mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data in a multiple-antenna system, wherein the method is applied in a transmit diversity mode and comprises: determining, according to transmission quality of a system, the number of antennas to be turned off and turning-off time in a data transmission period; and during the turning-off time, turning off the determined number of antennas, turning on remaining antennas other than antennas that are turned off, and transmitting, through the remaining antennas, data to be transmitted; and during remaining time of the data transmission period excluding the turning-off time, turning on all antennas and transmitting, through all the antennas, the data to be transmitted; wherein the transmitting, through the remaining antennas, the data to be transmitted comprises: linearly combining the data to be transmitted which is on the antennas to be turned off and the data to be transmitted which is on the remaining antennas other than the antennas to be turned off, and allocating linearly combined data to the remaining antennas. determining, according to transmission quality of a system, the number of antennas to be turned off and turning-off time in a data transmission period; and during the turning-off time, turning off the determined number of antennas, turning on remaining antennas other than antennas that are turned off, and transmitting, through the remaining antennas, data to be transmitted; and during remaining time of the data transmission period excluding the turning-off time, turning on all antennas and transmitting, through all the antennas, the data to be transmitted; linearly combining the data to be transmitted which is on the antennas to be turned off and the data to be transmitted which is on the remaining antennas other than the antennas to be turned off, and allocating linearly combined data to the remaining antennas.
1. A pouch forming apparatus comprising: a die in which a forming space is formed to be recessed inward from a top surface thereof; a partition wall partitioning the forming space into first and second forming spaces; a stripper disposed above the die and descending to contact the die with the pouch film therebetween to fix the pouch film when the pouch film is seated on a top surface of the die; and an electromagnetic force generation part disposed above the forming space and generating electromagnetic force to apply the electromagnetic force to the forming space, wherein the electromagnetic force generation part is disposed above the first forming space, and the electromagnetic force generation part applies the electromagnetic force to the first forming space and then is moved to above the second forming space. a die in which a forming space is formed to be recessed inward from a top surface thereof; a partition wall partitioning the forming space into first and second forming spaces; a stripper disposed above the die and descending to contact the die with the pouch film therebetween to fix the pouch film when the pouch film is seated on a top surface of the die; and an electromagnetic force generation part disposed above the forming space and generating electromagnetic force to apply the electromagnetic force to the forming space, wherein the electromagnetic force generation part is disposed above the first forming space, and the electromagnetic force generation part applies the electromagnetic force to the first forming space and then is moved to above the second forming space.
Screw shaft for a mixing and kneading machine, in particular for continuous preparation processes, comprising a shaft bar which has a circular cross section and on the circumferential surface of which mutually spaced blade elements (22, 22', 22", 22'", 22 iv, 22 v) are arranged which extend outward from the circumferential surface of the shaft bar, the blade elements (22, 22', 22", 22'", 22 iv, 22 v) on the circumferential surface of the shaft bar being arranged, at least in a portion extending in the axial direction of the screw shaft, in three rows extending in the axial direction of the screw shaft, said portion extending in the axial direction of the screw shaft comprising no further blade elements (22, 22', 22", 22'", 22 iv, 22 v) other than the blade elements (22, 22', 22", 22'", 22 iv, 22 v) arranged in the three rows, characterized in that i) at least one of the blade elements (22, 22', 22", 22'", 22 iv, 22 v) of one of the rows is different from at least another of the blade elements (22, 22', 22", 22"', 22 iv, 22 v) of one of the other two rows in that it is shorter and/or narrower, and/or ii) the rows of blade elements (22, 22', 22", 22"', 22 iv, 22 v), when viewed in the cross section of the shaft bar, are distributed unevenly over the circumference defined by the outer circumferential surface of the shaft bar.
Encapsulated perfume composition comprising at least one aminoplast core-shell microcapsule dispersed in a suspending medium, the microcapsule comprising a perfume-containing core encapsulated in a shell, said shell comprising a network of cross-linked aminoplast resin, wherein 75-100 wt % of the resin comprises 50-90 wt %, preferably from 60-85 wt %, of a terpolymer and from 10-50 wt %, preferably from 10-25 wt %, of a polymeric stabilizer selected from the group consisting of acrylic copolymers bearing sulfonate groups, copolymers of acrylamide and acrylic acid, copolymers of alkyl acrylates and N-vinylpyrrolidone, sodium polycarboxylates, sodium poly(styrene sulfonate), vinyl and methyl vinyl ether - maleic anhydride copolymers, and ethylene, isobutylene or styrene - maleic anhydride copolymers; the terpolymer comprising: (a) from 20 - 35 wt %, preferably 22 - 30 wt % of moieties derived from at least one triamine, (b) from 30 - 60 wt %, preferably 40 - 55 wt % of moieties derived from at least one diamine, (c) from 20 - 35 wt %, preferably 22 - 30 wt % of moieties derived from the group consisting of alkylene and alkylenoxy moieties having 1 to 6 methylene units, preferably 1 to 4 methylene units and most preferably 1 methylene unit, wherein the terpolymer comprising the moieties a), b) and c) is a condensation product of an amino-aldehyde pre-condensate cross-linked with a diamine and wherein the microcapsule is a bilayer microcapsule. (a) from 20 - 35 wt %, preferably 22 - 30 wt % of moieties derived from at least one triamine, (b) from 30 - 60 wt %, preferably 40 - 55 wt % of moieties derived from at least one diamine, (c) from 20 - 35 wt %, preferably 22 - 30 wt % of moieties derived from the group consisting of alkylene and alkylenoxy moieties having 1 to 6 methylene units, preferably 1 to 4 methylene units and most preferably 1 methylene unit,
A method of synchronized signal block measurement, performed by a user equipment, UE, characterized by comprising: receiving auxiliary measurement information, which is transmitted by a network device and is used to assist the UE to perform synchronized signal block measurement; wherein the auxiliary measurement information is used to indicate transmission configuration information of synchronized signal blocks; wherein the auxiliary measurement information comprises: first indication information used to indicate pattern of synchronized signal blocks repetition in time-domain transmission resources; and determining quasi-co-location information of synchronized signal blocks according to the first indication information. receiving auxiliary measurement information, which is transmitted by a network device and is used to assist the UE to perform synchronized signal block measurement; wherein the auxiliary measurement information is used to indicate transmission configuration information of synchronized signal blocks; wherein the auxiliary measurement information comprises: first indication information used to indicate pattern of synchronized signal blocks repetition in time-domain transmission resources; and determining quasi-co-location information of synchronized signal blocks according to the first indication information.
A process for batchwise production of superabsorbent particles by polymerization of an aqueous monomer solution dispersed in a hydrophobic solvent, in at least two parallel stirred vessels, where the hydrophobic solvent has a solubility in water at 23°C of less than 5 g/100 g, wherein the at least two stirred vessels are operated with a time offset and the relative time difference in the startup of the reaction in any two stirred vessels that are successive in time is in the range from 50%/n to 150%/n of the batch time, where n is the number of parallel stirred vessels and the batch time is the time between the startup of the reaction until the startup of the subsequent reaction in the same stirred vessel.
A vehicle bumper structure comprising: a bumper cover arranged at an outermost side of a vehicle and extending in a vehicle width direction; a bumper reinforcing member disposed spaced apart from the bumper cover toward the inside of the vehicle, the bumper reinforcing member extending in the vehicle width direction; a load-sensing unit (32; 60; 70) for sensing an impact load, the load-sensing unit (32; 60; 70) arranged on an outside or inside surface in a vehicle longitudinal direction of the bumper reinforcing member; and a bumper shock-absorbing member (54; 72A1) arranged between the bumper cover and the bumper reinforcing member and extending in the vehicle width direction, characterized in that: said bumper shock absorbing member (54; 72A1) has a generally uniform thickness over the entire width of the bumper, and said vehicle bumper structure further comprises a load transfer member (56; 58; 64; 72A2) arranged between the bumper shock-absorbing member (54; 72A1) and the bumper reinforcing member or between the bumper cover and the bumper shock-absorbing member (28; 54), the load transfer member (56; 58; 64; 72A2) being harder than the bumper shock-absorbing member (54; 72A1), thicker in the vehicle longitudinal direction at the bumper center region in the vehicle width direction and thinner in the vehicle longitudinal direction or disappearing at the bumper corner regions so as to reduce variations in an output of the load-sensing unit (32; 60; 70) in the vehicle width direction. a bumper cover arranged at an outermost side of a vehicle and extending in a vehicle width direction; a bumper reinforcing member disposed spaced apart from the bumper cover toward the inside of the vehicle, the bumper reinforcing member extending in the vehicle width direction; a load-sensing unit (32; 60; 70) for sensing an impact load, the load-sensing unit (32; 60; 70) arranged on an outside or inside surface in a vehicle longitudinal direction of the bumper reinforcing member; and a bumper shock-absorbing member (54; 72A1) arranged between the bumper cover and the bumper reinforcing member and extending in the vehicle width direction, said bumper shock absorbing member (54; 72A1) has a generally uniform thickness over the entire width of the bumper, and said vehicle bumper structure further comprises a load transfer member (56; 58; 64; 72A2) arranged between the bumper shock-absorbing member (54; 72A1) and the bumper reinforcing member or between the bumper cover and the bumper shock-absorbing member (28; 54), the load transfer member (56; 58; 64; 72A2) being harder than the bumper shock-absorbing member (54; 72A1), thicker in the vehicle longitudinal direction at the bumper center region in the vehicle width direction and thinner in the vehicle longitudinal direction or disappearing at the bumper corner regions so as to reduce variations in an output of the load-sensing unit (32; 60; 70) in the vehicle width direction.
A grease composition containing base oil, a thickener, and an additive, wherein said thickener is a urea compound shown by a chemical formula: wherein in the chemical formula, R 7 denotes a divalent hydrocarbon group whose carbon number is 6 to 15. R 6 and R 8 denote monovalent hydrocarbon groups each containing an aromatic ring. R 6 and R 8 are the same group or different groups, wherein the content of said thickener is 3 to 40 parts by weight per 100 parts by weight of said base oil and said thickener, wherein a worked penetration, measured according to JIS K 2220, of said grease composition is 200 to 350, wherein said additive contains at least one kind selected from among a phosphite ester shown by a chemical formula or a phosphite ester shown by a chemical formula, said phosphite ester being dimethyl phosphite, diethyl phosphite, trimethylphosphite or triethylphosphite, wherein a content of said phosphite ester is 0.5 to 4 parts by weight for 100 parts by weight which is a total of an amount of said base oil and that of said thickener, and wherein said grease composition contains neither phosphite esters other than said phosphite ester shown by said formula or by said formula nor phosphate esters having organic groups whose carbon number is not less than three wherein in the chemical formulas and, R 1, R 2, R 3, R 4, and R 5 denote a methyl group or an ethyl group. R 1 and R 2 are the same group or different groups. R 3, R 4, and R 5 are the same group or different groups.
A method for providing control data of an eye surgical laser of a treatment apparatus for the separation of a lenticule, wherein the method comprises the following steps performed by a control device: - ascertaining a lenticule geometry of the lenticule to be separated, which includes a lenticule height, from predetermined visual disorder data of a human or animal eye, wherein the lenticule geometry is defined by means of a refractive power value to be corrected and a lenticule diameter; - ascertaining a correction value for compensating for a deformation of the lenticule, which is generated by at least one contact element of the treatment apparatus, wherein the correction value is determined by means of at least one preceding measurement of the treatment apparatus; - ascertaining a deformation geometry of the lenticule, which includes a deformation height, wherein the deformation geometry is defined by means of the refractive power value and a deformation diameter, wherein the deformation diameter is calculated depending on the lenticule diameter and the correction value; - providing control data for controlling the eye surgical laser, which uses the deformation geometry for separating the lenticule, characterized in that the correction value is ascertained from a deviation of the lenticule height, which is expected according to the lenticule geometry, and an achieved lenticule height, wherein the achieved lenticule height is determined after an application of the treatment apparatus without use of the deformation geometry. - ascertaining a lenticule geometry of the lenticule to be separated, which includes a lenticule height, from predetermined visual disorder data of a human or animal eye, wherein the lenticule geometry is defined by means of a refractive power value to be corrected and a lenticule diameter; - ascertaining a correction value for compensating for a deformation of the lenticule, which is generated by at least one contact element of the treatment apparatus, wherein the correction value is determined by means of at least one preceding measurement of the treatment apparatus; - ascertaining a deformation geometry of the lenticule, which includes a deformation height, wherein the deformation geometry is defined by means of the refractive power value and a deformation diameter, wherein the deformation diameter is calculated depending on the lenticule diameter and the correction value; - providing control data for controlling the eye surgical laser, which uses the deformation geometry for separating the lenticule,
Quick-coupling system for detachable fastening of accessory equipment to a hydraulic excavator, wherein the quick-coupling system comprises an arm coupling part which can be arranged on an arm of the hydraulic excavator and can be hydraulically connected to a hydraulic system of the excavator, and at least one accessory device coupling part which can be arranged on an accessory equipment, wherein the arm coupling part comprises a hydraulically-actuatable locking element, which can be brought into engagement in a form-fitting manner with a form-fitting element of the accessory equipment coupling part, and wherein the arm coupling part comprises a first engagement element which is arranged so as to be spaced apart from the locking element, which engagement element can be brought into engagement, in a form-fitting manner, with a second engagement element of the accessory equipment coupling part arranged so as to be spaced apart from the form-fitting element, characterised in that the locking element is designed as a gripper, and in that the form-fitting element protrudes into a gripping region of the gripper when the first and the second engagement element are engaged with one another as intended, wherein the gripper is provided and can be used as a gripping tool, for example for accommodating tree trunks or rail tracks, if no accessory coupling part is connected to the arm coupling part.
Method for operating a vehicle, wherein, in the event of access from outside the vehicle to one or more vehicle components, the access is restricted or interrupted by way of a security apparatus inside the vehicle when a corresponding request has been received by the vehicle via a communication network, characterized in that the access from outside the vehicle comprises access to the one or more vehicle components via the communication network, wherein clearance for a parking space management server is set up for the access, wherein a clearance signal is transmitted to the parking space management server via the communication network, in that the parking space management server is able to access the one or more vehicle components via the communication network in accordance with the clearance.
Thermomechanical treatment method for a titanium alloy including between 23 and 27% niobium, between 0 and 10% zirconium, and between 0 and 1% oxygen, nitrogen and/or silicon, the ratios being expressed in atomic proportions, method wherein the following steps are performed: a) an increase in temperature of a sample of the alloy to a temperature higher than 900°C; b) a fast quench; c) a cold strain higher than a true strain of 3; d) an ageing treatment at a temperature comprised between 200 and 600°C, the ageing treatment time being comprised between 10 seconds and 10 minutes. a) an increase in temperature of a sample of the alloy to a temperature higher than 900°C; b) a fast quench; c) a cold strain higher than a true strain of 3; d) an ageing treatment at a temperature comprised between 200 and 600°C, the ageing treatment time being comprised between 10 seconds and 10 minutes.
A radio frequency identification, RFID, based inventory system (200, 300, 400), comprising: an RFID reader (202; 402, 404) configured to interrogate RFID tags associated with inventory, wherein the inventory comprises active inventory and replenishment inventory; shelving configured to hold the active inventory and the replenishment inventory; and an RFID barrier configured to inhibit interrogation of RFID tags associated with items of the active inventory until an item of the active inventory is picked and removed from proximity of the RFID barrier, thereby allowing for an RFID tag of the item picked from the active inventory to be interrogated, wherein the RFID based inventory system is configured to determine: a number of items in the replenishment inventory based on a number of responses indicative of a number of responding tags in the replenishment inventory; that an item has been picked from the active inventory based at least in part on the number of responses plus one response from a tag on the picked item; and that an item has been moved from the replenishment inventory to the active inventory based on the number of responses minus one response from a tag of the moved item. an RFID reader (202; 402, 404) configured to interrogate RFID tags associated with inventory, wherein the inventory comprises active inventory and replenishment inventory; shelving configured to hold the active inventory and the replenishment inventory; and an RFID barrier configured to inhibit interrogation of RFID tags associated with items of the active inventory until an item of the active inventory is picked and removed from proximity of the RFID barrier, thereby allowing for an RFID tag of the item picked from the active inventory to be interrogated, wherein the RFID based inventory system is configured to determine: a number of items in the replenishment inventory based on a number of responses indicative of a number of responding tags in the replenishment inventory; that an item has been picked from the active inventory based at least in part on the number of responses plus one response from a tag on the picked item; and that an item has been moved from the replenishment inventory to the active inventory based on the number of responses minus one response from a tag of the moved item. a number of items in the replenishment inventory based on a number of responses indicative of a number of responding tags in the replenishment inventory; that an item has been picked from the active inventory based at least in part on the number of responses plus one response from a tag on the picked item; and that an item has been moved from the replenishment inventory to the active inventory based on the number of responses minus one response from a tag of the moved item.
A user apparatus for use in a mobile communication system that supports D2D communication, comprising: measurement gap control means configured to transmit a configuration request of a measurement gap for monitoring a different frequency D2D signal to a base station of a connecting or residing cell; and D2D communication means configured to monitor the different frequency D2D signal by using the measurement gap that is configured from the base station, wherein the user apparatus is configured to transmit the configuration request including configuration information of the measurement gap to the base station of the connecting or residing cell, the configuration information being based on D2D resource configuration information received from a different base station that operates on a frequency for D2D communication that is different from the frequency of the base station of the connecting or residing cell. measurement gap control means configured to transmit a configuration request of a measurement gap for monitoring a different frequency D2D signal to a base station of a connecting or residing cell; and D2D communication means configured to monitor the different frequency D2D signal by using the measurement gap that is configured from the base station, wherein the user apparatus is configured to transmit the configuration request including configuration information of the measurement gap to the base station of the connecting or residing cell,
A mobile device, comprising: electronics configured to operate the mobile device over multiple radio frequency, RF, bands, a Pi-shaped antenna consisting of a radiating stripline (IL1, IL2), a first arm and a second arm formed in a shape of greek symbol Pi, the first arm and the second arm separately corresponding to two legs of the shape of the greek symbol Pi, the first arm including a coupling component of the Pi-shaped antenna, wherein the coupling component is capacitively coupled to a connector of the mobile device to provide a first resonance over a first band of the multiple RF bands, wherein the second arm is coupled to the electronics via an impedance matching network to provide one or more second resonances over the multiple RF bands, and wherein the connector has a shell and the coupling component is capacitively coupled to the shell.