mhurhangee/ep-ind-claims huggingface dataset:
A deposition apparatus for depositing evaporated material onto a substrate, comprising: - a deposition source for providing evaporated material; - a material deposition zone provided between the deposition source and the substrate; - a deposition rate measurement device provided in the material deposition zone; and - a movable shutter provided in the material deposition zone; wherein the movable shutter is configured to be moved in a first position, a second position and a third position, wherein the first position is a position in which evaporated material is blocked from being deposited on the substrate as well as blocked from being deposited on the deposition rate measurement device, wherein the second position is a position in which evaporated material is blocked from being deposited on the substrate and allowed to be deposited on the deposition rate measurement device, and wherein the third position is a position in which evaporated material is allowed to be deposited on the substrate as well as allowed to be deposited on the deposition rate measurement device. - a deposition source for providing evaporated material; - a material deposition zone provided between the deposition source and the substrate; - a deposition rate measurement device provided in the material deposition zone; and - a movable shutter provided in the material deposition zone; wherein the movable shutter is configured to be moved in a first position, a second position and a third position, wherein the first position is a position in which evaporated material is blocked from being deposited on the substrate as well as blocked from being deposited on the deposition rate measurement device, wherein the second position is a position in which evaporated material is blocked from being deposited on the substrate and allowed to be deposited on the deposition rate measurement device, and wherein the third position is a position in which evaporated material is allowed to be deposited on the substrate as well as allowed to be deposited on the deposition rate measurement device. wherein the first position is a position in which evaporated material is blocked from being deposited on the substrate as well as blocked from being deposited on the deposition rate measurement device, wherein the second position is a position in which evaporated material is blocked from being deposited on the substrate and allowed to be deposited on the deposition rate measurement device, and wherein the third position is a position in which evaporated material is allowed to be deposited on the substrate as well as allowed to be deposited on the deposition rate measurement device.
A synchronization unit for a gear changing transmission of a vehicle, with a friction ring and a synchronizer ring, wherein the friction ring comprises a conical friction ring body with an inner friction surface and an outer installation surface, which each bound the friction ring body in a radial circumferential direction drifting perpendicular to an axial friction ring axis, and wherein the inner friction surface at a presettable friction angle (α1) and the outer installation surface at a presettable installation angle (α2) each extend conically along the friction ring axis, and the synchronizer ring comprises a gear side, wherein the friction ring body comprises a limiting device for limiting a movement of the friction ring in the operating mode substantially along the friction ring axis, wherein the limiting device, when used as intended, is arranged at one end facing away from the gear side and / or the synchronizer ring comprises at least a displacement protection device for limiting a displacement of the friction ring) in the operating mode substantially along the friction ring axis, wherein the displacement protection device is arranged at the gear side, characterized in that the friction angle (α1) is different from the installation angle (α2).
A method for integrally joining two workpieces (11, 19) made of dissimilar thermoplastic polymers with the aid of a preferably thermoplastic polymer primer as a connection layer, including the following steps of: • providing a first workpiece made of a thermoplastic polymer and comprising a first edge layer, • providing a second workpiece made of a thermoplastic polymer and having a second edge layer, the thermoplastic polymer being dissimilar with respect to the thermoplastic polymer of the first workpiece, • preheating the first edge layer, • applying the primer to the preheated first edge layer, • bringing the first edge layer provided with the primer into contact with the second edge layer, • integrally bonding the first edge layer to the second edge layer, characterized in that during the application of the primer the preheated first edge layer has a temperature in the range between the extrapolated onset of the glass transition temperature for amorphous plastics materials, or of the initial peak temperature of the melting range for semi-crystalline plastics materials, and the initial stage temperature of the decomposition of the thermoplastic polymer of the first edge layer. • providing a first workpiece made of a thermoplastic polymer and comprising a first edge layer, • providing a second workpiece made of a thermoplastic polymer and having a second edge layer, the thermoplastic polymer being dissimilar with respect to the thermoplastic polymer of the first workpiece, • preheating the first edge layer, • applying the primer to the preheated first edge layer, • bringing the first edge layer provided with the primer into contact with the second edge layer, • integrally bonding the first edge layer to the second edge layer, characterized in that during the application of the primer the preheated first edge layer has a temperature in the range between the extrapolated onset of the glass transition temperature for amorphous plastics materials, or of the initial peak temperature of the melting range for semi-crystalline plastics materials, and the initial stage temperature of the decomposition of the thermoplastic polymer of the first edge layer.
A method of screening a breast tissue sample for malignancy, said method comprising determining the presence in said sample of the tumor marker protein ERMP1 SEQ ID NO:74 by means of an antibody against the amino acid region 1 to 204 of said ERMP1 protein.
A polypeptide comprising the amino acid sequence: G-F-G-C-X 5 -G-X 7 -X 8 -X 9 -X 10 -X 11 -D-X 13 -X 14 -C-H-X 17 -X 18 -C-X 20 -S-X 22 -X 23 -X 24 -X 25 -X 26 -G-G-X 29 -C-X 31 -K-X 33 -X 34 -X 35 -X 36 -C-K-C-X 40; wherein X 5 =N, R, Q, V, G, S, A, K or Y; X 7 = P, K or R; X 8 = W or R; X 9 = D, A, G, K, L, T, N, F, H, M, P, Q, S, V or Y; X 10 = E, G or S; X 11 = D, F, G, N, V, Y, H, K, L, P, S, T, W, I, M or R; X 13 = M, R, S, V, G, Y, L, F, T, W or K; X 14 = Q, R, L, F, G, H, S, K or Y; X 17 = N, R, I, Y, V, K, T, S, Q or H; X 18 = H or L; X 20 = K or R; X 22 = I, L or V; X 23 = K or R; X 24 = G, H, R, K or N; X 25 = Y or R; X 26 = K or R; X 29 = Y, F, R or W; X 31 = A, K, N, Q, T, S or Y; X 33 = G, K, Q, A or R; X 34 = G, K or R; X 35 = F or L; X 36 = V, L, M or T; X 40 = Y or YR; wherein the polypeptide has 1, 2, 3 or 4 amino acid differences compared to the amino acid sequence of SEQ ID NO:1 and has a higher antimicrobial activity compared to the polypeptide of SEQ ID NO:1. X 5 =N, R, Q, V, G, S, A, K or Y; X 7 = P, K or R; X 8 = W or R; X 9 = D, A, G, K, L, T, N, F, H, M, P, Q, S, V or Y; X 10 = E, G or S; X 11 = D, F, G, N, V, Y, H, K, L, P, S, T, W, I, M or R; X 13 = M, R, S, V, G, Y, L, F, T, W or K; X 14 = Q, R, L, F, G, H, S, K or Y; X 17 = N, R, I, Y, V, K, T, S, Q or H; X 18 = H or L; X 20 = K or R; X 22 = I, L or V; X 23 = K or R; X 24 = G, H, R, K or N; X 25 = Y or R; X 26 = K or R; X 29 = Y, F, R or W; X 31 = A, K, N, Q, T, S or Y; X 33 = G, K, Q, A or R; X 34 = G, K or R; X 35 = F or L; X 36 = V, L, M or T; X 40 = Y or YR; wherein the polypeptide has 1, 2, 3 or 4 amino acid differences compared to the amino acid sequence of SEQ ID NO:1 and has a higher antimicrobial activity compared to the polypeptide of SEQ ID NO:1.
A bale identification assembly for use with an agricultural baler used to take loose crop material from the ground into bales and compress a formed bale in a baling chamber with a reciprocating plunger, the baler having at least one crop sensor and/or bale sensor configures to sense a parameter of the crop material or former bale, a knotter system that uses a binding material to bind the formed bale and tie a knot in the binding material, and a discharge chute at the rear end of the bale-forming chamber through which a completed bale is discharged, the bale identification assembly comprising: a binding material used by the knotter system to bind the formed bale, characterised in that the bale identification assembly further comprises the binding material comprising identification tags at spaced intervals along the binding material; a read module with one or more antennas configured to transmit interrogator signals and also receives authentication replies from the identification tags; a position sensor configured to predict the passage of identification tags through the knotter mechanism; a bale length sensor (68,70) providing a signal representing bale length, with a control signal being sent to initiate the tying cycle when the forming bale reaches a length corresponding to a desired bale length; and a controller configured to receive signals from the bale length sensor (68,70) and the position sensor and to generate a signal to alter the length of the bale by causing an additional flake to be added to the bale by the plunger or the bale to be finished with fewer flakes to prevent the knotter system from tying a knot in the binding material such that the identification tag is positioned in a portion of the binding material used to form the knot. a binding material used by the knotter system to bind the formed bale, characterised in that the bale identification assembly further comprises the binding material comprising identification tags at spaced intervals along the binding material; a read module with one or more antennas configured to transmit interrogator signals and also receives authentication replies from the identification tags; a position sensor configured to predict the passage of identification tags through the knotter mechanism; a bale length sensor (68,70) providing a signal representing bale length, with a control signal being sent to initiate the tying cycle when the forming bale reaches a length corresponding to a desired bale length; and a controller configured to receive signals from the bale length sensor (68,70) and the position sensor and to generate a signal to alter the length of the bale by causing an additional flake to be added to the bale by the plunger or the bale to be finished with fewer flakes to prevent the knotter system from tying a knot in the binding material such that the identification tag is positioned in a portion of the binding material used to form the knot.
A method of quantifying the amount of at least two analytes A1 and A2 comprised in a sample, comprising: (a) adding at least one salt to at least a portion of the sample comprising the at least two analytes A1 and A2, (b) ionizing at least a portion of the sample according to (a) thereby forming an analyte flow comprising the analytes A1 and A2 in ionized form, (c) separating the ionized analytes A1 and A2 from each other by using at least one ion mobility separator, wherein the analyte flow according to (b) at least partially passes through the ion mobility separator, and (d) quantifying the amount of the separated ionized analytes obtained according to (c), wherein A1 is a pharmaceutically active compound C or derivative thereof and A2 is an epimer of C, and wherein A1 has an octanol-water partitioning coefficient (log P) value of greater than 0. (a) adding at least one salt to at least a portion of the sample comprising the at least two analytes A1 and A2, (b) ionizing at least a portion of the sample according to (a) thereby forming an analyte flow comprising the analytes A1 and A2 in ionized form, (c) separating the ionized analytes A1 and A2 from each other by using at least one ion mobility separator, wherein the analyte flow according to (b) at least partially passes through the ion mobility separator, and (d) quantifying the amount of the separated ionized analytes obtained according to (c), wherein A1 is a pharmaceutically active compound C or derivative thereof and A2 is an epimer of C, and
Use of a targeting group for increasing the absorption, half-life or bioavailability of a therapeutic compound, wherein the targeting group is conjugated to the therapeutic compound, wherein the therapeutic compound is a peptide or protein and wherein the targeting group comprises a vitamin D moiety selected from cholecalciferol, ergocalciferol and calcidiol.
A microwave resonator for a measuring device for measuring the thickness and/or moisture of strand-shaped fiber material continuously conveyed through a measurement chamber (6, 6') disposed in a resonator chamber (5, 5') of the microwave resonator (1, 1', 1", 1′′′) on a textile machine, particularly on a carding machine, on a drawing frame, or on a combing machine, wherein at least one electrically nonconductive material unit (10, 10', 10", 10"', 10"", 10""') is provided in the resonator chamber (5, 5') along the measurement chamber (6, 6'), said material unit comprising an inlet-side section (11, 11', 11", 11′′′, 11"", 11""') having a cross-sectional area that is variable in an intended travel direction of the fiber material and/or an outlet-side section (12, 12', 12", 12′′′, 12"", 12""') having a cross-sectional area that is variable in the intended travel direction of the fiber material, wherein the cross-sectional area of the inlet-side section (11, 11', 11", 11′′′, 11"", 11""') of the material unit (10, 10', 10", 10'", 10"", 10""') increases in the travel direction of the fiber material and/or the cross-sectional area of the outlet-side section (12, 12', 12", 12′′′, 12"", 12""') of the material unit (10, 10', 10", 10′′′, 10"", 10""') decreases in the travel direction of the fiber material characterized in that the material unit (10', 10", 10′′′, 10""' 10""') is implemented for covering a hollow space region of the resonator chamber (5, 5'). wherein the cross-sectional area of the inlet-side section (11, 11', 11", 11′′′, 11"", 11""') of the material unit (10, 10', 10", 10'", 10"", 10""') increases in the travel direction of the fiber material and/or the cross-sectional area of the outlet-side section (12, 12', 12", 12′′′, 12"", 12""') of the material unit (10, 10', 10", 10′′′, 10"", 10""') decreases in the travel direction of the fiber material characterized in that the material unit (10', 10", 10′′′, 10""' 10""') is implemented for covering a hollow space region of the resonator chamber (5, 5').
Method for regenerating a particle filter for a motor vehicle, comprising a combustion engine suppled with air by an inlet pipe and with fuel by a fuel pipe, an exhaust line emerging from said engine and discharging the gases produced by the combustion of the fuel in said engine, said exhaust line comprising said particle filter suitable for filtering the particles situated in the exhaust gases and, upstream of said filter, a catalytic oxidation device suitable for the catalytic oxidation of the unburnt substances in the exhaust gases, the method comprising a phase of regeneration by controlling the combustion of the soot, the combustion of the soot occurring at high temperature generated by a post-combustion of a fuel downstream of the engine, typically part of the fuel used by the engine, taking place in the catalytic oxidisation device, which is controlled using a target regeneration temperature, the target regeneration temperature being regulated by controlling the quantity of fuel for the post-combustion, characterised in that the method comprises a prior superheating phase that is controlled using a target superheating temperature higher than the target regeneration temperature.
A method for driving a staple into material, whereby the staple has at least two leg portions (33, 34) and is arranged within a channel, which is provided with an orifice outlet, the staple is accelerated by means of a fastener driving element which transfers energy to the staple so that the staple moves within the channel into the direction of the orifice outlet of the channel, the at least two leg portions of the staple which are intended to be introduced into the material have hereby a desired orientation which runs at least essential parallel to the longitudinal direction of the channel, the staple is on its way through the channel influenced by a force (50, 51) which is acted by force means (36, 37, 38, 39) in order to orientate the staple within the channel in a predetermined manner and/or to counteract a deformation of the staple, characterized in that the force means are arranged such that the force pulls the at least two leg portions of the staple in opposite directions.
A device comprising: a semiconductor (24; 204; 234; 264; 304); a substrate (26; 206; 236; 266; 306); and an interposer (22; 202; 232; 262; 302) attached between the semiconductor (24; 204; 234; 264; 304) and the substrate (26; 206; 236; 266; 306) to absorb stresses between the semiconductor (24; 204; 234; 264; 304) and the substrate (26; 206; 236; 266; 306), wherein the interposer (22; 202; 232; 262; 302) adheres to the semiconductor (24; 204; 234; 264; 304) via a first adhesive (208; 238; 268; 318) and the interposer (22; 202; 232; 262; 302) adheres to the substrate (26; 206; 236; 266; 306) via a second adhesive (210; 240; 270; 312). a semiconductor (24; 204; 234; 264; 304); a substrate (26; 206; 236; 266; 306); and an interposer (22; 202; 232; 262; 302) attached between the semiconductor (24; 204; 234; 264; 304) and the substrate (26; 206; 236; 266; 306) to absorb stresses between the semiconductor (24; 204; 234; 264; 304) and the substrate (26; 206; 236; 266; 306), wherein the interposer (22; 202; 232; 262; 302) adheres to the semiconductor (24; 204; 234; 264; 304) via a first adhesive (208; 238; 268; 318) and the interposer (22; 202; 232; 262; 302) adheres to the substrate (26; 206; 236; 266; 306) via a second adhesive (210; 240; 270; 312).
Motorized joint for connecting two carriers (2, 3) of a programmable automatic moving device, which carriers (2, 3) can be moved relative to one another, and which automatic moving device has a drive motor, a transmission which is connected downstream of the drive motor in drive terms, and a locking apparatus, the transmission having a drive element which is connected fixedly to an output shaft of the drive motor so as to rotate with it, at least one intermediate element which has a different rotational speed to the drive element, and an output element, the locking apparatus being configured and arranged to directly brake and to lock the intermediate element, the output element, or a component which is connected fixedly to the intermediate element or the output element so as to rotate with it, and the locking apparatus having a locking means which is connected in a frictionally locking manner to the intermediate element, the output element, or the component which is connected fixedly to the intermediate element or the output element so as to rotate with it, which locking means has at least one positively locking means which, in the switched-on state of the locking apparatus, interacts in a positively locking manner with a corresponding positively locking means which is fixed relative to a housing or a chassis so as to rotate with it, characterized in that there is an adjustable prestressing means or a prestressing means which has a cup spring or a corrugated and/or elastic and/or cylindrically curved strip, in particular a sheet metal strip, or a slotted ring for generating or for increasing the frictional force.
A communications system comprising: a plurality of cellular devices: a plurality of cellular base stations in communication with the plurality of cellular devices in a first frequency band; and a non-geostationary satellite comprising sensing circuitry operable in a second frequency band susceptible to interference from the first frequency band; each cellular base station comprising a controller and a transceiver cooperating therewith, the controller configured to store satellite path data for the non-geostationary satellite, determine when the satellite path data indicates interference would otherwise be experienced by the non-geostationary satellite, and implement an interference mitigation action in cooperation with associated cellular devices based upon the satellite path data indicating interference would otherwise be experienced by the non-geostationary satellite. a plurality of cellular base stations in communication with the plurality of cellular devices in a first frequency band; and a non-geostationary satellite comprising sensing circuitry operable in a second frequency band susceptible to interference from the first frequency band; each cellular base station comprising a controller and a transceiver cooperating therewith, the controller configured to store satellite path data for the non-geostationary satellite, determine when the satellite path data indicates interference would otherwise be experienced by the non-geostationary satellite, and implement an interference mitigation action in cooperation with associated cellular devices based upon the satellite path data indicating interference would otherwise be experienced by the non-geostationary satellite. store satellite path data for the non-geostationary satellite, determine when the satellite path data indicates interference would otherwise be experienced by the non-geostationary satellite, and implement an interference mitigation action in cooperation with associated cellular devices based upon the satellite path data indicating interference would otherwise be experienced by the non-geostationary satellite.
Contact line having at least two successive busbars (2, 3) which can be detachably connected together by means of a connector, having a first receiving part which is detachably attached to a first end of a first busbar, and having a second receiving part which is detachably attached to a second end of a second busbar, and a connecting part via which the first receiving part and the second receiving part can be detachably connected together in an operating state, wherein in the operating state in addition to the first receiving part the connecting part is electrically connected to the first busbar via a first conductive part and in addition to the second receiving part the connecting part is electrically connected to the second busbar via a second conductive part, and the first conductive part has a lower resistivity than the first receiving part and the second conductive part has a lower resistivity than the second receiving part, characterised in that the first and the second conductive parts (7, 8) can be detachably connected to the connecting part