mhurhangee/patent-ind-claim-en huggingface dataset:
A method for automatically recommissioning a lighting node using wireless signal characteristics, the method comprising: receiving, at each lighting node of a plurality of lighting nodes, a plurality of respective wireless signals from the other lighting nodes of the plurality of lighting nodes; determining, for each lighting node of the plurality of lighting nodes, received signal strength indicators, RSSIs, for each of the plurality of respective wireless signals received from the other lighting nodes; generating, for each lighting node of the plurality of lighting nodes, an RSSI fingerprint based on the RSSIs of the respective wireless signals received from the other lighting nodes and storing the thus generated RSSI fingerprints; determining a respective lighting node role for each lighting node of the plurality of lighting nodes; storing associations between the RSSI fingerprints and the lighting node roles; identifying a new lighting node that has been used to replace an out-of-service lighting node of the plurality of lighting nodes; receiving, at the new lighting node, a plurality of respective wireless signals from the remaining lighting nodes of the plurality of lighting nodes; generating a new RSSI fingerprint for the new lighting node based on the plurality of respective wireless signals from the remaining lighting nodes; determining, based on the stored RSSI fingerprints and the new RSSI fingerprint, that the new lighting node is a replacement for the out-of-service lighting node; and assigning the lighting node role previously assigned to the out-of-service lighting node to the new lighting node. receiving, at each lighting node of a plurality of lighting nodes, a plurality of respective wireless signals from the other lighting nodes of the plurality of lighting nodes; determining, for each lighting node of the plurality of lighting nodes, received signal strength indicators, RSSIs, for each of the plurality of respective wireless signals received from the other lighting nodes; generating, for each lighting node of the plurality of lighting nodes, an RSSI fingerprint based on the RSSIs of the respective wireless signals received from the other lighting nodes and storing the thus generated RSSI fingerprints; determining a respective lighting node role for each lighting node of the plurality of lighting nodes; storing associations between the RSSI fingerprints and the lighting node roles; identifying a new lighting node that has been used to replace an out-of-service lighting node of the plurality of lighting nodes; receiving, at the new lighting node, a plurality of respective wireless signals from the remaining lighting nodes of the plurality of lighting nodes; generating a new RSSI fingerprint for the new lighting node based on the plurality of respective wireless signals from the remaining lighting nodes; determining, based on the stored RSSI fingerprints and the new RSSI fingerprint, that the new lighting node is a replacement for the out-of-service lighting node; and assigning the lighting node role previously assigned to the out-of-service lighting node to the new lighting node.
Tank for storing hydrogen by absorption into a powder hydrogen-storage material (M), comprising: - a vessel , - at least one hydrogen feed inlet , - at least one hydrogen discharge outlet , - an inner structure (S1, S2) for storing hydrogen-storage material, said inner structure comprising a stack along a longitudinal axis (X) of at least two levels (G1, G2, G3, G1', G2', G3') for containing storage material (M), each level (G1, G2, G3, G1', G2', G3') comprising a receiver zone for the storage material (M), a distributor zone for hydrogen and a collector zone for hydrogen situated on either side of the receiver zone along the longitudinal axis (X), distribution means for distributing in parallel hydrogen in the distributor zones such that, for each level (G1, G2, G3, G1', G2', G3'), hydrogen flows from each distributor zone to the collector zone by passing through the receiver zone for the storage material (M). - a vessel , - at least one hydrogen feed inlet , - at least one hydrogen discharge outlet , - an inner structure (S1, S2) for storing hydrogen-storage material, said inner structure comprising a stack along a longitudinal axis (X) of at least two levels (G1, G2, G3, G1', G2', G3') for containing storage material (M), each level (G1, G2, G3, G1', G2', G3') comprising a receiver zone for the storage material (M), a distributor zone for hydrogen and a collector zone for hydrogen situated on either side of the receiver zone along the longitudinal axis (X), distribution means for distributing in parallel hydrogen in the distributor zones such that, for each level (G1, G2, G3, G1', G2', G3'), hydrogen flows from each distributor zone to the collector zone by passing through the receiver zone for the storage material (M). each level (G1, G2, G3, G1', G2', G3') comprising a receiver zone for the storage material (M), a distributor zone for hydrogen and a collector zone for hydrogen situated on either side of the receiver zone along the longitudinal axis (X), distribution means for distributing in parallel hydrogen in the distributor zones such that, for each level (G1, G2, G3, G1', G2', G3'), hydrogen flows from each distributor zone to the collector zone by passing through the receiver zone for the storage material (M).
A method of wireless communication, comprising: generating , at a user equipment, UE, which is part of a communication system which is based on an uplink structure with periodic non-clear channel assessment, non-CCA, subframes for the UE for guaranteed transmission opportunities not subject to CCA for uplink communication to a serving base station and with periodic CCA subframes for the UE for opportunistic transmission opportunities subject to CCA for uplink communication to the serving base station, one or more uplink signals for transmission to a serving base station, wherein the UE is configured to transmit communication signals to the serving base station over at least an unlicensed spectrum and receive communication signals from the serving base station; determining , by the UE, a non-clear channel assessment, non-CCA, subframe of the communication system for transmission of at least one of the one or more uplink signals over the unlicensed band from the UE to the serving base station; determining, by the UE, a clear channel assessment, CCA, subframe of the communication system for transmitting one or more additional uplink signals from the UE to the serving base station over the unlicensed band; transmitting , by the UE over the unlicensed band, the at least one of the one or more uplink signals in the non-CCA subframe to the serving base station; and transmitting, by the UE over the unlicensed band, the one or more additional uplink signals in the CCA subframe to the serving base station. generating , at a user equipment, UE, which is part of a communication system which is based on an uplink structure with periodic non-clear channel assessment, non-CCA, subframes for the UE for guaranteed transmission opportunities not subject to CCA for uplink communication to a serving base station and with periodic CCA subframes for the UE for opportunistic transmission opportunities subject to CCA for uplink communication to the serving base station, one or more uplink signals for transmission to a serving base station, wherein the UE is configured to transmit communication signals to the serving base station over at least an unlicensed spectrum and receive communication signals from the serving base station; determining , by the UE, a non-clear channel assessment, non-CCA, subframe of the communication system for transmission of at least one of the one or more uplink signals over the unlicensed band from the UE to the serving base station; determining, by the UE, a clear channel assessment, CCA, subframe of the communication system for transmitting one or more additional uplink signals from the UE to the serving base station over the unlicensed band; transmitting , by the UE over the unlicensed band, the at least one of the one or more uplink signals in the non-CCA subframe to the serving base station; and transmitting, by the UE over the unlicensed band, the one or more additional uplink signals in the CCA subframe to the serving base station.
A propulsion system for an electric vehicle, comprising: - a first electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a first output shaft defining a first torque output (S1) of this first electric motor on one side of the stator and a second torque output (S2) of this first electric motor which output is arranged on another side of the stator, these two torque outputs (S1, S2) being axially opposed, - a second electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a second output shaft with at least one torque output (S1', S2'), - a first reducer able to receive the torque supplied on the first torque output (S1) of the first electric motor , where appropriate via a first selective or non-selective coupling system , this first reducer having a first reduction ratio, - a second reducer able to receive the torque supplied by the second electric motor , where appropriate via a second selective or non-selective coupling system , this second reducer having a second reduction ratio, and - a third coupling system , which may or may not be selective, for coupling the second torque output (S2) of the first electric motor to the torque output (S1', S2') of the second electric motor , the system being characterized in that it comprises a differential arranged in such a way as to receive at least one of: the torque passing via the first reducer , and the torque passing via the second reducer . - a first electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a first output shaft defining a first torque output (S1) of this first electric motor on one side of the stator and a second torque output (S2) of this first electric motor which output is arranged on another side of the stator, these two torque outputs (S1, S2) being axially opposed, - a second electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a second output shaft with at least one torque output (S1', S2'), - a first reducer able to receive the torque supplied on the first torque output (S1) of the first electric motor , where appropriate via a first selective or non-selective coupling system , this first reducer having a first reduction ratio, - a second reducer able to receive the torque supplied by the second electric motor , where appropriate via a second selective or non-selective coupling system , this second reducer having a second reduction ratio, and - a third coupling system , which may or may not be selective, for coupling the second torque output (S2) of the first electric motor to the torque output (S1', S2') of the second electric motor ,
A method for wireless communications at a user equipment, UE, comprising: receiving a reference signal configuration indicating a set of monitoring occasions for a reference signal associated with a connected mode, wherein each monitoring occasion comprises time and frequency resources for transmission of the reference signal; receiving a paging signal while operating in an idle mode or an inactive mode based at least in part on a change to the set of monitoring occasions for the reference signal; identifying an updated set of monitoring occasions for the reference signal based at least in part on receiving the paging signal, wherein the paging signal comprises an indication of the updated set of monitoring occasions for the reference signal; and performing time and frequency tracking or a radio resource management measurement based at least in part on the reference signal received in the updated set of monitoring occasions. receiving a reference signal configuration indicating a set of monitoring occasions for a reference signal associated with a connected mode, wherein each monitoring occasion comprises time and frequency resources for transmission of the reference signal; receiving a paging signal while operating in an idle mode or an inactive mode based at least in part on a change to the set of monitoring occasions for the reference signal; identifying an updated set of monitoring occasions for the reference signal based at least in part on receiving the paging signal, wherein the paging signal comprises an indication of the updated set of monitoring occasions for the reference signal; and performing time and frequency tracking or a radio resource management measurement based at least in part on the reference signal received in the updated set of monitoring occasions.
Apparatus for illuminating objects, having - an emitting surface , - at least two illumination devices (B 1,B2,B3,B4), wherein - the at least two illumination devices (B 1,B2,B3,B4) are arranged and configured to generate at least two different illumination distributions on the emitting surface , having - a camera with a predetermined exposure time, and having - a control device, wherein - the control device is set up to control the illumination devices (B1,B2,B3,B4), - characterised in that - the control device is set up to vary the luminosity of the illumination devices (B1,B2,B3,B4) by specifying illumination times, wherein the control device is set up to determine a maximum illumination time for the illumination devices (B1,B2,B3,B4), which corresponds to the predetermined exposure time of the camera, wherein the control device is configured to individually adjust the luminosity of the illumination devices (B1,B2,B3,B4) by controlling the illumination devices (B1,B2,B3,B4) with illumination times, wherein the luminosity of single illumination devices (B1,B2,B3,B4) can be varied from 0% to 100% by individually selecting the illumination times for the single illumination devices (B1,B2,B3,B4) between 0% and 100% of the maximum illumination time, and wherein the control device is set up to synchronise the illumination times of the illumination devices (B1,B2,B3,B4) with exposure times of the camera. - an emitting surface , - at least two illumination devices (B 1,B2,B3,B4), wherein - the at least two illumination devices (B 1,B2,B3,B4) are arranged and configured to generate at least two different illumination distributions on the emitting surface , having - a camera with a predetermined exposure time, and having - a control device, wherein - the control device is set up to control the illumination devices (B1,B2,B3,B4), - characterised in that - the control device is set up to vary the luminosity of the illumination devices (B1,B2,B3,B4) by specifying illumination times, wherein the control device is set up to determine a maximum illumination time for the illumination devices (B1,B2,B3,B4), which corresponds to the predetermined exposure time of the camera, wherein the control device is configured to individually adjust the luminosity of the illumination devices (B1,B2,B3,B4) by controlling the illumination devices (B1,B2,B3,B4) with illumination times, wherein the luminosity of single illumination devices (B1,B2,B3,B4) can be varied from 0% to 100% by individually selecting the illumination times for the single illumination devices (B1,B2,B3,B4) between 0% and 100% of the maximum illumination time, and wherein the control device is set up to synchronise the illumination times of the illumination devices (B1,B2,B3,B4) with exposure times of the camera.
A blowing agent composition comprising 1-chloro-3,3,3-trifluoropropene in combination with another blowing agent selected from hydrocarbons, wherein the amount of the cis isomer of 1-chloro-3,3,3-trifluoropropene in the blowing agent composition is less than 3 % by weight relative to the total amount of the cis isomer and the trans isomer of 1-chloro-3,3,3-trifluoropropene.
A pressure vessel comprising a composite shell and a boss defining a port in the composite shell and comprising a neck , the pressure vessel comprising: an interface element disposed between the composite shell and the boss , the interface element neither being bonded to the composite shell nor to the boss , thereby allowing for movement between the interface element and the composite shell and allowing for movement between the interface element and the boss , characterised in that the interface element further comprises a neck disposed adjacent the neck of the boss , the interface element comprising a material having an elastic modulus that is greater than about 1.7237 megapascal and less than about 68.95 gigapascal, the elastic modulus of the interface element being less than an elastic modulus of the boss.
A method for monitoring a component of a turbomachine, the component having an exterior surface , the method comprising: locating a centroid (222, 322', 322") of a first reference feature (30, 30', 30") and a second reference feature (30, 30', 30") configured on the component ; measuring a first distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a first time; measuring a second distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a second time; performing an operational use of the component after the first time and before the second time, wherein the component experiences strain during the operational use; and comparing the first distance and the second distance , characterized in that the method further comprises the step of assigning a first weighting factor to the first reference feature (30, 30', 30") and a second weighting factor to the second reference feature (30, 30', 30"), the first weighting factor based on the area of the first reference feature (30, 30', 30"), the second weighting factor based on the area of the second reference feature (30, 30', 30"). locating a centroid (222, 322', 322") of a first reference feature (30, 30', 30") and a second reference feature (30, 30', 30") configured on the component ; measuring a first distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a first time; measuring a second distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a second time; performing an operational use of the component after the first time and before the second time, wherein the component experiences strain during the operational use; and comparing the first distance and the second distance , characterized in that the method further comprises the step of assigning a first weighting factor to the first reference feature (30, 30', 30") and a second weighting factor to the second reference feature (30, 30', 30"), the first weighting factor based on the area of the first reference feature (30, 30', 30"), the second weighting factor based on the area of the second reference feature (30, 30', 30").
A method of a user equipment, UE (104; 240; 350; 404; 504), the method comprising: determining (712; 810) a capability for a number of beam switches that the UE supports per slot for each slot of one or more slots based on a slot type of that slot and/or based on one or more other capabilities associated with the UE to receive one or more signals across a number of beams; transmitting (716; 820), to a network node (102; 222, 224; 310; 402; 502), capability information indicating the capability for the number of beam switches that the UE supports per slot; and receiving (724, 726; 830), from the network node, the one or more signals across the number of beams based on the capability indicated in the capability information for the number of beam switches per slot associated with a slot in which the one or more signals are received. determining (712; 810) a capability for a number of beam switches that the UE supports per slot for each slot of one or more slots based on a slot type of that slot and/or based on one or more other capabilities associated with the UE to receive one or more signals across a number of beams; transmitting (716; 820), to a network node (102; 222, 224; 310; 402; 502), capability information indicating the capability for the number of beam switches that the UE supports per slot; and receiving (724, 726; 830), from the network node, the one or more signals across the number of beams based on the capability indicated in the capability information for the number of beam switches per slot associated with a slot in which the one or more signals are received.
A tire comprising a tread having a tread surface on which one or more land portions are defined between two or more circumferential grooves , the circumferential grooves extending in a circumferential direction of the tread , wherein the one or more land portions each have a plurality of sipes extending in a direction traversing an equator (C) of the tire and spaced from each other in the circumferential direction of the tread , and a dynamic elastic modulus E' at 30 °C of a rubber composition forming the one or more land portions , a number N of the plurality of sipes , and a depth D of the circumferential grooves satisfy the following expression: 0.009 MPa / mm ≤ E ′ / N × D ≤ 0.029 MPa / mm , characterised in that the one or more land portions each have an apex (P) at which a cross section in a width direction of the tread projects most outward in a radial direction of the tire , and a distance Do between the apex (P) and an opening edge (B) of each of the circumferential grooves in the radial direction of the tire and the depth D of the circumferential grooves satisfy the following expression: 0.044 ≤ D 0 / D ≤ 0.155 .
A method for improving the bioavailability of at least one target compound, the method comprising: (a) cooling a solution of milk protein concentrate to from 0 °C (32 degrees Fahrenheit) to 13 °C (55 degrees Fahrenheit); (b) admixing into the solution one or more target compounds having a particle size of from 0.1 μm to 50 μm to form a target compound/milk protein concentrate solution; (c) admixing the target compound/milk protein concentrate solution with warming to a temperature higher than that of step (a); (d) pasteurizing the target compound/milk protein concentrate solution; and (e) drying the target compound/milk protein concentrate solution. (a) cooling a solution of milk protein concentrate to from 0 °C (32 degrees Fahrenheit) to 13 °C (55 degrees Fahrenheit); (b) admixing into the solution one or more target compounds having a particle size of from 0.1 μm to 50 μm to form a target compound/milk protein concentrate solution; (c) admixing the target compound/milk protein concentrate solution with warming to a temperature higher than that of step (a); (d) pasteurizing the target compound/milk protein concentrate solution; and (e) drying the target compound/milk protein concentrate solution.