mhurhangee/ep-ind-claims huggingface dataset:
A scaffold for use in bone tissue engineering, the scaffold comprising: a skeleton constructed to form a three-dimensional shape, the skeleton constructed of a first material and having a first rate of biodegradation; and a host component constructed of a second material and having a second rate of biodegradation, wherein the first rate of biodegradation is slower than the second rate of biodegradation; characterized in that the three-dimensional shape defines a space and the host component fills the space defined by the three-dimensional shape formed by the skeleton; wherein the skeleton and the host component form a unitary structure constructed throughout as an integrated body. a skeleton constructed to form a three-dimensional shape, the skeleton constructed of a first material and having a first rate of biodegradation; and a host component constructed of a second material and having a second rate of biodegradation, wherein the first rate of biodegradation is slower than the second rate of biodegradation; characterized in that the three-dimensional shape defines a space and the host component fills the space defined by the three-dimensional shape formed by the skeleton; wherein the skeleton and the host component form a unitary structure constructed throughout as an integrated body.
An adapter with LC-type two-core shutter, the adapter including: an upper lid housing which is provided in right and left wall surfaces (1C, 1B) with locking projections and provided in an upper wall surface with an arm; a shutter plate which is arranged in an opening side of the upper lid housing in a rising direction and freely opens and closes; a sleeve holder which has two split sleeves built-in; and a lower lid housing which is provided in right and left wall surfaces with locked hole portions for fitting the locking projections and provided in an upper wall surface with a locking concave portion locking the arm, wherein the upper lid housing and the lower lid housing are connected while holding the sleeve holder therebetween, by engaging the arm and the locking concave portion, and by engaging the locking projections and the locked hole portions, and an end face of the sleeve holder is formed into a downward inclined surface shape from an upper side toward a lower side so as to prevent an upper side of the shutter plate from coming into contact with the sleeve holder when opening and closing the shutter plate. an upper lid housing which is provided in right and left wall surfaces (1C, 1B) with locking projections and provided in an upper wall surface with an arm; a shutter plate which is arranged in an opening side of the upper lid housing in a rising direction and freely opens and closes; a sleeve holder which has two split sleeves built-in; and a lower lid housing which is provided in right and left wall surfaces with locked hole portions for fitting the locking projections and provided in an upper wall surface with a locking concave portion locking the arm, wherein the upper lid housing and the lower lid housing are connected while holding the sleeve holder therebetween, by engaging the arm and the locking concave portion, and by engaging the locking projections and the locked hole portions, and an end face of the sleeve holder is formed into a downward inclined surface shape from an upper side toward a lower side so as to prevent an upper side of the shutter plate from coming into contact with the sleeve holder when opening and closing the shutter plate.
A mobile terminal comprising: a plurality of antennas configured to receive radio waves; a receiver circuit configured to receive power of the radio waves received by the plurality of antennas using a diversity technique to select an antenna from among the plurality of antennas based at least in part on a level of the received power; a charging unit configured to charge a rechargeable battery coupled to the mobile terminal by the power of the radio waves received by the receiver circuit; and a control unit configured to send a power transfer request via the plurality of antennas when a remaining capacity of the rechargeable battery is less than a predetermined value. a plurality of antennas configured to receive radio waves; a receiver circuit configured to receive power of the radio waves received by the plurality of antennas using a diversity technique to select an antenna from among the plurality of antennas based at least in part on a level of the received power; a charging unit configured to charge a rechargeable battery coupled to the mobile terminal by the power of the radio waves received by the receiver circuit; and a control unit configured to send a power transfer request via the plurality of antennas when a remaining capacity of the rechargeable battery is less than a predetermined value.
Dual-clutch transmission for motor vehicles having a drive arrangement with two axially series-connected, multi-plate clutches (K1, K2) in a transmission case, which are positioned between spaced apart end walls (10a, 12a) of the transmission case, and where the drive element is driven via an input shaft of the transmission, wherein the multi-plate clutches (K1, K2) drive off via two drive elements (20, 22) on two drive shafts (24, 26) co-axially disposed with the input shaft, wherein the two drive elements (20, 22) of the multi-disc clutches (K1, K2) have tubular shaft stubs (48, 50), which are propulsively connected in the rotational direction via positively acting connections (52, 54) respectively to drive shafts (24, 26) designed as hollow shafts, wherein the rotatably mounted input shaft in the region of a first end wall of the transmission case is guided up to the second end wall opposite to the first end wall and there indirectly mounted via the rotatably mounted drive shafts (24, 26) in the region of the second end wall, wherein in the area of a connection of a shaft stub acting in the rotational direction with an outer drive shaft of the drive shafts (24, 26), a roller bearing is provided between the outer drive shaft and the second end wall of the transmission case, wherein the input shaft seen in longitudinal direction is guided via an output flange to the drive element of the multi-plate clutches (K1, K2) and up to the second end wall, and wherein the shaft stubs (48, 50a) on to the tubular shaft stubs (48, 50) integrally formed annular flanges (48a, 50a) and axial bearings (60, 62) are supported in the axial direction on the output flange of the input shaft characterized in that in the area of the connection acting in the rotational direction of the other shaft stub with an inner drive shaft of the drive shafts (24, 26) a roller bearing is provided between the shaft stubs (48, 50), so that the one shaft stub is radially supported via the roller bearing on the other shaft stub.
A wireless communication apparatus comprising: a reference signal measurement unit that performs measurement of reference signals transmitted from respective base stations in a wideband and respective subbands, under a communication environment in which an entire system bandwidth is used as the wideband and a plurality of subbands obtained by dividing the system bandwidth are used; a measurement result selection unit that selects measurement results to be fed back in order to determine a cooperative group of the base stations which performs Coordinated Multi Point Transmission/Reception (CoMP) for its own apparatus, among measurement results obtained in the wideband and the respective subbands by the reference signal measurement unit; and a feedback unit that feeds back the measurement results selected by the measurement result selection unit to a serving base station, wherein the measurement result selection unit preferentially selects a measurement result of a subband having a high possibility of the cooperative group being updated when the measurement result is fed back. a reference signal measurement unit that performs measurement of reference signals transmitted from respective base stations in a wideband and respective subbands, under a communication environment in which an entire system bandwidth is used as the wideband and a plurality of subbands obtained by dividing the system bandwidth are used; a measurement result selection unit that selects measurement results to be fed back in order to determine a cooperative group of the base stations which performs Coordinated Multi Point Transmission/Reception (CoMP) for its own apparatus, among measurement results obtained in the wideband and the respective subbands by the reference signal measurement unit; and a feedback unit that feeds back the measurement results selected by the measurement result selection unit to a serving base station, wherein the measurement result selection unit preferentially selects a measurement result of a subband having a high possibility of the cooperative group being updated when the measurement result is fed back.
A motor control unit that controls a motor that includes a rotor and a stator that faces the rotor, the motor control unit comprising: a current drive unit (30, 32 to 36) that drives the motor based on an axis current value (I γ) of a rotating coordinate system that rotates in accordance with a control angle (Θ c) that is a rotational angle used in a control; a control angle calculation unit that obtains a present value of the control angle by adding an addition angle to an immediately preceding value of the control angle in predetermined calculation cycles; a torque detection unit that detects a torque other than a motor torque, which is applied to a drive target that is driven by the motor; and a command torque setting unit that sets a command torque (T*) that is a torque that is other than the motor torque and that E to be applied to the drive target; the motor control unit being characterized in that it further comprises: an addition angle calculation unit (22, 23) that calculates the addition angle based on a torque deviation that is a deviation of a detected torque that is detected by the torque detection unit from the command torque that is set by the command torque setting unit; and a command current setting unit (30, 60) that sets a command current value (I γ *) that is a target value of the axis current value based on the torque deviation, wherein the command current setting unit sets a present value of a command current by correcting an immediately preceding value of the command current by a correction amount that corresponds to the torque deviation. a current drive unit (30, 32 to 36) that drives the motor based on an axis current value (I γ) of a rotating coordinate system that rotates in accordance with a control angle (Θ c) that is a rotational angle used in a control; a control angle calculation unit that obtains a present value of the control angle by adding an addition angle to an immediately preceding value of the control angle in predetermined calculation cycles; a torque detection unit that detects a torque other than a motor torque, which is applied to a drive target that is driven by the motor; and a command torque setting unit that sets a command torque (T*) that is a torque that is other than the motor torque and that E to be applied to the drive target; an addition angle calculation unit (22, 23) that calculates the addition angle based on a torque deviation that is a deviation of a detected torque that is detected by the torque detection unit from the command torque that is set by the command torque setting unit; and a command current setting unit (30, 60) that sets a command current value (I γ *) that is a target value of the axis current value based on the torque deviation, wherein the command current setting unit sets a present value of a command current by correcting an immediately preceding value of the command current by a correction amount that corresponds to the torque deviation.
A node device operation method, applied to a first node device, wherein the node device operation method comprises: receiving, by the first node device, voting requests from a plurality of second node devices, a quantity of the plurality of second node devices being greater than half of a quantity of node devices in a system, wherein voting requests are generated based on cycle length information, last log indexes, and node device identifiers of the plurality of second node devices; when the first node device operates in a leader state, obtaining the cycle length information and the latest log indexes from the voting requests from the plurality of second node devices wherein the cycle length information is an operation cycle number at which the second node device which sends the voting request is currently located, and the latest log index is an index of a log newly stored by the second node device which sends the voting request; and switching a work status of the first node device from the leader state to a follower state or a candidate state when all the cycle length information in the voting requests from the plurality of second node devices is greater than cycle length information of the first node device and all the latest log indexes in the voting requests from the plurality of second node devices are not less than a latest log index of the first node device. receiving, by the first node device, voting requests from a plurality of second node devices, a quantity of the plurality of second node devices being greater than half of a quantity of node devices in a system, wherein voting requests are generated based on cycle length information, last log indexes, and node device identifiers of the plurality of second node devices; when the first node device operates in a leader state, obtaining the cycle length information and the latest log indexes from the voting requests from the plurality of second node devices wherein the cycle length information is an operation cycle number at which the second node device which sends the voting request is currently located, and the latest log index is an index of a log newly stored by the second node device which sends the voting request; and switching a work status of the first node device from the leader state to a follower state or a candidate state when all the cycle length information in the voting requests from the plurality of second node devices is greater than cycle length information of the first node device and all the latest log indexes in the voting requests from the plurality of second node devices are not less than a latest log index of the first node device.
A fluid handling system (100, 802) for applying a plurality of pulses of fluid shear stress to a fluid sample, the system (100, 802) comprising: a first sample chamber; a second sample chamber; a plurality of conduits mounted between and in fluid communication with the first sample chamber and the second sample chamber, the plurality of conduits having similar dimensions and inner diameters of less than 1000 μm; and a force delivery system mounted to the first sample chamber and configured to apply a selected force sufficient to push the fluid sample from the first sample chamber through each of the conduits at a constant flow rate to the second sample chamber, wherein the conduits are arranged in series and further wherein neighboring conduits are separated by an additional sample chamber, characterized in that the force delivery system is a gas delivery system configured to deliver gas to pressurize the sample chambers to a selected pressure, the gas delivery system comprising a plurality of gas valves, each gas valve in fluid communication with an associated sample chamber. a first sample chamber; a second sample chamber; a plurality of conduits mounted between and in fluid communication with the first sample chamber and the second sample chamber, the plurality of conduits having similar dimensions and inner diameters of less than 1000 μm; and a force delivery system mounted to the first sample chamber and configured to apply a selected force sufficient to push the fluid sample from the first sample chamber through each of the conduits at a constant flow rate to the second sample chamber, wherein the conduits are arranged in series and further wherein neighboring conduits are separated by an additional sample chamber, characterized in that the force delivery system is a gas delivery system configured to deliver gas to pressurize the sample chambers to a selected pressure, the gas delivery system comprising a plurality of gas valves, each gas valve in fluid communication with an associated sample chamber.
Sol-gel coating having the form of a continuous film of a material comprising a matrix formed using at least one metal polyalcoxylate, characterised in that it comprises at least one fluorinated filler in the form of particles of fluorocarbon resin coated with a polyethylene wax or a fluorinated polyether.
A particulate composite comprising: a fluoropolymer; an adhesive polymer; and less than 0.1 ppm of a fluorosurfactant, wherein the particulate composite is obtainable by bonding particles of the fluoropolymer and particles of the adhesive polymer with a device configured to cause centrifugal diffusion and a vortex, wherein the device is an attrition mill, wherein the adhesive polymer has an average particle size that is 1 to 50% of the average particle size of the fluoropolymer, as measured by laser diffraction analysis, and wherein the adhesive polymer is at least one compound selected from the group consisting of polyimide, polyamide-imide, polyamide, polyamic acid, epoxy resin, polysulfide, polyarylene sulfide, and polyether sulfone. a fluoropolymer; an adhesive polymer; and less than 0.1 ppm of a fluorosurfactant, wherein the particulate composite is obtainable by bonding particles of the fluoropolymer and particles of the adhesive polymer with a device configured to cause centrifugal diffusion and a vortex, wherein the device is an attrition mill, wherein the adhesive polymer has an average particle size that is 1 to 50% of the average particle size of the fluoropolymer, as measured by laser diffraction analysis, and wherein the adhesive polymer is at least one compound selected from the group consisting of polyimide, polyamide-imide, polyamide, polyamic acid, epoxy resin, polysulfide, polyarylene sulfide, and polyether sulfone.
System for activating the deployment of an inflatable safety vest, characterised in that it comprises a case arranged to be rigidly connected to the inflatable safety vest and equipped with a first opening suitable for receiving, reversibly, a box comprising at least an electronic card, connection means and an energy-storage device, said first opening being provided in the upper part with a housing at the rear whereof are arranged means for connecting the case and wherein at least the upper part of the box is inserted to enable the tight connection thereof with said case.
A method for vibration analysis, wherein vibrations occurring during the use of a component, in the testing of a component and during the processing of a workpiece by chipping, welding, forming, joining and/or separating are recorded and evaluated, characterised in that the vibration spectrum is recorded at different times or (quasi-)continuously for the generation of three-dimensional data based on time, on vibration or sound frequency, and on vibration and/or sound amplitude, wherein the three-dimensional data are subjected to a three-dimensional evaluation, wherein the three-dimensional evaluation comprises a comparison of the three-dimensional data with three-dimensional reference data for determining divergences between the three-dimensional data and the three-dimensional reference data.
A method, for occupying an unlicensed band channel; the method comprising: receiving at a user equipment a power increase rate of a reference signal transmission unit of an unlicensed band channel determined by a secondary cell, Scell, base station; receiving at the user equipment, in the unlicensed band channel, a sub-frame of reference signal transmission unit level power distribution sent by the Scell base station; decoding at the user equipment the power increase rate; and using by the user equipment the power increase rate to process the sub-frame, wherein the power increase rate is either a zero-power channel state information reference signal, ZP-CSI-RS, power increase rate ρ C or a non-full buffer power increase rate ρ D, wherein the ZP-CSI-RS power increase rate pc is determined by ρ C =N/(N-N ZRS), wherein N is the total number of resource units, Res, in the reference signal transmission unit, and N ZRS is the number of REs scheduled for a ZP-CSI-RS in the reference signal transmission unit, wherein the non-full buffer power increase rate is determined by ρ D = E lower − E con N − N non, wherein E lower is an energy lower bound crossing the bandwidth of the reference signal transmission unit, E con is energy distributed by the reference signal transmission unit in conventional power distribution, N non is the number of unutilized REs in the reference signal transmission unit and the number of REs scheduled for the ZP-CSI-RS in the reference signal transmission unit, and N is the total number of REs in the reference signal transmission unit.
A hard coating film, comprising: a supporting substrate; a first hard coating layer, formed on one side of the supporting substrate, having a first elastic modulus of 2,000 to 3,500 MPa; and a second hard coating layer, formed on another side of the supporting substrate, having a second elastic modulus of 2,000 to 3,500 MPa, with a difference between the first and the second elastic moduli set to be less than 500 MPa, wherein the elastic modulus is measured according to ASTM D882, wherein the first and the second hard coating layers independently comprise a photocurable crosslinking copolymer of a photocurable elastic polymer and a tri- to hexa-functional acrylate monomer, and inorganic microparticles dispersed in the photocurable crosslinking copolymer, wherein the photocurable elastic polymer is selected from the group consisting of polycaprolactone, a urethane acrylate polymer, a polyrotaxane, and a combination thereof, and the tri- to hexa-functional acrylate monomer includes selected from the group consisting of trimethylolpropane triacrylate (TMPTA), trimethylolpropane ethoxytriacrylate (TMPEOTA), glycerin propoxylated triacrylate (GPTA), pentaerythritol tetraacrylate (PETA), dipentaerythritol hexaacrylate (DPHA), and a combination thereof, wherein the first and the second hard coating layers have a thickness of 50 to 300 μm. a supporting substrate; a first hard coating layer, formed on one side of the supporting substrate, having a first elastic modulus of 2,000 to 3,500 MPa; and a second hard coating layer, formed on another side of the supporting substrate, having a second elastic modulus of 2,000 to 3,500 MPa, with a difference between the first and the second elastic moduli set to be less than 500 MPa, wherein the elastic modulus is measured according to ASTM D882, wherein the first and the second hard coating layers independently comprise a photocurable crosslinking copolymer of a photocurable elastic polymer and a tri- to hexa-functional acrylate monomer, and inorganic microparticles dispersed in the photocurable crosslinking copolymer, wherein the photocurable elastic polymer is selected from the group consisting of polycaprolactone, a urethane acrylate polymer, a polyrotaxane, and a combination thereof, and the tri- to hexa-functional acrylate monomer includes selected from the group consisting of trimethylolpropane triacrylate (TMPTA), trimethylolpropane ethoxytriacrylate (TMPEOTA), glycerin propoxylated triacrylate (GPTA), pentaerythritol tetraacrylate (PETA), dipentaerythritol hexaacrylate (DPHA), and a combination thereof, wherein the first and the second hard coating layers have a thickness of 50 to 300 μm.