mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an information terminal that uses a shared user account or that does not have a login function; at least a peripheral device communicatively connected to the information terminal; and an operation authentication relay apparatus connected between the information terminal and at least the peripheral device, wherein the operation authentication relay apparatus is recognized as a peripheral device by the information terminal, and recognized as an information terminal by the peripheral device, and wherein the operation authentication relay apparatus comprises: authentication means for authenticating a user using the information terminal by operating the peripheral device, wherein the authentication means performs face recognition of the user captured by a camera to identify the user among persons registered in advance; and control means for controlling relaying of a signal between the peripheral device and the information terminal, based on an authentication result of the user by the authentication means. an information terminal that uses a shared user account or that does not have a login function; at least a peripheral device communicatively connected to the information terminal; and an operation authentication relay apparatus connected between the information terminal and at least the peripheral device, wherein the operation authentication relay apparatus is recognized as a peripheral device by the information terminal, and recognized as an information terminal by the peripheral device, and wherein the operation authentication relay apparatus comprises: authentication means for authenticating a user using the information terminal by operating the peripheral device, wherein the authentication means performs face recognition of the user captured by a camera to identify the user among persons registered in advance; and control means for controlling relaying of a signal between the peripheral device and the information terminal, based on an authentication result of the user by the authentication means. authentication means for authenticating a user using the information terminal by operating the peripheral device, wherein the authentication means performs face recognition of the user captured by a camera to identify the user among persons registered in advance; and control means for controlling relaying of a signal between the peripheral device and the information terminal, based on an authentication result of the user by the authentication means.
Aperiodic-combined-envelope-sequence generation device (100, 101) comprising: a spectral-envelope-sequence calculating part (120, 121) which takes, as an input audio signal, a time-domain audio digital signal in each frame which is a predetermined time segment, and calculates a spectral envelope sequence of the input audio signal on the basis of time-domain linear prediction of the input audio signal; and a periodic-combined-envelope generating part which transforms the spectral envelope sequence to a periodic combined envelope sequence on the basis of a periodic component of the input audio signal in the frequency domain, wherein the periodic-combined-envelope generating part obtains, as a periodic combined envelope sequence, a sequence that is obtained by more greatly changing values of at least samples at integer multiples of a period in the frequency-domain of the input audio signal in the spectral envelope sequence and samples in a neighborhood of the integer multiples of the period as the length of a period in the frequency domain of the input audio signal is longer. a spectral-envelope-sequence calculating part (120, 121) which takes, as an input audio signal, a time-domain audio digital signal in each frame which is a predetermined time segment, and calculates a spectral envelope sequence of the input audio signal on the basis of time-domain linear prediction of the input audio signal; and a periodic-combined-envelope generating part which transforms the spectral envelope sequence to a periodic combined envelope sequence on the basis of a periodic component of the input audio signal in the frequency domain, wherein the periodic-combined-envelope generating part obtains, as a periodic combined envelope sequence, a sequence that is obtained by more greatly changing values of at least samples at integer multiples of a period in the frequency-domain of the input audio signal in the spectral envelope sequence and samples in a neighborhood of the integer multiples of the period as the length of a period in the frequency domain of the input audio signal is longer.
Method for managing utility meter communications within a network comprising a plurality of utility meters (U1-U8) each associated and connected to a plurality of utility management centers (P1-P3) through a plurality of intermediate data concentrators (C1-C4), each utility meter being identified by a utility meter identifier Uid and being adapted to produce and send utility meter messages DTup u,c to a destination data concentrator identified by a data concentrator identifier DCid, each destination data concentrator being adapted to produce and send reports to said management center (P1-P3) identified by a management center identifier Pid, said method comprising the steps of: - sending a utility meter message DTup u,c from a utility meter (U1-U8) to said destination data concentrator (C1-C4), said utility meter message DTup u,c including: a metering data measurement DTup reported by said utility meter, said utility meter identifier Uid, said destination data concentrator identifier DCid and said management center identifier Pid, - determining, on the basis of several metering data measurements DTup, a metering counter differential consumption value ΔCPT calculated by difference of two metering counter consumption indexes CPT measured by said utility meter within a time period interval ΔDT, - sending, from the destination data concentrator towards the utility management center (P1-P3) to which said utility meter is associated, a report containing a collection of said metering counter differential consumption values ΔCPT together with the utility meter identifier Uid to which these metering counter differential consumption values refer. - sending a utility meter message DTup u,c from a utility meter (U1-U8) to said destination data concentrator (C1-C4), said utility meter message DTup u,c including: a metering data measurement DTup reported by said utility meter, said utility meter identifier Uid, said destination data concentrator identifier DCid and said management center identifier Pid, - determining, on the basis of several metering data measurements DTup, a metering counter differential consumption value ΔCPT calculated by difference of two metering counter consumption indexes CPT measured by said utility meter within a time period interval ΔDT, - sending, from the destination data concentrator towards the utility management center (P1-P3) to which said utility meter is associated, a report containing a collection of said metering counter differential consumption values ΔCPT together with the utility meter identifier Uid to which these metering counter differential consumption values refer.
A method for operating an IOT device, the method comprising: determining, during operation of one or more processors in a low power mode, an orthogonal time frequency space, OTFS, transmission waveform using two-dimensional channel state information to correct for imperfections in a time varying channel wherein the two-dimensional channel state information is relevant to a delay-Doppler channel domain in which the time varying channel is transformed to a time invariant convolution channel; transitioning, at a scheduled time or in response to a sensor signal, to operation of the one or more processors in a high power mode; and transmitting, during operation in the high power mode, the OTFS transmission waveform wherein the processor then returns to operation in the low power mode after the OTFS transmission waveform has been transmitted and wherein the one or more processors have more circuits activated or operate at a higher clock speed during operation in the high power mode relative to operation in the low power mode. determining, during operation of one or more processors in a low power mode, an orthogonal time frequency space, OTFS, transmission waveform using two-dimensional channel state information to correct for imperfections in a time varying channel wherein the two-dimensional channel state information is relevant to a delay-Doppler channel domain in which the time varying channel is transformed to a time invariant convolution channel; transitioning, at a scheduled time or in response to a sensor signal, to operation of the one or more processors in a high power mode; and transmitting, during operation in the high power mode, the OTFS transmission waveform wherein the processor then returns to operation in the low power mode after the OTFS transmission waveform has been transmitted and wherein the one or more processors have more circuits activated or operate at a higher clock speed during operation in the high power mode relative to operation in the low power mode.
A soil conditioner comprising a solid body (13, 15) and a microorganism comprising mycorrhiza introduced into the solid body, characterized in that the solid body (13, 15) comprises partly dried silt being river sediment and in that the soil conditioner in addition to mycorrhiza comprises further living organisms comprising one or more of the following organisms, worms, worm eggs and predators, comprising predator mites.
A threaded tissue tack comprising: a central body portion having a first end and a second end (14, 16); a first screw extending from the first end of the central body portion; and a second screw extending from the second end of the central body portion, wherein the first screw includes a left-hand thread formed thereon and the second screw includes a right-hand thread formed thereon, characterised in that the first and second screws and the central body portion are formed of a bioabsorbable material, and the central body portion includes an engagement structure for engagement with a tack driver, wherein the engagement structure comprises (i) a plurality of teeth formed about a circumference of the central body portion or (ii) a plurality of slots formed in a circumference of the central body portion. a central body portion having a first end and a second end (14, 16); a first screw extending from the first end of the central body portion; and a second screw extending from the second end of the central body portion, wherein the first screw includes a left-hand thread formed thereon and the second screw includes a right-hand thread formed thereon, characterised in that the first and second screws and the central body portion are formed of a bioabsorbable material, and the central body portion includes an engagement structure for engagement with a tack driver, wherein the engagement structure comprises (i) a plurality of teeth formed about a circumference of the central body portion or (ii) a plurality of slots formed in a circumference of the central body portion. (i) a plurality of teeth formed about a circumference of the central body portion or (ii) a plurality of slots formed in a circumference of the central body portion.
Communication method comprising the following steps: a) a communicating device (T1, R), said communicating device being a client device capable of implementing a simple TCP, Transmission Control Protocol, connection or a multi-path connection obeying a transport protocol of the OSI model, or a relay device connected to said client device and capable of implementing a multi-path connection obeying said transport protocol, receives, in the absence of any multi-path connection obeying said transport protocol between said communicating device (T1, R) and a certain other client device (T1, T3), information (MPTCP_STATUS) concerning the compatibility or the non-compatibility with multi-path connections obeying said transport protocol of at least one intermediate node placed on a path linking said communicating device (T1, R) to said other client device (T2, T3), said information being received by said communicating device in an unsolicited message broadcast by said intermediate node; and b) said communicating device (T1, R) stores a status (PATH_CHECKED) of said path regarding its compatibility or its non-compatibility with multi-path connections obeying said transport protocol. a) a communicating device (T1, R), said communicating device being a client device capable of implementing a simple TCP, Transmission Control Protocol, connection or a multi-path connection obeying a transport protocol of the OSI model, or a relay device connected to said client device and capable of implementing a multi-path connection obeying said transport protocol, receives, in the absence of any multi-path connection obeying said transport protocol between said communicating device (T1, R) and a certain other client device (T1, T3), information (MPTCP_STATUS) concerning the compatibility or the non-compatibility with multi-path connections obeying said transport protocol of at least one intermediate node placed on a path linking said communicating device (T1, R) to said other client device (T2, T3), said information being received by said communicating device in an unsolicited message broadcast by said intermediate node; and b) said communicating device (T1, R) stores a status (PATH_CHECKED) of said path regarding its compatibility or its non-compatibility with multi-path connections obeying said transport protocol.
An information processing device that operates in an imaging device mounted on a mobile unit, the information processing device notifying the mobile unit of failed imaging, when imaging performed by the imaging device has failed, wherein a check is made to determine whether or not imaging has failed, on a basis of an image captured by the imaging device and/or information related to the image, wherein when imaging has not been performed at a predetermined position and/or a predetermined time, a notification of failed imaging is sent. the information processing device notifying the mobile unit of failed imaging, when imaging performed by the imaging device has failed, wherein a check is made to determine whether or not imaging has failed, on a basis of an image captured by the imaging device and/or information related to the image, wherein when imaging has not been performed at a predetermined position and/or a predetermined time, a notification of failed imaging is sent.
Support trolley for supporting a door of an aircraft to permit working on the door, e.g. painting of the door, the trolley comprising a frame (2, 3, 4, 5, 6) with an upper support portion comprising at least two pairs of support bolts (28, 29, 30, 31) with receiving recesses at their free ends for engagement with locking bolts of the door to be supported so that the door is supported at each lateral side by a pair of support bolts (28, 29, 30, 31), the receiving recess being arranged eccentrically with respect to the longitudinal axis of the support bolt (28, 29, 30, 31) such that the support bolt (28, 29, 30, 31) may be rotated when in engagement with the locking bolts of the door to adapt to slight differences in position of the locking bolts on the door.
An assembly for an aircraft propulsion system, comprising: a nacelle inlet structure with an internal cavity; and a nozzle configured to direct fluid into the internal cavity through a plurality of ports; a first of the plurality of ports having a first flow area with a first diameter (154, 156) and located a first distance to an outer lip skin of the nacelle inlet structure along a first port centerline, characterized in that: a second of the plurality of ports having a second flow area with a second diameter (154, 156) and located a second distance to the outer lip skin of the nacelle inlet structure along a second port centerline, the first distance different than the second distance; and a first quotient of the first distance divided by the first diameter (154, 156) is within +/- 10% of a second quotient of the second distance divided by the second diameter (154, 156). a nacelle inlet structure with an internal cavity; and a nozzle configured to direct fluid into the internal cavity through a plurality of ports; a first of the plurality of ports having a first flow area with a first diameter (154, 156) and located a first distance to an outer lip skin of the nacelle inlet structure along a first port centerline, a second of the plurality of ports having a second flow area with a second diameter (154, 156) and located a second distance to the outer lip skin of the nacelle inlet structure along a second port centerline, the first distance different than the second distance; and a first quotient of the first distance divided by the first diameter (154, 156) is within +/- 10% of a second quotient of the second distance divided by the second diameter (154, 156).
A transmission line apparatus comprising: a two-dimensional signal line; first and second electrodes configured to enable the transmission of an electrical signal from the first electrode through the two-dimensional signal line to the second electrode; a pair of coplanar ground lines (406a,b); and a component interconnect substrate configured to support the two-dimensional signal line, the first and second electrodes and the coplanar ground lines (406a,b) to allow transmission of the electrical signal through the component interconnect substrate to/from one or more components on the substrate via the first and/or second electrode, wherein the two-dimensional signal line is attached to the first and second electrodes such that a portion of the two-dimensional signal line is suspended by the first and second electrodes over the component interconnect substrate to reduce electromagnetic interactions between the component interconnect substrate and the suspended portion to facilitate transmission of the electrical signal, and wherein the two-dimensional signal line is positioned between, and spaced apart from, the pair of coplanar ground lines (406a,b) to form a ground-signal-ground configuration on the component interconnect substrate. a two-dimensional signal line; first and second electrodes configured to enable the transmission of an electrical signal from the first electrode through the two-dimensional signal line to the second electrode; a pair of coplanar ground lines (406a,b); and a component interconnect substrate configured to support the two-dimensional signal line, the first and second electrodes and the coplanar ground lines (406a,b) to allow transmission of the electrical signal through the component interconnect substrate to/from one or more components on the substrate via the first and/or second electrode, wherein the two-dimensional signal line is attached to the first and second electrodes such that a portion of the two-dimensional signal line is suspended by the first and second electrodes over the component interconnect substrate to reduce electromagnetic interactions between the component interconnect substrate and the suspended portion to facilitate transmission of the electrical signal, and wherein the two-dimensional signal line is positioned between, and spaced apart from, the pair of coplanar ground lines (406a,b) to form a ground-signal-ground configuration on the component interconnect substrate.
A rectifier circuit configured to conduct current in a forward direction from an input to an output of the rectifier circuit, and substantially block current in a reverse direction from the output to the input, said rectifier circuit comprising: a metal-oxide-semiconductor-field-effect-transistor M1 that defines a gate, a drain, a source, and a body-diode oriented to allow current to flow from the source to the drain of the M1, wherein the gate is connected to the input, the drain is connected to the output, and the M1 has an on-resistance; the rectifier circuit further includes a first Zener-diode D1 that defines an anode and a cathode of the D1, characterised in that the cathode is connected to the input, the anode is connected to the source, and the D1 is specified by a Zener-voltage, wherein the Zener-voltage and the on-resistance are selected such that a stored-charge in the body-diode is less than a forward-charge-threshold of the body diode when current flows in the forward direction, whereby the reverse recover time of the body-diode is reduced. a metal-oxide-semiconductor-field-effect-transistor M1 that defines a gate, a drain, a source, and a body-diode oriented to allow current to flow from the source to the drain of the M1, wherein the gate is connected to the input, the drain is connected to the output, and the M1 has an on-resistance; the rectifier circuit further includes a first Zener-diode D1 that defines an anode and a cathode of the D1, characterised in that the cathode is connected to the input, the anode is connected to the source, and the D1 is specified by a Zener-voltage, wherein the Zener-voltage and the on-resistance are selected such that a stored-charge in the body-diode is less than a forward-charge-threshold of the body diode when current flows in the forward direction, whereby the reverse recover time of the body-diode is reduced.
A method, performed by a control device, for controlling a vehicle lighting device, the vehicle lighting device comprising the control device; and at least one electronic display unit arranged at a rear end of a vehicle, wherein the control device is arranged to control the at least one display unit to show various types of vehicle lights, the method comprising: collecting data relating to the vehicle surroundings; and controlling the at least one display unit to adapt at least one vehicle light based on the collected data, wherein controlling the at least one display unit to adapt at least one vehicle light based on the collected data comprises adapting the position of the vehicle light, characterized in that the method comprises: determining a height of a trailing vehicle, and if the determined height exceeds a predetermined height value, controlling the at least one display unit such that the at least one light is shown on another position. collecting data relating to the vehicle surroundings; and controlling the at least one display unit to adapt at least one vehicle light based on the collected data, wherein controlling the at least one display unit to adapt at least one vehicle light based on the collected data comprises adapting the position of the vehicle light, determining a height of a trailing vehicle, and if the determined height exceeds a predetermined height value, controlling the at least one display unit such that the at least one light is shown on another position.