mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a vinyl chloride copolymer comprising: pre-polymerizing for forming seed particles by bulk polymerizing a vinyl chloride monomer and a first copolymerizable monomer in the presence of a pre-polymerization initiator; transporting the seed particles formed at the pre-polymerizing step to a post-polymerization reactor; and post-polymerizing by adding a second copolymerizable monomer to the seed particles and performing a bulk polymerization, wherein a total amount of the first copolymerizable monomer added in the pre-polymerization step and the second copolymerizable monomer added in the post-polymerization step is from 5 to 30 parts by weight on the basis of 100 parts by weight of the vinyl chloride monomer, and the first copolymerizable monomer and the second copolymerizable monomer are used in a weight ratio between 3:7 and 4:6, wherein the second copolymerizable monomer is added at a time within 1/4 of an entire post-polymerization process after initiating the post-polymerization. pre-polymerizing for forming seed particles by bulk polymerizing a vinyl chloride monomer and a first copolymerizable monomer in the presence of a pre-polymerization initiator; transporting the seed particles formed at the pre-polymerizing step to a post-polymerization reactor; and post-polymerizing by adding a second copolymerizable monomer to the seed particles and performing a bulk polymerization, wherein a total amount of the first copolymerizable monomer added in the pre-polymerization step and the second copolymerizable monomer added in the post-polymerization step is from 5 to 30 parts by weight on the basis of 100 parts by weight of the vinyl chloride monomer, and the first copolymerizable monomer and the second copolymerizable monomer are used in a weight ratio between 3:7 and 4:6, wherein the second copolymerizable monomer is added at a time within 1/4 of an entire post-polymerization process after initiating the post-polymerization.
A method of removing one or more metals from an exhaust gas comprising acidic components, said method comprises contacting the exhaust gas with a composition comprising an aqueous solution of at least one water-soluble alkaline-earth polysulfide and at least one redox buffering agent, said composition has a pH of 7 or more to avoid precipitation of the components, and upon contact with the exhaust gas the pH of the composition is reduced to between 4.5 to 6.5 such that the polysulfide and buffering agent co-precipitate to form an agent that reacts with the one or more metals in the exhaust gas.
An inhalation device (100, 200, 300) for delivering medication to a user, said inhalation device comprising: a mouthpiece (114, 314), a dosing chamber, and a flow channel connecting the mouthpiece to the dosing chamber, wherein the dosing chamber is configured to deliver the medication to the user via the mouthpiece; an electronically driven vibratory element (209, 302); a sensor system (205, 312) configured to generate a pressure signal indicative of air flow through the flow channel; and a controller configured to receive the pressure signal from the sensor system, activate and deactivate the vibratory element, perform an inhalation detection procedure to determine a plurality of successful inhalations, and generate a trigger signal to control timing of operation of the electronically driven vibratory element to release medication into the dosing chamber based on the plurality of inhalations, wherein the inhalation device comprises a main body and a replaceable medication cartridge, the main body including the sensor system and the vibratory element, and the medication cartridge including the mouthpiece, the medication, the dosing chamber, and the flow channel, and wherein the medication cartridge comprises an intake/exhaust port (110, 310) configured to allow air to flow into the intake/exhaust port when a user inhales through the mouthpiece (114, 314), and air to flow out of the intake/exhaust port when a user exhales through the mouthpiece. a mouthpiece (114, 314), a dosing chamber, and a flow channel connecting the mouthpiece to the dosing chamber, wherein the dosing chamber is configured to deliver the medication to the user via the mouthpiece; an electronically driven vibratory element (209, 302); a sensor system (205, 312) configured to generate a pressure signal indicative of air flow through the flow channel; and a controller configured to receive the pressure signal from the sensor system, activate and deactivate the vibratory element, perform an inhalation detection procedure to determine a plurality of successful inhalations, and generate a trigger signal to control timing of operation of the electronically driven vibratory element to release medication into the dosing chamber based on the plurality of inhalations, wherein the inhalation device comprises a main body and a replaceable medication cartridge, the main body including the sensor system and the vibratory element, and the medication cartridge including the mouthpiece, the medication, the dosing chamber, and the flow channel, and wherein the medication cartridge comprises an intake/exhaust port (110, 310) configured to allow air to flow into the intake/exhaust port when a user inhales through the mouthpiece (114, 314), and air to flow out of the intake/exhaust port when a user exhales through the mouthpiece.
A preform forming machine for producing a three-dimensional dry fiber preform, comprising: a forming block assembly having a forming table and a forming block and being positionable in a series of forming block assemblies; a clamping plate assembly having a clamping table and a clamping plate and being positionable in a series of clamping plate assemblies arranged in opposing relation to the series of forming block assemblies; the forming block being configured to fold a ply stack over onto itself to form a web of a preform; and the clamping plate being configured to clamp the ply stack to the forming table during the folding of the ply stack. a forming block assembly having a forming table and a forming block and being positionable in a series of forming block assemblies; a clamping plate assembly having a clamping table and a clamping plate and being positionable in a series of clamping plate assemblies arranged in opposing relation to the series of forming block assemblies; the forming block being configured to fold a ply stack over onto itself to form a web of a preform; and the clamping plate being configured to clamp the ply stack to the forming table during the folding of the ply stack.
Process for the preparation of hydrogels consisting of crosslinked glycosaminoglycans which comprises: a) reacting an aqueous solution of at least one hybrid cooperative complex between a first component selected from low-molecular-weight hyaluronic acid, chondroitin and chondroitin sulphate and a second component consisting of high-molecular-weight hyaluronic acid with a diepoxide as crosslinker in an 0.1 to 1 equivalent ratio to the complex, the weight concentration of the complex in the solution ranging from 1% to 15%; b) purifying by dialysis, ultrafiltration and diafiltration, wherein: the hybrid cooperative complex is prepared by subjecting the aqueous solution of a mixture of said first and second components to heat treatment at 80-160°C for a time ranging between 10 and 30 minutes, followed by cooling to 20-25°C in a time ranging between 5 and 15 minutes; - the concentration by weight of the first component with low molecular weight ranges between 0.1 and 50%, and the concentration by weight of the second component with high molecular weight ranges between 0.01 and 10%; - wherein the molecular weight Mw of the low-molecular-weight hyaluronic acid ranges from 50•10 3 Da to 900•10 3 Da, the molecular weight Mw of the chondroitin or chondroitin sulphate ranges from 5000 to 150,000 Da, and the molecular weight of the high-molecular-weight hyaluronic acid ranges from 1•10 6 Da to 3•10 6 Da (MW obtained by SEC and/or SEC-TDA). a) reacting an aqueous solution of at least one hybrid cooperative complex between a first component selected from low-molecular-weight hyaluronic acid, chondroitin and chondroitin sulphate and a second component consisting of high-molecular-weight hyaluronic acid with a diepoxide as crosslinker in an 0.1 to 1 equivalent ratio to the complex, the weight concentration of the complex in the solution ranging from 1% to 15%; b) purifying by dialysis, ultrafiltration and diafiltration, - the concentration by weight of the first component with low molecular weight ranges between 0.1 and 50%, and the concentration by weight of the second component with high molecular weight ranges between 0.01 and 10%; - wherein the molecular weight Mw of the low-molecular-weight hyaluronic acid ranges from 50•10 3 Da to 900•10 3 Da, the molecular weight Mw of the chondroitin or chondroitin sulphate ranges from 5000 to 150,000 Da, and the molecular weight of the high-molecular-weight hyaluronic acid ranges from 1•10 6 Da to 3•10 6 Da (MW obtained by SEC and/or SEC-TDA).
A method of communication in a wireless network (200, 300), the method being executed by an apparatus and comprising: establishing communication with the wireless network (200, 300) utilizing a first carrier and a second carrier for each of an uplink and a downlink; maintaining a first active set comprising a list of any cells in the wireless network (200, 300) that meet first criteria, the first active set corresponding to the first carrier; maintaining a second active set comprising a list of any cells in the wireless network (200, 300) that meet second criteria, the second active set corresponding to the second carrier; receiving configuration information from the wireless network (200, 300) for configuring wireless communication with a target cell; and receiving a notification not to utilize the second active set or the second carrier after a handover to the target cell; and thereafter reporting that the target cell meets third criteria. establishing communication with the wireless network (200, 300) utilizing a first carrier and a second carrier for each of an uplink and a downlink; maintaining a first active set comprising a list of any cells in the wireless network (200, 300) that meet first criteria, the first active set corresponding to the first carrier; maintaining a second active set comprising a list of any cells in the wireless network (200, 300) that meet second criteria, the second active set corresponding to the second carrier; receiving configuration information from the wireless network (200, 300) for configuring wireless communication with a target cell; and receiving a notification not to utilize the second active set or the second carrier after a handover to the target cell; and thereafter reporting that the target cell meets third criteria.
An apparatus comprising: - a receiver (201a-c) configured to receive a plurality of packets; - a memory configured to store instructions and form a first and second set of virtual queues to store the plurality of packets, wherein the first set of virtual queues has a first set of demand rate values and a first set of supply rate values and the second set of virtual queues has a second set of demand rate values and a second set of supply rate values; - a processor having one or more cores with one or more packet classifiers to provide a classification of a packet in the plurality of packets, the processor in communication with the memory executes the instructions to transfer the packet from the receiver to a virtual queue in one of the first and second sets of virtual queues based on the classification and transfers the packet from the virtual queue to a transmitter based on a demand rate value and supply rate value associated with the virtual queue, wherein a first core in the processor includes a first packet classifier to access the first set of virtual queues and a second core in the processor includes a second packet classifier to access the second set of virtual queues; wherein the first packet classifier is configured to output the first packet to a first virtual queue in the first set of virtual queues based on a classification of the first packet, wherein the first core is configured to calculate the first set of demand rate values; and wherein the second packet classifier is configured to output the second packet to a second virtual queue in the second set of virtual queues based on a classification of the second packet, wherein the second core is configured to calculate the second set of demand rate values. - a receiver (201a-c) configured to receive a plurality of packets; - a memory configured to store instructions and form a first and second set of virtual queues to store the plurality of packets, wherein the first set of virtual queues has a first set of demand rate values and a first set of supply rate values and the second set of virtual queues has a second set of demand rate values and a second set of supply rate values; - a processor having one or more cores with one or more packet classifiers to provide a classification of a packet in the plurality of packets, the processor in communication with the memory executes the instructions to transfer the packet from the receiver to a virtual queue in one of the first and second sets of virtual queues based on the classification and transfers the packet from the virtual queue to a transmitter based on a demand rate value and supply rate value associated with the virtual queue, wherein a first core in the processor includes a first packet classifier to access the first set of virtual queues and a second core in the processor includes a second packet classifier to access the second set of virtual queues;
A loading fixture for use with an endoscopic stitching device, comprising: a needle; and a loading portion configured to receive first and second jaws (130, 132) of the endoscopic stitching device, the loading portion including: guides (2032, 2034) configured to position one of the first and second jaws of the endoscopic stitching device therebetween; wherein the loading unit further includes: a shuttle configured to detachably support the needle thereon, the shuttle transversely slidable such that the needle supported on the shuttle engages at least one of the jaws of the endoscopic stitching device; and a biasing member configured to bias the shuttle toward one of the guides, characterised in that the guides (2032, 2034) are configured to position both the first and second jaws therebetween; and the loading portion defines a slot configured to slidably receive the shuttle and receive the biasing member movably extending along the slot, the path of the shuttle being in registration with the slot. a needle; and a loading portion configured to receive first and second jaws (130, 132) of the endoscopic stitching device, the loading portion including: guides (2032, 2034) configured to position one of the first and second jaws of the endoscopic stitching device therebetween; wherein the loading unit further includes: a shuttle configured to detachably support the needle thereon, the shuttle transversely slidable such that the needle supported on the shuttle engages at least one of the jaws of the endoscopic stitching device; and a biasing member configured to bias the shuttle toward one of the guides, characterised in that the guides (2032, 2034) are configured to position both the first and second jaws therebetween; and the loading portion defines a slot configured to slidably receive the shuttle and receive the biasing member movably extending along the slot, the path of the shuttle being in registration with the slot. a shuttle configured to detachably support the needle thereon, the shuttle transversely slidable such that the needle supported on the shuttle engages at least one of the jaws of the endoscopic stitching device; and a biasing member configured to bias the shuttle toward one of the guides, characterised in that the guides (2032, 2034) are configured to position both the first and second jaws therebetween; and the loading portion defines a slot configured to slidably receive the shuttle and receive the biasing member movably extending along the slot, the path of the shuttle being in registration with the slot.
A method for a radio base station in a wireless communications system, of turning off the output power for a frequency carrier of a cell, wherein the radio base station is configured to use at least two different modulation schemes, and wherein each of the modulation schemes requires a different output power spectrum density for the frequency carrier, the method comprising: - reducing the available output power spectrum density for the frequency carrier gradually, - disabling the modulation scheme with the highest required output power spectrum density, before the available output power spectrum density falls below said highest required output power spectrum density, and - turning off the output power for the frequency carrier before the available output power spectrum density falls below the highest required output power spectrum density of the at least one remaining non-disabled modulation scheme. - reducing the available output power spectrum density for the frequency carrier gradually, - disabling the modulation scheme with the highest required output power spectrum density, before the available output power spectrum density falls below said highest required output power spectrum density, and - turning off the output power for the frequency carrier before the available output power spectrum density falls below the highest required output power spectrum density of the at least one remaining non-disabled modulation scheme.
An epitope-tagged antibody comprising an antibody and two epitope tag constructs, the epitope tag constructs comprising alternating spacers and epitope tags, wherein the epitope-tagged antibody comprises 8 epitope tags, wherein each of the epitope tags comprises a sequence having at least 90% identity to the amino acid sequence of SEQ ID NO: 4, wherein at least a portion of an amino acid sequence, which amino acid sequence constitutes at least one spacer of the epitope tag construct, is selected from the group consisting of SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, and SEQ ID NO: 14, wherein the two epitope tag constructs are expressed at a C-terminal end of a heavy chain constant region of the antibody, and wherein each epitope tag construct comprises four epitope tags. wherein the epitope-tagged antibody comprises 8 epitope tags, wherein each of the epitope tags comprises a sequence having at least 90% identity to the amino acid sequence of SEQ ID NO: 4, wherein at least a portion of an amino acid sequence, which amino acid sequence constitutes at least one spacer of the epitope tag construct, is selected from the group consisting of SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, and SEQ ID NO: 14, wherein the two epitope tag constructs are expressed at a C-terminal end of a heavy chain constant region of the antibody, and wherein each epitope tag construct comprises four epitope tags.
Use of a cross-linkable polyethylene composition for high frequency welding comprising - a copolymer of ethylene and an α-olefin comonomer with 3 to 12 carbon atoms having a density of from 850 to 970 kg/m 3, and - a terpolymer of ethylene, a polar comonomer and a cross-linkable comonomer. - a copolymer of ethylene and an α-olefin comonomer with 3 to 12 carbon atoms having a density of from 850 to 970 kg/m 3, and - a terpolymer of ethylene, a polar comonomer and a cross-linkable comonomer.
A method for mixing two video streams (1, 2), having an encoding of a first video stream, in which a chronological sequence of images is generated, characterized in that during the generation of the sequence of images, a synchronization signal is used, on which the encoding of a second video stream, which is independent of the first video stream, is algorithmically based in the same manner as in the encoding of the first video stream, in that to achieve the synchronization of input video streams and thus to improve an output video stream, during the mixing, the number of the images in an incoming image group is shortened and/or lengthened by a respective computed offset, so that the computed offset is eliminated, in that the sequence of images comprises chronologically prediction-coded images, in particular P images, and non-chronologically prediction-coded images, in particular I images, and in that the synchronization signal is used for the synchronization of the positions of non-prediction-coded images, in particular I images, in the two sequences of images of the two independent video streams.
An active material comprising titanium-containing oxide represented by a general formula of Li (2+w) Na (2-x) M1 (x/2) Ti (6-y) M2 z O 14, wherein in the general formula, the subscripts w, x, y and z are within ranges of 0 ≤ w ≤ 6, 0 < x < 2, 0 < y ≤ 3, and 0 < z ≤ 3, respectively; M1 is at least one metallic element selected from the group consisting of Sr, Ba, and Pb; and M2 is at least one element selected from the group consisting of Zr, V, Nb, Ta, Mo, W and P.
A terminal device, comprising: a transceiver configured to perform wireless communication; and a controller configured to perform control such that capability information regarding a supported communication scheme is transmitted to an external device through the wireless communication, characterized in that, in a case in which New Radio, NR, capable of controlling a sub carrier spacing and a symbol length as a first communication scheme and Long Term Evolution, LTE, as a second communication scheme different from the first communication scheme are supported, the controller is configured to associate, with the capability information, a set of parameters, wherein, in a case in which a dual connectivity based on the first communication scheme and the second communication scheme is supported, a first parameter indicating a support of the dual connectivity based on the first communication scheme and the second communication scheme is included in the capability information, wherein, in a case in which a communication based on the first communication scheme is supported, a second parameter indicating a support of the communication based on the first communication scheme is included in the capability information; and wherein the capability information is transmitted using the second communication scheme. a transceiver configured to perform wireless communication; and a controller configured to perform control such that capability information regarding a supported communication scheme is transmitted to an external device through the wireless communication, characterized in that, in a case in which New Radio, NR, capable of controlling a sub carrier spacing and a symbol length as a first communication scheme and Long Term Evolution, LTE, as a second communication scheme different from the first communication scheme are supported, the controller is configured to associate, with the capability information, a set of parameters, wherein, in a case in which a dual connectivity based on the first communication scheme and the second communication scheme is supported, a first parameter indicating a support of the dual connectivity based on the first communication scheme and the second communication scheme is included in the capability information, wherein, in a case in which a communication based on the first communication scheme is supported, a second parameter indicating a support of the communication based on the first communication scheme is included in the capability information; and wherein the capability information is transmitted using the second communication scheme.