mhurhangee/ep-ind-claims huggingface dataset:
A ring seal assembly, comprising: a first seal seat; a second seal seat axially abutting the first seal seat; two seal rings (66a, 66b) disposed axially between the first seal seat and the second seal seat; and a pilot disposed at the first seal seat to radially locate the two seal rings (66a, 66b) during assembly of the ring seal assembly; wherein: the first seal seat includes the pilot extending from the first seal seat, the two seal rings (66a, 66b) being disposed radially outboard of the pilot; and the second seal seat having a second seat base suitable to be located at and rotatable with a rotating component of a gas turbine engine; wherein the pilot overlaps with the second seal seat such that the pilot is radially located and supported by a radially outboard surface of the second seat base; characterized in that the pilot includes a guide ramp so that the second seal ring is guided via the pilot, by engaging the guide ramp, into a correct installed radial position during assembly of the seal assembly, wherein the pilot is radially tapered with increasing axial length of the pilot. a first seal seat; a second seal seat axially abutting the first seal seat; two seal rings (66a, 66b) disposed axially between the first seal seat and the second seal seat; and a pilot disposed at the first seal seat to radially locate the two seal rings (66a, 66b) during assembly of the ring seal assembly; wherein: the first seal seat includes the pilot extending from the first seal seat, the two seal rings (66a, 66b) being disposed radially outboard of the pilot; and the second seal seat having a second seat base suitable to be located at and rotatable with a rotating component of a gas turbine engine; wherein the pilot overlaps with the second seal seat such that the pilot is radially located and supported by a radially outboard surface of the second seat base; characterized in that the pilot includes a guide ramp so that the second seal ring is guided via the pilot, by engaging the guide ramp, into a correct installed radial position during assembly of the seal assembly, wherein the pilot is radially tapered with increasing axial length of the pilot. the first seal seat includes the pilot extending from the first seal seat, the two seal rings (66a, 66b) being disposed radially outboard of the pilot; and the second seal seat having a second seat base suitable to be located at and rotatable with a rotating component of a gas turbine engine; wherein the pilot overlaps with the second seal seat such that the pilot is radially located and supported by a radially outboard surface of the second seat base; characterized in that the pilot includes a guide ramp so that the second seal ring is guided via the pilot, by engaging the guide ramp, into a correct installed radial position during assembly of the seal assembly, wherein the pilot is radially tapered with increasing axial length of the pilot.
A composition comprising an antibody or antibody fragment that immunospecifically binds to MHC class I polypeptide-related sequence A (MICA), wherein the antibody or antibody fragment comprises a heavy chain variable region (V H) and a light chain variable region (V L) and V H complementarity determining region 3 of SEQ ID NO: 158, and wherein the antibody or antibody fragment recognizes an epitope including amino acids 179 to 188 of SEQ ID NO:167.
A linkage anti-theft lock head, comprising a lock tube (16, 104), a lock core (2, 103), a brake bar (19, 127), a front tumbler (6, 108) with its return spring (20, 117), a rear tumbler with its return spring and a key (1, 101), provided with clearance fits between said front tumbler (6, 108) and the rear tumbler (9, 105) and the tumbler holes distributed axially on the lock core (2, 103), said brake bar (19, 127) is mounted axially along the lock core (2, 103) thereof, brake teeth of the brake bar (19, 127) engage with the tooth grooves of the front tumbler and the rear tumbler, characterized in that a mobile cam device is formed with the front tumbler (6, 108) and the rear tumbler acting as moving cams set oppositely, the brake bar (19, 127) acting as a driven member and the lock core (2, 103) acting as a rack, the brake teeth of the tooth grooves of the front tumbler (6, 108) and the rear tumbler are engaged to form a linkage engagement, and a brake groove is formed on the lock tube (6, 104) to engage with the brake bar (19, 127).
The use of polymers consisting of units of general formula or in which, independently of one another, A represents a linear or branched-chain alkylene group having 1 to 12, in particular 2 to 12, C atoms, L represents A or a group of general formula, in which Y 1 represents a linear or branched-chain alkylene group having 1 to 6, in particular 2 to 4, C atoms, Y 2 represents a linear or branched-chain alkylene group having 1 to 6, in particular 2 to 4, C atoms, x and z represent numbers from 0 to 8, wherein the sum of x + z is in the range of from 0 to 8.0, y represents a number in the range of from 2.0 to 40.0, R 1 represents H or an alkyl group having 1 to 4 C atoms, R 2 represents H or an alkyl group having 1 to 4 C atoms, and n represents a number in the range of from 2 to 20, for increasing the primary detergency of washing or cleaning agents when washing textiles or cleaning hard surfaces of stains. in which, independently of one another, A represents a linear or branched-chain alkylene group having 1 to 12, in particular 2 to 12, C atoms, L represents A or a group of general formula, in which Y 1 represents a linear or branched-chain alkylene group having 1 to 6, in particular 2 to 4, C atoms, Y 2 represents a linear or branched-chain alkylene group having 1 to 6, in particular 2 to 4, C atoms, x and z represent numbers from 0 to 8, wherein the sum of x + z is in the range of from 0 to 8.0, y represents a number in the range of from 2.0 to 40.0, R 1 represents H or an alkyl group having 1 to 4 C atoms, R 2 represents H or an alkyl group having 1 to 4 C atoms, and n represents a number in the range of from 2 to 20, for increasing the primary detergency of washing or cleaning agents when washing textiles or cleaning hard surfaces of stains.
A method for producing an olefin polymer, in which an olefin compound is polymerized in the presence of a Lewis acid catalyst at a temperature of 0°C or lower to obtain an olefin polymer, the method comprising: a feeding step of feeding a raw material liquid including the olefin compound to a reactor provided with a cooling unit; a polymerization step of polymerizing the olefin compound in the reactor to obtain a reaction liquid including the olefin polymer; a deactivation step of adding a deactivator to the reaction liquid taken out from the reactor to deactivate the Lewis acid catalyst; and a cooling energy recovery step of supplying the reaction liquid after the deactivation step to a cooling energy recovery unit to recover cooling energy from the reaction liquid, wherein an amount of the Lewis acid catalyst is 0.5 × 10 -3 to 1.0 × 10 -1 mol% based on a total amount of the olefin compound, wherein the olefin includes isobutene, and wherein the deactivator includes water or an alcohol compound. a feeding step of feeding a raw material liquid including the olefin compound to a reactor provided with a cooling unit; a polymerization step of polymerizing the olefin compound in the reactor to obtain a reaction liquid including the olefin polymer; a deactivation step of adding a deactivator to the reaction liquid taken out from the reactor to deactivate the Lewis acid catalyst; and a cooling energy recovery step of supplying the reaction liquid after the deactivation step to a cooling energy recovery unit to recover cooling energy from the reaction liquid, wherein an amount of the Lewis acid catalyst is 0.5 × 10 -3 to 1.0 × 10 -1 mol% based on a total amount of the olefin compound, wherein the olefin includes isobutene, and wherein the deactivator includes water or an alcohol compound.
A sun visor (5, 9) for a vehicle used by being engaged with a support section provided in a compartment of the vehicle, comprising: a sun visor main body configured to shield light; and a supplementary body slidably attached to the sun visor main body and slidable from a first position where the supplementary body overlaps the sun visor main body to a second position where the supplementary body is drawn out of the sun visor main body to shield the light in a wider area; characterized by further comprising: a plurality of through-holes penetrating the supplementary body with projections standing on peripheries of the through-holes, so as to have incident light partly pass through the through-holes. a sun visor main body configured to shield light; and a supplementary body slidably attached to the sun visor main body and slidable from a first position where the supplementary body overlaps the sun visor main body to a second position where the supplementary body is drawn out of the sun visor main body to shield the light in a wider area; a plurality of through-holes penetrating the supplementary body with projections standing on peripheries of the through-holes, so as to have incident light partly pass through the through-holes.
An apparatus for repeating signals, the apparatus comprising: a receive antenna for capturing a receive signal; processing circuitry (40; 70) for processing the receive signal to form a repeated signal; a transmit antenna for transmitting the repeated signal; the processing circuitry including: gain circuitry (42; 78) to provide gain in the repeated signal; decorrelation circuitry (44; 80) configured for modifying the repeated signal and including frequency shifting circuitry operable for creating a frequency shift in the repeated signal with respect to the receive signal to form a repeated signal that is frequency shifted and decorrelated from the receive signal; gain margin circuitry configured for calculating a gain margin for the apparatus utilizing the decorrelated receive and repeated signals (38, 37), the gain margin circuitry configured to compare a cross-correlation of the receive signal and the repeated signal with a cross-correlation of the receive signal and the repeated signal that is shifted by the negative of the frequency shift used to decorrelate the signal. a receive antenna for capturing a receive signal; processing circuitry (40; 70) for processing the receive signal to form a repeated signal; a transmit antenna for transmitting the repeated signal; the processing circuitry including: gain circuitry (42; 78) to provide gain in the repeated signal; decorrelation circuitry (44; 80) configured for modifying the repeated signal and including frequency shifting circuitry operable for creating a frequency shift in the repeated signal with respect to the receive signal to form a repeated signal that is frequency shifted and decorrelated from the receive signal; gain margin circuitry configured for calculating a gain margin for the apparatus utilizing the decorrelated receive and repeated signals (38, 37), the gain margin circuitry configured to compare a cross-correlation of the receive signal and the repeated signal with a cross-correlation of the receive signal and the repeated signal that is shifted by the negative of the frequency shift used to decorrelate the signal. gain circuitry (42; 78) to provide gain in the repeated signal; decorrelation circuitry (44; 80) configured for modifying the repeated signal and including frequency shifting circuitry operable for creating a frequency shift in the repeated signal with respect to the receive signal to form a repeated signal that is frequency shifted and decorrelated from the receive signal; gain margin circuitry configured for calculating a gain margin for the apparatus utilizing the decorrelated receive and repeated signals (38, 37), the gain margin circuitry configured to compare a cross-correlation of the receive signal and the repeated signal with a cross-correlation of the receive signal and the repeated signal that is shifted by the negative of the frequency shift used to decorrelate the signal.
A detachable earpiece auditory device, comprising: a housing having a sound outlet, a second opening, and a spring element (42, 44) positioned at the second opening; a speaker provided within the housing and comprising an electrically conducting speaker terminal (22, 24) at an outer surface of the speaker; characterized in comprising a connector comprising: a first insert part insertable into the second opening, an electrically conducting connector terminal (28, 30) positioned in the first part and arranged to obtain electrical contact with the electrically conducting speaker terminal (22, 24) so as to form a mating pair of a speaker terminal (22, 24) and a connector terminal, when the first part is inserted into the second opening, and a second insert part in operative contact with the spring element (42,44) so as to bias the speaker terminal (22, 24) against the connector terminal (28,30) with a predetermined bias force wherein the second part is adapted to engage with the spring element (42, 44) so as to bias the connector toward the housing. a housing having a sound outlet, a second opening, and a spring element (42, 44) positioned at the second opening; a speaker provided within the housing and comprising an electrically conducting speaker terminal (22, 24) at an outer surface of the speaker; a first insert part insertable into the second opening, an electrically conducting connector terminal (28, 30) positioned in the first part and arranged to obtain electrical contact with the electrically conducting speaker terminal (22, 24) so as to form a mating pair of a speaker terminal (22, 24) and a connector terminal, when the first part is inserted into the second opening, and a second insert part in operative contact with the spring element (42,44) so as to bias the speaker terminal (22, 24) against the connector terminal (28,30) with a predetermined bias force
A method for determining the optimum contact pressure between the printing roller and the central drum and between the inking roller and the printing roller in machines for flexographic printing, in which the printing roller and the inking roller are activated in translation by at least an electric motor (30, 40) along a nearing/distancing direction between a no-contact position and a contact position respectively with the central drum and the printing roller associated thereto, wherein the method comprises of: commanding the supply of an electric current to the electric motor (30, 40), in accordance with a reference value, corresponding to a value of the current which value is just sufficient to cause translation of the roller (22, 23) along the direction, to which a determined angular velocity of the electric motor (30, 40) corresponds; characterized in that the method comprises of: detecting, by means of an encoder (33, 43), a lag between said angular velocity of the electric motor (30, 40) and the actual angular velocity which sharply decreases at a moment of the first contact between the rollers; immediately halting the functioning of the electric motor (30, 40), following said lag; and measuring, via the encoder (33, 43), an exact linear distance travelled by the roller (22, 23) from the non contact position, to the position at which the halting of the electric motor (30, 40) occurs, so as to determine the optimum pressure between the rollers depending from the detected lag. commanding the supply of an electric current to the electric motor (30, 40), in accordance with a reference value, corresponding to a value of the current which value is just sufficient to cause translation of the roller (22, 23) along the direction, to which a determined angular velocity of the electric motor (30, 40) corresponds; characterized in that the method comprises of: detecting, by means of an encoder (33, 43), a lag between said angular velocity of the electric motor (30, 40) and the actual angular velocity which sharply decreases at a moment of the first contact between the rollers; immediately halting the functioning of the electric motor (30, 40), following said lag; and measuring, via the encoder (33, 43), an exact linear distance travelled by the roller (22, 23) from the non contact position, to the position at which the halting of the electric motor (30, 40) occurs, so as to determine the optimum pressure between the rollers depending from the detected lag. detecting, by means of an encoder (33, 43), a lag between said angular velocity of the electric motor (30, 40) and the actual angular velocity which sharply decreases at a moment of the first contact between the rollers; immediately halting the functioning of the electric motor (30, 40), following said lag; and measuring, via the encoder (33, 43), an exact linear distance travelled by the roller (22, 23) from the non contact position, to the position at which the halting of the electric motor (30, 40) occurs, so as to determine the optimum pressure between the rollers depending from the detected lag.
An appliance latch assembly comprising: a striker and a corresponding latch for receiving the striker, the striker and latch positionable on an appliance lid and appliance frame; a trap contacting the striker to move the trap from a first trap position to a second trap position as the striker is received by the latch and providing a surface holding the striker in the latch when the trap is in the second trap position; an electrically actuated lock actuable when the trap element is in the second position to hold the trap in the second trap position; an anti-tamper operator moving from a first operator position to a second operator position when the trap moves to the second operator position; a first electrical switch communicating with the lock to provide an indication that the lock is actuated to hold the trap in the second trap position; and a second electrical switch communicating with the anti-tamper operator to provide an indication that the anti-tamper operator is in the second operator position, characterized in that the trap contacts a first feature of the striker to move the trap from a first trap position to a second trap position as the striker is received by the latch, and the anti-tamper operator contacts a second feature of the striker different from said first feature to move from a first operator position to a second operator position. a striker and a corresponding latch for receiving the striker, the striker and latch positionable on an appliance lid and appliance frame; a trap contacting the striker to move the trap from a first trap position to a second trap position as the striker is received by the latch and providing a surface holding the striker in the latch when the trap is in the second trap position; an electrically actuated lock actuable when the trap element is in the second position to hold the trap in the second trap position; an anti-tamper operator moving from a first operator position to a second operator position when the trap moves to the second operator position; a first electrical switch communicating with the lock to provide an indication that the lock is actuated to hold the trap in the second trap position; and a second electrical switch communicating with the anti-tamper operator to provide an indication that the anti-tamper operator is in the second operator position,
A system for projecting light, the system comprising: a light generator (540, 542, 544) that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator (540, 542, 544); and an acousto-optical scanner (802, 1550), wherein the display device deflects the image light onto the acousto-optical scanner (802, 1550) and the acousto-optical scanner (802, 1550) deflects portions of the image light onto a plurality of diffractive optical elements, wherein each of the plurality of diffractive optical elements is configured to display portions of the image light at a depth plane, wherein the plurality of diffractive optical elements is stacked, and wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images. a light generator (540, 542, 544) that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator (540, 542, 544); and an acousto-optical scanner (802, 1550), wherein the display device deflects the image light onto the acousto-optical scanner (802, 1550) and the acousto-optical scanner (802, 1550) deflects portions of the image light onto a plurality of diffractive optical elements, wherein each of the plurality of diffractive optical elements is configured to display portions of the image light at a depth plane, wherein the plurality of diffractive optical elements is stacked, and wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images.
A method for enabling or disabling a carrier reception for a user equipment in a wireless network, the method comprising: receiving, by the user equipment, a carrier reception enable or disable command medium access control, MAC, control element using a reserved downlink logic channel ID value for a downlink shared channel; and transmitting, by the user equipment, an acknowledgment of the carrier reception enable or disable command MAC control element; wherein the MAC control element comprises: a plurality of bit fields (1205, 1210, 1220) corresponding with carrier identifiers, each of said plurality of bit fields designating whether a carrier corresponding with the carrier identifier of the bit field should be enabled or disabled. receiving, by the user equipment, a carrier reception enable or disable command medium access control, MAC, control element using a reserved downlink logic channel ID value for a downlink shared channel; and transmitting, by the user equipment, an acknowledgment of the carrier reception enable or disable command MAC control element; wherein the MAC control element comprises: a plurality of bit fields (1205, 1210, 1220) corresponding with carrier identifiers, each of said plurality of bit fields designating whether a carrier corresponding with the carrier identifier of the bit field should be enabled or disabled. a plurality of bit fields (1205, 1210, 1220) corresponding with carrier identifiers, each of said plurality of bit fields designating whether a carrier corresponding with the carrier identifier of the bit field should be enabled or disabled.