mhurhangee/ep-ind-claims huggingface dataset:
A dunnage device, comprising: a dunnage mechanism comprising first and second dunnage converting portions that have: an engaged condition, in which the converting portions are associated and configured for converting stock material into dunnage, and a dunnage handler configured for receiving the dunnage from the dunnage mechanism and including a first handler portion that has: a handling position in which the dunnage handler is configured for controlling the dunnage, and a release position, characterized in that the first and second dunnage converting portions further have a disengaged condition in which the converting portions are disabled from converting the stock into dunnage, and the first handler portion is associated with the dunnage mechanism such that movement of the first handler portion from the handling position to the release position causes the dunnage mechanism to change from the engaged condition to the disengaged position. a dunnage mechanism comprising first and second dunnage converting portions that have: an engaged condition, in which the converting portions are associated and configured for converting stock material into dunnage, and a dunnage handler configured for receiving the dunnage from the dunnage mechanism and including a first handler portion that has: a handling position in which the dunnage handler is configured for controlling the dunnage, and a release position, an engaged condition, in which the converting portions are associated and configured for converting stock material into dunnage, and a dunnage handler configured for receiving the dunnage from the dunnage mechanism and including a first handler portion that has: a handling position in which the dunnage handler is configured for controlling the dunnage, and a release position, a handling position in which the dunnage handler is configured for controlling the dunnage, and a release position,
A method for multiple access to a frequency band of a communication channel of a communication network with carrier sense and collision avoidance, said frequency band being divided into a set of sub-bands of the communication channel, each sub-band comprising a set of sub-carriers, the method comprising at a source node: - detection of the availability of the communication channel; - subsequent to detection of the availability of the communication channel, modification of a value of a backoff counter; and the method being characterized in that it also comprises at the source node, when the value of the backoff counter reaches a predetermined value, the transmission to a destination node of a message requesting authorisation to send data on all the sub-bands the communication channel (RTS NS0, RTS NS1, RTS NS2), said transmission being performed on one or more sub-bands (SBi, SB1, SB0) forming a sub-set of said set of sub-bands of the communication channel. - detection of the availability of the communication channel; - subsequent to detection of the availability of the communication channel, modification of a value of a backoff counter; and
An adhesion chain for wheel of a motor vehicle, comprising an adhesion tread intended to be in contact with at least the tread of the wheel concerned, and kept in place by means of respectively external and internal tensioning cables, said adhesion tread consisting of a net made from textile material, characterized in that said net consists of cords prepared by knitting, said cords also being joined together by knitting so as to define the meshes of said net, and in that the cords include a reinforcing core made from a high-modulus material.
A system for lubrication of the cylinder of a large slow-running internal combustion engine, the lubrication system comprising a plurality of lubricant injectors of which each one is connected via one of a corresponding plurality of lubricant supply lines to a lubricant pump unit, wherein the injectors have an injection pressure level at which the injectors are activated for ejecting lubricant; wherein each of the plurality of lubricant supply lines is connected to an upstream side of one of a corresponding plurality of overpressure relief valves for opening the overpressure relief valve when the pressure in the corresponding lubricant supply line exceeds a predetermined overpressure relief level which is above the injection pressure level; wherein the downstream sides of all overpressure relief valves are connected to a common overpressure detection device (17, 19, 26), wherein the overpressure detection device (17, 19, 26) is configured for giving a signal when a pressure in any one of the plurality of lubricant supply lines exceeds the predetermined overpressure relief level, characterised in that the overpressure relief valves are provided remotely from the lubricant pump unit and are communicating only by pipes (9, 15) via the lubricant supply lines to the lubricant pump unit.
Bending device for bending a wire (11, 12) for a lattice truss welding machine, wherein the device comprises two clamping units (2, 3) for clamping the wire (11, 12), wherein a first clamping unit is provided fixed in position in the direction of a bending section and a second clamping unit is provided to be displaceable parallel to the bending section, wherein the bending section in an advancing direction of the wire (11, 12) is parallel to a longitudinal axis of the bent wire (11, 12), wherein the bending device comprises a bending punch, wherein the bending device has a bending surface (16, 17) over which the wire (11, 12) runs during the bending process, wherein the bending punch is provided between the first and the second clamping unit, wherein the bending punch can be secured pivotably at a second end to a machine frame of the lattice truss welding machine, wherein a displacement unit is provided which is connected movably by means of a pivot arm to a first end of the bending punch, characterised in that the bending surface (16, 17), over which the wire (11, 12) runs, is provided on the pivot arm offset relative to a longitudinal axis of the bending punch.
Medicament delivery device comprising: - a generally tubular distal housing part having opposite proximal and distal ends, wherein third mechanically coded interface means are arranged on its proximal end; - a generally tubular proximal housing part having opposite proximal and distal ends and being releasibly connected to said distal housing part, wherein with fourth mechanically coded interface means are arranged on its distal end; - a medicament container having a slidable stopper, wherein said container is arranged to be positioned within said proximal housing part; - a plunger rod arranged within said distal housing; - drive means arranged within said distal housing and being operably connected to said plunger rod for driving said plunger rod and thereby said stopper towards the proximal end of the device; said device further comprises an interface member fixedly connected to said medicament container and having a sleeve-formed configuration and comprising first and second mechanically coded interface means arranged to match and interact with the third and the fourth mechanically coded interface means when the distal and the proximal housing parts are connected to each other; wherein said interface member provides a first indication that said medicament container is correct to connect to said proximal housing part, and wherein said interface member provides a second indication that a medicament container assembly comprising the medicament container with the interface member is correct to connect to said distal housing part. - a generally tubular distal housing part having opposite proximal and distal ends, wherein third mechanically coded interface means are arranged on its proximal end; - a generally tubular proximal housing part having opposite proximal and distal ends and being releasibly connected to said distal housing part, wherein with fourth mechanically coded interface means are arranged on its distal end; - a medicament container having a slidable stopper, wherein said container is arranged to be positioned within said proximal housing part; - a plunger rod arranged within said distal housing; - drive means arranged within said distal housing and being operably connected to said plunger rod for driving said plunger rod and thereby said stopper towards the proximal end of the device;
Fitting for sealed connection to a tubular end, in particular of a tube, - having an outer tubular fitting body and - having an inner tubular fitting body, - wherein the outer fitting body comprises an outer support section, consisting at least partially of plastic, for insertion into the tubular end, - wherein the inner fitting body comprises an inner support section, consisting at least partially of metal, for insertion into the tubular end, - wherein the inner support section is at least partially arranged inside the outer support section, - wherein the inner circumferential surface of the outer support section and the outer circumferential surface of the inner support section are sealed against one another in sections (24a, 24b, 24c), and - wherein at least one cavity (28a, 28b) is formed between the inner circumferential surface of the outer support section and the outer circumferential section surface of the inner support section, characterised in that at least one radially outward elevation (32a, 32b) is provided on the outer circumferential surface of the outer support section, particularly in the form of a profiling, which is arranged at least partially in the region of the at least one cavity (28a, 28b). - having an outer tubular fitting body and - having an inner tubular fitting body, - wherein the outer fitting body comprises an outer support section, consisting at least partially of plastic, for insertion into the tubular end, - wherein the inner fitting body comprises an inner support section, consisting at least partially of metal, for insertion into the tubular end, - wherein the inner support section is at least partially arranged inside the outer support section, - wherein the inner circumferential surface of the outer support section and the outer circumferential surface of the inner support section are sealed against one another in sections (24a, 24b, 24c), and - wherein at least one cavity (28a, 28b) is formed between the inner circumferential surface of the outer support section and the outer circumferential section surface of the inner support section, characterised in that
A method of performing a quantum gate operation in an ion trap quantum computing system, the ion trap quantum computing system comprising a quantum processor comprising an ion chain including a plurality of trapped ions, each trapped ion having two hyperfine states, a classical computer, a system controller, and one or more lasers controlled by the system controller to emit a first Raman laser beam and a second Raman laser beam, which is provided to the ion chain in the quantum processor, the method comprising: identifying, using the classical computer, one or more error mechanisms that cause a quantum computational error in a quantum gate operation on a first trapped ion of the ion chain, wherein the quantum gate operation is performed by applying, by the system controller, a first Raman laser beam and a second Raman laser beam that are configured to cause a Raman transition in the first trapped ion in the ion chain and a coupling between the first trapped ion and one or more axial motional modes of the ion chain; measuring, by the system controller, a temperature of an axial motional mode of the ion chain; computing, by the classical computer, a first amplitude of the first Raman laser beam, and a second amplitude of the second Raman laser beam, based on the measured temperature of the axial motional mode of the ion chain, to suppress errors due to the identified one or more error mechanisms; and suppressing the errors due to the identified one or more error mechanisms, by applying, by the system controller, the first Raman laser beam having the computed first amplitude and the second Raman laser beam having the computed second amplitude on the first trapped ion to perform the quantum gate operation on the first trapped ion. identifying, using the classical computer, one or more error mechanisms that cause a quantum computational error in a quantum gate operation on a first trapped ion of the ion chain, wherein the quantum gate operation is performed by applying, by the system controller, a first Raman laser beam and a second Raman laser beam that are configured to cause a Raman transition in the first trapped ion in the ion chain and a coupling between the first trapped ion and one or more axial motional modes of the ion chain; measuring, by the system controller, a temperature of an axial motional mode of the ion chain; computing, by the classical computer, a first amplitude of the first Raman laser beam, and a second amplitude of the second Raman laser beam, based on the measured temperature of the axial motional mode of the ion chain, to suppress errors due to the identified one or more error mechanisms; and suppressing the errors due to the identified one or more error mechanisms, by applying, by the system controller, the first Raman laser beam having the computed first amplitude and the second Raman laser beam having the computed second amplitude on the first trapped ion to perform the quantum gate operation on the first trapped ion.
A bioactive agent delivery particle comprising a lipid binding polypeptide, a lipid bilayer, and wherein the lipid bilayer includes a lipid with one or more bound bioactive agents, wherein the interior of the lipid bilayer comprises a hydrophobic region and the lipid with one or more bioactive agents is incorporated into the hydrophobic region of the lipid bilayer, and wherein the particle does not comprise an aqueous core, and wherein the particle is disc-shaped with a discoidal lipid bilayer circumscribed by amphipathic α-helices and/or β sheets of the lipid binding polypeptide, which are associated with hydrophobic surfaces of the bilayer around the periphery of the particle.
FcRn binding polypeptide, comprising an FcRn binding motif BM, which motif consists of the amino acid sequence EX 2 X 3 X 4 AX 6 X 7 EIR WLPNLX 16 X 17 X 18 QR X 21 AFIX 25 X 26 LX 28 X 29 wherein, independently from each other, X 2 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; X 3 is selected from A, D, E, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 4 is selected from A, D, E, F, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 6 is selected from A, E, F, G, H, I, K, Q, R, S and V; X 7 is selected from A, F, H, K, N, Q, R, S and V; X 16 is selected from N and T; X 17 is selected from F, W and Y; X 18 is selected from A, D, E and N; X 21 is selected from A, S, V and W; X 25 is selected from D, E, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 26 is selected from K and S; X 28 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; and X 29 is selected from D and R. X 2 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; X 3 is selected from A, D, E, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 4 is selected from A, D, E, F, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 6 is selected from A, E, F, G, H, I, K, Q, R, S and V; X 7 is selected from A, F, H, K, N, Q, R, S and V; X 16 is selected from N and T; X 17 is selected from F, W and Y; X 18 is selected from A, D, E and N; X 21 is selected from A, S, V and W; X 25 is selected from D, E, G, H, I, K, L, N, Q, R, S, T, V, W and Y; X 26 is selected from K and S; X 28 is selected from A, D, E, F, H, I, K, L, N, Q, R, S, T, V, W and Y; and X 29 is selected from D and R.
A fishing reel comprising;. a frame,. a spool for winding a fishing line on the reel, said spool further comprising a passage and a central axis of rotation whereby connection to said frame is facilitated,. a drag unit co-axially connecting said frame and said spool, said drag unit further comprising a one-way bearing unit and a central axle structure. connecting said frame and said spool, and wherein a spool brake unit is connected to said axle structure, characterised in that said drag unit is arranged within a sleeve housing comprising said one-way bearing unit connected to said spool, said spool brake unit being connected to said frame and being interconnected through said axle wherein said axle is split into two sections (25, 24) each respectively connected to said spool and said frame said axle having a spring element irremovably secured there in-between said two sections (25, 24).. a frame,. a spool for winding a fishing line on the reel, said spool further comprising a passage and a central axis of rotation whereby connection to said frame is facilitated,. a drag unit co-axially connecting said frame and said spool, said drag unit further comprising a one-way bearing unit and a central axle structure. connecting said frame and said spool, and wherein a spool brake unit is connected to said axle structure,
A method for manufacturing a chloroprene polymer composition, the method comprising: a polymerization step of polymerizing chloroprene in the presence of at least one rosin acid component selected from the group consisting of a rosin acid and a rosin acid salt to obtain a chloroprene polymer composition containing a chloroprene polymer, wherein in the rosin acid component, a mass ratio B1/A1 of a total amount B1 of abietic acid, neoabietic acid, palustric acid, levopimaric acid, and salts thereof with respect to a total amount A1 of dehydroabietic acid, pimaric acid, isopimaric acid, dihydroabietic acid, and salts thereof is 0.10 to 1.20, and a toluene insoluble content of the chloroprene polymer is 50% by mass or more. a polymerization step of polymerizing chloroprene in the presence of at least one rosin acid component selected from the group consisting of a rosin acid and a rosin acid salt to obtain a chloroprene polymer composition containing a chloroprene polymer, wherein in the rosin acid component, a mass ratio B1/A1 of a total amount B1 of abietic acid, neoabietic acid, palustric acid, levopimaric acid, and salts thereof with respect to a total amount A1 of dehydroabietic acid, pimaric acid, isopimaric acid, dihydroabietic acid, and salts thereof is 0.10 to 1.20, and a toluene insoluble content of the chloroprene polymer is 50% by mass or more.
A multi-band antenna array for a wireless communications device, the multi-band antenna array comprising: three loop antennas (105, 125, 145), wherein: each loop antenna (105, 125, 145) is orthogonal to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) is arranged in an embedded manner relative to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) includes an associated tuning element (116, 136, 156) for tuning the corresponding loop antenna (105, 125, 145) to a desired resonant frequency; and each loop antenna (105, 125, 145) is connected to a respective RF I/O port, wherein: each loop antenna operates (105, 125, 145) in one frequency band and in one frequency mode; and each tuning element (116, 136, 156) is arranged to selectively tune each corresponding loop antenna (105, 125, 145) individually to a desired frequency based on a respective input signal (117, 137, 157) received by the respective loop antenna and configured to adjust the operating frequency of the respective loop antenna. three loop antennas (105, 125, 145), wherein: each loop antenna (105, 125, 145) is orthogonal to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) is arranged in an embedded manner relative to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) includes an associated tuning element (116, 136, 156) for tuning the corresponding loop antenna (105, 125, 145) to a desired resonant frequency; and each loop antenna (105, 125, 145) is connected to a respective RF I/O port, wherein: each loop antenna (105, 125, 145) is orthogonal to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) is arranged in an embedded manner relative to the others of the three loop antennas (105, 125, 145); each loop antenna (105, 125, 145) includes an associated tuning element (116, 136, 156) for tuning the corresponding loop antenna (105, 125, 145) to a desired resonant frequency; and each loop antenna (105, 125, 145) is connected to a respective RF I/O port, wherein: each loop antenna operates (105, 125, 145) in one frequency band and in one frequency mode; and each tuning element (116, 136, 156) is arranged to selectively tune each corresponding loop antenna (105, 125, 145) individually to a desired frequency based on a respective input signal (117, 137, 157) received by the respective loop antenna and configured to adjust the operating frequency of the respective loop antenna.
A semiconductor light source lighting circuit comprising: a switching regulator that generates a drive current (I LED) of a semiconductor light source using a switching element; and a control circuit that controls ON/OFF of the switching element so that the drive current (I LED) approximates to a target value, wherein the control circuit comprises: a comparator that compares the drive current (I LED) and the target value; an up/down counter that counts a digital value in a count direction determined by a comparison result of the comparator; a digital-analog converter that converts the digital value counted by the up/down counter into an analog signal; and a drive circuit that controls the ON/OFF of the switching element based on the analog signal which is obtained as a result of the conversion by the digital-analog converter, and wherein the up/down counter counts said digital value at a speed determined by an ON/OFF cycle of the switching element. a switching regulator that generates a drive current (I LED) of a semiconductor light source using a switching element; and a control circuit that controls ON/OFF of the switching element so that the drive current (I LED) approximates to a target value, wherein the control circuit comprises: a comparator that compares the drive current (I LED) and the target value; an up/down counter that counts a digital value in a count direction determined by a comparison result of the comparator; a digital-analog converter that converts the digital value counted by the up/down counter into an analog signal; and a drive circuit that controls the ON/OFF of the switching element based on the analog signal which is obtained as a result of the conversion by the digital-analog converter, and a comparator that compares the drive current (I LED) and the target value; an up/down counter that counts a digital value in a count direction determined by a comparison result of the comparator; a digital-analog converter that converts the digital value counted by the up/down counter into an analog signal; and a drive circuit that controls the ON/OFF of the switching element based on the analog signal which is obtained as a result of the conversion by the digital-analog converter, and wherein the up/down counter counts said digital value at a speed determined by an ON/OFF cycle of the switching element.