mhurhangee/ep-ind-claims huggingface dataset:
An incubator including: a housing defining a chamber; an air inlet 16 for introducing air into the chamber; a first air outlet for discharging air from the chamber, the first air outlet being spaced from the air inlet; a stack of operatively vertically spaced first trays disposed within the chamber, between the air inlet and the first air outlet; and a first means for tilting the stack of first trays on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet; a stack of operatively vertically spaced first deflectors are disposed operatively upstream of the first trays for, in use, dividing the airflow from the air inlet to the first air outlet into streams of airflow directed over the first trays; and the incubator further includes a second means for tilting the first deflectors on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet, in use to align the first deflectors with the first trays; characterised in that: each first deflector is generally V-shaped, tapering: from a first end proximal a first tray with which the first deflector is associated, which first end of the taper is sized and shaped to correspond to the inlet-facing side of the associated first tray; towards the air inlet. a housing defining a chamber; an air inlet 16 for introducing air into the chamber; a first air outlet for discharging air from the chamber, the first air outlet being spaced from the air inlet; a stack of operatively vertically spaced first trays disposed within the chamber, between the air inlet and the first air outlet; and a first means for tilting the stack of first trays on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet; a stack of operatively vertically spaced first deflectors are disposed operatively upstream of the first trays for, in use, dividing the airflow from the air inlet to the first air outlet into streams of airflow directed over the first trays; and the incubator further includes a second means for tilting the first deflectors on a plane substantially perpendicular to the direction of operative airflow from the air inlet to the first air outlet, in use to align the first deflectors with the first trays; from a first end proximal a first tray with which the first deflector is associated, which first end of the taper is sized and shaped to correspond to the inlet-facing side of the associated first tray; towards the air inlet.
A lithium ion battery, comprising: a positive electrode plate, a negative electrode plate, a separator disposed between the positive electrode plate and the negative electrode plate, and an electrolytic solution, the positive electrode plate including a positive electrode current collector and a positive electrode active material layer provided on at least one side of the positive electrode current collector, and the electrolytic solution including an organic solvent, a lithium salt and an additive, wherein the lithium salt comprises a primary lithium salt, the primary lithium salt is a first compound in an amount of 30% or more relative to the total molar amount of the lithium salt, and the first compound has a structure represented by the following formula I: in which formula I, R 1 and R 2 each independently represent a fluorine atom, a fluoroalkyl group having 1-20 carbon atoms, or a fluoroalkoxy group having 1-20 carbon atoms, and wherein the additive comprises a second compound represented by the following formula II, in which formula II, R 3 represents an alkylene group having 2-4 carbon atoms, a fluoroalkylene group having 2-4 carbon atoms, an alkyl-substituted alkylene group having 2-4 carbon atoms, an alkenylene group having 2- 4 carbon atoms, a fluoroalkenylene group having 2-4 carbon atoms, an alkyl-substituted alkenylene group having 2-4 carbon atoms, an arylene group having 6-14 carbon atoms, and a fluorinated arylene group having 6-14 carbon atoms or an alkyl-substituted arylene group having 6-14 carbon atoms.
A transmitter comprising: a baseband, BB, component; a radio frequency, RF, chain component; a power amplifier, PA, component; a controller configured to: determine, based on a number of transmitting antennas included in the transmitter, an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component, the RF chain component, and the PA component, and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component, the RF chain component, and the PA component. a baseband, BB, component; a radio frequency, RF, chain component; a power amplifier, PA, component; a controller configured to: determine, based on a number of transmitting antennas included in the transmitter, an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component, the RF chain component, and the PA component, and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component, the RF chain component, and the PA component. determine, based on a number of transmitting antennas included in the transmitter, an operation point at which an energy efficiency, EE, reaches a target energy efficiency given performance constraints like allowable power consumption or required data rate, wherein the operation point corresponds to the power consumption of at least one of the BB component, the RF chain component, and the PA component, and wherein the number of transmitting antennas included in the transmitter is greater than a number of the terminals receiving a service from the transmitter according to at least a predetermined ratio to increase the EE; control, based on the operation point, a power consumption of at least one of the BB component, the RF chain component, and the PA component.
A lubrication device comprising a tank of fluid lubricant to be dispensed to a user position, means for raising the pressure of said lubricant, a device for regulating the flow rate of a pressurized lubricant, and distribution means enabling the lubricant flow to be conveyed to said user position with regulated flow rate, the regulating device comprising a body provided at least with one lubricant feed channel and one outflow channel, the feed channel and the outflow channel being put into communication by an aperture within the interior of which a valving element is movable such as to at least partially obstruct or free said aperture to vary a passage cross-section for said lubricant from the feed channel to the outflow channel in order to regulate its flow rate, the valving element comprising drive means for regulating its axial position relative to the aperture, characterised in that said valving element is provided with a perimetral lateral surface in which at least one window is provided in communication with the free end of the valving element.
A method for implementing service scheduling, comprising: sending, by an evolved Node B, eNB, time-domain scheduling information of Single Cell-Point To Multipoint, SC-PTM, Multimedia Broadcast Multicast Service, MBMS, to User Equipment, UE, wherein the time-domain scheduling information is used for indicating a position of a time-domain subframe where the MBMS is located, a Physical Downlink Control Channel, PDCCH, of the time-domain subframe comprises frequency-domain scheduling information of the MBMS, a Cyclic Redundancy Check, CRC, of the PDCCH is scrambled by using a Radio Network Temporary Identifier, RNTI, corresponding to contents in a Physical Downlink Share Channel, PDSCH, and the MBMS is sent on the PDSCH. sending, by an evolved Node B, eNB, time-domain scheduling information of Single Cell-Point To Multipoint, SC-PTM, Multimedia Broadcast Multicast Service, MBMS, to User Equipment, UE, wherein the time-domain scheduling information is used for indicating a position of a time-domain subframe where the MBMS is located, a Physical Downlink Control Channel, PDCCH, of the time-domain subframe comprises frequency-domain scheduling information of the MBMS, a Cyclic Redundancy Check, CRC, of the PDCCH is scrambled by using a Radio Network Temporary Identifier, RNTI, corresponding to contents in a Physical Downlink Share Channel, PDSCH, and the MBMS is sent on the PDSCH.
A rubber seal for an aluminum electrolytic capacitor comprising a terminal passage hole through which a lead terminal is formed by welding an outside lead wire to an end of a round bar section included in a tab terminal, the terminal passage hole including a round bar mating hole in which the round bar section is fit and a lead wire passage hole coaxial with the round bar mating hole and smaller in diameter than the round bar mating hole, the outside lead wire being inserted through the lead wire passage hole, and a hole diameter of the lead wire passage hole being smaller than an outer diameter of the outside lead wire, and the outside lead wire being forcibly inserted through the lead wire passage hole such that a welded section of the round bar section and the outside lead wire is shut off from the outside air, wherein a conical guide surface gradually reduced in diameter is formed between the round bar mating hole and the lead wire passage hole in the terminal passage hole, when an inclination angle of the welded section with respect to an imaginary plane X orthogonal to an axis Y passing the terminal passage hole is represented as θc, and with a boundary set in an intersection portion of an extended line of an outer diameter surface of the outside lead wire and the guide surface in a state in which the outside lead wire and the lead wire passage hole are set to be coaxial, the guide surface includes a first inclined surface inclined at an angle substantially the same as the inclination angle θc from the intersection portion to an inner surface of the round bar mating hole and a second inclined surface inclined at an angle smaller than the inclination angle θc from the intersection portion to an inner peripheral edge of the lead wire passage hole. a hole diameter of the lead wire passage hole being smaller than an outer diameter of the outside lead wire, and the outside lead wire being forcibly inserted through the lead wire passage hole such that a welded section of the round bar section and the outside lead wire is shut off from the outside air, wherein a conical guide surface gradually reduced in diameter is formed between the round bar mating hole and the lead wire passage hole in the terminal passage hole, when an inclination angle of the welded section with respect to an imaginary plane X orthogonal to an axis Y passing the terminal passage hole is represented as θc, and with a boundary set in an intersection portion of an extended line of an outer diameter surface of the outside lead wire and the guide surface in a state in which the outside lead wire and the lead wire passage hole are set to be coaxial, the guide surface includes a first inclined surface inclined at an angle substantially the same as the inclination angle θc from the intersection portion to an inner surface of the round bar mating hole and a second inclined surface inclined at an angle smaller than the inclination angle θc from the intersection portion to an inner peripheral edge of the lead wire passage hole.
A method of connecting a wireless backhaul, the method comprising: receiving (S300a), by a small-cell base station, BS,, a plurality of beamforming signals from a macro-cell BS to connect a wireless backhaul; collecting, by the small-cell BS, information on the plurality of beamforming signals' interference with a terminal connected to the small-cell BS or location information of the terminal; generating, by the small-cell BS, reception status information of the plurality of beamforming signals from the macro-cell BS, wherein the reception status information of the plurality of beamforming signals comprises a received signal intensity of the plurality of beamforming signals received (S300a) by the small-cell BS from the macro-cell BS; selecting, by the small-cell BS, a beamforming signal for connecting the wireless backhaul based on the reception status information of the plurality of beamforming signals and further based on one of the interference information or the location information of the terminal; transmitting, by the small-cell BS, a selection result to the macro-cell BS; and connecting, by the macro-cell BS, a wireless backhaul by beamforming with the selected beamforming signal toward the small-cell BS based on the received selection result. receiving (S300a), by a small-cell base station, BS,, a plurality of beamforming signals from a macro-cell BS to connect a wireless backhaul; collecting, by the small-cell BS, information on the plurality of beamforming signals' interference with a terminal connected to the small-cell BS or location information of the terminal; generating, by the small-cell BS, reception status information of the plurality of beamforming signals from the macro-cell BS, wherein the reception status information of the plurality of beamforming signals comprises a received signal intensity of the plurality of beamforming signals received (S300a) by the small-cell BS from the macro-cell BS; selecting, by the small-cell BS, a beamforming signal for connecting the wireless backhaul based on the reception status information of the plurality of beamforming signals and further based on one of the interference information or the location information of the terminal; transmitting, by the small-cell BS, a selection result to the macro-cell BS; and connecting, by the macro-cell BS, a wireless backhaul by beamforming with the selected beamforming signal toward the small-cell BS based on the received selection result.
A method performed by a location server, the method comprising: locating a first reference point identifier field that is included in a first set of location data comprising map data and a second reference point identifier field that is included in a second set of location data comprising assistance data, wherein the first reference point identifier and the second reference point identifier identify a common reference point, and wherein the first reference point identifier field indicates the common reference point in the map data, and wherein the second referenced point identifier field indicates the common reference point in the assistance data; identifying first information in the first set of location data that is associated with the common reference point; identifying second information in the second set of location data that is associated with the common reference point; and spatially aligning the first set of location data with the second set of location data based on the common reference point to associate the first information with the second information, wherein spatially aligning the first set of location data with the second set of location data includes at least one of translating, rotating, and scaling at least one of the first set of location data and the second set of location data. locating a first reference point identifier field that is included in a first set of location data comprising map data and a second reference point identifier field that is included in a second set of location data comprising assistance data, wherein the first reference point identifier and the second reference point identifier identify a common reference point, and wherein the first reference point identifier field indicates the common reference point in the map data, and wherein the second referenced point identifier field indicates the common reference point in the assistance data; identifying first information in the first set of location data that is associated with the common reference point; identifying second information in the second set of location data that is associated with the common reference point; and spatially aligning the first set of location data with the second set of location data based on the common reference point to associate the first information with the second information, wherein spatially aligning the first set of location data with the second set of location data includes at least one of translating, rotating, and scaling at least one of the first set of location data and the second set of location data.
A system comprising: a generator configured to be electrically coupled to a grid; an engine configured to drive the generator; a solid state generator, SSG, configured to couple an energy storage device to the grid; and a bias controller coupled to the SSG and configured to detect a frequency of the grid and to responsively provide a bias signal that adds to a speed reference signal for a speed controller of the engine; characterised in that the bias controller comprises: a frequency bias controller configured to generate a frequency bias load sharing signal responsive to the detected frequency of the grid and to receive an active power output of the SSG, and a load sharing controller configured to receive the frequency bias load sharing signal via a load sharing line coupled to at least one other generator (220, 230, 240), wherein the load sharing controller is configured to generate the bias signal responsive to the load sharing. a generator configured to be electrically coupled to a grid; an engine configured to drive the generator; a solid state generator, SSG, configured to couple an energy storage device to the grid; and a bias controller coupled to the SSG and configured to detect a frequency of the grid and to responsively provide a bias signal that adds to a speed reference signal for a speed controller of the engine; characterised in that the bias controller comprises: a frequency bias controller configured to generate a frequency bias load sharing signal responsive to the detected frequency of the grid and to receive an active power output of the SSG, and a load sharing controller configured to receive the frequency bias load sharing signal via a load sharing line coupled to at least one other generator (220, 230, 240), wherein the load sharing controller is configured to generate the bias signal responsive to the load sharing. a frequency bias controller configured to generate a frequency bias load sharing signal responsive to the detected frequency of the grid and to receive an active power output of the SSG, and a load sharing controller configured to receive the frequency bias load sharing signal via a load sharing line coupled to at least one other generator (220, 230, 240), wherein the load sharing controller is configured to generate the bias signal responsive to the load sharing.
A method for execution by a video encoder or image encoder, the method comprising the steps of: encoding data for a picture using intra block copy prediction, including performing block vector estimation operations and block splitting decision operations concurrently for a current block of the picture, wherein the block vector estimation operations include determining a block vector value for the current block, wherein the block vector value indicates a displacement from the current block to a region of the picture that includes previously reconstructed sample values used for prediction, wherein the current block has a first size, and wherein the encoding data for the picture further includes: identifying a candidate block vector value for the current block using the block vector estimation operations; evaluating whether intra block copy prediction with the candidate block vector value for the current block results in overlap between the current block and an intra-prediction region referenced by the candidate block vector value; and depending on results of said evaluating, selectively splitting the current block into plural blocks each having a second size smaller than the first size; outputting the encoded data for the picture. encoding data for a picture using intra block copy prediction, including performing block vector estimation operations and block splitting decision operations concurrently for a current block of the picture, wherein the block vector estimation operations include determining a block vector value for the current block, wherein the block vector value indicates a displacement from the current block to a region of the picture that includes previously reconstructed sample values used for prediction, wherein the current block has a first size, and wherein the encoding data for the picture further includes: identifying a candidate block vector value for the current block using the block vector estimation operations; evaluating whether intra block copy prediction with the candidate block vector value for the current block results in overlap between the current block and an intra-prediction region referenced by the candidate block vector value; and depending on results of said evaluating, selectively splitting the current block into plural blocks each having a second size smaller than the first size; identifying a candidate block vector value for the current block using the block vector estimation operations; evaluating whether intra block copy prediction with the candidate block vector value for the current block results in overlap between the current block and an intra-prediction region referenced by the candidate block vector value; and depending on results of said evaluating, selectively splitting the current block into plural blocks each having a second size smaller than the first size; outputting the encoded data for the picture.
A supply arrangement for a medical, in particular a dental-medical work station (100, 100a-100e), having • at least two storage containers (11, 31, 51, 71) with fluid working materials (12, 32, 52, 72) which are provided for use at the work station, and also • withdrawal means and delivery means for withdrawal of the working materials (12, 32, 52, 72) out of the storage containers (11, 31, 51, 71) and for provision at places of need (14, 34, 54, 74) of the work station (100, 100a-100e), wherein the working materials are different working materials, and wherein the supply arrangement is connected to a plurality of medical or dental-medical treatment units (100, 100a-100e), characterised in that a distribution block is provided for the simultaneous distribution of the different working materials (12, 32, 52, 72) to the treatment units (100a-100e), and in that by means of the withdrawal means and delivery means each of the storage containers is connected, in each case, to each of the treatment units (100a-100e). • at least two storage containers (11, 31, 51, 71) with fluid working materials (12, 32, 52, 72) which are provided for use at the work station, and also • withdrawal means and delivery means for withdrawal of the working materials (12, 32, 52, 72) out of the storage containers (11, 31, 51, 71) and for provision at places of need (14, 34, 54, 74) of the work station (100, 100a-100e),