mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network function service consumer entity, comprising: sending a request for retrieving at least two registration data sets related to a user equipment to a data management entity, wherein the request includes two or more corresponding registration data set names; and receiving a response from the data management entity, wherein the response comprises at least two requested registration data sets related to the user equipment; wherein the registration data set name includes at least one of: a registration data set name identifying session management function registration information; a registration data set name identifying access and mobility management function, AMF, 3rd generation partnership project, 3GPP, access registration information; a registration data set name identifying AMF Non 3GPP access registration information; a registration data set name identifying short message service function, SMSF, 3GPP access registration information; and a registration data set name identifying SMSF Non 3GPP access registration information. sending a request for retrieving at least two registration data sets related to a user equipment to a data management entity, wherein the request includes two or more corresponding registration data set names; and receiving a response from the data management entity, wherein the response comprises at least two requested registration data sets related to the user equipment; wherein the registration data set name includes at least one of: a registration data set name identifying session management function registration information; a registration data set name identifying access and mobility management function, AMF, 3rd generation partnership project, 3GPP, access registration information; a registration data set name identifying AMF Non 3GPP access registration information; a registration data set name identifying short message service function, SMSF, 3GPP access registration information; and a registration data set name identifying SMSF Non 3GPP access registration information. a registration data set name identifying session management function registration information; a registration data set name identifying access and mobility management function, AMF, 3rd generation partnership project, 3GPP, access registration information; a registration data set name identifying AMF Non 3GPP access registration information; a registration data set name identifying short message service function, SMSF, 3GPP access registration information; and a registration data set name identifying SMSF Non 3GPP access registration information.
Device for arranging one or more electrodes (20, 21) of a plasma filter unit in a housing, comprising 1.1 at least one electrode holder for holding the one or more electrodes (20, 21), and 1.2 at least one fastening element with 1.2.1. a fastening means for fastening the at least one electrode holder in the housing and 1.2.2. a shielding means for shielding the fastening means, 1.2.3. wherein the fastening means has a respective creep region to provide a creep distance of a predetermined minimum length (lmin), 1.2.4. wherein the fastening means is surrounded in each case at least in portions by a shielding means, 1.2.5. wherein the fastening means in the creep area has a predetermined minimum distance (d min) from the nearest shielding means, 1.2.6. wherein the fastening means is formed in each case as a fastening pin, and 1.2.7. wherein the shielding means is formed as a shielding sleeve, which surrounds the fastening means at least in portions. 1.1 at least one electrode holder for holding the one or more electrodes (20, 21), and 1.2 at least one fastening element with 1.2.1. a fastening means for fastening the at least one electrode holder in the housing and 1.2.2. a shielding means for shielding the fastening means, 1.2.3. wherein the fastening means has a respective creep region to provide a creep distance of a predetermined minimum length (lmin), 1.2.4. wherein the fastening means is surrounded in each case at least in portions by a shielding means, 1.2.5. wherein the fastening means in the creep area has a predetermined minimum distance (d min) from the nearest shielding means, 1.2.6. wherein the fastening means is formed in each case as a fastening pin, and 1.2.7. wherein the shielding means is formed as a shielding sleeve, which surrounds the fastening means at least in portions. 1.2.1. a fastening means for fastening the at least one electrode holder in the housing and 1.2.2. a shielding means for shielding the fastening means, 1.2.3. wherein the fastening means has a respective creep region to provide a creep distance of a predetermined minimum length (lmin), 1.2.4. wherein the fastening means is surrounded in each case at least in portions by a shielding means, 1.2.5. wherein the fastening means in the creep area has a predetermined minimum distance (d min) from the nearest shielding means, 1.2.6. wherein the fastening means is formed in each case as a fastening pin, and 1.2.7. wherein the shielding means is formed as a shielding sleeve, which surrounds the fastening means at least in portions.
Method for generating modified eyeglass frame manufacturing data comprising the following steps: a. providing a plurality of eyeglass frames, b. selecting one frame among the plurality of eyeglass frames, c. determining data relative to the selected frame, d. modifying the determined data whilst respecting at least one predetermined conception rule, so as to obtain modified data, and e. computing the modified data obtained by said modification so as to generate modified eyeglass frame manufacturing data, characterized in that: the conception rule of step d comprises keeping unchanged a frontal 2D projection of the selected frame; steps d and e are fully automated; and it further comprises at least one of the following: a step c1 consisting in providing an activity for which the modified eyeglass frame is intended; and the modified eyeglass frame manufacturing data allows the modified eyeglass frame to integrate an electronic compound. a. providing a plurality of eyeglass frames, b. selecting one frame among the plurality of eyeglass frames, c. determining data relative to the selected frame, d. modifying the determined data whilst respecting at least one predetermined conception rule, so as to obtain modified data, and e. computing the modified data obtained by said modification so as to generate modified eyeglass frame manufacturing data, the conception rule of step d comprises keeping unchanged a frontal 2D projection of the selected frame; steps d and e are fully automated; and it further comprises at least one of the following: a step c1 consisting in providing an activity for which the modified eyeglass frame is intended; and the modified eyeglass frame manufacturing data allows the modified eyeglass frame to integrate an electronic compound. a step c1 consisting in providing an activity for which the modified eyeglass frame is intended; and the modified eyeglass frame manufacturing data allows the modified eyeglass frame to integrate an electronic compound.
A method of fabricating a semiconductor structure, comprising: forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer encapsulating the quantum dot to create a coated quantum dot; and forming an additional insulator layer on the coated quantum dot using an Atomic Layer Deposition process, characterized in that the insulator layer encapsulates only a single nanocrystalline shell/nanocrystalline core pairing. forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer encapsulating the quantum dot to create a coated quantum dot; and forming an additional insulator layer on the coated quantum dot using an Atomic Layer Deposition process, characterized in that the insulator layer encapsulates only a single nanocrystalline shell/nanocrystalline core pairing.
A method for reducing overall damage of plants and plant parts as well as losses in harvested fruits or vegetables caused by insects, mites, nematodes and/or phytopathogens comprising the step of sequentially applying at least one biological control agent which is Paecilomyces lilacinus strain 251 (AGAL No. 89/030550) and at least one fungicide which is fluopyram and optionally at least one additional fungicide on the plant, plant parts, harvested fruits, vegetables and/or plant's locus of growth in a synergistically effective amount, wherein said sequentially applying comprises firstly applying said at least one fungicide and optionally the at least one fungicide on the plant or plant parts, and secondly applying said biological control agent to the same plant or plant parts.
A method for making a protein composition having small particle size from a starting material derived from an animal source, said method comprising: (a) mixing said starting material with water at room temperature or lower, (b) separating solid fraction from liquid fraction after mixing step (a), (c) incubating said solid fraction of step (b) with an enzyme at a temperature between about 48.9 °C and 60.0 °C (120 °F and 140 °F) for a time period between 1 hour and 3 hours, and (d) heating the mixture containing enzyme from step (c) to at least 82.2 °C (180 °F) for at least five minutes to fully cook the mixture and denature the enzyme and form a fully cooked slurry, (e) separating the fully cooked slurry of step (d) into solid and liquid fractions, (f) collecting said solid fraction to obtain said protein composition, (g) drying the solid fraction of step (f), and (h) processing the dried solids into a particle size of smaller than 100 μm (microns), wherein the enzyme is protease, and wherein the animal source is poultry. (a) mixing said starting material with water at room temperature or lower, (b) separating solid fraction from liquid fraction after mixing step (a), (c) incubating said solid fraction of step (b) with an enzyme at a temperature between about 48.9 °C and 60.0 °C (120 °F and 140 °F) for a time period between 1 hour and 3 hours, and (d) heating the mixture containing enzyme from step (c) to at least 82.2 °C (180 °F) for at least five minutes to fully cook the mixture and denature the enzyme and form a fully cooked slurry, (e) separating the fully cooked slurry of step (d) into solid and liquid fractions, (f) collecting said solid fraction to obtain said protein composition, (g) drying the solid fraction of step (f), and (h) processing the dried solids into a particle size of smaller than 100 μm (microns),
Gripper system comprising a gripper module carrier and a gripper module for holding workpieces, in particular containers or container preforms, the gripper module having a gripper base and two gripper arms with gripping elements for at least partially gripping around a holding region of containers or container preforms, the gripper arms being mounted on the gripper base such that they can pivot relative to one another, the gripper module being releasably connected to the gripper module carrier, wherein the gripper system further comprises a locking device for locking the gripper module to the gripper module carrier, wherein the locking device is movable into a locking position for locking the gripper module to the gripper module carrier, and wherein the locking device is movable into a release position for releasing the gripper module from the locking on the gripper module carrier, characterized in that the locking device comprises a tension lever being pivotable into the locking position and the release position for actuating the locking device.
An aerogel comprising: (a) an open-cell structure; and (b) a branched polyimide matrix, and wherein the matrix is not crosslinked, and the branched polyimide has a degree of branching of at least 0.5 branches per polyimide polymer chain, wherein the degree of branching is presented by the following equation: 2 Q T 3 − Q T + 3 Q M − 3 p where p is the extent of reaction, and Q T and Q M are parameters representing the fractions of monofunctional and trifunctional monomers at the beginning of the reaction according to the following equations: Q T = 3 N T N M + 2 N B + 3 N T Q M = N M N M + 2 N B + 3 N T where N T, N M and N B are the initial number of trifunctional, monofunctional, and bifunctional monomers, respectively. (a) an open-cell structure; and (b) a branched polyimide matrix, and wherein the matrix is not crosslinked, and the branched polyimide has a degree of branching of at least 0.5 branches per polyimide polymer chain, wherein the degree of branching is presented by the following equation: 2 Q T 3 − Q T + 3 Q M − 3 p
An abrasion resistant steel plate having a plate thickness of 4 mm or more, excellent weld toughness and excellent delayed fracture resistance, and having a composition consisting of by mass% 0.20 to 0.30% C, 0.05 to 1.0% Si, 0.40 to 1.2% Mn, 0.010% or less P, 0.005% or less S, 0.40 to 1.5% Cr, 0.005 to 0.025% Nb, 0.005 to 0.03% Ti, 0.1% or less Al, 0.01% or less N, optionally one or two kinds of components selected from a group consisting of 0.05 to 1.0% Mo, and 0.05 to 1.0% W, optionally one or two or more kinds of components selected from a group consisting of 1.5% or less Cu, 2.0% or less Ni, and 0.1% or less V, optionally one or two or more kinds of components selected from a group consisting of 0.008% or less REM, 0.005% or less Ca, and 0.005% or less Mg, and Fe and unavoidable impurities as a balance, wherein hardenability index DI* expressed by a formula is 45 or more, and a base phase of the microstructure is formed of martensite. DI * = 33.85 × 0.1 × C 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo + 1 × 1.75 × V + 1 × 1.5 × W + 1 wherein the respective element symbols are contents in mass% of the elements.
A peptide which consists of i) LGTFLK (SEQ ID NO:19) or LGTFLKA (SEQ ID NO: 21) ii) or a sequence according to SEQ ID NO: 19 or 21 wherein the N-terminus is in the form of an acetyl group, and/or the C-terminus is in the form of an amide group; and wherein all the amino acids are in D configuration. i) LGTFLK (SEQ ID NO:19) or LGTFLKA (SEQ ID NO: 21) ii) or a sequence according to SEQ ID NO: 19 or 21 wherein the N-terminus is in the form of an acetyl group, and/or the C-terminus is in the form of an amide group;
A device for liquid distribution, comprising a nozzle rotatable or pivotable about a vertical axis and an inlet, wherein the inlet is provided with a connection for liquid-tight coupling with a fire hose, and the nozzle is adapted to eject the water supplied via the connection, and further comprising a support arrangement connected to the inlet and comprising a first support region and a second support region, wherein in a plan view the position of the axis, the position of the first support region and the position of the second support region together form a triangular arrangement, and a free space is located between the support regions (11A, 11B), the design of the support arrangement as a bracket with two bracket arms on which the support regions (11A, 11B) are located, the bracket arms being designed to each encompass a partial circumference of a tree trunk, characterised in in that a connecting element is formed at each of the free ends of the bracket arms and a further element is fastened to the connecting elements, which element connects the two ends of the bracket arms to one another, and wherein the further element is a webbing strap which, in use, is looped around the rear side of the tree trunk.
A bispecific, antigen-binding tandem diabody specific to human CD33 and human CD3, wherein said tandem diabody comprises a first polypeptide and a second polypeptide, each polypeptide having at least four variable chain domains linked one after another, wherein each polypeptide comprises (i) a variable heavy chain domain specific to human CD33; (ii) a variable light chain domain specific to human CD33; (iii) a VH domain specific for human CD3, and (iv) a VL domain specific for human CD3, wherein each polypeptide comprises a combination of four variable chain domains selected from the group consisting of (a) SEQ ID NOs: 3, 13, 64 and 68; (b) SEQ ID NOs: 2, 12, 64 and 68; (c) SEQ ID NOs: 4, 14, 64 and 68; (d) SEQ ID NOs: 5, 15, 64 and 68; (e) SEQ ID NOs: 6, 16, 64 and 68; or (f) SEQ ID NOs: 9, 19, 64 and 68; and wherein in each polypeptide, the four variable chain domains are linked with one after another by peptide linkers L1, L2 and L3 in the order of: VL -L1-VH -L2-VL -L3-VH; VH -L1-VL -L2-VH -L3-VL; VL -L1-VH -L2-VL -L3-VH(CD3 3); or VH -L1-VL -L2-VH -L3-VL. (i) a variable heavy chain domain specific to human CD33; (ii) a variable light chain domain specific to human CD33; (iii) a VH domain specific for human CD3, and (iv) a VL domain specific for human CD3, (a) SEQ ID NOs: 3, 13, 64 and 68; (b) SEQ ID NOs: 2, 12, 64 and 68; (c) SEQ ID NOs: 4, 14, 64 and 68; (d) SEQ ID NOs: 5, 15, 64 and 68; (e) SEQ ID NOs: 6, 16, 64 and 68; or (f) SEQ ID NOs: 9, 19, 64 and 68; VL -L1-VH -L2-VL -L3-VH; VH -L1-VL -L2-VH -L3-VL; VL -L1-VH -L2-VL -L3-VH(CD3 3); or VH -L1-VL -L2-VH -L3-VL.
A method for blow moulding containers wherein, after having been conditioned thermally in a blow mold along a transport path in the vicinity of a heating section, a preform made of thermoplastic material is molded by the action of blowing pressure to form the container and wherein, at least along a part of its transport path in the vicinity of the heating section, the preform is provided with a temperature profile by at least one heating unit (45, 62) which is provided with at least one tubular radiant heater, wherein the temperature profile extends in a longitudinal direction of the preform, characterised in that heating units with a plurality of tubular radiant heaters for the generation of a basic temperature in the preforms and heating units with a tubular radiant heater for the generation of the temperature profile in the preforms are arranged along the heating section, wherein the radiation emission of one of the radiant heaters of the heating unit that generates the temperature profile is emitted in different spatial directions at different intensities by a heating unit positioning the radiant heater, wherein the heating unit is positioned at the end of the heating section, i.e., downstream of the heating units for the generation of a basic temperature in the preforms as seen in the direction of transport of the preforms, wherein, for the purpose of influencing the propagation of the heating radiation, a focusing reflector is used in the heating unit that generates the temperature profile.
A respiratory monitoring device comprising an imaging device having a bore wall, the respiratory monitoring device comprising: a light source arranged to generate a projected shadow of an imaging subject positioned for imaging by the imaging device which is projected onto the bore wall of the imaging device; a video camera arranged to acquire video of the projected shadow on the bore wall; and an electronic processor programmed to extract a position of an edge of the projected shadow as a function of time from the acquired video, wherein the electronic processor is programmed to extract the position of the edge, E, of the projected shadow, S, in each frame of the video by averaging the position of the edge of the projected shadow along each of a plurality of parallel lines, L, that each intersect the edge of the projected shadow. a light source arranged to generate a projected shadow of an imaging subject positioned for imaging by the imaging device which is projected onto the bore wall of the imaging device; a video camera arranged to acquire video of the projected shadow on the bore wall; and an electronic processor programmed to extract a position of an edge of the projected shadow as a function of time from the acquired video, wherein the electronic processor is programmed to extract the position of the edge, E, of the projected shadow, S, in each frame of the video by averaging the position of the edge of the projected shadow along each of a plurality of parallel lines, L, that each intersect the edge of the projected shadow.
A post surgical breast dressing (10, 100) comprising - a front portion (12, 112) comprising a left cup (14, 114) and a right cup (16, 116) connected or connectable to one another; - at least one back strap for fitting around a subject's back, the back strap comprising, respectively, a left end and a right end; - a left trans-axial portion (22, 122) and right trans axial portion (24, 124) connecting the left end of the back strap and the right end of the back strap with the left cup and the right cup, respectively, the left trans-axial portion and the right trans-axial portion comprising, respectively, left in breast fold portion and right in breast fold portion and left under arm portion and right under arm portion; characterized in that at least one of the left under arm portion and right under arm portion comprise an external layer and an internal layer comprising an absorbing dressing; and wherein the external layer and internal layer are fixedly attached to each other. - a front portion (12, 112) comprising a left cup (14, 114) and a right cup (16, 116) connected or connectable to one another; - at least one back strap for fitting around a subject's back, the back strap comprising, respectively, a left end and a right end; - a left trans-axial portion (22, 122) and right trans axial portion (24, 124) connecting the left end of the back strap and the right end of the back strap with the left cup and the right cup, respectively, the left trans-axial portion and the right trans-axial portion comprising, respectively, left in breast fold portion and right in breast fold portion and left under arm portion and right under arm portion; characterized in that at least one of the left under arm portion and right under arm portion comprise an external layer and an internal layer comprising an absorbing dressing; and wherein the external layer and internal layer are fixedly attached to each other. characterized in that at least one of the left under arm portion and right under arm portion comprise an external layer and an internal layer comprising an absorbing dressing; and wherein the external layer and internal layer are fixedly attached to each other.
A curable composition comprising: a polyol, a polyamine, a polythiol, or a polycarbamate, or a combination of any thereof; a 1,1-di-activated vinyl compound, or a multifunctional form thereof, or a combination thereof, and an activator compound, wherein the activator compound comprises a tertiary amine and/or an ionic liquid. a polyol, a polyamine, a polythiol, or a polycarbamate, or a combination of any thereof; a 1,1-di-activated vinyl compound, or a multifunctional form thereof, or a combination thereof, and an activator compound, wherein the activator compound comprises a tertiary amine and/or an ionic liquid.