mhurhangee/ep-ind-claims huggingface dataset:
Switching valve having a valve element which is switchable or movable in a housing between a rest seat and a stroke stop, having an actuating device which acts on the valve element in a first direction, and having a spring device which acts on the valve element in a second direction, wherein the first and second directions are opposite, wherein the spring device has a progressive spring characteristic.
An electronic terminal capable of using a function of payment, the electronic terminal comprising: a wearing detector configured to detect whether the electronic terminal is worn by a user; a communicator configured to communicate with a wireless communication apparatus via near field communication; a processor configured to: - change, based on information obtained by the wearing detector and the communicator, whether to enable or disable use of the function of payment; characterized by the processor further configured to - change a reference authentication time based on a status of connection to the wireless communication apparatus using the communicator; and - disable the use of the function of payment unless a notification transmitted periodically by the wireless communication apparatus is successively received by the communicator for the reference authentication time. a wearing detector configured to detect whether the electronic terminal is worn by a user; a communicator configured to communicate with a wireless communication apparatus via near field communication; a processor configured to: - change, based on information obtained by the wearing detector and the communicator, whether to enable or disable use of the function of payment; - change, based on information obtained by the wearing detector and the communicator, whether to enable or disable use of the function of payment; characterized by the processor further configured to - change a reference authentication time based on a status of connection to the wireless communication apparatus using the communicator; and - disable the use of the function of payment unless a notification transmitted periodically by the wireless communication apparatus is successively received by the communicator for the reference authentication time. - change a reference authentication time based on a status of connection to the wireless communication apparatus using the communicator; and - disable the use of the function of payment unless a notification transmitted periodically by the wireless communication apparatus is successively received by the communicator for the reference authentication time.
A control device for an electric power steering device, comprising: a first control portion that derives a first command value based on a steering torque (T dct) applied to a steering shaft of the electric power steering device; a second control portion that derives a second command value based on a target command value for a driving support function; and a synthesizing portion that synthesizes the first command value and the second command value to generate a command value of the electric power steering device, characterized in that the first control portion includes: a derivation portion which derives a command value including a vibration suppression component (V 1) from the steering torque (T dct); an extraction portion which extracts a command value (V 2) corresponding to the vibration suppression component (V 1) from the command value derived by the derivation portion; an adjustment portion which adjusts the command value derived by the derivation portion according to an operation state of a function of the second control portion; and an addition portion which generates the first command value by adding the command value (V 2) extracted by the extraction portion to the command value adjusted by the adjustment portion. a first control portion that derives a first command value based on a steering torque (T dct) applied to a steering shaft of the electric power steering device; a second control portion that derives a second command value based on a target command value for a driving support function; and a synthesizing portion that synthesizes the first command value and the second command value to generate a command value of the electric power steering device, characterized in that the first control portion includes: a derivation portion which derives a command value including a vibration suppression component (V 1) from the steering torque (T dct); an extraction portion which extracts a command value (V 2) corresponding to the vibration suppression component (V 1) from the command value derived by the derivation portion; an adjustment portion which adjusts the command value derived by the derivation portion according to an operation state of a function of the second control portion; and an addition portion which generates the first command value by adding the command value (V 2) extracted by the extraction portion to the command value adjusted by the adjustment portion. a derivation portion which derives a command value including a vibration suppression component (V 1) from the steering torque (T dct); an extraction portion which extracts a command value (V 2) corresponding to the vibration suppression component (V 1) from the command value derived by the derivation portion; an adjustment portion which adjusts the command value derived by the derivation portion according to an operation state of a function of the second control portion; and an addition portion which generates the first command value by adding the command value (V 2) extracted by the extraction portion to the command value adjusted by the adjustment portion.
A communication method, over a radiofrequency channel in a network including a primary node and multiple secondary nodes for telecommunications, characterized in that it comprises the following steps (100, 200, 210, 220, 230): - reception by a secondary node on the radiofrequency channel of beacon messages sent by the nodes in its radio neighborhood, each indicating a number of radio hops separating the primary node from said node of the radio neighborhood having sent the message; - selection by said secondary node, called child node, of the node from the wireless neighborhood having sent the beacon message indicating a minimum number of hops as the parent node; - in order to send information to the primary node, transmission of said information over the radiofrequency channel to said parent node thus selected; and characterized in that in order to detect the emission at a first given frequency of beacon messages by nodes in its wireless neighborhood, and a standard period with a length equal to an inverse period relative to the first frequency being divided into several portions, at least one portion is listened to by said secondary node with at least one offset period relative to the listening to another portion, said secondary node being put on standby for at least part of the time separating the two listening operations for the two portions. - reception by a secondary node on the radiofrequency channel of beacon messages sent by the nodes in its radio neighborhood, each indicating a number of radio hops separating the primary node from said node of the radio neighborhood having sent the message; - selection by said secondary node, called child node, of the node from the wireless neighborhood having sent the beacon message indicating a minimum number of hops as the parent node; - in order to send information to the primary node, transmission of said information over the radiofrequency channel to said parent node thus selected; and
A passenger coach (100, 200) comprising: - a coach body comprising a supporting end wall (140, 240) located in an end region (101, 201) of the passenger coach (100, 200); - at least one buffer arranged in the end region (101, 201) of the passenger coach and fixedly connected to the coach body, the at least one buffer comprising a first working direction (-x); and - at least one energy absorbing structure (110-110b, 210) in direct force-transmitting connection with the supporting end wall (140, 240) and arranged to absorb energy when the end portion (101, 201) of the passenger coach is subjected to an impulse transfer acting in the first working direction (-x) and resulting in a reversible energy absorbing capacity of the at least one buffer being exceeded. - a coach body comprising a supporting end wall (140, 240) located in an end region (101, 201) of the passenger coach (100, 200); - at least one buffer arranged in the end region (101, 201) of the passenger coach and fixedly connected to the coach body, the at least one buffer comprising a first working direction (-x); and - at least one energy absorbing structure (110-110b, 210) in direct force-transmitting connection with the supporting end wall (140, 240) and arranged to absorb energy when the end portion (101, 201) of the passenger coach is subjected to an impulse transfer acting in the first working direction (-x) and resulting in a reversible energy absorbing capacity of the at least one buffer being exceeded.
An apparatus comprising: a first signal line (366, 354) configurable to carry a first signal; a second signal line configurable to carry a second signal and located adjacent to the first signal line; a third signal line (352, 366) configurable to carry a third signal and located adjacent to the second signal line, the second signal line being located between the first and the third signal line; and a first switch coupled between the second signal line and alternating current, AC, ground, the second signal line configured to isolate the first and third signal lines when the switch is closed, wherein the first and second signal lines are not active concurrently, and the second and third signal lines are not active concurrently; and wherein the first, second and third signal lines each coupled between a respective LNA and a respective downconverter, each LNA being for one or more bands in a carrier aggregation system. a first signal line (366, 354) configurable to carry a first signal; a second signal line configurable to carry a second signal and located adjacent to the first signal line; a third signal line (352, 366) configurable to carry a third signal and located adjacent to the second signal line, the second signal line being located between the first and the third signal line; and a first switch coupled between the second signal line and alternating current, AC, ground, the second signal line configured to isolate the first and third signal lines when the switch is closed, wherein the first and second signal lines are not active concurrently, and the second and third signal lines are not active concurrently; and wherein the first, second and third signal lines each coupled between a respective LNA and a respective downconverter, each LNA being for one or more bands in a carrier aggregation system.
A deep brain stimulation apparatus based on surface-enhanced Raman spectroscopy, the deep brain stimulation apparatus comprising: a stimulator configured to apply electrical stimulation to a brain; characterised by further comprising: a light source configured to emit light to the brain; plasmonic nano-particles configured to allow surface-enhanced Raman scattering, SERS, by contacting a neurotransmitter when the brain secretes the neurotransmitter as a result of the electrical stimulation; a photodetector configured to, when the light incident from the light source is scattered by the neurotransmitter in contact with the plasmonic nano-particles, detect scattered light through an optical fiber; a signal processing analyzer configured to convert a light signal from the photodetector into an electric signal; and a controller configured to receive an analysis signal of the signal processing analyzer to control the stimulator, wherein the plasmonic nano-particles are bonded to a surface of the optical fiber and inserted into a body together with the optical fiber. a light source configured to emit light to the brain; plasmonic nano-particles configured to allow surface-enhanced Raman scattering, SERS, by contacting a neurotransmitter when the brain secretes the neurotransmitter as a result of the electrical stimulation; a photodetector configured to, when the light incident from the light source is scattered by the neurotransmitter in contact with the plasmonic nano-particles, detect scattered light through an optical fiber; a signal processing analyzer configured to convert a light signal from the photodetector into an electric signal; and a controller configured to receive an analysis signal of the signal processing analyzer to control the stimulator, wherein the plasmonic nano-particles are bonded to a surface of the optical fiber and inserted into a body together with the optical fiber.
A method for controlling upload of data, performed in an electronic device, wherein said electronic device is configured to operate as a tracker by intermittently uploading data to a wireless network while moving along a route, said method comprising, at a scheduled occasion for data upload: obtaining a current position of the electronic device; determining coverage data associated with said current position based on a stored network coverage map; determining, dependent on the coverage data of the network coverage map, to postpone upload of data to a later instance, based on either: - the stored coverage data associated with said position not exceeding a first coverage level threshold, and a time limit between data uploads not being exceeded at the current position or at said later instance; - the stored coverage data associated with said position not exceeding a second coverage level threshold, representing a lower coverage level than the first threshold; or otherwise attempt to upload data. obtaining a current position of the electronic device; determining coverage data associated with said current position based on a stored network coverage map; determining, dependent on the coverage data of the network coverage map, to postpone upload of data to a later instance, based on either: - the stored coverage data associated with said position not exceeding a first coverage level threshold, and a time limit between data uploads not being exceeded at the current position or at said later instance; - the stored coverage data associated with said position not exceeding a second coverage level threshold, representing a lower coverage level than the first threshold; - the stored coverage data associated with said position not exceeding a first coverage level threshold, and a time limit between data uploads not being exceeded at the current position or at said later instance; - the stored coverage data associated with said position not exceeding a second coverage level threshold, representing a lower coverage level than the first threshold; or otherwise attempt to upload data.
Fixing system (100, 200) for at least one screw connection, comprising - at least one pulling unit (108, 208), characterized by - at least one pressure unit (107, 207), wherein - the pressure unit (107, 207) comprises a housing (110.1, 210.1) with a first upper end region (106, 206) and a first lower end region (105, 205) with a first recess (165.1, 265.1) that is formed open downward, - the pressure unit (107, 207) comprises at least one sleeve stroke space (158, 258) at the first upper end region (106, 206) and at least one stroke receptacle (148, 248) associated therewith and having a pressure surface (154, 254), - at the first lower end region (105, 205) of the pressure unit (107, 207) a cone sleeve is insertable into the first recess (165.1, 265.1), and - the stroke receptacle (148, 248) of the pressure unit (107, 207) is arranged in the housing (110.1, 210.1) in such a way that the stroke receptacle (148, 248) can be moved by means of hydraulic and/or mechanical actuation in the direction of a central longitudinal axis z of the housing (110.1, 210.1) and exerts a force F 2 on the insertable cone sleeve via a pressure part associated therewith or directly. - at least one pulling unit (108, 208), characterized by - at least one pressure unit (107, 207), wherein - the pressure unit (107, 207) comprises a housing (110.1, 210.1) with a first upper end region (106, 206) and a first lower end region (105, 205) with a first recess (165.1, 265.1) that is formed open downward, - the pressure unit (107, 207) comprises at least one sleeve stroke space (158, 258) at the first upper end region (106, 206) and at least one stroke receptacle (148, 248) associated therewith and having a pressure surface (154, 254), - at the first lower end region (105, 205) of the pressure unit (107, 207) a cone sleeve is insertable into the first recess (165.1, 265.1), and - the stroke receptacle (148, 248) of the pressure unit (107, 207) is arranged in the housing (110.1, 210.1) in such a way that the stroke receptacle (148, 248) can be moved by means of hydraulic and/or mechanical actuation in the direction of a central longitudinal axis z of the housing (110.1, 210.1) and exerts a force F 2 on the insertable cone sleeve via a pressure part associated therewith or directly.
A method for increasing the molecular weight of a ketoacid, the method comprising the steps of providing in a reactor a raw material comprising at least one ketoacid represented by the following Scheme 1 and subjecting the raw material to first C-C-coupling reaction(s) in the presence of an ion exchange resin catalyst so as to produce at least one ketoacid dimer, providing in a reactor a feedstock comprising the at least one ketoacid dimer, subjecting the feedstock to second C-C-coupling reaction(s) at a temperature of at least 200 °C; wherein, in Scheme 1, n and m are integers each selected independently of each other from the list consisting of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10. providing in a reactor a raw material comprising at least one ketoacid represented by the following Scheme 1 and subjecting the raw material to first C-C-coupling reaction(s) in the presence of an ion exchange resin catalyst so as to produce at least one ketoacid dimer, providing in a reactor a feedstock comprising the at least one ketoacid dimer, subjecting the feedstock to second C-C-coupling reaction(s) at a temperature of at least 200 °C; wherein, in Scheme 1, n and m are integers each selected independently of each other from the list consisting of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10.
A method for use in installation of a mill liner, the method including: a) retaining a mounting bolt at least partially within a liner opening extending through the mill liner; b) positioning the mill liner against a mill shell so that the retained mounting bolt is aligned with a mill shell opening extending through the mill shell; c) selectively coupling an extraction tool to the mounting bolt from outside the mill shell; d) detaching the mounting bolt from the mill liner using the extraction tool; e) pulling the mounting bolt through the mill shell opening using the extraction tool so that an end of the mounting bolt projects from the mill shell opening; and, f) securing a fastener onto the mounting bolt to thereby attach the mill liner to the mill. a) retaining a mounting bolt at least partially within a liner opening extending through the mill liner; b) positioning the mill liner against a mill shell so that the retained mounting bolt is aligned with a mill shell opening extending through the mill shell; c) selectively coupling an extraction tool to the mounting bolt from outside the mill shell; d) detaching the mounting bolt from the mill liner using the extraction tool; e) pulling the mounting bolt through the mill shell opening using the extraction tool so that an end of the mounting bolt projects from the mill shell opening; and, f) securing a fastener onto the mounting bolt to thereby attach the mill liner to the mill.
A data processing apparatus comprising: a processor configured to provide a neural network, wherein the neural network comprises a neural network layer being configured to generate from an array of input data values an array of output data values based on a plurality of position dependent kernels and a plurality of input data values of the array of input data values, wherein a respective position dependent kernel is a kernel whose kernel values depend on a respective position of the array of input data values; and the array of input data values represents a part or a whole of an image, wherein the neural network comprises one or more preceding neural network layers configured to generate the plurality of position dependent kernels based on an array of guiding data representative of information about object or region borders; characterized in that: the data processing apparatus is for creating a higher-resolution image of an input image; the neural network is configured to generate the plurality of position dependent kernels based on a plurality of position independent kernels and a plurality of position dependent weights; and the neural network is configured to generate the plurality of position dependent weights based on the array of guiding data. a processor configured to provide a neural network, wherein the neural network comprises a neural network layer being configured to generate from an array of input data values an array of output data values based on a plurality of position dependent kernels and a plurality of input data values of the array of input data values, wherein a respective position dependent kernel is a kernel whose kernel values depend on a respective position of the array of input data values; and the array of input data values represents a part or a whole of an image, wherein the neural network comprises one or more preceding neural network layers configured to generate the plurality of position dependent kernels based on an array of guiding data representative of information about object or region borders; characterized in that: the data processing apparatus is for creating a higher-resolution image of an input image; the neural network is configured to generate the plurality of position dependent kernels based on a plurality of position independent kernels and a plurality of position dependent weights; and the neural network is configured to generate the plurality of position dependent weights based on the array of guiding data. the data processing apparatus is for creating a higher-resolution image of an input image; the neural network is configured to generate the plurality of position dependent kernels based on a plurality of position independent kernels and a plurality of position dependent weights; and the neural network is configured to generate the plurality of position dependent weights based on the array of guiding data.
Method for measuring the behaviour of the head and eyes of a wearer when he looks at a target, comprising steps of: - providing a target and equipping the wearer with a lens having at least two zones (24, 26, 28, 30, 32), the vision of the target through one zone of the lens differing from the vision of the target through a neighbouring zone of the lens; - when the wearer looks at the target, determining the zone of the lens through which the wearer sees the target depending on the vision that the wearer has of the target; and - calculating the movement of the head and eyes of the wearer depending on the determined zone. - providing a target and equipping the wearer with a lens having at least two zones (24, 26, 28, 30, 32), the vision of the target through one zone of the lens differing from the vision of the target through a neighbouring zone of the lens; - when the wearer looks at the target, determining the zone of the lens through which the wearer sees the target depending on the vision that the wearer has of the target; and - calculating the movement of the head and eyes of the wearer depending on the determined zone.