mhurhangee/ep-ind-claims huggingface dataset:
A method for an aircraft to accomplish a required time of arrival at a waypoint, comprising: determining an aircraft speed and speed profile required along a given flight plan containing one or more speed constraints including AT, AT OR BELOW, or AT OR ABOVE speed constraints and a required time of arrival, wherein the determining the speed profile is based upon one or more of the mechanisms consisting of: continuous RTA ECON speed management between speed constraints; padding of an AT speed constraint and an AT or ABOVE speed constraint; decelerating proactively; using a variable guidance margin, wherein the guidance margin is a speed change not included in a flight plan prediction; and applying both positive and negative speed pads at flight segment where both AT OR BELOW and AT OR ABOVE components of speed constraints apply, and wherein the corresponding speed pads for AT OR ABOVE speed constraints (PadPos) and for the AT OR BELOW speed constraints (PadNeg) determine the speed pad (PadDiv(i)) in the area (i) where the AT OR ABOVE speed constraint and the AT OR BELOW speed constraint difference (dV(i)) is less than twice the nominal speed pad (2*PadNom), and the PadDiv(i) is determined as: If PadPos < PadNom, then PadDiv(i) = PadPos*dV(i) / 2 / PadNom; If PadNeg < PadNom, then PadDiv(i) = (2*PadNom - PadNeg)*dV(i) /2/ PadNom; If PadDiv i = dV i / 2. continuous RTA ECON speed management between speed constraints; padding of an AT speed constraint and an AT or ABOVE speed constraint; decelerating proactively; using a variable guidance margin, wherein the guidance margin is a speed change not included in a flight plan prediction; and applying both positive and negative speed pads at flight segment where both AT OR BELOW and AT OR ABOVE components of speed constraints apply, and wherein the corresponding speed pads for AT OR ABOVE speed constraints (PadPos) and for the AT OR BELOW speed constraints (PadNeg) determine the speed pad (PadDiv(i)) in the area (i) where the AT OR ABOVE speed constraint and the AT OR BELOW speed constraint difference (dV(i)) is less than twice the nominal speed pad (2*PadNom), and the PadDiv(i) is determined as: If PadPos < PadNom, then PadDiv(i) = PadPos*dV(i) / 2 / PadNom; If PadNeg < PadNom, then PadDiv(i) = (2*PadNom - PadNeg)*dV(i) /2/ PadNom; If PadDiv i = dV i / 2. If PadPos < PadNom, then PadDiv(i) = PadPos*dV(i) / 2 / PadNom; If PadNeg < PadNom, then PadDiv(i) = (2*PadNom - PadNeg)*dV(i) /2/ PadNom; If PadDiv i = dV i / 2.
Regulation method intended to reduce congestion on a mesh communication network, the mesh communication network comprising a plurality of node devices communicating by powerline, a route request being sent by a source node device and the route request being relayed by gradual broadcasting by intermediate node devices to a destination node device, an intermediate node device being able to receive one or more copies of at least one route discovery requests, the regulation method being implemented by an intermediate node device of the mesh communication network and comprising the step of: - detecting a congestion situation when a number of copies of route requests received over a time window of predefined duration is higher than a predefined first threshold. The method being characterised in that it further comprises the steps of: - identifying, when a congestion situation is detected, route requests as being important, a route request being identified as important when the number of copies of said route request received over the time window of predefined duration is above a second predefined threshold, and - relaying solely copies of the route requests identified as important. - detecting a congestion situation when a number of copies of route requests received over a time window of predefined duration is higher than a predefined first threshold. - identifying, when a congestion situation is detected, route requests as being important, a route request being identified as important when the number of copies of said route request received over the time window of predefined duration is above a second predefined threshold, and - relaying solely copies of the route requests identified as important.
Method for correcting a first light pattern provided by an automotive lighting device, when the automotive lighting device is mounted on an vehicle, the first light pattern having a plurality of lane lines driven on the road, the method comprising the steps of sensing a lighting device speed, and projecting a corrected light pattern where the position of the corrected lane lines is different from the position of the lane lines in the first light pattern, and the difference depends on the lighting device speed; and wherein the position of the corrected lane lines in the corrected light pattern is translated towards the automotive lighting device at the same speed as the lighting device speed. projecting a corrected light pattern where the position of the corrected lane lines is different from the position of the lane lines in the first light pattern, and the difference depends on the lighting device speed; and wherein the position of the corrected lane lines in the corrected light pattern is translated towards the automotive lighting device at the same speed as the lighting device speed.
Measuring rake intended for arrangement on a link rod, said measuring rake comprising at least: - a sheath comprising a front face and two side walls (18A, 18B) which between them delimit a recess intended for receiving the link rod; - an electronic circuit arranged on the front face of the sheath and comprising at least one sensor; and - a patched leading edge fixed removably to the sheath, said patched leading edge comprising an inner face arranged on the front face of the sheath so as to cover the electronic circuit, an outer face situated opposite said inner face, and a plurality of air intakes distributed over a length of the patched leading edge, each of said air intakes forming a fluidic passage between the outer face and the inner face of the patched leading edge opening out onto the electronic circuit via said inner face, facing at least one sensor of the electronic circuit. - a sheath comprising a front face and two side walls (18A, 18B) which between them delimit a recess intended for receiving the link rod; - an electronic circuit arranged on the front face of the sheath and comprising at least one sensor; and - a patched leading edge fixed removably to the sheath, said patched leading edge comprising an inner face arranged on the front face of the sheath so as to cover the electronic circuit, an outer face situated opposite said inner face, and a plurality of air intakes distributed over a length of the patched leading edge, each of said air intakes forming a fluidic passage between the outer face and the inner face of the patched leading edge opening out onto the electronic circuit via said inner face, facing at least one sensor of the electronic circuit.
An apparatus for fluidly connecting a reduced-pressure source to a dressing forming a part of a sealed therapeutic environment, the apparatus comprising: a base having an aperture; a wall having a peripheral portion coupled to the base, the wall forming a cavity in fluid communication with the aperture; and a conduit port protruding from an exterior surface of the wall, the conduit port being fluidly coupled to the cavity through the wall and adapted to receive a conduit; wherein the base is adapted to couple to the dressing and the wall is adapted to collapse from a first position, where the cavity has a first volume, to a second position, where the cavity has a second reduced volume, in response to a supply of reduced pressure from the reduced-pressure source; wherein the thickness of the wall and the durometer of the wall are selected so that the wall collapses to the second position in response to the pressure in the sealed therapeutic environment reaching a therapeutic reduced pressure level and the wall expands to the first position in response to the absolute pressure in the sealed therapeutic environment rising above the therapeutic reduced pressure level. a base having an aperture; a wall having a peripheral portion coupled to the base, the wall forming a cavity in fluid communication with the aperture; and a conduit port protruding from an exterior surface of the wall, the conduit port being fluidly coupled to the cavity through the wall and adapted to receive a conduit; wherein the base is adapted to couple to the dressing and the wall is adapted to collapse from a first position, where the cavity has a first volume, to a second position, where the cavity has a second reduced volume, in response to a supply of reduced pressure from the reduced-pressure source; wherein the thickness of the wall and the durometer of the wall are selected so that the wall collapses to the second position in response to the pressure in the sealed therapeutic environment reaching a therapeutic reduced pressure level and the wall expands to the first position in response to the absolute pressure in the sealed therapeutic environment rising above the therapeutic reduced pressure level.
A mobile terminal comprising: a metal chassis used for holding a panel for display and maintaining mechanical strength of the panel; and a PIFA type antenna comprising a radiation element having a resonance pattern; and a coaxial cable in which a coating removed portion is provided in a part in a manner that an external conductor of the coaxial cable is exposed, the PIFA type antenna being configured to fix the coating removed portion in a vicinity of an upper end of the metal chassis, characterized in that the panel constitutes an optical touch panel, and the PIFA type antenna is disposed outside the optical touch panel between an upper end of the metal chassis and an upper end of the mobile terminal, wherein a distance d between the radiation element and the upper end of the metal chassis is set at 3 mm or greater. a metal chassis used for holding a panel for display and maintaining mechanical strength of the panel; and a PIFA type antenna comprising a radiation element having a resonance pattern; and a coaxial cable in which a coating removed portion is provided in a part in a manner that an external conductor of the coaxial cable is exposed, the PIFA type antenna being configured to fix the coating removed portion in a vicinity of an upper end of the metal chassis, characterized in that the panel constitutes an optical touch panel, and the PIFA type antenna is disposed outside the optical touch panel between an upper end of the metal chassis and an upper end of the mobile terminal, wherein a distance d between the radiation element and the upper end of the metal chassis is set at 3 mm or greater.
A method comprising: applying a drive signal to a drive element in a sensor assembly having a drive element and one or more sensor element so that responsively to the drive signal the drive element generates a magnetic flux that travels through a target; determining a strain of the target using a picked up output signal picked up by the one or more sensor element; characterized in detecting a gap distance between the sensor assembly and the surface of the target using a picked up output signal picked up by the drive element the method including modulating the drive signal using the detected gap distance for maintaining a magnetic flux through the target constant over time. applying a drive signal to a drive element in a sensor assembly having a drive element and one or more sensor element so that responsively to the drive signal the drive element generates a magnetic flux that travels through a target; determining a strain of the target using a picked up output signal picked up by the one or more sensor element; characterized in detecting a gap distance between the sensor assembly and the surface of the target using a picked up output signal picked up by the drive element the method including modulating the drive signal using the detected gap distance for maintaining a magnetic flux through the target constant over time.
A multi-chip module, comprising an assembly including: a base plate; at least first and second semiconductor dies, wherein at least a given semiconductor die, which is one of the first semiconductor die and the second semiconductor die, includes proximity connectors proximate to the upper surface of the given semiconductor die, and wherein the given semiconductor die is configured to communicate signals via proximity communication through one or more of the proximity connectors; one or more bridge chips provided in face down orientation for coupling proximity connectors on adjacent semiconductor dies; an alignment plate coupled to the base plate and including a first negative feature forming a first well configured to accommodate the first semiconductor die in a face -up orientation and a second negative feature forming a second well configured to accommodate the second semiconductor die in a face-up orientation; an interposer plate coupled to the alignment plate, wherein the interposer plate includes positive features, the positive features of the interposer plate being protruding features configured to mate with the wells of the alignment plate to mechanically position the semiconductor dies. a base plate; at least first and second semiconductor dies, wherein at least a given semiconductor die, which is one of the first semiconductor die and the second semiconductor die, includes proximity connectors proximate to the upper surface of the given semiconductor die, and wherein the given semiconductor die is configured to communicate signals via proximity communication through one or more of the proximity connectors; one or more bridge chips provided in face down orientation for coupling proximity connectors on adjacent semiconductor dies; an alignment plate coupled to the base plate and including a first negative feature forming a first well configured to accommodate the first semiconductor die in a face -up orientation and a second negative feature forming a second well configured to accommodate the second semiconductor die in a face-up orientation; an interposer plate coupled to the alignment plate, wherein the interposer plate includes positive features, the positive features of the interposer plate being protruding features configured to mate with the wells of the alignment plate to mechanically position the semiconductor dies.
A method for controlling sample rate and frequency shift of a digital signal in a multi-operator network, the method being performed by a network node, the method comprising: obtaining a frequency difference and a phase difference between two clock domains, wherein one of the clock domains is the clock domain of a radio access network of a network operator of the multi-operator network and the other of the clock domains is the clock domain of a distributed antenna system in the multi-operator network; controlling sample rate conversion of the digital signal between the two clock domains using the phase difference, wherein the digital signal is communicated between the radio access network and the distributed antenna system; and controlling a frequency shift of the digital signal using the frequency difference. obtaining a frequency difference and a phase difference between two clock domains, wherein one of the clock domains is the clock domain of a radio access network of a network operator of the multi-operator network and the other of the clock domains is the clock domain of a distributed antenna system in the multi-operator network; controlling sample rate conversion of the digital signal between the two clock domains using the phase difference, wherein the digital signal is communicated between the radio access network and the distributed antenna system; and controlling a frequency shift of the digital signal using the frequency difference.
A method of remotely determining saturation at each node of a wireless network, wherein the wireless network comprises a plurality H of communication channels over which a plurality N of nodes communicate data, comprising the steps of capturing packets transmitted by adjacent remote nodes within reception range for a predetermined time interval T interval; calculating a Capacity Utilization,%CU, of each adjacent node from the captured packets, being the ratio of a network bandwidth used by a node for transmitting its data load and a maximum load that can be achieved by the node provided that the other network nodes maintain their current load; comparing each adjacent node %CU against a predetermined threshold parameter for determining a saturated condition; and communicating data representative of the saturated condition determination to one or more of the adjacent nodes.
Fin, which is fastened in a tread segment of a vulcanizing mould for vulcanizing a pneumatic vehicle tyre and forms at least one sipe in the tread of the pneumatic vehicle tyre, wherein the fin has a base part with a part which is inserted into the tread segment and with a part which protrudes from the tread segment inwardly in the radial direction, penetrates into the tread when moulding the green tyre into the vulcanizing mould and determines by its shape the design of the sipe in the tread of the tyre, and the fin having a thickness of 0.5 mm to 1.5 mm and being produced from a metal powder by selective laser melting, characterized in that it has at least one fin part, which protrudes from the base part of the fin to form a crossing.
A method for sending a control channel, comprising: sending, by a base station to a user equipment, scheduling information only over a control channel of a first type within a physical downlink control channel, PDCCH, region in a downlink subframe; and sending, by a base station to the user equipment, scheduling information over a control channel of a second type within an evolved physical downlink control channel, E-PDCCH, region, wherein in the downlink subframe, wherein the control channel of the first type is different from the control channel of the second type, at least one of multiple attributes varies between the control channel of the first type and the control channel of the second type, and the multiple attributes comprise: the search space type of the control channel, characterised in that the search space type of the control channel of the first type is different from the search space type of the control channel of the second type, and the control channel of the first type is a control channel in a common search space, and the control channel of the second type is a control channel in a user-specific search space. sending, by a base station to a user equipment, scheduling information only over a control channel of a first type within a physical downlink control channel, PDCCH, region in a downlink subframe; and sending, by a base station to the user equipment, scheduling information over a control channel of a second type within an evolved physical downlink control channel, E-PDCCH, region, wherein in the downlink subframe, wherein the control channel of the first type is different from the control channel of the second type, at least one of multiple attributes varies between the control channel of the first type and the control channel of the second type, and the multiple attributes comprise: the search space type of the control channel, characterised in that the search space type of the control channel of the first type is different from the search space type of the control channel of the second type, and the control channel of the first type is a control channel in a common search space, and the control channel of the second type is a control channel in a user-specific search space.
A method for supporting cross carrier indication of a control channel change notification in a wireless communication system that provides broadcast services on a plurality of carriers, wherein the method comprises, at a base station: receiving a first message comprising an indication of a control channel change requirement; mapping at least one single broadcast service to a plurality of component carriers; generating a second message comprising a control channel change notification for the broadcast service based on the mapping, wherein the second message comprises an indication of which of the plurality of component carriers the control channel change requirement applies to; and transmitting the second message on at least one component carrier to at least one wireless communication unit, wherein the at least one component carrier for locating the control channel change notification is known a priori to the at least one wireless communication unit. receiving a first message comprising an indication of a control channel change requirement; mapping at least one single broadcast service to a plurality of component carriers; generating a second message comprising a control channel change notification for the broadcast service based on the mapping, wherein the second message comprises an indication of which of the plurality of component carriers the control channel change requirement applies to; and transmitting the second message on at least one component carrier to at least one wireless communication unit, wherein the at least one component carrier for locating the control channel change notification is known a priori to the at least one wireless communication unit.
Arrangement comprising an tire and wheel assembly and an autonomous device in order to detect revolutions of said assembly, the said device comprising at least one sensor (10, C1, C2) producing signals, which is integral in rotation with said assembly such that revolutions of said assembly correspond to revolutions of said sensor, characterized in that the sensor is a passive sensor, the produced signals of which are proportional to the temporal variations of a magnetic flux caused by the rotation of said device in the Earth's magnetic field.