mhurhangee/ep-ind-claims huggingface dataset:
A method for connection of a user equipment device, UE, to a first cell (602, 604) of a wireless communication system, the first cell operating according to a first radio access technology, RAT, wherein the wireless communication system further comprises a second cell (602, 604) operating according to a second RAT, the method comprising: establishing, by a first base station serving the first cell (602, 604), a first wireless link between the first cell (602, 604) and the UE according to the first RAT; receiving, by the first base station from the UE, an indication that the UE supports uplink, UL, sharing for one or more system bandwidths in a dual connectivity configuration with the first cell (602, 604) and the second cell (602, 604); receiving, by the first base station from the UE, a capability indicating binary information that indicates one of no retuning time needed and retuning time needed; coordinating, by the first base station, UL resources over an interface with a second base station serving the second cell (602, 604) using the second RAT; and transmitting, by the first base station to the UE, an allocation of first UL resources associated with the first cell (602, 604) using the first RAT, wherein the allocation corresponds to using time division multiplexing, TDM, for UL data transmissions for the first cell (602, 604) according to the first RAT and the second cell (602, 604) according to the second RAT. establishing, by a first base station serving the first cell (602, 604), a first wireless link between the first cell (602, 604) and the UE according to the first RAT; receiving, by the first base station from the UE, an indication that the UE supports uplink, UL, sharing for one or more system bandwidths in a dual connectivity configuration with the first cell (602, 604) and the second cell (602, 604); receiving, by the first base station from the UE, a capability indicating binary information that indicates one of no retuning time needed and retuning time needed; coordinating, by the first base station, UL resources over an interface with a second base station serving the second cell (602, 604) using the second RAT; and transmitting, by the first base station to the UE, an allocation of first UL resources associated with the first cell (602, 604) using the first RAT, wherein the allocation corresponds to using time division multiplexing, TDM, for UL data transmissions for the first cell (602, 604) according to the first RAT and the second cell (602, 604) according to the second RAT.
A container for packaging and storing ammunition units such as rounds (5',6') to prevent mass detonation, comprising a plurality of tubes (5, 6) arranged side by side for storing an ammunition unit each, characterized in that the comprised tubes (5, 6) are connected in pairs (9, 10, 11), that each tube pair (9, 10,11) is separated by a T-shaped detonation protection (13, 13', 16, 16') arranged with the base (14, 17) of the T-shape extending into a space between the tubes (5, 6) of a pair (9,10,11) and with the top section (15, 18) of the T-shape arranged to separate the tube pair (9, 10, 11) from adjacent tube pairs (9, 10, 11).
A memory improving composition, which is made from a combination of all raw materials in the group of raw materials consisting of 200∼800 parts by weight of Arillus Longan, 200∼800 parts by weight of Poria, 200∼800 parts by weight of Semen Nelumbinis, 10∼150 parts by weight of enzymatic extract of Semen Juglandis, 10∼ 150 parts by weight of phosphatidylserine and 3∼50 parts weight of taurine, wherein the enzymatic extract of Semen Juglandis is a hydrolysate of Semen Juglandis dregs after hydrolyzation with alkaline endoprotease Alcalase 2.4L and complex protease Protamex.
A data processing device for detecting interference in frequency modulated continuous wave radar signals received by a radar receiver of a radar system, wherein the data processing device is configured to: apply a high pass filter to a receiver signal of a receiver channel of the radar receiver during an acquisition time (T acq) corresponding to a transmitted chirp to remove those parts of the receiver signal corresponding to a reflected chirp having a power at the radar receiver greater than the noise power of the radar receiver of the radar system, and the data processing device is further configured to; calculate the receiver signal power from the high pass filtered receiver signal; and compare 2. receiver signal power with a threshold power to determine whether the receiver signal corresponds to an interfered received chirp including interference or a non-interfered received chirp not including interference, for each of a plurality of transmitted chirps of the radar system, characterized in that the threshold power is a threshold noise power based on an estimate of the thermal noise of the radar receiver. apply a high pass filter to a receiver signal of a receiver channel of the radar receiver during an acquisition time (T acq) corresponding to a transmitted chirp to remove those parts of the receiver signal corresponding to a reflected chirp having a power at the radar receiver greater than the noise power of the radar receiver of the radar system, and the data processing device is further configured to; calculate the receiver signal power from the high pass filtered receiver signal; and compare 2. receiver signal power with a threshold power to determine whether the receiver signal corresponds to an interfered received chirp including interference or a non-interfered received chirp not including interference, for each of a plurality of transmitted chirps of the radar system, characterized in that the threshold power is a threshold noise power based on an estimate of the thermal noise of the radar receiver.
A method of transferring downlink data, the method performed by a Serving Gateway, S-GW, and comprising: transmitting a Downlink Data Notification, DDN, message to a Mobility Management Entity, MME, and a Serving General Packet Radio Service, GPRS, Supporting Node, SGSN, when downlink data arrives at a wireless device in a state where an Idle mode Signaling Reduction, ISR, is activated; receiving a message notifying of a DDN refusal from any one of the MME and SGSN when the wireless device cannot receive the downlink data since it is in a power saving mode, PSM; characterised by: transmitting a paging stop request message to any one of the MME and SGSN upon receiving the message notifying of the refusal of the DDN, wherein, if the message notifying of the DDN refusal is received from the MME, the paging stop request message is transmitted to the SGSN, and if the message notifying of the DDN refusal is received from the SGSN, the paging stop request message is transmitted to the MME. transmitting a Downlink Data Notification, DDN, message to a Mobility Management Entity, MME, and a Serving General Packet Radio Service, GPRS, Supporting Node, SGSN, when downlink data arrives at a wireless device in a state where an Idle mode Signaling Reduction, ISR, is activated; receiving a message notifying of a DDN refusal from any one of the MME and SGSN when the wireless device cannot receive the downlink data since it is in a power saving mode, PSM; characterised by: transmitting a paging stop request message to any one of the MME and SGSN upon receiving the message notifying of the refusal of the DDN, wherein, if the message notifying of the DDN refusal is received from the MME, the paging stop request message is transmitted to the SGSN, and if the message notifying of the DDN refusal is received from the SGSN, the paging stop request message is transmitted to the MME. transmitting a paging stop request message to any one of the MME and SGSN upon receiving the message notifying of the refusal of the DDN, wherein, if the message notifying of the DDN refusal is received from the MME, the paging stop request message is transmitted to the SGSN, and if the message notifying of the DDN refusal is received from the SGSN, the paging stop request message is transmitted to the MME.
A normally engaged friction clutch, in particular a normally engaged single clutch, for a drive train of a motor vehicle comprising a drive unit and a transmission which can be connected via the friction clutch for the transmission of torques, wherein the friction clutch has at least one transmission-side cover component, at least one counter pressure plate which can be connected to an output side of the drive unit and at least one displaceable pressure plate delimited with respect to the counter pressure plate in an axial direction of the friction clutch for frictionally clamping a clutch disc between the counter pressure plate and the pressure plate, characterised in that a transmission-side friction lining of the clutch disc can be engaged with a first friction surface of the counter pressure plate, and a motor-side friction lining of the clutch disc can be engaged with a second friction surface of the pressure plate, the output side comprising a flywheel which cannot be displaced in the axial direction, wherein the flywheel and the counter pressure plate are connected to one another in a rotationally fixed manner via a plurality of leaf springs, the counter pressure plate being moveable via a wear compensation device in the axial direction relative to the flywheel to compensate for wear of the friction linings (11, 13) and friction surfaces (12, 14).
An image providing device that is installed in a vehicle and provides an image of surroundings of the vehicle to a driver, comprising: a first image pickup unit having a first image pickup range positioned in the vehicle surroundings; a second image pickup unit having a second image pickup range that does not overlap the first image pickup range in the vehicle surroundings; a first image providing unit that provides to the driver a first image that is an image picked up by the first image pickup unit; a second image providing unit that is provided separately from the first image providing unit and provides to the driver a second image that is an image picked up by the second image pickup unit; and an image display parameter correction unit that corrects at least one of an image display parameter of the first image and an image display parameter of the second image on the basis of comparison results of the image display parameter of the first image and the image display parameter of the second image; characterized by an attention object determination unit that determines whether or not an attention object to which the driver is to pay attention is present in the first image or the second image, wherein the image display parameter correction unit performs correction that emphasizes the image, from the first image and the second image, that is determined by the attention object determination unit to include the attention object. a first image pickup unit having a first image pickup range positioned in the vehicle surroundings; a second image pickup unit having a second image pickup range that does not overlap the first image pickup range in the vehicle surroundings; a first image providing unit that provides to the driver a first image that is an image picked up by the first image pickup unit; a second image providing unit that is provided separately from the first image providing unit and provides to the driver a second image that is an image picked up by the second image pickup unit; and an image display parameter correction unit that corrects at least one of an image display parameter of the first image and an image display parameter of the second image on the basis of comparison results of the image display parameter of the first image and the image display parameter of the second image; characterized by an attention object determination unit that determines whether or not an attention object to which the driver is to pay attention is present in the first image or the second image, wherein the image display parameter correction unit performs correction that emphasizes the image, from the first image and the second image, that is determined by the attention object determination unit to include the attention object.
Device for ionization and blowing comprising a conductive rod provided with a tip at its end and electrically connected to an electrical socket so as to be able to apply a voltage to said tip, and an air duct connected to an air connection so as to be able to blow air through said air duct, characterized in that said rod is hollow, forming a channel constituting said air duct.
An assembled battery (1, 101, 201, 301, 401) comprising: an outer case; and a battery body stored in the outer case; wherein, in the battery body a plurality of non-aqueous electrolyte batteries (4, 5, 102, 402) are stacked; and at least one lead (6, 32, 103) is arranged between two adjacent non-aqueous electrolyte batteries, being connected to the two adjacent non-aqueous electrolyte batteries and having an area larger than an area of a side surface of each of the two adjacent non-aqueous electrolyte batteries, the side surface being opposing to the at least one lead, and wherein each non-aqueous electrolyte battery includes at least one positive electrode (10, 403), at least one negative electrode(9, 404) and a non-aqueous electrolyte, the at least one positive electrode including a positive electrode current collector and positive electrode active material layers provided on both side surfaces of the positive electrode current collector, and the at least one negative electrode including a negative electrode current collector and negative electrode active material layers provided on both side surfaces of the negative electrode current collector. an outer case; and a battery body stored in the outer case; wherein, in the battery body a plurality of non-aqueous electrolyte batteries (4, 5, 102, 402) are stacked; and at least one lead (6, 32, 103) is arranged between two adjacent non-aqueous electrolyte batteries, being connected to the two adjacent non-aqueous electrolyte batteries and having an area larger than an area of a side surface of each of the two adjacent non-aqueous electrolyte batteries, the side surface being opposing to the at least one lead, and wherein each non-aqueous electrolyte battery includes at least one positive electrode (10, 403), at least one negative electrode(9, 404) and a non-aqueous electrolyte, the at least one positive electrode including a positive electrode current collector and positive electrode active material layers provided on both side surfaces of the positive electrode current collector, and the at least one negative electrode including a negative electrode current collector and negative electrode active material layers provided on both side surfaces of the negative electrode current collector.
An arrangement comprising a support rail (2a, 2b) and a mounting base, wherein on the support rail a plurality of housings that can be strung together and that are equipped with electrical contact and/or functional elements can be arranged, said support rail being mountable on the mounting base even when the housings have already been strung onto the support rail (2a, 2b) before the support rail is mounted, said support rail (2a, 2b) being attached to the mounting base by means of two or more mounting pins (5a, 5b, 5c, 5d, 5e) which have been put in place on the mounting base before the support rail (2a, 2b) is mounted, wherein the mounting pins and the support rail are correspondingly configured such that the support rail (2a, 2b) can be placed onto the mounting pins (5a, 5b, 5c, 5d, 5e) and locked in place thereon without using a tool, wherein the support rail (2a, 2b) has through bores (4a, 4b, 4c), wherein the mounting pins (5a, 5b, 5c, 5d, 5e) have a head (6a, 6b, 6c, 6d, 6e) and a shaft which has a smaller diameter compared to the head, wherein the head (6a, 6b, 6c, 6d, 6e) of the respective mounting pin (5a, 5b, 5c, 5d, 5e) has one or several locking means (8a, 8b, 8c, 8d, 8e, 8f, 8g), characterised in that the locking means (8a, 8b, 8c, 8d, 8e) of each head, in the locked state, such cooperates with a respective one of the through bores, that this through bore acts as a mating locking means relative to the locking means (8a, 8c, 8d) according to the principle of an annular snap-fit connection, wherein the locking mean (8a, 8c, 8d) has segment-like recesses, so that it is divided into several locking bars.
A detergent composition comprising a trisiloxane having at least one carbinol functional group, said trisiloxane comprising the reaction product of: an initial trisiloxane having a pendant silicon-bonded functional group selected from a hydrogen atom and an epoxy-containing group; and an organic compound having a functional group reactive with the pendant silicon-bonded functional group of component and at least one hydroxyl functional group; wherein component is free of a terminal silicon-bonded functional group selected from a hydrogen atom, an epoxy-containing group, an ethylenically unsaturated group, and an amine group; wherein component is free of polyoxyalkylene groups; wherein said trisiloxane is present in an amount of from 0.001 to 20 parts by weight based on 100 parts by weight of said detergent composition; and wherein one of the following provisos 1) and 2) is true: 1) the pendant silicon-bonded functional group of component is a hydrogen atom and component is selected from the following components to: 2) the pendant silicon-bonded functional group of component is an epoxy-containing group and component is selected from the following components to: and an initial trisiloxane having a pendant silicon-bonded functional group selected from a hydrogen atom and an epoxy-containing group; and an organic compound having a functional group reactive with the pendant silicon-bonded functional group of component and at least one hydroxyl functional group; 1) the pendant silicon-bonded functional group of component is a hydrogen atom and component is selected from the following components to: 2) the pendant silicon-bonded functional group of component is an epoxy-containing group and component is selected from the following components to: and
A method for wireless communications by an apparatus, comprising: generating a first transmit beamforming refinement frame; outputting the first transmit beamforming refinement frame for transmission to a wireless node, wherein a first portion of the first transmit beamforming refinement frame is output for transmission via a first transmit beamforming sector and further wherein training fields of the first transmit beamforming refinement frame are output for transmission via two or more second transmit beamforming sectors; obtaining a first feedback frame from the wireless node indicating one of the second transmit beamforming sectors, wherein the apparatus is configured to use the indicated second transmit beamforming sector for communication with the wireless node; obtaining a second transmit beamforming refinement frame, from the wireless node, wherein a first portion of the second transmit beamforming refinement frame is obtained using a first receive beamforming sector and training fields of the second transmit beamforming refinement frame are obtained while the apparatus is in an omnidirectional receive antenna mode; selecting a third transmit beamforming sector based on the training fields of the second transmit beamforming refinement frame and generating a second feedback frame indicating the third transmit beamforming sector; and outputting the second feedback frame for transmission. generating a first transmit beamforming refinement frame; outputting the first transmit beamforming refinement frame for transmission to a wireless node, wherein a first portion of the first transmit beamforming refinement frame is output for transmission via a first transmit beamforming sector and further wherein training fields of the first transmit beamforming refinement frame are output for transmission via two or more second transmit beamforming sectors; obtaining a first feedback frame from the wireless node indicating one of the second transmit beamforming sectors, wherein the apparatus is configured to use the indicated second transmit beamforming sector for communication with the wireless node; obtaining a second transmit beamforming refinement frame, from the wireless node, wherein a first portion of the second transmit beamforming refinement frame is obtained using a first receive beamforming sector and training fields of the second transmit beamforming refinement frame are obtained while the apparatus is in an omnidirectional receive antenna mode; selecting a third transmit beamforming sector based on the training fields of the second transmit beamforming refinement frame and generating a second feedback frame indicating the third transmit beamforming sector; and outputting the second feedback frame for transmission.
A control for a turbine engine having a plurality of shafts (114, 120) and one or more electrical machines coupled to the shafts (114, 120), the control comprising: an engine health monitor to develop an assessment of the health of the turbine engine dynamically over time using real-time feedback of sensed operating parameters from the turbine engine; and a power allocation optimizer to vary the allocation of power extraction between the electrical machines dynamically in response to the assessment of the health of the turbine engine, wherein the engine health monitor is configured to detect a trend in the allocation of power extraction between the electrical machines over time and develops the assessment of the health of the turbine engine based on the trend. an engine health monitor to develop an assessment of the health of the turbine engine dynamically over time using real-time feedback of sensed operating parameters from the turbine engine; and a power allocation optimizer to vary the allocation of power extraction between the electrical machines dynamically in response to the assessment of the health of the turbine engine,
A lighting device with a light source as well as a deflection device with at least one deflection element, by means of which the light emitted by the light source can optionally be emitted via a first light path or a second light path by the lighting device, wherein in at least one of the two light paths (2, 3) means are arranged, by means of which the light emitted via this light path (2, 3) can be changed in its color, shape, intensity and/or emission direction, and wherein in one light path (2, 3) a further deflection device is arranged, which deflects the emitted light of the light path in the direction of the further light path (2, 3), characterized in that a semi-permeable mirror is arranged in both light paths (2, 3) such that the two light paths (2, 3) subsequently run congruently.
Method for laser processing of an, in particular, plate-shaped workpiece along a target path by means of a laser beam of a laser processing machine, wherein a laser processing head that directs the laser beam to the workpiece is moved at least along one drive axis and wherein a machine component (11a, 11b; 21) of the laser processing machine which is not involved in the relative movement between the workpiece and the laser beam emitted by the laser processing head, in particular not involved in the relative movement between the workpiece and the laser processing head, is moved in dependence on the position of the laser processing head along its drive axis, characterized in that low-frequency drive axis target values are filtered out from drive axis target values of the laser processing head along its drive axis and the movement of the machine component (11a, 11b; 21) is controlled using the low-frequency drive axis target values.