mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a sensor device comprising an accelerometer , the sensor device for mounting on a moveable platform ; and at least one processor configured to: compute a variance based on acceleration data from the accelerometer , wherein the variance based on the acceleration data comprises variance values based on the acceleration data; characterised in that the processor is further configured to determine , using the computed variance, whether the moveable platform is in motion by: determining that the moveable platform is in motion responsive to determining that a consecutive number of variance values are above a first threshold, and determining that the moveable platform is not in motion responsive to determining that at least a portion of the variance values have experienced a falling edge by determining that the at least a portion of the variance values have fallen from a point at or above the first threshold to a point at or below a second threshold, wherein the first threshold is greater that the second threshold. a sensor device comprising an accelerometer , the sensor device for mounting on a moveable platform ; and at least one processor configured to: compute a variance based on acceleration data from the accelerometer , wherein the variance based on the acceleration data comprises variance values based on the acceleration data; characterised in that the processor is further configured to determine , compute a variance based on acceleration data from the accelerometer , wherein the variance based on the acceleration data comprises variance values based on the acceleration data; characterised in that the processor is further configured to determine , using the computed variance, whether the moveable platform is in motion by: determining that the moveable platform is in motion responsive to determining that a consecutive number of variance values are above a first threshold, and determining that the moveable platform is not in motion responsive to determining that at least a portion of the variance values have experienced a falling edge by determining that the at least a portion of the variance values have fallen from a point at or above the first threshold to a point at or below a second threshold, wherein the first threshold is greater that the second threshold. determining that the moveable platform is in motion responsive to determining that a consecutive number of variance values are above a first threshold, and determining that the moveable platform is not in motion responsive to determining that at least a portion of the variance values have experienced a falling edge by determining that the at least a portion of the variance values have fallen from a point at or above the first threshold to a point at or below a second threshold, wherein the first threshold is greater that the second threshold.
A method comprising: aggregating a plurality of serving cells; determining that a power headroom report is triggered; determining that an uplink resource for a new transmission on a serving cell of the plurality of serving cells is allocated at a first time after the power headroom report is triggered, wherein the uplink resource for the new transmission allocated at the first time is a configured grant; determining a power headroom value for each serving cell of the plurality of serving cells being activated based on information received prior to and including a predetermined time before the start of the uplink resource at the first time, wherein the information comprises downlink control information, higher layer signaling for configured grants, and sounding reference signal transmissions; generating a power headroom report medium access control control element comprising at least the power headroom value for each serving cell of the plurality of serving cells being activated; and transmitting the power headroom report medium access control control element on the uplink resource allocated at the first time. aggregating a plurality of serving cells; determining that a power headroom report is triggered; determining that an uplink resource for a new transmission on a serving cell of the plurality of serving cells is allocated at a first time after the power headroom report is triggered, wherein the uplink resource for the new transmission allocated at the first time is a configured grant; determining a power headroom value for each serving cell of the plurality of serving cells being activated based on information received prior to and including a predetermined time before the start of the uplink resource at the first time, wherein the information comprises downlink control information, higher layer signaling for configured grants, and sounding reference signal transmissions; generating a power headroom report medium access control control element comprising at least the power headroom value for each serving cell of the plurality of serving cells being activated; and transmitting the power headroom report medium access control control element on the uplink resource allocated at the first time.
Arc fault detection device (AFDD) for detecting arc faults in an electrical circuit, having: a sensor (S) for identifying high-frequency signals in the electrical circuit, a first oscillator (LO, LO1) for generating a first oscillator signal, a first mixer (MI, MI1) for generating a first intermediate frequency signal from the identified high-frequency signals and the first oscillator signal, a first analogue-to-digital converter (ADU, ADU1) for converting the intermediate frequency signal to a first digital signal, a processor (MP) for evaluating the first digital signal in respect of arc faults and outputting a signal for interrupting the electrical circuit if arc faults are identified, characterized in that the first oscillator is in the form of a variable frequency oscillator that comprises a control input for changing the frequency and is connected to the processor (MP), and the processor (MP) is designed in such a way that, if a first limit value of the first digital signal is exceeded, the frequency of the first oscillator signal is changed until the first limit value is fallen below. a sensor (S) for identifying high-frequency signals in the electrical circuit, a first oscillator (LO, LO1) for generating a first oscillator signal, a first mixer (MI, MI1) for generating a first intermediate frequency signal from the identified high-frequency signals and the first oscillator signal, a first analogue-to-digital converter (ADU, ADU1) for converting the intermediate frequency signal to a first digital signal, a processor (MP) for evaluating the first digital signal in respect of arc faults and outputting a signal for interrupting the electrical circuit if arc faults are identified, characterized in that the first oscillator is in the form of a variable frequency oscillator that comprises a control input for changing the frequency and is connected to the processor (MP), and the processor (MP) is designed in such a way that, if a first limit value of the first digital signal is exceeded, the frequency of the first oscillator signal is changed until the first limit value is fallen below.
A signal processing device , comprising: a multiple-input multiple-output equalizer configured to receive and equalize a plurality of real value signals corresponding to signals or signal components received by a coherent optical receiver, wherein the outputs of the multiple-input multiple-output equalizer provide equalized real or imaginary components of complex signals; and a plurality of chromatic dispersion equalizers , wherein each chromatic dispersion equalizer is configured to receive and equalize one of said complex signals provided by the multiple-input multiple-output equalizer. a multiple-input multiple-output equalizer configured to receive and equalize a plurality of real value signals corresponding to signals or signal components received by a coherent optical receiver, wherein the outputs of the multiple-input multiple-output equalizer provide equalized real or imaginary components of complex signals; and a plurality of chromatic dispersion equalizers , wherein each chromatic dispersion equalizer is configured to receive and equalize one of said complex signals provided by the multiple-input multiple-output equalizer.
A method for enabling an apparatus for wireless communication within a wireless mesh network to receive an assistance message comprising information about the wireless mesh network when the apparatus attempts to join said wireless mesh network, the method comprising: scanning by the apparatus for wireless mesh nodes of the wireless mesh network to discover at least one of the wireless mesh nodes, transmitting , by the apparatus, to a discovered wireless mesh node an indication of the existence of the apparatus and a request for mesh assistance , transmitting, by the discovered wireless mesh node to other nodes in a same geographical discovery set of the wireless mesh network, a request for assistance for the apparatus , transmitting , without having to wait for a subsequent beacon frame on the wireless mesh network, by one or more of the other nodes to the apparatus, an assistance message , said assistance message containing information about the wireless mesh network, and transmitting, by the apparatus and in response to receiving the assistance message, an acknowledgement . scanning by the apparatus for wireless mesh nodes of the wireless mesh network to discover at least one of the wireless mesh nodes, transmitting , by the apparatus, to a discovered wireless mesh node an indication of the existence of the apparatus and a request for mesh assistance , transmitting, by the discovered wireless mesh node to other nodes in a same geographical discovery set of the wireless mesh network, a request for assistance for the apparatus , transmitting , without having to wait for a subsequent beacon frame on the wireless mesh network, by one or more of the other nodes to the apparatus, an assistance message , said assistance message containing information about the wireless mesh network, and transmitting, by the apparatus and in response to receiving the assistance message, an acknowledgement .
A method of selectively forming a conductive material, comprising: removing a portion of each of an organic material and an underlying insulative material to form at least one opening extending through the organic material and at least partially into the underlying insulative material , wherein the organic material is selected from the group consisting of a diazonaphthoquinone-based material, polyhydroxystyrene-based material, phenol formaldehyde-based material, epoxy-based material, polychloroprene, polyvinyl ether, poly(vinyl acetate), poly(vinyl chloride), polysiloxane, poly(methyl methacrylate), polyurethane, polyacrylate, polyacrylamide, novolak, polymethylglutarimide, polymethylsilane, and combinations thereof; cleaning surfaces exposed by the at least one opening ; lining exposed surfaces of the underlying insulative material with a conductive material without forming the conductive material on the organic material ; removing a further portion of the organic material to expose a surface of the underlying insulative material ; forming a dielectric material over and in contact with the conductive material and the surface of the underlying insulative material in the at least one opening , the dielectric material partially filling the at least one opening ; forming another conductive material over and in contact with the dielectric material to form a capacitor structure ; and removing the organic material after forming the capacitor structure . removing a portion of each of an organic material and an underlying insulative material to form at least one opening extending through the organic material and at least partially into the underlying insulative material , wherein the organic material is selected from the group consisting of a diazonaphthoquinone-based material, polyhydroxystyrene-based material, phenol formaldehyde-based material, epoxy-based material, polychloroprene, polyvinyl ether, poly(vinyl acetate), poly(vinyl chloride), polysiloxane, poly(methyl methacrylate), polyurethane, polyacrylate, polyacrylamide, novolak, polymethylglutarimide, polymethylsilane, and combinations thereof; cleaning surfaces exposed by the at least one opening ; lining exposed surfaces of the underlying insulative material with a conductive material without forming the conductive material on the organic material ; removing a further portion of the organic material to expose a surface of the underlying insulative material ; forming a dielectric material over and in contact with the conductive material and the surface of the underlying insulative material in the at least one opening , the dielectric material partially filling the at least one opening ; forming another conductive material over and in contact with the dielectric material to form a capacitor structure ; and removing the organic material after forming the capacitor structure .
Foot prosthesis comprising a heel and a foot tip capable of bearing on the ground and an ankle support , as well as a damping element configured to be distant from said ground, the foot prosthesis being characterised in that it further comprises at least an instep connecting the foot tip to the ankle support , and a connecting rod connecting the instep to the heel .
An optical imaging lens , the optical imaging lens sequentially consisting of, from an object side to an image plane (S11) along an optical axis: a first lens (L1) with a negative refractive power, object side surface (S1) and an image side surface (S2) of the first lens (L1) being both concave; a second lens (L2) with a positive refractive power, an object side surface (S3) and an image side surface (S4) of the second lens (L2) being both convex; a stop (ST) disposed between the second lens (L2) and a third lens (L3); the third lens (L3) with a positive refractive power, an object side surface (S5) of the third lens (L3) being concave, an image side surface (S6) of the third lens (L3) being convex; and a fourth lens (L4) with a positive refractive power, an object side surface (S7) and an image side surface (S8) of the fourth lens (L4) being both convex; wherein the first lens (L1), the second lens (L2), and the third lens (L3) each are glass spherical lenses, the fourth lens (L4) is a glass aspheric lens, and the optical imaging lens meets the expressions: 4.0 < TTL / ImgH < 4.4 , 0.5 < D 1 / D 7 < 1 ; where TTL represents a total optical length of the optical imaging lens , ImgH represents half of the maximum diameter of an effective pixel area of the image plane (S11) of the optical imaging lens , D1 represents an effective diameter of the object side surface (S1) of the first lens (L1), and D7 represents an effective diameter of the object side surface (S7) of the fourth lens (L4). a first lens (L1) with a negative refractive power, object side surface (S1) and an image side surface (S2) of the first lens (L1) being both concave; a second lens (L2) with a positive refractive power, an object side surface (S3) and an image side surface (S4) of the second lens (L2) being both convex; a stop (ST) disposed between the second lens (L2) and a third lens (L3); the third lens (L3) with a positive refractive power, an object side surface (S5) of the third lens (L3) being concave, an image side surface (S6) of the third lens (L3) being convex; and a fourth lens (L4) with a positive refractive power, an object side surface (S7) and an image side surface (S8) of the fourth lens (L4) being both convex; wherein the first lens (L1), the second lens (L2), and the third lens (L3) each are glass spherical lenses, the fourth lens (L4) is a glass aspheric lens, and the optical imaging lens meets the expressions: 4.0 < TTL / ImgH < 4.4 , 0.5 < D 1 / D 7 < 1 ; where TTL represents a total optical length of the optical imaging lens , ImgH represents half of the maximum diameter of an effective pixel area of the image plane (S11) of the optical imaging lens , D1 represents an effective diameter of the object side surface (S1) of the first lens (L1), and D7 represents an effective diameter of the object side surface (S7) of the fourth lens (L4).
A compressor, comprising a cylinder , an upper flange and a lower flange which are disposed on an upper side and a lower side of the cylinder respectively, and a main shaft having a sliding vane mounting portion ; wherein, the sliding vane mounting portion of the main shaft is provided with at least two sliding vanes; a side of each sliding vane is a gas suction side, and another side of each sliding vane is an exhaust side; characterized in that , a rotary plate is provided between the sliding vane mounting portion and at least one of the upper flange and the lower flange ; the rotary plate is fixedly connected with the main shaft ; and the rotary plate is provided with exhaust openings which communicate one-to-one with the exhaust side of each of the sliding vanes, and is provided with exhaust valves which control opening and closing of each of the exhaust openings .
A system for heating combustor fuel , comprising: a turbine exhaust stack having an exhaust supply connection ; a mixing plenum disposed downstream from the exhaust supply connection ; a heat exchanger downstream from the mixing plenum , wherein the heat exchanger has an exhaust inlet in fluid communication with the mixing plenum , an exhaust outlet downstream from the exhaust inlet , a fuel inlet , and a fuel outlet ; a blower disposed downstream from the exhaust outlet of the heat exchanger ; and an exhaust recirculation plenum having a recirculation inlet connection downstream from the blower and a recirculation outlet connection fluidly connected to the mixing plenum , wherein the mixing plenum is located at the recirculation outlet connection and has one or more baffles therein and/or downstream thereof. a turbine exhaust stack having an exhaust supply connection ; a mixing plenum disposed downstream from the exhaust supply connection ; a heat exchanger downstream from the mixing plenum , wherein the heat exchanger has an exhaust inlet in fluid communication with the mixing plenum , an exhaust outlet downstream from the exhaust inlet , a fuel inlet , and a fuel outlet ; a blower disposed downstream from the exhaust outlet of the heat exchanger ; and an exhaust recirculation plenum having a recirculation inlet connection downstream from the blower and a recirculation outlet connection fluidly connected to the mixing plenum , wherein the mixing plenum is located at the recirculation outlet connection and has one or more baffles therein and/or downstream thereof.
A target user equipment, UE (110 1 ), for use in a wireless network, the target UE (110 1 ) comprising a communication module (30 1 ) configured to: receive a first message from a device in the wireless network, wherein the first message includes a position information indicating a position of an anchor UE (110 2 ), wherein the position information in the first message comprises a device identifier, deviceID, for the anchor UE (110 2 ), a physical cell identifier, physCellId, for a serving cell where the anchor UE (110 2 ) is located in; transmit a request message to the anchor UE (110 2 ) in the wireless network, wherein the request message includes an inquiry about whether a position of the anchor UE (110 2 ) is knowable to the target UE (110 1 ), and receive a response message from the anchor UE (110 2 ), wherein the response message includes a response to the inquiry indicating that the position of the anchor UE (110 2 ) is knowable to the target UE (110 1 ); and wherein the target UE (110 1 ) further comprises an input/output device configured to measure a delta position between the target UE (110 1 ) and the anchor UE (110 2 ), wherein the delta position is measured based on a light focus means or sonar; and wherein the response message further includes a physical cell identifier, phyCellId, for the serving cell where the anchor UE (110 2 ) is located and a device identifier, deviceID, of the anchor UE (110 2 ) whose position is knowable to the target UE (110 1 ). receive a first message from a device in the wireless network, wherein the first message includes a position information indicating a position of an anchor UE (110 2 ), wherein the position information in the first message comprises a device identifier, deviceID, for the anchor UE (110 2 ), a physical cell identifier, physCellId, for a serving cell where the anchor UE (110 2 ) is located in; transmit a request message to the anchor UE (110 2 ) in the wireless network, wherein the request message includes an inquiry about whether a position of the anchor UE (110 2 ) is knowable to the target UE (110 1 ), and receive a response message from the anchor UE (110 2 ), wherein the response message includes a response to the inquiry indicating that the position of the anchor UE (110 2 ) is knowable to the target UE (110 1 ); and wherein the target UE (110 1 ) further comprises an input/output device configured to measure a delta position between the target UE (110 1 ) and the anchor UE (110 2 ), wherein the delta position is measured based on a light focus means or sonar; and wherein the response message further includes a physical cell identifier, phyCellId, for the serving cell where the anchor UE (110 2 ) is located and a device identifier, deviceID, of the anchor UE (110 2 ) whose position is knowable to the target UE (110 1 ).