mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a wireless communication device, comprising: performing a first listen-before-talk, LBT, procedure; performing the following steps in response to a success of the first LBT procedure: selecting a first start position for performing uplink, UL, transmission in unlicensed spectrum during a first transmission time interval, TTI, (S1505); and performing UL transmission in the first TTI according to the first start position (S1510); performing the following steps in response to a failure of the first LBT procedure: performing a second LBT procedure; selecting, in response to a success of the second LBT procedure, a second start position for performing UL transmission in unlicensed spectrum during a second TTI, wherein the first and second start positions correspond to different symbol offsets within the respective first and second TTIs (S1515); and performing UL transmission in the second TTI according to the second start position (S1520). performing a first listen-before-talk, LBT, procedure; performing the following steps in response to a success of the first LBT procedure: selecting a first start position for performing uplink, UL, transmission in unlicensed spectrum during a first transmission time interval, TTI, (S1505); and performing UL transmission in the first TTI according to the first start position (S1510); selecting a first start position for performing uplink, UL, transmission in unlicensed spectrum during a first transmission time interval, TTI, (S1505); and performing UL transmission in the first TTI according to the first start position (S1510); performing the following steps in response to a failure of the first LBT procedure: performing a second LBT procedure; selecting, in response to a success of the second LBT procedure, a second start position for performing UL transmission in unlicensed spectrum during a second TTI, wherein the first and second start positions correspond to different symbol offsets within the respective first and second TTIs (S1515); and performing UL transmission in the second TTI according to the second start position (S1520). performing a second LBT procedure; selecting, in response to a success of the second LBT procedure, a second start position for performing UL transmission in unlicensed spectrum during a second TTI, wherein the first and second start positions correspond to different symbol offsets within the respective first and second TTIs (S1515); and performing UL transmission in the second TTI according to the second start position (S1520).
A laser device comprising at least two pump lasers , wherein at least a first of the at least two pump lasers is adapted to emit a pump beam independently from at least a second pump laser of the at least two pump lasers , the laser device further comprising a gain element , the laser device comprising a first optical element , wherein the first optical element comprises a pump mirror and an extended cavity mirror , wherein the extended cavity mirror is arranged for building an extended cavity laser with the gain element , and wherein the extended cavity mirror comprises sub mirrors, wherein each sub mirror corresponds to one pump spot such that each sub mirror is adapted to focus a resonating beam to the respective pump spot , and such that independent and preferably parallel laser beams with a small pitch between the pump spots are provided, wherein the pump mirror is arranged to redirect the pump beam of the first pump laser to a first pump spot on the gain element and the pump beam of the second pump laser to a second pump spot on the gain element , wherein the second pump spot at least partly comprises a different area on the gain element than the first pump spot , wherein the gain element has a first optical axis extending through the center of the gain element and the pump lasers being arranged symmetrically around the first optical axis on a common heat sink with the gain element , wherein the first optical element comprises a second optical axis extending to the center of the extended cavity mirror, wherein the first optical axis is independent from the second optical axis.
A device for generating a shock wave by detonation, said device comprising an assembly , a remote control , and a wireless link communication system between the remote control and said assembly for a remote control of said assembly with said remote control , said assembly comprising a detonation tube , a first closable duct for supplying fluid to the detonation tube which could be connected to an oxidizer source, a second closable duct for supplying fluid to the detonation tube which could be connected to a source of fuel on-board said assembly , an electrical energy storage unit and a control unit , said detonation tube delimiting a chamber having at least one outlet mouth , and in that the assembly , which is equipped with hooking means to enable coupling of said assembly to a remotely-controlled aircraft-type carrier , comprises a system for sealingly closing said at least one outlet mouth of said detonation tube to enable pre-filling of said chamber with oxidizer, in that the pressure-sensitive closure system is configured to switch from a so-called closed state corresponding to the closed state of the outlet mouth of the detonation tube into a so-called open state corresponding to the open state of the outlet mouth of the detonation tube according to the pressure prevailing inside said detonation tube , in that the control unit is configured at least to control opening of the second duct to enable the formation inside the detonation tube , in the pre-filled state of the detonation tube with oxidizer, of an oxidizer/fuel gaseous mixture and in that the assembly comprises a main control for opening the closure system and a so-called backup auxiliary control for opening the closure system , this backup control comprising a reservoir of pressurized gas which could be conveyed by the detonation tube and a closable connection for connecting the gas reservoir to the detonation tube equipped with one or several closing member(s) , the or each closing member being movably mounted between an open position and a closed position.
Method for producing a component made of metal by means of tube hydroforming, comprising the steps of: - conductively heating a tubular intermediate product having at least one shaped element to a deformation temperature by means of direct or alternating current in a region of the intermediate product to be heated, wherein the shaped element has at least one bend and/or a change in cross section and/or a change in wall thickness, - controlling or regulating the direct or alternating current for heating by means of a time-current curve for the current conduction, which curve is established in advance in such a way that the deformation temperature in the region of the intermediate product to be heated between the shaped element and the rest of the intermediate product is at a temperature level with a maximum temperature difference of +-50°C, wherein the current conduction comprises at least one current-drop phase and/or current-holding phase, - tube-hydroforming the thus-heated intermediate product to form a component. - conductively heating a tubular intermediate product having at least one shaped element to a deformation temperature by means of direct or alternating current in a region of the intermediate product to be heated, wherein the shaped element has at least one bend and/or a change in cross section and/or a change in wall thickness, - controlling or regulating the direct or alternating current for heating by means of a time-current curve for the current conduction, which curve is established in advance in such a way that the deformation temperature in the region of the intermediate product to be heated between the shaped element and the rest of the intermediate product is at a temperature level with a maximum temperature difference of +-50°C, wherein the current conduction comprises at least one current-drop phase and/or current-holding phase, - tube-hydroforming the thus-heated intermediate product to form a component.
Vehicle system comprising a driving module, at least one mission module and at least one container , wherein the driving module comprises a receptacle which is capable of receiving at least one mission module , wherein the container is cuboidal in design and is closed on all sides, with the exception of a top , by walls, wherein the mission module is selectively received in the container or in the receptacle in the driving module, wherein superstructures are assigned to the mission module , and the top of the mission module is designed to be closed by means of a wall and the superstructures , and the top forms the top of the container when being received in the container , characterized in that the mission module is designed to be open on all sides with the exception of the top . wherein the driving module comprises a receptacle which is capable of receiving at least one mission module , wherein the container is cuboidal in design and is closed on all sides, with the exception of a top , by walls, wherein the mission module is selectively received in the container or in the receptacle in the driving module, wherein superstructures are assigned to the mission module , and the top of the mission module is designed to be closed by means of a wall and the superstructures , and the top forms the top of the container when being received in the container , characterized in that the mission module is designed to be open on all sides with the exception of the top .
A method for transmitting a scheduling request, SR, by a user equipment, UE, in a cellular communication system, the method comprising: receiving first configuration information related to a SR transmission and second configuration information related to repeated SR transmissions in a coverage enhanced mode of the UE from an enhanced nodeB (eNB); determining a value of a timer for prohibiting an SR transmission based on the first configuration information and a number of repetitions based on the second configuration information; transmitting one set of repeated SRs, the set comprising the repeated SRs with the number of repetitions, wherein the timer for prohibiting an SR transmission starts at a time of transmitting a first SR among the set of repeated SRs, and wherein the UE continues to perform the ongoing transmission of the set of the repeated SRs while the timer is running, wherein the duration of the timer for prohibiting an SR transmission is larger than the duration of the set of repeated SRs, wherein the first configuration information are comprised in a MAC-MainConfig element, and wherein the second configuration information are comprised in one of a schedulingRequestConfigIE, a system information block, SIB, or a master information block, MIB. receiving first configuration information related to a SR transmission and second configuration information related to repeated SR transmissions in a coverage enhanced mode of the UE from an enhanced nodeB (eNB); determining a value of a timer for prohibiting an SR transmission based on the first configuration information and a number of repetitions based on the second configuration information; transmitting one set of repeated SRs, the set comprising the repeated SRs with the number of repetitions, wherein the timer for prohibiting an SR transmission starts at a time of transmitting a first SR among the set of repeated SRs, and wherein the UE continues to perform the ongoing transmission of the set of the repeated SRs while the timer is running, wherein the duration of the timer for prohibiting an SR transmission is larger than the duration of the set of repeated SRs, wherein the first configuration information are comprised in a MAC-MainConfig element, and wherein the second configuration information are comprised in one of a schedulingRequestConfigIE, a system information block, SIB, or a master information block, MIB.
Station for checking tyres, comprising: a support structure delimiting an operating space configured for receiving a tyre ; a checking device comprising a mechanical arm and at least one sensor associated with said mechanical arm , wherein said mechanical arm is operatively active within the operating space and is configured for carrying said at least one sensor at least partially within the tyre for executing checks on an inner surface of the tyre housed in the operating space ; characterized in that it comprises an overturning device having grip elements configured for engaging a radially outer portion of the tyre ; the overturning device being operative within said operating space and being configured for overturning the tyre around an overturning axis (Y) perpendicular to a rotation axis (Z') of the tyre while the tyre is situated in said operating space . a support structure delimiting an operating space configured for receiving a tyre ; a checking device comprising a mechanical arm and at least one sensor associated with said mechanical arm , wherein said mechanical arm is operatively active within the operating space and is configured for carrying said at least one sensor at least partially within the tyre for executing checks on an inner surface of the tyre housed in the operating space ; characterized in that it comprises an overturning device having grip elements configured for engaging a radially outer portion of the tyre ; the overturning device being operative within said operating space and being configured for overturning the tyre around an overturning axis (Y) perpendicular to a rotation axis (Z') of the tyre while the tyre is situated in said operating space .
A method for producing an agglomerated binderless BaKX zeolitic adsorbent, wherein the agglomerated binderless BaKX zeolitic adsorbent comprises: a binder-converted zeolite portion formed from x wt% inert clay binder, wherein x is in the range of 10 to 20% by weight of the binderless BaKX zeolitic adsorbent, and wherein the inert clay binder is a kaolin clay binder; (100-x) wt% Zeolite X with a silica: alumina molar ratio of 2.5 ± 0.5; and barium (Ba) and potassium (K) at cationic exchangeable sites within the binderless BaKX zeolitic adsorbent, wherein K is in the range of 0.25 to 0.9% by weight and the Ba is greater than 31.6% by weight of the binderless BaKX zeolitic adsorbent, wherein the total pore volume of the adsorbent measured by Hg intrusion porosimetry is between 0.25 cc/g and 0.35 cc/g, and wherein the method comprises: forming agglomerates having cationic exchangeable sites, the agglomerates formed from Zeolite X with a silica: alumina molar ratio of 2.5 ± 0.5, kaolin clay binder, and cornstarch ; activating the agglomerates to convert the kaolin clay binder to meta-kaolin clay binder, the cornstarch dissipating during the activating step ; converting the meta-kaolin clay binder into binder-converted zeolite ; exchanging the cationic exchangeable sites of the agglomerates with Ba and K to produce the agglomerated binderless BaKX zeolitic adsorbent with K in the range of 0.25 to 0.9% by weight and Ba is greater than 31.6% by weight of the binderless BaKX zeolitic adsorbent ; and drying the agglomerated binderless BaKX zeolitic adsorbent to fix the water content thereof . a binder-converted zeolite portion formed from x wt% inert clay binder, wherein x is in the range of 10 to 20% by weight of the binderless BaKX zeolitic adsorbent, and wherein the inert clay binder is a kaolin clay binder; (100-x) wt% Zeolite X with a silica: alumina molar ratio of 2.5 ± 0.5; and barium (Ba) and potassium (K) at cationic exchangeable sites within the binderless BaKX zeolitic adsorbent, wherein K is in the range of 0.25 to 0.9% by weight and the Ba is greater than 31.6% by weight of the binderless BaKX zeolitic adsorbent, wherein the total pore volume of the adsorbent measured by Hg intrusion porosimetry is between 0.25 cc/g and 0.35 cc/g, forming agglomerates having cationic exchangeable sites, the agglomerates formed from Zeolite X with a silica: alumina molar ratio of 2.5 ± 0.5, kaolin clay binder, and cornstarch ; activating the agglomerates to convert the kaolin clay binder to meta-kaolin clay binder, the cornstarch dissipating during the activating step ; converting the meta-kaolin clay binder into binder-converted zeolite ; exchanging the cationic exchangeable sites of the agglomerates with Ba and K to produce the agglomerated binderless BaKX zeolitic adsorbent with K in the range of 0.25 to 0.9% by weight and Ba is greater than 31.6% by weight of the binderless BaKX zeolitic adsorbent ; and drying the agglomerated binderless BaKX zeolitic adsorbent to fix the water content thereof .
A power control method for use in a cluster comprised of wireless devices including a first wireless device, a second wireless device and a third wireless device, the method comprising: receiving , at the first wireless device, power control information including a reference signal transmission power of the second wireless device, from the second wireless device, wherein the second wireless device is a cluster head in communication with other wireless devices including the first and third wireless devices; calculating , at the first wireless device, a transmission path loss between the first wireless device and the second wireless device using the reference signal transmission power of the second wireless device and a reference signal received power, RSRP, measured at the first wireless device; and determining , at the first wireless device, a first data channel transmission power of the first wireless device at which to perform communication between the first wireless device and the third wireless device, based on either one of the data channel transmitter power of the second wireless device and the transmission path loss between the first wireless device and the second wireless device depending on the position of the second wireless device. receiving , at the first wireless device, power control information including a reference signal transmission power of the second wireless device, from the second wireless device, wherein the second wireless device is a cluster head in communication with other wireless devices including the first and third wireless devices; calculating , at the first wireless device, a transmission path loss between the first wireless device and the second wireless device using the reference signal transmission power of the second wireless device and a reference signal received power, RSRP, measured at the first wireless device; and determining , at the first wireless device, a first data channel transmission power of the first wireless device at which to perform communication between the first wireless device and the third wireless device, based on either one of the data channel transmitter power of the second wireless device and the transmission path loss between the first wireless device and the second wireless device depending on the position of the second wireless device.
A method comprising: determining that a doorbell press has been detected at a property ; in response to determining the doorbell press has been detected at the property: obtaining video data collected by a doorbell device of the property, and obtaining sensor data collected by one or more sensors of a monitoring system located within the property; based on the obtained sensor data, determining an occupancy status at the property when the doorbell press is detected at the property; determining a present security risk for the property based at least on the obtained sensor data and the obtained video data; in response to determining the present security risk for the property, establishing a communication session between the doorbell device and a server system associated with the monitoring system; and selecting, based on the occupancy status at the property and the present security risk, a system action from among multiple system actions specified within a doorbell action repository, wherein each system action is associated with a different condition of the property, and the selected system action is associated with a condition that matches the occupancy status and the present security risk for the property; and performing the selected system action. determining that a doorbell press has been detected at a property ; in response to determining the doorbell press has been detected at the property: obtaining video data collected by a doorbell device of the property, and obtaining sensor data collected by one or more sensors of a monitoring system located within the property; obtaining video data collected by a doorbell device of the property, and obtaining sensor data collected by one or more sensors of a monitoring system located within the property; based on the obtained sensor data, determining an occupancy status at the property when the doorbell press is detected at the property; determining a present security risk for the property based at least on the obtained sensor data and the obtained video data; in response to determining the present security risk for the property, establishing a communication session between the doorbell device and a server system associated with the monitoring system; and selecting, based on the occupancy status at the property and the present security risk, a system action from among multiple system actions specified within a doorbell action repository, wherein each system action is associated with a different condition of the property, and the selected system action is associated with a condition that matches the occupancy status and the present security risk for the property; and performing the selected system action. each system action is associated with a different condition of the property, and the selected system action is associated with a condition that matches the occupancy status and the present security risk for the property; and performing the selected system action.
Wind turbine lightning stroke diagnostic apparatus for a wind turbine having conductive blades , the apparatus comprising: a lightning protection system input for receiving measured current data associated with a current conducted by the lightning protection system following a lightning stroke; an air pressure sensor for detecting an increase in air pressure; a mount for mounting the air pressure sensor within an internal cavity of a conductive wind turbine blade assembly; and a sensor monitor comprising a processor for analysing the measured current data and an output from the air pressure sensor , characterised in that the processor is configured to identify a lightning stroke as a bypass lightning stroke when an increase in the measured current coincides with a transient increase in air pressure associated with a lightning generated shockwave within the internal cavity by the air pressure sensor . a lightning protection system input for receiving measured current data associated with a current conducted by the lightning protection system following a lightning stroke; an air pressure sensor for detecting an increase in air pressure; a mount for mounting the air pressure sensor within an internal cavity of a conductive wind turbine blade assembly; and a sensor monitor comprising a processor for analysing the measured current data and an output from the air pressure sensor , characterised in that the processor is configured to identify a lightning stroke as a bypass lightning stroke when an increase in the measured current coincides with a transient increase in air pressure associated with a lightning generated shockwave within the internal cavity by the air pressure sensor .