressurized air to a nozzle; and d. at least one nozzle which is positioned to release a burst of pressurized air such that the pressurized air pierces the film at a position that will become a discarded handle cutout and injects air into the bubble.
An apparatus for manufacturing a liquid container comprising a mold for blow molding and a nozzle unit and configured to manufacture a liquid container containing a content liquid from a synthetic resin preform, wherein, the nozzle unit has a nozzle unit body in which a liquid supply path is provided and a seal body disposed in the supply path; the seal body has an annular first seal portion, an annular second seal portion and a spare supply path extending from a liquid flow inlet located between the first seal portion and the second seal portion to a liquid flow outlet located closer to a tip side of the seal body than the second seal portion; the seal body can move, relative to the nozzle unit body, between a blocked position where the first seal portion sits on the supply path, a spare supply position where the first seal portion separates from the supply path and the second seal portion sits on the supply path and an open position where the first seal portion separates from the supply path and the second seal portion separates from the supply path, wherein the nozzle unit has a stretching rod configured to stretch the preform in an axial direction; and wherein the spare supply path has a longitudinal flow path (3 1a) through which the stretching rod passes, characterized by that a passage of the stretching rod serves also as the longitudinal flow path of the spare supply path in the seal body. the nozzle unit has a nozzle unit body in which a liquid supply path is provided and a seal body disposed in the supply path; the seal body has an annular first seal portion, an annular second seal portion and a spare supply path extending from a liquid flow inlet located between the first seal portion and the second seal portion to a liquid flow outlet located closer to a tip side of the seal body than the second seal portion; the seal body can move, relative to the nozzle unit body, between a blocked position where the first seal portion sits on the supply path, a spare supply position where the first seal portion separates from the supply path and the second seal portion sits on the supply path and an open position where the first seal portion separates from the supply path and the second seal portion separates from the supply path, wherein the nozzle unit has a stretching rod configured to stretch the preform in an axial direction; and wherein the spare supply path has a longitudinal flow path (3 1a) through which the stretching rod passes, characterized by that a passage of the stretching rod serves also as the longitudinal flow path of the spare supply path in the seal body.