mhurhangee/ep-ind-claims huggingface dataset:
Micromechanical device, comprising an electrode; a deformable element; and an insulating spacer layer, wherein the electrode is fixed to the deformable element via the insulating spacer layer, and characterized in that the insulating spacer layer is structured into several spaced-apart segments along a lateral direction, so that by applying an electric voltage between the electrode and the deformable element an area force acting in a thickness direction is applied to the electrode and the deformable element, as a consequence of which lateral tensile or compressive forces result that bend the deformable element along the lateral direction according to the bimorph principle.
A method for producing a plurality of blanks from a continuous strip of material, the method comprising the steps of: providing a continuous strip of material having a plurality of cut-outs spaced along a longitudinal direction of the strip; and cutting the continuous strip along a plurality of cut lines to form the plurality of blanks, wherein each cut line comprises a straight transverse section and a curved section; wherein: the cut lines are spaced along the longitudinal direction of the strip, each cut line intersects a respective cut-out in the strip in the curved section of the cut line, and each cut line together with its respective intersected cut-out corresponds to an edge of one of the plurality of blanks wherein the method further comprises the step of selecting a combination of cut line shape, cut-out shape, and cut-out to cut line orientation, such that the edge of the at least one of the plurality of blanks comprises an undercut recess. providing a continuous strip of material having a plurality of cut-outs spaced along a longitudinal direction of the strip; and cutting the continuous strip along a plurality of cut lines to form the plurality of blanks, wherein each cut line comprises a straight transverse section and a curved section; wherein: the cut lines are spaced along the longitudinal direction of the strip, each cut line intersects a respective cut-out in the strip in the curved section of the cut line, and each cut line together with its respective intersected cut-out corresponds to an edge of one of the plurality of blanks wherein the method further comprises the step of selecting a combination of cut line shape, cut-out shape, and cut-out to cut line orientation, such that the edge of the at least one of the plurality of blanks comprises an undercut recess.
A transmitter device configured to transmit to a receiver device including input and output terminals (P00, P01, P02) first setting data specifying input and output functions of the input and output terminals (P00, P01, P02), wherein the first setting data comprises: first data common to the input and output terminals (P00, P01, P02); second data inherent to each of the input and output terminals (P00, P01, P02); characterized in that the first data comprises candidates of set values of the input and output functions, and the second data comprises identifiers of the candidates. first data common to the input and output terminals (P00, P01, P02); second data inherent to each of the input and output terminals (P00, P01, P02); characterized in that the first data comprises candidates of set values of the input and output functions, and the second data comprises identifiers of the candidates.
A method of supplying injection fluid to a subsea facility, the method comprising • arranging a flexible storage container at a first subsea location, • supplying the storage container with injection fluid from a sea surface facility, • moving the storage container to a second subsea location comprising encasing said flexible storage container in a mechanical protection structure at said second subsea location and • supplying the injection fluid from the storage container at said second subsea location to the subsea facility, wherein the second subsea location is closer to the seabed than the first subsea location, preferably the storage container at the second subsea location is supported by the seabed. • arranging a flexible storage container at a first subsea location, • supplying the storage container with injection fluid from a sea surface facility, • moving the storage container to a second subsea location comprising encasing said flexible storage container in a mechanical protection structure at said second subsea location and • supplying the injection fluid from the storage container at said second subsea location to the subsea facility,
Method for correcting the trajectory of an, in particular, terminally guided projectile after detection of a deviation of the projectile by an, in particular, weapon-side sensor, having the steps of: - triggering a first laser beam over a specific range about the desired course of the projectile, the laser beam being capable of simultaneously triggering the beginning of a time count, - transmitting a further rotating, spatially modulated laser beam with a fixed rotational frequency (Ω) over said range, the rotating laser beam beginning at a time t = 0, - detecting the second laser beam by means of the projectile, - the projectile detecting the second laser beam after a time t = t 1, and - said time corresponding to a position of the projectile around a central circular track in space by the angle α1', - determining the deviation of the projectile with respect to its desired course by means of the projectile, - there being a need to correct the trajectory when the projectile is located outside the central circular track, - initiating the correction on the basis of the determined deviation. - triggering a first laser beam over a specific range about the desired course of the projectile, the laser beam being capable of simultaneously triggering the beginning of a time count, - transmitting a further rotating, spatially modulated laser beam with a fixed rotational frequency (Ω) over said range, the rotating laser beam beginning at a time t = 0, - detecting the second laser beam by means of the projectile, - the projectile detecting the second laser beam after a time t = t 1, and - said time corresponding to a position of the projectile around a central circular track in space by the angle α1', - the projectile detecting the second laser beam after a time t = t 1, and - said time corresponding to a position of the projectile around a central circular track in space by the angle α1', - determining the deviation of the projectile with respect to its desired course by means of the projectile, - there being a need to correct the trajectory when the projectile is located outside the central circular track, - there being a need to correct the trajectory when the projectile is located outside the central circular track, - initiating the correction on the basis of the determined deviation.
A method of handover for broadband wireless access systems, the method comprising: determining that handover for a mobile station is necessary while a session connection exists between end users; notifying from a serving base station to a target base station that the session is to be maintained by the target base station after handover; performing handover procedures by a mobile station to associate with the target base station; transmitting, from the target base station to the mobile station, information indicating a downlink data pending element related to Medium Access Control Service Data Units, MAC SDUs, exists; receiving, by the mobile station, the downlink data pending element; and delaying, by the mobile station, IP, internet protocol, addressing until the receiving the downlink data pending element is completed, if the IP addressing needs to be changed according to the destination IP address. determining that handover for a mobile station is necessary while a session connection exists between end users; notifying from a serving base station to a target base station that the session is to be maintained by the target base station after handover; performing handover procedures by a mobile station to associate with the target base station; transmitting, from the target base station to the mobile station, information indicating a downlink data pending element related to Medium Access Control Service Data Units, MAC SDUs, exists; receiving, by the mobile station, the downlink data pending element; and delaying, by the mobile station, IP, internet protocol, addressing until the receiving the downlink data pending element is completed, if the IP addressing needs to be changed according to the destination IP address.
A method for use with a group of devices and first and second servers that are each connected to the Internet and are each addressable in the Internet using a respective Internet Protocol, IP, address, the first server stores and updates a list of the IP addresses of the devices in the group, the method comprising: receiving, by the first server from a first device that is not in the group, a first message that includes the IP address of the first device; in response to the receiving of the first message, updating the list by adding the first device to the group of devices by adding the IP address of the first device to the stored list; receiving, by the first server from the second server, a second message that includes a criterion; in response to the received criterion, selecting, by the first server, an IP address associated with a device from the list of IP addresses of the devices that satisfies the criterion, the selected device to be used by the first server or the second server for fetching content from a web server using the selected IP address for delivery of the fetched content to a content requesting client device; and sending, by the first server to the second server, the selected IP address of the respectively selected device. receiving, by the first server from a first device that is not in the group, a first message that includes the IP address of the first device; in response to the receiving of the first message, updating the list by adding the first device to the group of devices by adding the IP address of the first device to the stored list; receiving, by the first server from the second server, a second message that includes a criterion; in response to the received criterion, selecting, by the first server, an IP address associated with a device from the list of IP addresses of the devices that satisfies the criterion, the selected device to be used by the first server or the second server for fetching content from a web server using the selected IP address for delivery of the fetched content to a content requesting client device; and sending, by the first server to the second server, the selected IP address of the respectively selected device.
Installation frame for insertion into the interior space of an incubator, • having a front plate which forms the front opening of the interior space, • having at least two closable passage openings to the interior space in the front plate, and • having shelves which adjoin the passage openings in the direction of the interior space and are intended for receiving the load to be treated. • having a front plate which forms the front opening of the interior space, • having at least two closable passage openings to the interior space in the front plate, and • having shelves which adjoin the passage openings in the direction of the interior space and are intended for receiving the load to be treated.
A method of joining a shaft with a hub, namely a rotor shaft of a vacuum pump with a hub which in particular carries or comprises a pump-active rotor element, wherein the shaft and the hub are joined by means of transverse pressing, wherein at least one joining surface (16, 18) for forming at least one press fit is formed at the shaft and at the hub in each case, wherein the shaft and/or the hub is/are only locally temperature controlled to establish the transverse press connection, wherein at least two joining surfaces (16, 18) for forming two separate press fits are formed at the shaft and at the hub in each case, and wherein the joining surfaces (16, 18) and/or the press fits are axially spaced apart. namely a rotor shaft of a vacuum pump with a hub which in particular carries or comprises a pump-active rotor element, wherein the shaft and the hub are joined by means of transverse pressing, wherein at least one joining surface (16, 18) for forming at least one press fit is formed at the shaft and at the hub in each case, wherein the shaft and/or the hub is/are only locally temperature controlled to establish the transverse press connection, wherein at least two joining surfaces (16, 18) for forming two separate press fits are formed at the shaft and at the hub in each case, and wherein the joining surfaces (16, 18) and/or the press fits are axially spaced apart.
Stator for an electric generator comprising: - a stator body including a stator yoke and a plurality of teeth protruding according to a radial direction orthogonal to the longitudinal axis from the stator yoke to respective tooth radial ends, each tooth extending longitudinally between a first end and a second opposite end, - a stator support for radially supporting the stator body, the stator support further providing an axial support to the stator body at one of the first end and the second opposite end, - an end plate for axially supporting the stator body at the other of the first end and the second opposite end, - wherein the end plate is provided at the longitudinal end where eddy-current losses are lower, characterized in that - the stator support includes a shoulder for axially supporting the stator body, the shoulder extending circumferentially and protruding radially from the stator support. - a stator body including a stator yoke and a plurality of teeth protruding according to a radial direction orthogonal to the longitudinal axis from the stator yoke to respective tooth radial ends, each tooth extending longitudinally between a first end and a second opposite end, - a stator support for radially supporting the stator body, the stator support further providing an axial support to the stator body at one of the first end and the second opposite end, - an end plate for axially supporting the stator body at the other of the first end and the second opposite end, - wherein the end plate is provided at the longitudinal end where eddy-current losses are lower, - the stator support includes a shoulder for axially supporting the stator body, the shoulder extending circumferentially and protruding radially from the stator support.
A hydrogen producing system in which a plurality of water electrolysis stacks is electrically connected in series and in parallel, comprising: a power distribution controller configured to control a power distribution to each of serial units of the water electrolysis stack; a power converter configured to control an electric current flowing through the serial unit according to a command from the power distribution controller; and a defect detector configured to detect a defect in the water electrolytic stack and to identify such water electrolysis stack as a defective stack, wherein the power distribution controller is configured to control a power distribution to each of the serial units of the water electrolytic stacks according to a deterioration prediction of the plurality of water electrolytic stacks calculated based on a location of the defective stack and on a deterioration characteristic indicating susceptibility for deterioration of the water electrolytic stack, wherein the hydrogen producing system further comprises a switch capable of individually turning ON/OFF the water electrolysis stacks, wherein the switch is operable to turn off the defective stack, wherein the hydrogen producing system further comprises an electrical load individually connected in parallel to each of the water electrolysis stacks, and wherein the electrical load is configured to receive a power that has been supplied to the defective stack before turning off the defective stack, thereby suppressing fluctuations in a voltage applied to the water electrolytic stack excluding the defective stack when the defective stack is turned off. a power distribution controller configured to control a power distribution to each of serial units of the water electrolysis stack; a power converter configured to control an electric current flowing through the serial unit according to a command from the power distribution controller; and a defect detector configured to detect a defect in the water electrolytic stack and to identify such water electrolysis stack as a defective stack, wherein the power distribution controller is configured to control a power distribution to each of the serial units of the water electrolytic stacks according to a deterioration prediction of the plurality of water electrolytic stacks calculated based on a location of the defective stack and on a deterioration characteristic indicating susceptibility for deterioration of the water electrolytic stack, wherein the hydrogen producing system further comprises a switch capable of individually turning ON/OFF the water electrolysis stacks, wherein the switch is operable to turn off the defective stack, wherein the hydrogen producing system further comprises an electrical load individually connected in parallel to each of the water electrolysis stacks, and wherein the electrical load is configured to receive a power that has been supplied to the defective stack before turning off the defective stack, thereby suppressing fluctuations in a voltage applied to the water electrolytic stack excluding the defective stack when the defective stack is turned off.
A hydraulic reservoir comprising: a first chamber; a second chamber separated from the first chamber; a first flow path operably fluidly connecting the first chamber with the second chamber including a first check valve allowing fluid flow from the first chamber to the second chamber upon a first differential pressure between the first and second chambers (104, 100); and a second flow path operably fluidly connecting the first chamber with the second chamber including a second check valve allowing fluid flow from the second chamber to the first chamber upon a second differential pressure between the first and second chambers (104, 106), wherein the first chamber has a return port where return fluid enters the first chamber and a first suction port where fluid exits the first chamber and the second chamber has a second suction port where fluid exits the second chamber, and characterised in that fluid within the second chamber is pressurized by a volume of gaseous fluid stored within the second chamber and fluid within the first chamber is solely pressurized by return fluid flowing into the return port and fluid flowing from the second chamber into the first chamber through the second flow path. a first chamber; a second chamber separated from the first chamber; a first flow path operably fluidly connecting the first chamber with the second chamber including a first check valve allowing fluid flow from the first chamber to the second chamber upon a first differential pressure between the first and second chambers (104, 100); and a second flow path operably fluidly connecting the first chamber with the second chamber including a second check valve allowing fluid flow from the second chamber to the first chamber upon a second differential pressure between the first and second chambers (104, 106), wherein the first chamber has a return port where return fluid enters the first chamber and a first suction port where fluid exits the first chamber and the second chamber has a second suction port where fluid exits the second chamber, and
An apparatus control method for m- an apparatus having a wireless power reception module, the method comprising: when entering a wireless charging mode, performing (210; 310) a wireless charging function; sensing (211; 311) an event while the apparatus is being charged by the wireless charging function; determining (212; 312) whether the sensed event is a predetermined event associated with the wireless charging function; when the sensed event is the predetermined event, identifying a wireless charging operation corresponding to the sensed event; and controlling (216; 320) the wireless charging function according to the identified wireless charging operation, characterised in that, while the apparatus is being charged by the wireless charging function, a priority of a call mode of a call event is changed from a receiver call mode into a speaker call mode. when entering a wireless charging mode, performing (210; 310) a wireless charging function; sensing (211; 311) an event while the apparatus is being charged by the wireless charging function; determining (212; 312) whether the sensed event is a predetermined event associated with the wireless charging function; when the sensed event is the predetermined event, identifying a wireless charging operation corresponding to the sensed event; and controlling (216; 320) the wireless charging function according to the identified wireless charging operation, characterised in that, while the apparatus is being charged by the wireless charging function, a priority of a call mode of a call event is changed from a receiver call mode into a speaker call mode.
Measuring transducer for a drive unit, which can be moved in at least two degrees of freedom and acts on a rotary body, wherein a transceiver unit serves as a measuring transducer which cooperates with a diffractive and two-dimensional material measuring unit which can be attached to the rotary body, in that the diffractive, two-dimensional material measuring unit can be scanned using the transceiver, characterised in that the diffractive, two-dimensional material measuring unit comprises diffractively acting microstructured fields arranged in lines and columns, each of said fields comprising in encoded form absolute position information which can be read out using the transceiver, that a pattern resulting in each case from a scan of a microstructured field and which can be evaluated in accordance with a binary code comprises a first and a second part (24, 26), wherein the first part reproduces position information in respect of a translatory position of the rotary body and the second part reproduces position information in respect of a rotary position of the rotary body.
A ground antenna for high-frequency electromagnetic signals that can be embedded in the ground, characterized in that the ground antenna is designed as a pipe slot antenna (1, 1'), wherein the pipe slot antenna (1, 1') is configured as a cavity resonator for a standing electromagnetic wave with a waveguide wavelength (λ H) and for emitting and/or receiving electromagnetic signals with a signal wavelength (λ O) through at least one slot of the pipe slot antenna (1, 1') provided in the direction of a ground surface.
Female quick coupling for connecting a lubrication line suitable for transporting the grease, said coupling comprising an external body (10, 10a) and a front valve adapt to operate the fluid closure of said coupling, the coupling further comprising a front slider and a rear slider arranged coaxial inside said external body (10, 10a) and axially movable with respect to it, characterized in that it further comprises a rear adapter body in turn comprising a grease inlet duct and a grease outlet duct and a by-pass duct formed inside the body of said rear adapter and able to realize a fluid connection between said inlet and outlet ducts, and in that said rear slider is configured so as to selectively open or close said by-pass channel, and in that said by-pass channel obtained in said body of said rear adapter has an annular configuration.