mhurhangee/ep-ind-claims huggingface dataset:
Valve with the following features: an actuator for controlling a flow of a fluid through the valve; and a valve housing, wherein the valve housing has at least one flexible wall which is formed integrally with a rigid remaining region of a wall of the valve housing, and no working step, in which the flexible wall is connected to the rigid wall portion of the valve housing, is specified during the production, and which is designed in order to be moved by the actuator so as to change a fluid flow region in the valve housing between an inlet opening for admitting the fluid into the valve and an outlet opening for letting the fluid out of the valve, wherein the flexible wall forms a push-in portion of the valve housing, which push-in portion lies opposite the inlet opening, wherein a guide element of the actuator is arranged in the push-in portion and is designed in order to press a bottom of the push-in portion into the inlet opening counter to a flow direction of the fluid in the fluid flow region in order to close the inlet opening. an actuator for controlling a flow of a fluid through the valve; and a valve housing, wherein the valve housing has at least one flexible wall which is formed integrally with a rigid remaining region of a wall of the valve housing, and no working step, in which the flexible wall is connected to the rigid wall portion of the valve housing, is specified during the production, and which is designed in order to be moved by the actuator so as to change a fluid flow region in the valve housing between an inlet opening for admitting the fluid into the valve and an outlet opening for letting the fluid out of the valve, wherein the flexible wall forms a push-in portion of the valve housing, which push-in portion lies opposite the inlet opening, wherein a guide element of the actuator is arranged in the push-in portion and is designed in order to press a bottom of the push-in portion into the inlet opening counter to a flow direction of the fluid in the fluid flow region in order to close the inlet opening.
Apparatus for moving worked pieces comprising: - a piece-supporting plane configured to support one or more worked pieces; - a first gripping device and a second gripping device, respectively defining a first and a second gripping plane (32, 42) of a worked piece; wherein the apparatus is configured to move the first and the second gripping device (30, 40) among: i) a picking position wherein the first or the second gripping device (30, 40) is configured to pick up a worked piece laid on the piece-supporting plane; ii) an exchange position wherein the first gripping device and the second gripping device are mutually oriented such that said first and second gripping planes (32, 42) of the worked piece are facing each other to allow transferring the worked piece from the first gripping device to the second gripping device, or vice versa; and iii) a laying position, wherein the second gripping device or the first gripping device is configured to release in a piece storage area the worked piece transferred in the exchange position. - a piece-supporting plane configured to support one or more worked pieces; - a first gripping device and a second gripping device, respectively defining a first and a second gripping plane (32, 42) of a worked piece; i) a picking position wherein the first or the second gripping device (30, 40) is configured to pick up a worked piece laid on the piece-supporting plane; ii) an exchange position wherein the first gripping device and the second gripping device are mutually oriented such that said first and second gripping planes (32, 42) of the worked piece are facing each other to allow transferring the worked piece from the first gripping device to the second gripping device, or vice versa; and iii) a laying position, wherein the second gripping device or the first gripping device is configured to release in a piece storage area the worked piece transferred in the exchange position.
A rechargeable battery comprising: an electrode assembly; a case housing the electrode assembly; and an electrode connection assembly (30, 40) electrically coupled to the electrode assembly, the electrode connection assembly (30, 40) comprising: a terminal (31, 41); a current collector (34, 44) electrically coupled to the electrode assembly; an insulating member (33, 43, 60) between the terminal (31,41) and the current collector (34,44), and a connection member (35,70) electrically coupling the terminal,and the current collector, the connection member comprising a fuse part,, wherein a portion of the insulating member (33b, 62) is spaced from the terminal (31,41) and the current collector (34,44), and the portion of the insulating member (33b, 62) is configured to overlap with the connection member wherein the fuse part further comprises a fuse hole characterized in that the insulating member comprises a supporting protrusion within the fuse hole (35d1). an electrode assembly; a case housing the electrode assembly; and an electrode connection assembly (30, 40) electrically coupled to the electrode assembly, the electrode connection assembly (30, 40) comprising: a terminal (31, 41); a current collector (34, 44) electrically coupled to the electrode assembly; an insulating member (33, 43, 60) between the terminal (31,41) and the current collector (34,44), and a connection member (35,70) electrically coupling the terminal,and the current collector, the connection member comprising a fuse part,, wherein a portion of the insulating member (33b, 62) is spaced from the terminal (31,41) and the current collector (34,44), and the portion of the insulating member (33b, 62) is configured to overlap with the connection member wherein the fuse part further comprises a fuse hole characterized in that the insulating member comprises a supporting protrusion within the fuse hole (35d1). a terminal (31, 41); a current collector (34, 44) electrically coupled to the electrode assembly; an insulating member (33, 43, 60) between the terminal (31,41) and the current collector (34,44), and a connection member (35,70) electrically coupling the terminal,and the current collector, the connection member comprising a fuse part,, wherein a portion of the insulating member (33b, 62) is spaced from the terminal (31,41) and the current collector (34,44), and the portion of the insulating member (33b, 62) is configured to overlap with the connection member wherein the fuse part further comprises a fuse hole characterized in that the insulating member comprises a supporting protrusion within the fuse hole (35d1). wherein a portion of the insulating member (33b, 62) is spaced from the terminal (31,41) and the current collector (34,44), and the portion of the insulating member (33b, 62) is configured to overlap with the connection member wherein the fuse part further comprises a fuse hole characterized in that the insulating member comprises a supporting protrusion within the fuse hole (35d1).
A hardened layer depth measuring apparatus configured to measure a depth of a hardened layer formed at a surface layer of a quenched workpiece, the hardened layer depth measuring apparatus comprising: an exciting coil configured to generate a magnetic flux to magnetize the workpiece; and a detecting coil configured to detect the magnetic flux generated by the exciting coil, wherein the exciting coil comprises a U-shaped excitation core portion having a pair of magnetic poles and a base portion coupling the base end portions of the magnetic poles to each other, and an excitation coil portion wound on the excitation core portion, the excitation core portion being arranged such that distal ends of the magnetic poles of the excitation core portion face the workpiece, characterized in that the detecting coil comprises a detection core portion having layers of magnetic sheets and arranged along a surface of the workpiece and a detection coil wound on the detection core portion, the detection core portion being arranged between the magnetic poles of the excitation core portion such that the longitudinal direction of the detection core portion extends along the longitudinal direction of the base portion. an exciting coil configured to generate a magnetic flux to magnetize the workpiece; and a detecting coil configured to detect the magnetic flux generated by the exciting coil, wherein the exciting coil comprises a U-shaped excitation core portion having a pair of magnetic poles and a base portion coupling the base end portions of the magnetic poles to each other, and an excitation coil portion wound on the excitation core portion, the excitation core portion being arranged such that distal ends of the magnetic poles of the excitation core portion face the workpiece, characterized in that the detecting coil comprises a detection core portion having layers of magnetic sheets and arranged along a surface of the workpiece and a detection coil wound on the detection core portion, the detection core portion being arranged between the magnetic poles of the excitation core portion such that the longitudinal direction of the detection core portion extends along the longitudinal direction of the base portion.
Method for operating at least one wind turbine, comprising: - sending a request for an input variable of a variable being relevant for the control of the at least one wind turbine at a first time; - regularly repeating said sending the request for the input variable at a predetermined time interval (Δt4); - receiving the input variable at a second time; - determining a difference (At) between the first and the second time; - comparing the difference (At) between the first and the second time to the predetermined time interval (Δt4); - setting a count of a counter to value 0 when the difference (At) is smaller than the predetermined time interval (Δt4); - increasing the count of the counter by the value 1 when the difference (At) is greater than or equal to the predetermined time interval (Δt4); - determining a control method from a plurality of predetermined control methods for controlling the at least one wind turbine depending on the count which depends on the determined difference (Δt). - sending a request for an input variable of a variable being relevant for the control of the at least one wind turbine at a first time; - regularly repeating said sending the request for the input variable at a predetermined time interval (Δt4); - receiving the input variable at a second time; - determining a difference (At) between the first and the second time; - comparing the difference (At) between the first and the second time to the predetermined time interval (Δt4); - setting a count of a counter to value 0 when the difference (At) is smaller than the predetermined time interval (Δt4); - increasing the count of the counter by the value 1 when the difference (At) is greater than or equal to the predetermined time interval (Δt4); - determining a control method from a plurality of predetermined control methods for controlling the at least one wind turbine depending on the count which depends on the determined difference (Δt).
A structured substrate comprising: a substrate body having an active side, the substrate body including reaction cavities that open along the active side and interstitial regions that separate the reaction cavities; and an ensemble amplifier positioned within each of the reaction cavities, the ensemble amplifier including a plurality of nanostructures, wherein the nanostructures are separated by a distance and are configured to at least one of amplify electromagnetic energy that propagates into the corresponding reaction cavity or amplify electromagnetic energy that is generated within the corresponding reaction cavity. a substrate body having an active side, the substrate body including reaction cavities that open along the active side and interstitial regions that separate the reaction cavities; and an ensemble amplifier positioned within each of the reaction cavities, the ensemble amplifier including a plurality of nanostructures, wherein the nanostructures are separated by a distance and are configured to at least one of amplify electromagnetic energy that propagates into the corresponding reaction cavity or amplify electromagnetic energy that is generated within the corresponding reaction cavity.
A handle assembly for a lawn mower, the handle assembly comprising: a handle extending from a work portion of the lawn mower, the handle comprising: a handle member configured to be engaged by a user when operating the lawn mower; and at least one elongated member (108A, 108B) extending between the work portion of the lawn mower and the handle member; a multi-position interface spaced apart from the handle member, the multi-position interface defining a plurality of engagement interfaces; an engagement element configured to move relative to the multi-position interface and be selectively engageable with the plurality of engagement interfaces; and a user engageable interface configured to selectively move the engagement element into and out of engagement with the plurality of engagement interfaces of the multi-position interface, wherein the handle assembly is angularly repositionable between a plurality of angular orientations, when the engagement element is not disposed within any of the plurality of engagement interfaces, and wherein the handle assembly is angularly fixed to the work portion of the lawn mower, when the engagement element is disposed within one or more of the plurality of engagement interfaces, characterized in that the user engageable interface is disposed at or adjacent to the handle member, wherein the engagement element is operatively coupled to the user engageable interface through one or more connective members extending along the at least one elongated member (108A, 108B). a handle extending from a work portion of the lawn mower, the handle comprising: a handle member configured to be engaged by a user when operating the lawn mower; and at least one elongated member (108A, 108B) extending between the work portion of the lawn mower and the handle member; a handle member configured to be engaged by a user when operating the lawn mower; and at least one elongated member (108A, 108B) extending between the work portion of the lawn mower and the handle member; a multi-position interface spaced apart from the handle member, the multi-position interface defining a plurality of engagement interfaces; an engagement element configured to move relative to the multi-position interface and be selectively engageable with the plurality of engagement interfaces; and a user engageable interface configured to selectively move the engagement element into and out of engagement with the plurality of engagement interfaces of the multi-position interface, wherein the handle assembly is angularly repositionable between a plurality of angular orientations, when the engagement element is not disposed within any of the plurality of engagement interfaces, and wherein the handle assembly is angularly fixed to the work portion of the lawn mower, when the engagement element is disposed within one or more of the plurality of engagement interfaces, characterized in that the user engageable interface is disposed at or adjacent to the handle member, wherein the engagement element is operatively coupled to the user engageable interface through one or more connective members extending along the at least one elongated member (108A, 108B).
A wafer processing laminate comprising a support, a temporary adhesive material layer formed on the support, and a wafer laminated on the temporary adhesive material layer, the wafer having a front surface on which a circuit is formed and a back surface to be processed, wherein the temporary adhesive material layer comprises a complex temporary adhesive material layer having a three-layered structure that includes a first temporary adhesive layer composed of a thermoplastic organopolysiloxane polymer layer releasably adhering to the front surface of the wafer, a second temporary adhesive layer composed of a thermosetting siloxane-modified polymer layer releasably laminated on the first temporary adhesive layer, and a third temporary adhesive layer composed of a thermosetting siloxane polymer layer releasably laminated on the second temporary adhesive layer and releasably adhering to the support.
Process for the treatment of parts for creating a surface with areas with shiny and matte appearances, wherein on the surface previously coated with a first layer of copper and a second layer comprising a lower layer of nickel and another upper layer of chromium, a selective etching of the second layer is performed according to the area or areas to be matted with respect to the rest of the part by means of a a Yag laser with a wavelength of 1064 nm and a power of 100 W which goes over the surface matting the desired area or areas, characterized by the time and power of the laser being controlled for achieving different textures, the selective etching occurring on the layer of chromium, wherein after the selective etching is performed, another layer of non-corrodible metal comprising one or a combination of Zr, Cr, Au, Pt, Ru, In or steel is applied on the surface by means of PVD.
A method, in a telematics device, the method comprising: entering, by a controller of the telematics device, into a sleep mode; performing a micro wakeup of a plurality of micro wakeups during which the telematics device powers up a limited number of peripherals; reading a first value from a sensor during the micro wakeup; in response to determining that the first value is above a noise threshold: converting the micro wakeup into a regular wakeup; reading a second value from the sensor during the regular wakeup; and sending the first value and the second value over a network interface to a telematics server during the regular wakeup. entering, by a controller of the telematics device, into a sleep mode; performing a micro wakeup of a plurality of micro wakeups during which the telematics device powers up a limited number of peripherals; reading a first value from a sensor during the micro wakeup; in response to determining that the first value is above a noise threshold: converting the micro wakeup into a regular wakeup; reading a second value from the sensor during the regular wakeup; and sending the first value and the second value over a network interface to a telematics server during the regular wakeup. converting the micro wakeup into a regular wakeup; reading a second value from the sensor during the regular wakeup; and sending the first value and the second value over a network interface to a telematics server during the regular wakeup.
A sensor comprising: an inductance-capacitance oscillating circuit comprising: a printed circuit board; and a first transmit coil (902; 1302) on a first layer of the printed circuit board arranged in parallel with a second transmit coil (904; 1304) on a second layer of the printed circuit board; an oscillator implemented via an integrated circuit, the oscillator in electronic communication with the first transmit coil (902; 1302) and the second transmit coil (904; 1304); and at least one capacitor (906, 908; 1306, 1308) and at least one resistor (910, 912) positioned between the oscillator and the first transmit coil (902; 1302) and the second transmit coil (904; 1304). an inductance-capacitance oscillating circuit comprising: a printed circuit board; and a first transmit coil (902; 1302) on a first layer of the printed circuit board arranged in parallel with a second transmit coil (904; 1304) on a second layer of the printed circuit board; an oscillator implemented via an integrated circuit, the oscillator in electronic communication with the first transmit coil (902; 1302) and the second transmit coil (904; 1304); and at least one capacitor (906, 908; 1306, 1308) and at least one resistor (910, 912) positioned between the oscillator and the first transmit coil (902; 1302) and the second transmit coil (904; 1304).
A device comprising: a first chip comprising a superconducting qubit, and a superconductor ground plane, the qubit comprising a superconducting quantum interference device, SQUID region, a control region, and a readout region; and a second chip bonded to the first chip, the second chip comprising a first control element, a second control element, and a readout device, wherein the readout device comprises a resonator element electrically coupled to a pad element, wherein the pad element is arranged to electromagnetically couple to a portion of the readout region, wherein the qubit is located directly beneath the pad element and the resonator element is laterally displaced so it does not directly overlap the qubit, wherein the first control element is aligned directly over the SQUID region to electromagnetically couple to the SQUID region, and wherein the second control element is aligned directly over a recessed region within the ground plane and does not overlap the control region, wherein the second control element is arranged to electromagnetically couple to the qubit through the control region, and wherein the recessed region includes an absence of superconductor material in the ground plane and is laterally displaced from and adjacent to the control region. a first chip comprising a superconducting qubit, and a superconductor ground plane, the qubit comprising a superconducting quantum interference device, SQUID region, a control region, and a readout region; and a second chip bonded to the first chip, the second chip comprising a first control element, a second control element, and a readout device, wherein the readout device comprises a resonator element electrically coupled to a pad element, wherein the pad element is arranged to electromagnetically couple to a portion of the readout region, wherein the qubit is located directly beneath the pad element and the resonator element is laterally displaced so it does not directly overlap the qubit, wherein the first control element is aligned directly over the SQUID region to electromagnetically couple to the SQUID region, and wherein the second control element is aligned directly over a recessed region within the ground plane and does not overlap the control region, wherein the second control element is arranged to electromagnetically couple to the qubit through the control region, and wherein the recessed region includes an absence of superconductor material in the ground plane and is laterally displaced from and adjacent to the control region.