mhurhangee/ep-ind-claims huggingface dataset:
A link identifier indication method, comprising: generating, by a first multi-link device, a radio frame, wherein the first multi-link device supports a plurality of links; and sending, by the first multi-link device, the radio frame, wherein the radio frame comprises link information of at least one link in the plurality of links, and link information of one link is used to indicate the link and corresponds to a link identifier of the link, characterized in that the radio frame comprises at least one multi-band element, and one multi-band element comprises link information of one link and a multi-band control field, wherein the multi-band control field comprises a multi-link indexing present field, and the multi-link indexing present field is used to indicate whether a multi-link indexing field exists in the multi-band element; and if the multi-link indexing present field indicates that the multi-link indexing field exists in the multi-band element, the multi-link indexing field comprises a link identifier of the link corresponding to the link information generating, by a first multi-link device, a radio frame, wherein the first multi-link device supports a plurality of links; and sending, by the first multi-link device, the radio frame, wherein the radio frame comprises link information of at least one link in the plurality of links, and link information of one link is used to indicate the link and corresponds to a link identifier of the link, characterized in that the radio frame comprises at least one multi-band element, and one multi-band element comprises link information of one link and a multi-band control field, wherein the multi-band control field comprises a multi-link indexing present field, and the multi-link indexing present field is used to indicate whether a multi-link indexing field exists in the multi-band element; and if the multi-link indexing present field indicates that the multi-link indexing field exists in the multi-band element, the multi-link indexing field comprises a link identifier of the link corresponding to the link information
An array substrate for a liquid crystal display panel, comprising a plurality of gate lines and data lines, wherein first pixel units (3100, 3300, 3500, 3700, 3900) and second pixel units (3200, 3400, 3600, 3800) are arranged alternately in a matrix which is defined by intersection of the plurality of gate lines provided in a row direction and the plurality of data lines provided in a column direction, such that the first pixel units are adjacent to only second pixel units in upper, lower, left and right directions and the second pixel units are adjacent to only first pixel units in upper, lower, left and right directions, wherein each of the first and second pixel units comprises a thin film transistor (3103, 3203) and a storage capacitor, wherein each first pixel unit (3100, 3300, 3500, 3700, 3900) comprises at an edge region a reflection electrode driven by the thin film transistor of the first pixel unit, and wherein each second pixel unit (3200, 3400, 3600, 3800) comprises at an edge region a transmission electrode driven by the thin film transistor of the second pixel unit, characterized in that the reflection electrode of each first pixel unit is directly adjacent to the transmission electrode of any second pixel unit directly adjacent in one of the four directions and the transmission electrode of each second pixel unit is directly adjacent to the reflection electrode of any first pixel unit adjacent in one of the four directions.
Method for obtaining a welded joint between elements of different materials, wherein the joint comprises at least one element of metal material (1, 100) and at least one element of thermoplastic material having respective contact surfaces (1A, 2A), wherein said contact surfaces (1A, 2A) of said at least one element of metal material (1, 11) and said at least one element of thermoplastic material are pressed against each other with simultaneous application of heat, wherein the contact surface of said at least one metal element has at least one uneven surface portion, wherein said uneven surface portion has a distribution of asperities, wherein said application of heat is such as to generate a softening of the thermoplastic material, so that said material fills the spaces between the asperities of said uneven surface portion and maintains this configuration after a subsequent cooling, characterized in that said at least one element of metal material is a shaped component of metal sheet, which is obtained in a preliminary forming step by mechanical deformation in a press mould (4, 5) and in that said at least one uneven surface portion is obtained during said preliminary forming step for forming said at least one element of metal material in said press mould (4, 5).
A hose connector comprising: a connector port formed as a tubular body, adapted to receive water at an inlet and to deliver water at an outlet, wherein the inlet comprises a front surface substantially perpendicular to the longitudinal axis of the tubular body; and a filter coupled to the connector port at the inlet, the filter having a first end and a second end; wherein the filter includes a flange portion at the first end and a plurality of holes towards the second end defining a filtering zone; characterized in that: the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet; the connector port includes at least one recess comprised in said front surface of the inlet; and the flange portion has at least one protrusion adapted to engage the at least one recess. a connector port formed as a tubular body, adapted to receive water at an inlet and to deliver water at an outlet, wherein the inlet comprises a front surface substantially perpendicular to the longitudinal axis of the tubular body; and a filter coupled to the connector port at the inlet, the filter having a first end and a second end; wherein the filter includes a flange portion at the first end and a plurality of holes towards the second end defining a filtering zone; characterized in that: the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet; the connector port includes at least one recess comprised in said front surface of the inlet; and the flange portion has at least one protrusion adapted to engage the at least one recess. the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet; the connector port includes at least one recess comprised in said front surface of the inlet; and the flange portion has at least one protrusion adapted to engage the at least one recess.
A preparation method of Semaglutide, comprising the steps of: step 1: coupling Gly to a resin by solid phase synthesis to obtain Gly-resin; and step 2: successively coupling the Gly-resin prepared in step 1 to an amino acid according to the sequence of Semaglutide by sequential coupling; cleaving, and purifying; wherein Fmoc-Lys(Alloc)-OH is used as a raw material of Lys 26; H-His 7 is synthesized using Boc-His(Trt)-OH or Boc-His(Boc)-OH.DCHA as a raw material; and the Lys 26 side chain is prepared by fragmental synthesis, and a fully-protected fragment of Fmoc-PEG-PEG-γ-Glu-octadecanedioic acid used in the fragmental synthesis of the Lys 26 side chain is prepared by successively coupling a chloride resin to Fmoc-PEG-OH, Fmoc-PEG-OH, Fmoc-Glu -OtBu and octadecanedioic acid mono-tert-butyl ester, cleaving, and recrystallizing to obtain PEG-PEG-γ-Glu-Octadecanedioic Acid mono-tert-butyl ester. step 1: coupling Gly to a resin by solid phase synthesis to obtain Gly-resin; and step 2: successively coupling the Gly-resin prepared in step 1 to an amino acid according to the sequence of Semaglutide by sequential coupling; cleaving, and purifying; wherein Fmoc-Lys(Alloc)-OH is used as a raw material of Lys 26; H-His 7 is synthesized using Boc-His(Trt)-OH or Boc-His(Boc)-OH.DCHA as a raw material; and the Lys 26 side chain is prepared by fragmental synthesis, and a fully-protected fragment of Fmoc-PEG-PEG-γ-Glu-octadecanedioic acid used in the fragmental synthesis of the Lys 26 side chain is prepared by successively coupling a chloride resin to Fmoc-PEG-OH, Fmoc-PEG-OH, Fmoc-Glu -OtBu and octadecanedioic acid mono-tert-butyl ester, cleaving, and recrystallizing to obtain PEG-PEG-γ-Glu-Octadecanedioic Acid mono-tert-butyl ester.
Refining process of crude olive pomace oil obtained by centrifugation or decantation of the pomace characterized in that it comprises the following steps: a) filtration of the starting crude olive pomace oil carried out through filters having a pore size comprised in the interval of 0.1 to 20 microns and a temperature below 70 °C, b) bleaching of the oil filtered in the previous step at a temperature comprised in the interval between 80 °C and 120 °C, at a pressure below 70 mbar,, and the following steps: b1) addition of technological coadjuvants, b2) stirring of the mixture of the oil with the technological coadjuvants, and, b3) filtration to remove the coadjuvants added. c) one or more distillations of the bleached oil obtained in the previous step. a) filtration of the starting crude olive pomace oil carried out through filters having a pore size comprised in the interval of 0.1 to 20 microns and a temperature below 70 °C, b) bleaching of the oil filtered in the previous step at a temperature comprised in the interval between 80 °C and 120 °C, at a pressure below 70 mbar,, and the following steps: b1) addition of technological coadjuvants, b2) stirring of the mixture of the oil with the technological coadjuvants, and, b3) filtration to remove the coadjuvants added. b1) addition of technological coadjuvants, b2) stirring of the mixture of the oil with the technological coadjuvants, and, b3) filtration to remove the coadjuvants added. c) one or more distillations of the bleached oil obtained in the previous step.
A method of retrieving media data, the method comprising: receiving a manifest file including an attribute indicating a number of segment chunks available for a segment of a representation of media data, wherein the attribute is included in an S element of a SegmentTimeline element of a media presentation description, MPD, and wherein the segment comprises an independently retrievable media file having a unique uniform resource locator; determining an identifier for one of the chunks using the data indicating the number of chunks available for the segment; and sending a request specifying the identifier for the one of the chunks to a server device. receiving a manifest file including an attribute indicating a number of segment chunks available for a segment of a representation of media data, wherein the attribute is included in an S element of a SegmentTimeline element of a media presentation description, MPD, and wherein the segment comprises an independently retrievable media file having a unique uniform resource locator; determining an identifier for one of the chunks using the data indicating the number of chunks available for the segment; and sending a request specifying the identifier for the one of the chunks to a server device.
A printing material cartridge (120, 130) comprising: a reservoir (115, 125) storing printing material to supply a printing apparatus; a storage medium (112, 122) storing process instructions for controlling a printing material recirculation process in the printing apparatus to transport the printing material within the printing apparatus and to and from the printing material cartridge; characterized in that the storage medium stores: a reservoir printing material level parameter indicative of the amount of printing material in the reservoir; a recirculation cycle counter indicative of the number of recirculation events experienced by the cartridge; a maximum recirculation cycle parameter indicative of the maximum number of recirculation events that may be experienced by the cartridge. a reservoir (115, 125) storing printing material to supply a printing apparatus; a storage medium (112, 122) storing process instructions for controlling a printing material recirculation process in the printing apparatus to transport the printing material within the printing apparatus and to and from the printing material cartridge; characterized in that the storage medium stores: a reservoir printing material level parameter indicative of the amount of printing material in the reservoir; a recirculation cycle counter indicative of the number of recirculation events experienced by the cartridge; a maximum recirculation cycle parameter indicative of the maximum number of recirculation events that may be experienced by the cartridge. a recirculation cycle counter indicative of the number of recirculation events experienced by the cartridge; a maximum recirculation cycle parameter indicative of the maximum number of recirculation events that may be experienced by the cartridge.
A gravel pack apparatus, comprising: a body (230A,230B) for disposing in a borehole and having a heel and a toe, the body (230A,230B) defining a body passage and defining at least one first body port and at least one second body port, the at least one first body port disposed toward the toe, the at least one second body port disposed toward the heel, the apparatus not comprising means for isolating, along the borehole, the at least one first body port from the at least one second body port; at least one first screen disposed on the body between the at least one first body port and the at least one second body port, the at least one first screen communicating between the body passage and the borehole, the apparatus not comprising means for isolating, along the borehole, the at least one first screen from the at least one first and second body ports (232A-B); and a tool movably disposing in the body passage and defining a tool passage with at least one tool port, the tool movable to a first selective position in the body passage sealing the at least one tool port with the at least one first body port and permitting slurry to be communicated from the tool passage to the borehole therethrough, the tool movable to a second selective position sealing the at least one tool port with the at least one second body port and permitting slurry to be communicated from the tool passage to the borehole therethrough. a body (230A,230B) for disposing in a borehole and having a heel and a toe, the body (230A,230B) defining a body passage and defining at least one first body port and at least one second body port, the at least one first body port disposed toward the toe, the at least one second body port disposed toward the heel, the apparatus not comprising means for isolating, along the borehole, the at least one first body port from the at least one second body port; at least one first screen disposed on the body between the at least one first body port and the at least one second body port, the at least one first screen communicating between the body passage and the borehole, the apparatus not comprising means for isolating, along the borehole, the at least one first screen from the at least one first and second body ports (232A-B); and a tool movably disposing in the body passage and defining a tool passage with at least one tool port, the tool movable to a first selective position in the body passage sealing the at least one tool port with the at least one first body port and permitting slurry to be communicated from the tool passage to the borehole therethrough, the tool movable to a second selective position sealing the at least one tool port with the at least one second body port and permitting slurry to be communicated from the tool passage to the borehole therethrough.
A lipid nanoparticle comprising an ionizable lipid in which a 6-membered heterocyclic amine and an alkyl-epoxide are bonded; a phospholipid; cholesterol; and a ceramide-PEG (polyethyleneglycol) conjugate, wherein the 6-membered heterocyclic amine is wherein the ceramide-PEG conjugate comprised in 0.5 to 5 mol%. wherein the 6-membered heterocyclic amine is wherein the ceramide-PEG conjugate comprised in 0.5 to 5 mol%.
A composition comprising at least one biological control agent which is Bacillus subtilis AQ713 (NRRL Accession No. B-21661) and at least one fungicide which is trifloxystrobin in a synergistically effective amount, wherein the weight ratio of the at least one biological control agent to the fungicide is in the range of 1:0.001 to 1:0.1.
An implantable medical device comprising: an optical excitation assembly (312, 313); an optical detection assembly; and a multimode sensing element comprising: an outer barrier layer forming a top, a bottom, and opposed sides (408, 410) of the sensing element, the outer barrier layer defining an interior volume; a colorimetric response element specific for a first chemical analyte; a photoluminescent response element specific for a second chemical analyte; the interior volume comprising a first chamber and a second chamber separate from the first chamber, wherein the colorimetric response element is disposed within the first chamber and the photoluminescent response element is disposed within the second chamber, wherein the first chamber and the second chamber are arranged side-by-side, the optical excitation and optical detection assemblies (312, 313, 314) being located on opposite lateral sides of the sensing element. an optical excitation assembly (312, 313); an optical detection assembly; and a multimode sensing element comprising: an outer barrier layer forming a top, a bottom, and opposed sides (408, 410) of the sensing element, the outer barrier layer defining an interior volume; a colorimetric response element specific for a first chemical analyte; a photoluminescent response element specific for a second chemical analyte; the interior volume comprising a first chamber and a second chamber separate from the first chamber, wherein the colorimetric response element is disposed within the first chamber and the photoluminescent response element is disposed within the second chamber, wherein the first chamber and the second chamber are arranged side-by-side, the optical excitation and optical detection assemblies (312, 313, 314) being located on opposite lateral sides of the sensing element. an outer barrier layer forming a top, a bottom, and opposed sides (408, 410) of the sensing element, the outer barrier layer defining an interior volume; a colorimetric response element specific for a first chemical analyte; a photoluminescent response element specific for a second chemical analyte; the interior volume comprising a first chamber and a second chamber separate from the first chamber, wherein the colorimetric response element is disposed within the first chamber and the photoluminescent response element is disposed within the second chamber, wherein the first chamber and the second chamber are arranged side-by-side, the optical excitation and optical detection assemblies (312, 313, 314) being located on opposite lateral sides of the sensing element.
A method for forming a thermoplastic article of various colors, patterns, materials and/or components, comprising steps of: a) plastic moulding a first component being hollow and having at least one open end and heating the first component at a required temperature, wherein the first component is of various colors, patterns and/or materials; b) positioning the first component in two co-operating first mould halves (16a, 16b); c) positioning a blow head with a heated pre-blow plastic part in the first component inside the two co-operating first mould halves (16a, 16) and closing them, and then making a stretch rod to contact a bottom of the pre-blow plastic part; and d) blowing air into the first component and the pre-blow plastic part in the mould halves (16a, 16b) through the blow head to form an article, wherein an inner wall of the first component solders or sticks to an outer surface of the formed article. a) plastic moulding a first component being hollow and having at least one open end and heating the first component at a required temperature, wherein the first component is of various colors, patterns and/or materials; b) positioning the first component in two co-operating first mould halves (16a, 16b); c) positioning a blow head with a heated pre-blow plastic part in the first component inside the two co-operating first mould halves (16a, 16) and closing them, and then making a stretch rod to contact a bottom of the pre-blow plastic part; and d) blowing air into the first component and the pre-blow plastic part in the mould halves (16a, 16b) through the blow head to form an article, wherein an inner wall of the first component solders or sticks to an outer surface of the formed article.
A method of accelerating organic reactions that include a gas phase reactant, the method comprising: conducting a hydrogenation reaction selected from the group consisting of olefin hydrogenation, alkyne hydrogenation, carbobenzyloxy deprotection, and reductive amination using the steps of introducing a microwave transparent reaction vessel containing an organic compound to be hydrogenated into a closed microwave cavity; purging the reaction vessel containing the organic compound to be hydrogenated; charging the reaction vessel with hydrogen gas in an amount that is at least stoichiometric with respect to the amount of organic compound to be hydrogenated; driving a microwave source at frequencies greater than 600 cycles per second; applying a continuous single mode of microwave radiation from the source within the closed cavity and to the vessel and the organic compound in the vessel until the organic compound is hydrogenated to a desired yield; and venting the vessel at the completion of the hydrogenation reaction. conducting a hydrogenation reaction selected from the group consisting of olefin hydrogenation, alkyne hydrogenation, carbobenzyloxy deprotection, and reductive amination using the steps of introducing a microwave transparent reaction vessel containing an organic compound to be hydrogenated into a closed microwave cavity; purging the reaction vessel containing the organic compound to be hydrogenated; charging the reaction vessel with hydrogen gas in an amount that is at least stoichiometric with respect to the amount of organic compound to be hydrogenated; driving a microwave source at frequencies greater than 600 cycles per second; applying a continuous single mode of microwave radiation from the source within the closed cavity and to the vessel and the organic compound in the vessel until the organic compound is hydrogenated to a desired yield; and venting the vessel at the completion of the hydrogenation reaction.