mhurhangee/ep-ind-claims huggingface dataset:
A compound of the formula: G - S - L, wherein G is wherein R is H, and wherein * represents the binding site between G and S, S is selected from the group consisting of and wherein # represents the binding site between S and L, and L is wherein Z is a radioactive detectable label, a radioactive therapeutic residue; or a salt thereof, wherein the radioactive detectable label is selected from the group consisting of 11 C, 40 K, 13 N, 15 O, 18 F, 75 Br, 76 Br, 82 Rb, 68 Ga, 64 Cu, 62 Cu, 89 Zr, 123 I, 124 I, 125 I, 131 I, 210 At, 211 At and 111 In, wherein the radioactive therapeutic residue is selected from the group consisting of 32 P, 60 Co, 64 Cu, 89 Sr, 90 Y, 177 Lu, 186 Re and 153 Sm. G is wherein R is H, and wherein * represents the binding site between G and S, S is selected from the group consisting of and wherein # represents the binding site between S and L, and L is wherein Z is a radioactive detectable label, a radioactive therapeutic residue; or a salt thereof, wherein the radioactive detectable label is selected from the group consisting of 11 C, 40 K, 13 N, 15 O, 18 F, 75 Br, 76 Br, 82 Rb, 68 Ga, 64 Cu, 62 Cu, 89 Zr, 123 I, 124 I, 125 I, 131 I, 210 At, 211 At and 111 In, wherein the radioactive therapeutic residue is selected from the group consisting of 32 P, 60 Co, 64 Cu, 89 Sr, 90 Y, 177 Lu, 186 Re and 153 Sm. wherein Z is a radioactive detectable label, a radioactive therapeutic residue; or a salt thereof, wherein the radioactive detectable label is selected from the group consisting of 11 C, 40 K, 13 N, 15 O, 18 F, 75 Br, 76 Br, 82 Rb, 68 Ga, 64 Cu, 62 Cu, 89 Zr, 123 I, 124 I, 125 I, 131 I, 210 At, 211 At and 111 In, wherein the radioactive therapeutic residue is selected from the group consisting of 32 P, 60 Co, 64 Cu, 89 Sr, 90 Y, 177 Lu, 186 Re and 153 Sm.
An automated method of wasting tips in an automated processing module, said processing module comprising at least three positions for holding sample racks (3a, 3b, 3c), wherein one of said positions is a tip waste rack position holding a tip waste rack, wherein said tip waste rack comprises tip receiving openings; at least two of said positions are sample rack positions (3b, 3c) for holding sample racks (4a, 4b), wherein at least one of said sample rack positions comprises a sample rack comprising sample tubes holding a liquid sample, wherein two of said sample rack positions (3b, 3c) are adjacent of each other; a pipette head for transferring the samples from the sample tubes to processing tubes using pipette tips; at least one rack transport mechanism, characterized in that the automated processing module further comprises a SWAP rack holding mechanism for temporarily holding a sample rack and the method comprising: a) detecting an error in at least one pipette tip used for transferring the samples from the sample tubes held in a sample rack to the processing tubes b) transferring a sample rack, if present, from the adjacent sample rack position to an empty SWAP rack holding mechanism within the processing module c) transferring the tip waste rack from the tip waste rack position to the adjacent sample rack position d) discarding the at least one pipette tip for which an error was detected by ejecting it from the pipette head into one of the tip receiving openings of the tip waste rack e) transferring the tip waste rack to the tip waste rack position f) transferring the sample rack from the SWAP rack holding mechanism to the adjacent sample rack position. a) detecting an error in at least one pipette tip used for transferring the samples from the sample tubes held in a sample rack to the processing tubes b) transferring a sample rack, if present, from the adjacent sample rack position to an empty SWAP rack holding mechanism within the processing module c) transferring the tip waste rack from the tip waste rack position to the adjacent sample rack position d) discarding the at least one pipette tip for which an error was detected by ejecting it from the pipette head into one of the tip receiving openings of the tip waste rack e) transferring the tip waste rack to the tip waste rack position f) transferring the sample rack from the SWAP rack holding mechanism to the adjacent sample rack position.
A method for producing polyisoprene comprising: polymerizing isoprene by using an isoprene-containing composition containing isoprene and an oxygen-containing neutral compound, and a polymerization catalyst composition containing a rare earth element compound and an organometallic compound, wherein: a compounding amount of the organometallic compound is 0.6 to 3.0 parts by mass per 100 parts by mass of the isoprene-containing composition.
A method of making a coating composition comprising: providing an aqueous fluoropolymer latex dispersion comprising at least one fluoropolymer comprising repeat units derived from VF, VDF, or a combination thereof; combining the aqueous fluoropolymer latex dispersion with 5 to 60 wt.-% solids of inorganic oxide nanoparticles forming a mixture; adjusting the pH of the mixture to at least 8; adding 0.1 to 10 wt.-% solids of a compound that reacts with the repeat units derived from VF and VDF to couple the fluoropolymer to the inorganic oxide nanoparticles. providing an aqueous fluoropolymer latex dispersion comprising at least one fluoropolymer comprising repeat units derived from VF, VDF, or a combination thereof; combining the aqueous fluoropolymer latex dispersion with 5 to 60 wt.-% solids of inorganic oxide nanoparticles forming a mixture; adjusting the pH of the mixture to at least 8; adding 0.1 to 10 wt.-% solids of a compound that reacts with the repeat units derived from VF and VDF to couple the fluoropolymer to the inorganic oxide nanoparticles.
A secondary battery comprising: a can including an opening portion; an electrode assembly disposed in the can; a cap assembly having a cap plate disposed at the opening portion of the can, and an electrode terminal insulated from the cap plate; a protection circuit module disposed over the cap assembly; and a current interrupting device (380, 381, 382) disposed between the cap plate and the protection circuit module, wherein the protection circuit module is in contact with the electrode terminal and the current interrupting device (380, 381, 382), and the current interrupting device (380, 381, 382) is not in contact with the electrode terminal, wherein the protection circuit module comprises a hole or groove (384, 385) positioned to correspond to the current interrupting device, and wherein the current interrupting device is disposed in the hole or in the groove. a can including an opening portion; an electrode assembly disposed in the can; a cap assembly having a cap plate disposed at the opening portion of the can, and an electrode terminal insulated from the cap plate; a protection circuit module disposed over the cap assembly; and a current interrupting device (380, 381, 382) disposed between the cap plate and the protection circuit module, wherein the protection circuit module is in contact with the electrode terminal and the current interrupting device (380, 381, 382), and the current interrupting device (380, 381, 382) is not in contact with the electrode terminal, wherein the protection circuit module comprises a hole or groove (384, 385) positioned to correspond to the current interrupting device, and wherein the current interrupting device is disposed in the hole or in the groove.
A non-oriented electrical steel sheet having a chemical composition comprising C: not more than 0.01 mass%, Si: not more than 6 mass%, Mn: 0.05-3 mass%, P: not more than 0.2 mass%, Al: not more than 2 mass%, N: not more than 0.005 mass%, S: not more than 0.01 mass%, Ga: not more than 0.0005 mass%, and optionally one or two of Sn: 0.01-0.2 mass% and Sb: 0.01-0.2 mass%, and optionally one or more selected from Ca: 0.0005-0.03 mass%, REM: 0.0005-0.03 mass% and Mg: 0.0005-0.03 mass%, and optionally one or more selected from Ni: 0.01-2.0 mass%, Co: 0.01-2.0 mass%, Cu: 0.03-5.0 mass% and Cr: 0.05-5.0 mass% in addition to the above chemical composition, and the remainder being Fe and inevitable impurities.
A subtitle encoding device comprising: controller circuitry configured to: receive a Portable Network Graphics, PNG, file, wherein, the PNG file comprises image data chunks and a palette table including a colour look-up table; convert the colour look up table into a Digital Video Broadcasting, DVB, colour look-up table definition segment, the conversion comprising deriving parameters of luminance, Y, and colour components, Cr and Cb, from RGB values; remove headers from the image data chunks and concatenate and store the remaining image data of the image data chunks with the headers removed as a pixel data block in a DVB object data segment, the object data segment indicating a progressive type scan object coding method; and encode the colour look-up table definition segment and the pixel data block for embedding in a DVB signal as a subtitle in an image, the pixel data block being encoded using a progressive type scan; wherein the PNG file is for progressive type scan and uses an indexed colour mode with a colour type of 3, has a bit depth of 8, is filtered with filter type 0 and is compressed using a DEFLATE algorithm receive a Portable Network Graphics, PNG, file, wherein, the PNG file comprises image data chunks and a palette table including a colour look-up table; convert the colour look up table into a Digital Video Broadcasting, DVB, colour look-up table definition segment, the conversion comprising deriving parameters of luminance, Y, and colour components, Cr and Cb, from RGB values; remove headers from the image data chunks and concatenate and store the remaining image data of the image data chunks with the headers removed as a pixel data block in a DVB object data segment, the object data segment indicating a progressive type scan object coding method; and encode the colour look-up table definition segment and the pixel data block for embedding in a DVB signal as a subtitle in an image, the pixel data block being encoded using a progressive type scan; wherein the PNG file is for progressive type scan and uses an indexed colour mode with a colour type of 3, has a bit depth of 8, is filtered with filter type 0 and is compressed using a DEFLATE algorithm
Connector for connecting two hollow-profile strips in insulating glazing units, comprising two plug-in legs, suitable for insertion into a hollow-profile strip, a connection region, which connects the two plug-in legs, comprising an outer surface, two pane contact surfaces, and an inner surface, wherein - a cavity is provided in the connector, which cavity is suitable for establishing, in an insulating glazing unit, a passage from the inner interpane space to the surroundings, and - the cavity has a first opening in the outer surface of the connection region, and the first opening is sealed with a gas-permeable and water-vapor-tight membrane, characterized in, that the connection region protrudes forward relative to the plug-in legs thus providing an enlarged connection region, wherein in the enlarged connection region the membrane is mounted in a recess in the connection region. - a cavity is provided in the connector, which cavity is suitable for establishing, in an insulating glazing unit, a passage from the inner interpane space to the surroundings, and - the cavity has a first opening in the outer surface of the connection region, and the first opening is sealed with a gas-permeable and water-vapor-tight membrane,
Machine tool for processing workpieces, in particular metal sheets, having a punching device and having a laser processing device, • wherein the punching device comprises a punch-side positioning device which moves a punching tool component of a punching tool into a defined position along an operating stroke axis of the punching device, • wherein the laser processing device has a laser processing unit and a laser accessory unit and • wherein an accessory unit positioning device moves the laser accessory unit with an activation movement into a defined operating position, characterised in that the punch-side positioning device defines the operating position of the laser accessory unit by the punch-side positioning device moving a stop for the laser accessory unit, which stop is active in the direction of the activation movement of the laser accessory unit, along the operating stroke axis of the punching device into a stop position which is defined in such a manner that the laser accessory unit which is supported on the stop in the direction of the activation movement assumes the operating position. • wherein the punching device comprises a punch-side positioning device which moves a punching tool component of a punching tool into a defined position along an operating stroke axis of the punching device, • wherein the laser processing device has a laser processing unit and a laser accessory unit and • wherein an accessory unit positioning device moves the laser accessory unit with an activation movement into a defined operating position,
A method for glazing a door blade comprising: - creating an opening in the door blade, the opening being delimited by an internal edge of the door blade, wherein the door blade comprises an insulation between a first surface layer and a second surface layer, and wherein the internal edge comprises at least a portion of the insulation, and wherein the door blade comprises a reinforcing layer positioned within the insulation, - placing a glazed unit in the opening such that a slot is formed between a periphery of the glazed unit and the internal edge of the door blade, - filling the slot at least partly with an adhesive, thus forming a joint between the periphery of the glazed unit and at least a portion of the internal edge of the door blade, - and - allowing the adhesive to cure, characterized in that, when filling the slot the insulation as well as the reinforcing layers come in to direct contact with the adhesive joint and wherein the joint adheres to the insulation and the reinforcing layer of the door blade. - creating an opening in the door blade, the opening being delimited by an internal edge of the door blade, wherein the door blade comprises an insulation between a first surface layer and a second surface layer, and wherein the internal edge comprises at least a portion of the insulation, and wherein the door blade comprises a reinforcing layer positioned within the insulation, - placing a glazed unit in the opening such that a slot is formed between a periphery of the glazed unit and the internal edge of the door blade, - filling the slot at least partly with an adhesive, thus forming a joint between the periphery of the glazed unit and at least a portion of the internal edge of the door blade, - and - allowing the adhesive to cure, characterized in that, when filling the slot the insulation as well as the reinforcing layers come in to direct contact with the adhesive joint and wherein the joint adheres to the insulation and the reinforcing layer of the door blade.
A method for protecting a communication between an electromagnetic transponder and a terminal, wherein the transmission of a polling request by the terminal is only allowed when the transponder is in mechanical contact or in quasi-mechanical contact with a terminal package, the package including a communication antenna, wherein: a) a first value (I i) of the current in an oscillating circuit of the terminal is periodically measured; b) a second value (I v/ I i) of a ratio between a no-load value (I v) of this current, stored when no transponder is in the field of the terminal, and the first value, is calculated; c) said second value is compared with a third value (I v /I i-1) of said ratio calculated in a previous iteration; and d) as long as the second and third values are not equal, steps a to c are repeated. a) a first value (I i) of the current in an oscillating circuit of the terminal is periodically measured; b) a second value (I v/ I i) of a ratio between a no-load value (I v) of this current, stored when no transponder is in the field of the terminal, and the first value, is calculated; c) said second value is compared with a third value (I v /I i-1) of said ratio calculated in a previous iteration; and d) as long as the second and third values are not equal, steps a to c are repeated.
An angular inclination mechanism of a sunshade comprising an outer container which develops substantially according to a longitudinal direction along an axis X-X between two opposite heads and which defines an internal cavity for housing a pipe rotatably constrained to the ends and adapted to wind a canvas which is moved through at least one articulated arm, said mechanism of rotation being characterized in that it comprises transmission means coupled and actuated by an actuation group, said transmission means being integral and externally associated to said outer container and being arranged in an intermediate position between said heads, said actuation group comprising a pin rotatably coupled to said transmission means and adapted to actuate a rotation of said outer container around the axis XX on an axial rotation of said pin.
A thermoelectric system comprising: a first dissimilar semiconductor element having a first end and a second end; a second dissimilar semiconductor element having a first end and a second end, the first end of the second dissimilar semiconductor element being electrically connected to the second end of the first dissimilar semiconductor element; a first terminal electrically connected to the first end of the first dissimilar semiconductor element; a second terminal electrically connected to the second end of the second dissimilar semiconductor element at a first node; and a third terminal electrically connected to a contact point located electrically between the first end of the first dissimilar semiconductor element and the first node through a switch, (16, 26, 36) characterised in that the switch controls impedance of the thermoelectric system when electric current is switched through the third terminal, and wherein the switch is constructed and adapted to be selectively opened or closed to provide a desired level of heating or cooling by the thermoelectric system. a first dissimilar semiconductor element having a first end and a second end; a second dissimilar semiconductor element having a first end and a second end, the first end of the second dissimilar semiconductor element being electrically connected to the second end of the first dissimilar semiconductor element; a first terminal electrically connected to the first end of the first dissimilar semiconductor element; a second terminal electrically connected to the second end of the second dissimilar semiconductor element at a first node; and a third terminal electrically connected to a contact point located electrically between the first end of the first dissimilar semiconductor element and the first node through a switch, (16, 26, 36) characterised in that the switch controls impedance of the thermoelectric system when electric current is switched through the third terminal, and wherein the switch is constructed and adapted to be selectively opened or closed to provide a desired level of heating or cooling by the thermoelectric system.
Aluminium alloy with 0.04 - 0.1 % by weight Si, 0.8 - 1.8 % by weight Cu, 1.5 - 2.3 % by weight Mg, 0.15 - 0.6 % by weight Ag, 7.05 - 9.2 % by weight Zn, 0.08 - 0.14 % by weight Zr, 0.02 - 0.08 % by weight Ti, max. 0.35 % by weight Mn, max. 0.1 % by weight Fe max. 0.06 % by weight Cr, optional 0.0015 - 0.008 % by weight Be, remainder aluminium together with unavoidable impurities. 0.04 - 0.1 % by weight Si, 0.8 - 1.8 % by weight Cu, 1.5 - 2.3 % by weight Mg, 0.15 - 0.6 % by weight Ag, 7.05 - 9.2 % by weight Zn, 0.08 - 0.14 % by weight Zr, 0.02 - 0.08 % by weight Ti, max. 0.35 % by weight Mn, max. 0.1 % by weight Fe max. 0.06 % by weight Cr, optional 0.0015 - 0.008 % by weight Be, remainder aluminium together with unavoidable impurities.
An antenna comprising: a first layer including a pattern so as to configure an inductor; a second layer forming capacitance that is electrically coupled with inductance of the inductor; and a third layer configuring an electric wall, characterised in that: the first layer is disposed between the third layer and the second layer; and the inductor includes a structure including a plurality of unit elements smaller than a certain wavelength of electromagnetic waves, the inductor being formed by a left-handed metamaterial, permittivity and permeability of the left-handed metamaterial being negative. a first layer including a pattern so as to configure an inductor; a second layer forming capacitance that is electrically coupled with inductance of the inductor; and a third layer configuring an electric wall, the first layer is disposed between the third layer and the second layer; and the inductor includes a structure including a plurality of unit elements smaller than a certain wavelength of electromagnetic waves, the inductor being formed by a left-handed metamaterial, permittivity and permeability of the left-handed metamaterial being negative.
A thermoregulation system of rotating metal cylinders in plants for the extrusion and conversion/transformation of plastic films, wherein heating elements/means are applied to each rotating cylinder, wherein said heating elements/means are infrared heating elements assembled directly inside the cylinder, said rotating cylinder consists of a metal tube rotating around a fixed axis, rigidly connected to two side plates, characterized in that said cylinder is cooled by means of environmental air collected through an air vent and insufflated by means of holes radially positioned on the closing flanges of the cylinder.
A concrete pile section (3, 4, 5) for a pile for deep foundation piling, during which piling the pile is arranged for being driven into the ground, wherein the concrete pile section (3, 4, 5) comprises a first and second end joint arranged at opposite axial ends of the concrete pile section (3, 4, 5), each end joint (21, 22) comprising an end plate comprising a support surface facing away from the concrete pile section (3, 4, 5), and a drive-fit connection member (7, 7', 7"; 9, 9', 9") arranged in a radially center position in relation to the end plate, characterized in that the drive-fit connection member (7, 7', 7"; 9, 9', 9") has an axially tapered shape arranged for drive-fit cooperation with a tube member, having a predetermined radial dimension.