mhurhangee/ep-ind-claims huggingface dataset:
A method for sending parameters of a precoder from a wireless device to a network node, in a wireless communication system, the method comprising: sending, to the network node, a subset of beams selected from a plurality of orthogonal beams and power levels of the selected subset of beams, for a first frequency granularity; and sending, to the network node, phases of the selected subset of beams, for a second frequency granularity, wherein the selected beams, the power levels and the phases of the selected subset of beams are part of the parameters of the precoder, wherein the first frequency granularity corresponds to an entire frequency bandwidth and the second granularity corresponds to a frequency subband within the frequency bandwidth, and wherein the selected subset of beams is selected in polarization pairs, each polarization pair corresponding to a dual polarized, DP, beam. sending, to the network node, a subset of beams selected from a plurality of orthogonal beams and power levels of the selected subset of beams, for a first frequency granularity; and sending, to the network node, phases of the selected subset of beams, for a second frequency granularity, wherein the selected beams, the power levels and the phases of the selected subset of beams are part of the parameters of the precoder, wherein the first frequency granularity corresponds to an entire frequency bandwidth and the second granularity corresponds to a frequency subband within the frequency bandwidth, and wherein the selected subset of beams is selected in polarization pairs, each polarization pair corresponding to a dual polarized, DP, beam.
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system supportive of an unlicensed band, the method comprising: receiving, from a base station, BS, uplink scheduling information related to one or more wideband channels including Component Carriers, CCs; and performing a Channel Access Procedure, CAP, for all CCs in the one or more wideband channels; transmitting, via at least one wideband channel among the one or more wideband channels in the unlicensed band, and uplink signal based on the uplink scheduling information, when the CAP for all in the included CCs in the at least one wideband channel is successful, characterized in that resource blocks, RBs, for the uplink signal of each of first CCs included in the at least one wideband channel are determined based on resource allocation information and offset value included in the uplink scheduling information, and wherein, based on a same transport block, TB, being mapped and transmitted to all of the first CCs, the uplink scheduling information includes a set of new data indicator, NDI, redundancy version, RV, and code block group, CBG, indication commonly used for the all of first CCs, and wherein, based on different TBs being mapped and transmitted to each of the first CCs, the uplink scheduling information includes a plurality of sets of NDI, RV, and CBG indication used for each of the first CCs, respectively. receiving, from a base station, BS, uplink scheduling information related to one or more wideband channels including Component Carriers, CCs; and performing a Channel Access Procedure, CAP, for all CCs in the one or more wideband channels; transmitting, via at least one wideband channel among the one or more wideband channels in the unlicensed band, and uplink signal based on the uplink scheduling information, when the CAP for all in the included CCs in the at least one wideband channel is successful, characterized in that resource blocks, RBs, for the uplink signal of each of first CCs included in the at least one wideband channel are determined based on resource allocation information and offset value included in the uplink scheduling information, and wherein, based on a same transport block, TB, being mapped and transmitted to all of the first CCs, the uplink scheduling information includes a set of new data indicator, NDI, redundancy version, RV, and code block group, CBG, indication commonly used for the all of first CCs, and wherein, based on different TBs being mapped and transmitted to each of the first CCs, the uplink scheduling information includes a plurality of sets of NDI, RV, and CBG indication used for each of the first CCs, respectively.
An active front deflector assembly for a vehicle, comprising: at least one deflector panel, where the deflector panel selectively deploys and retracts between a deployed position and a stowed position, where the deployment of the deflector panel improves aerodynamics; at least two linkage assemblies (12, 14) attached to the deflector panel and to the vehicle; and an actuator operably coupled to the linkage assemblies (12, 14), where the actuator is in communication with the vehicle and deploys and retracts the deflector panel under predetermined conditions; characterized by a clutch system in the actuator to disengage a drive system; the actuator providing declutching of the gearing so that the deflector panel can move freely out of the way to prevent damage. at least one deflector panel, where the deflector panel selectively deploys and retracts between a deployed position and a stowed position, where the deployment of the deflector panel improves aerodynamics; at least two linkage assemblies (12, 14) attached to the deflector panel and to the vehicle; and an actuator operably coupled to the linkage assemblies (12, 14), where the actuator is in communication with the vehicle and deploys and retracts the deflector panel under predetermined conditions; characterized by a clutch system in the actuator to disengage a drive system; the actuator providing declutching of the gearing so that the deflector panel can move freely out of the way to prevent damage.
A method of performing handover by a mobile terminal from a source base station to a target base station, the mobile terminal implementing a radio interface protocol which comprises a Radio Resource Control, RRC, layer, a Radio Link Control, RLC, layer and a Packet Data Convergence Protocol, PDCP, layer, comprising: receiving (S16, S101), at the RRC layer, a handover command from the source base station; receiving (S 17, S122, S402), at the RLC layer, an indication from the RRC layer; upon receiving the indication, stopping data reception, reassembling at least one RLC service data unit, SDU, from at least one unacknowledged mode protocol data unit, UM PDU, which is received at the RLC layer and which has a sequence number that is less than a variable indicating a sequence number one larger than a highest sequence number among at least one UM PDU received out of sequence when it is possible to reassemble, and discarding the received at least one UM PDU when it is not possible to reassemble; and delivering the reassembled at least one RLC SDU from the RLC layer to an upper layer. receiving (S16, S101), at the RRC layer, a handover command from the source base station; receiving (S 17, S122, S402), at the RLC layer, an indication from the RRC layer; upon receiving the indication, stopping data reception, reassembling at least one RLC service data unit, SDU, from at least one unacknowledged mode protocol data unit, UM PDU, which is received at the RLC layer and which has a sequence number that is less than a variable indicating a sequence number one larger than a highest sequence number among at least one UM PDU received out of sequence when it is possible to reassemble, and discarding the received at least one UM PDU when it is not possible to reassemble; and delivering the reassembled at least one RLC SDU from the RLC layer to an upper layer.
A battery-powered environmental control and/or sensor device adapted to be mounted on a surface, comprising: a mounting plate arranged to be affixed to a support surface; and a main body including a battery compartment, wherein the main body is adapted to be releasably secured to the mounting plate and wherein the battery compartment is inaccessible when the main body is secured to the mounting plate; wherein the mounting plate and main body comprise complementary securing elements arranged to secure the main body to the mounting plate; wherein one of the mounting plate and the main body includes a lever having a portion extending beyond a periphery of the device so as to be operable by a device user when the main body is secured to the mounting plate; and wherein the lever is operable when activated to disengage the complementary securing elements (306, 404) and release the main body from the mounting plate to enable access to the battery compartment; wherein the lever, being disposed on one of the mounting plate and the main body, is arranged when activated to push against the other of the mounting plate and the main body, thereby pushing the mounting plate and main body apart. a mounting plate arranged to be affixed to a support surface; and a main body including a battery compartment, wherein the main body is adapted to be releasably secured to the mounting plate and wherein the battery compartment is inaccessible when the main body is secured to the mounting plate; wherein the mounting plate and main body comprise complementary securing elements arranged to secure the main body to the mounting plate; wherein one of the mounting plate and the main body includes a lever having a portion extending beyond a periphery of the device so as to be operable by a device user when the main body is secured to the mounting plate; and wherein the lever is operable when activated to disengage the complementary securing elements (306, 404) and release the main body from the mounting plate to enable access to the battery compartment; wherein the lever, being disposed on one of the mounting plate and the main body, is arranged when activated to push against the other of the mounting plate and the main body, thereby pushing the mounting plate and main body apart.
A method for initiating a handover scanning procedure on a wireless device, the method comprising: monitoring, by a base station, a first signal strength measurement transmitted by a wireless device; monitoring, by the base station, a second signal strength measurement associated with the wireless device that is measured locally at the base station; determining, by the base station, in response to monitoring the first signal strength and the second signal strength measurement, if a scan event trigger has been detected, wherein the scan trigger event comprises comparing, by the base station, the first signal strength measurement and the second signal Strength measurement; determining a mobility capability of the wireless device; associating a scan threshold with the wireless device in response to the mobility capability that has been determined; and transmitting, in response to a scan event trigger being detected, a scan initiation message and the scan threshold to the wireless device, wherein the scan initiation message signals the wireless device to perform handover scanning procedures, and further, wherein the scan threshold indicates to the wireless device to initiate handover scanning procedure when the scan threshold has been satisfied. monitoring, by a base station, a first signal strength measurement transmitted by a wireless device; monitoring, by the base station, a second signal strength measurement associated with the wireless device that is measured locally at the base station; determining, by the base station, in response to monitoring the first signal strength and the second signal strength measurement, if a scan event trigger has been detected, wherein the scan trigger event comprises comparing, by the base station, the first signal strength measurement and the second signal Strength measurement; determining a mobility capability of the wireless device; associating a scan threshold with the wireless device in response to the mobility capability that has been determined; and transmitting, in response to a scan event trigger being detected, a scan initiation message and the scan threshold to the wireless device, wherein the scan initiation message signals the wireless device to perform handover scanning procedures, and further, wherein the scan threshold indicates to the wireless device to initiate handover scanning procedure when the scan threshold has been satisfied.
A crane, in particular an offshore crane, having a slewing gear and a hydraulic slewing gear drive, wherein the slewing gear is held in its position via a holding torque applied by the hydraulic slewing gear drive, wherein an overload safety device is provided having at least one pressure relief valve, characterized in that the overload safety device has at least one detection means for detecting the outreach and/or the position of the crane hook, wherein the system pressure applied to the hydraulic slewing gear drive can be regulated via the at least one pressure relief valve (130; 130') in dependence on the outreach and/or on the position of the crane hook.
A patch formed from an adhesive layer comprising 5% by weight or more and less than 20% by weight of a mixture of lidocaine and another local anesthetic, wherein the adhesive layer comprises at least a rubber-based pressure-sensitive adhesive and liquid paraffin and a content of a tackifier in the adhesive layer is 10% by weight or less; wherein said another local anesthetic is prilocaine, tetracaine or benzocaine, and the rubber-based pressure-sensitive adhesive is a styrene-based block copolymer; and wherein the liquid paraffin is comprised in an amount of 0.5 times by weight or more and 2.6 times by weight or less based on an amount of the rubber-based pressure-sensitive adhesive. wherein said another local anesthetic is prilocaine, tetracaine or benzocaine, and the rubber-based pressure-sensitive adhesive is a styrene-based block copolymer; and wherein the liquid paraffin is comprised in an amount of 0.5 times by weight or more and 2.6 times by weight or less based on an amount of the rubber-based pressure-sensitive adhesive.
A laser module adapted to generate, in a working plane of an object to be heated or illuminated, a laser line in a direction parallel to a first axis, the laser module comprising several sub-modules arranged along the first axis side by side on a common carrier, each of said sub-modules comprising a laser area formed of an array of semiconductor lasers on a surface of the sub-modules, whereby the laser module is adapted to emit laser radiation by said semiconductor lasers forming an intensity distribution in the working plane facing said surface of the sub-modules, wherein said sub-modules and laser areas, arranged with gaps between the adjacent laser areas or adjacent sub-modules, are designed and arranged such that projections of the laser areas of adjacent sub-modules partly overlap in a direction perpendicular to said first axis, wherein said laser areas of said sub-modules are formed of an arrangement of said arrays of semiconductor lasers of said sub-modules, which comprises two parallel side edges, said parallel side edges of adjacent laser areas of said sub-modules being parallel to one another and tilted by rotation of each sub-module around its point of tilting over an angle β relative to said first axis, wherein all sub-modules have their points of tilting located along the first axis, wherein 0° < β < 90°, to generate, by this tilt of the sub-module surfaces with said laser areas, the intensity distribution in the direction parallel to the first axis, wherein inhomogeneities caused by the gaps between the adjacent laser areas or adjacent sub-modules are avoided.
A diamond semiconductor element having a gate electrode, a source electrode (2-6SB, 2-6ST) and a drain electrode (2-6DB, 2-6DT) formed directly on a diamond single-crystal thin-film at a distance from each other, wherein said source electrode includes a first layer close to said diamond single-crystal thin-film and a second layer except the first layer, where a first distance (d SGB) between a first end face of said first layer close to said gate electrode and said gate electrode is no more than a second distance (d SGT) between a second end face of said second layer close to said gate electrode and said gate electrode, said drain electrode includes a third layer close to said diamond single-crystal thin-film and a fourth layer except the third layer, where a third distance (d GDB) between a third end face of said third layer close to said gate electrode and said gate electrode is no more than a fourth distance (d GDT) between a fourth end face of said fourth layer close to said gate electrode and said gate electrode, wherein a fifth end face of said gate electrode facing said source electrode and a sixth end face of said gate electrode facing said drain electrode are flat such that a gate length (d G) of said gate electrode is uniform, and said gate length of said gate electrode is 0.2 μm
A method for addressing a receiver radio device (11, 12) of a radio network, the method comprising by a transmitter radio device: scanning a predetermined list of channels for a free channel; upon detecting a free channel, causing transmission of a message addressed to at least one receiver radio device, wherein the at least one receiver radio device is identified with a combination of a network sequence and a recipient sequence both comprised in the message, wherein the network sequence is unique to the radio network and has better autocorrelation properties than the recipient sequence. scanning a predetermined list of channels for a free channel; upon detecting a free channel, causing transmission of a message addressed to at least one receiver radio device, wherein the at least one receiver radio device is identified with a combination of a network sequence and a recipient sequence both comprised in the message, wherein the network sequence is unique to the radio network and has better autocorrelation properties than the recipient sequence.
Table (1; 101) with a table underframe, at least one table top part (10, 11; 110) lying thereon, and at least one table top extension part (12, 13; 112, 113) which is attached to the table (1; 101) so that it can be moved from a stowage position underneath the at least one table top part (10, 11; 110) into a useful position completing the at least one table top part (10, 11; 110), wherein the at least one table top part (10, 11; 110) is mounted displaceable in a sliding direction on the table frame parallel to the table surface by means of a displacement mechanism (14, 15, 16; 114; 115; 116) wherein on the underneath side (12a, 113a) of the table top extension part (12, 13; 112, 113) there is at least one fixing section (17, 117; 120) as well as an engagement section (16a, 116a) on the table frame or on a part (16, 116) of the displacement mechanism (14, 15, 16; 114; 115; 116), wherein the engagement section (16a, 116a) and the fixing section (17, 117; 120) are configured so that they are brought into engagement with one another as the table (1; 101) is brought into the useful position and/or during relative displacement of the table top part (10, 11; 110) and the table top extension part (12, 13; 112, 113), wherein the fixing section is a bolt with an expanded head which as a result of gravity and/or by means of a spring is moved out from the underneath side of the table top extension part (112, 113) and wherein the engagement section has a depression which is open to the underneath side into which the bolt can project by its head and its opening narrows down in the displacement direction in such a way that the head of the bolt is held in the narrowed region of the opening.
A system comprising: a first controller operable to assume one of a plurality of respective states, in each of a predetermined one or more first states the first controller being configured automatically to generate a torque control signal to request an amount of positive torque applied by at least a first torque control system to one or more wheels (111, 112, 114, 115) of a vehicle and cause said vehicle to operate in accordance with a target speed value, and in each of a predetermined one or more second states the first controller being configured not to request by means of the torque control signal the amount of positive torque applied by the first torque control system to one or more wheels (111, 112, 114, 115), wherein when the first controller switches from one of said one or more first states to one of said one or more second states the first controller is configured to cause a reduction, over time, in an amount of any torque that the torque control signal is causing the first torque control system to apply to one or more wheels (111, 112, 114, 115); characterized in that said torque reduction over time is at a rate according to a predetermined one of a plurality of respective different torque reduction functions selected in dependence at least in part on whether the first controller switches from the first state to the second state in response to a state switch request signal received from a user or a state switch request signal generated automatically by the system. a first controller operable to assume one of a plurality of respective states, in each of a predetermined one or more first states the first controller being configured automatically to generate a torque control signal to request an amount of positive torque applied by at least a first torque control system to one or more wheels (111, 112, 114, 115) of a vehicle and cause said vehicle to operate in accordance with a target speed value, and in each of a predetermined one or more second states the first controller being configured not to request by means of the torque control signal the amount of positive torque applied by the first torque control system to one or more wheels (111, 112, 114, 115), wherein when the first controller switches from one of said one or more first states to one of said one or more second states the first controller is configured to cause a reduction, over time, in an amount of any torque that the torque control signal is causing the first torque control system to apply to one or more wheels (111, 112, 114, 115); characterized in that said torque reduction over time is at a rate according to a predetermined one of a plurality of respective different torque reduction functions selected in dependence at least in part on whether the first controller switches from the first state to the second state in response to a state switch request signal received from a user or a state switch request signal generated automatically by the system.
Method for imaging an object using a scanning microscope, comprising the following steps: scanning a multiplicity of object points by means of a scanning beam in successive scanning time intervals, detecting the intensity of the radiation emitted by the respectively scanned object point a number of times within the associated scanning time interval, determining an intensity mean from the intensities detected at the respectively scanned object point as mean pixel signal, and combining the mean pixel signals to form a mean scanning image signal, characterized in that an intensity variance is additionally determined as variance pixel signal from the intensities detected at the respectively scanned object point, and the variance pixel signals are combined to form a variance scanning image signal. scanning a multiplicity of object points by means of a scanning beam in successive scanning time intervals, detecting the intensity of the radiation emitted by the respectively scanned object point a number of times within the associated scanning time interval, determining an intensity mean from the intensities detected at the respectively scanned object point as mean pixel signal, and combining the mean pixel signals to form a mean scanning image signal, characterized in that an intensity variance is additionally determined as variance pixel signal from the intensities detected at the respectively scanned object point, and the variance pixel signals are combined to form a variance scanning image signal.