mhurhangee/ep-ind-claims huggingface dataset:
A preparation method of a polyarylene sulfide, comprising: a first step of preparing a sulfur source comprising a sulfide of an alkali metal and a mixed solvent of water and an amide-based compound by dehydrating a hydrosulfide of an alkali metal and a hydroxide of an alkali metal in the presence of an organic acid salt of an alkali metal and a C 1-20 aliphatic amino acid hydrochloride in a mixed solvent of water and an amide-based compound; and a second step of adding a dihalogenated aromatic compound and an amide-based compound to a reactor containing the sulfur source, and performing a polymerization reaction to prepare a polyarylene sulfide, wherein the aliphatic amino acid hydrochloride is additionally introduced into the dehydration reaction for preparing the sulfur source. a first step of preparing a sulfur source comprising a sulfide of an alkali metal and a mixed solvent of water and an amide-based compound by dehydrating a hydrosulfide of an alkali metal and a hydroxide of an alkali metal in the presence of an organic acid salt of an alkali metal and a C 1-20 aliphatic amino acid hydrochloride in a mixed solvent of water and an amide-based compound; and a second step of adding a dihalogenated aromatic compound and an amide-based compound to a reactor containing the sulfur source, and performing a polymerization reaction to prepare a polyarylene sulfide, wherein the aliphatic amino acid hydrochloride is additionally introduced into the dehydration reaction for preparing the sulfur source.
Method for preparing a food product by means of co-extrusion, wherein a casing composition and a barrier composition are co-extruded as layers upon an edible filler thereby providing the edible filler with a casing layer and a barrier layer, and wherein said barrier layer is present between the edible filler and the casing layer; characterized in that following co-extrusion the food product is contacted with a solution of a metal salt, which comprises a calcium salt in an amount of between 0.1wt.% and 20wt.%.
A communication control device for providing, in a communication system, a secondary communication service different from primary communication services to one or more terminal devices (100, 304, 306) including a terminal device configured to use a communication service by using any subscriber identity module information switched between a plurality of subscriber identity module information corresponding to a plurality of the primary communication services, the communication control device comprising: a power control unit configured to control a transmission power of the secondary communication service to be provided at least partially within an area where a first primary communication service of the plurality of primary communication services is provided, wherein the power control unit is configured to increase the transmission power of the secondary communication service upon being notified that the terminal device performs a switch from subscriber identity module information corresponding to the first primary communication service to subscriber identity module information corresponding to a second primary communication service of the plurality of primary communication services. a power control unit configured to control a transmission power of the secondary communication service to be provided at least partially within an area where a first primary communication service of the plurality of primary communication services is provided, wherein the power control unit is configured to increase the transmission power of the secondary communication service upon being notified that the terminal device performs a switch from subscriber identity module information corresponding to the first primary communication service to subscriber identity module information corresponding to a second primary communication service of the plurality of primary communication services.
A hard surface cleaning composition comprising: a) from 0.001 wt to less than 2.0 wt% of an antimicrobial agent, wherein the antimicrobial agent is a quaternary ammonium compound, wherein the quaternary ammonium compound is selected from the group consisting of: didecyl dimethyl ammonium chloride, a blend of alkyl dimethyl benzyl ammonium chloride and alkyl dimethyl ethylbenzyl ammonium chloride, and mixtures thereof; b) from 0.50 wt% to 5.0 wt% of an amine oxide surfactant; c) greater than 2 wt% of additional non-ionic surfactant, wherein the additional non-ionic surfactant comprises an alkoxylated nonionic surfactant; and d) less than 1.0 wt% of anionic surfactant; wherein the ratio of amine oxide surfactant to the sum of amine oxide surfactant and additional non-ionic surfactant is from 0.05 to 0.5. a) from 0.001 wt to less than 2.0 wt% of an antimicrobial agent, wherein the antimicrobial agent is a quaternary ammonium compound, wherein the quaternary ammonium compound is selected from the group consisting of: didecyl dimethyl ammonium chloride, a blend of alkyl dimethyl benzyl ammonium chloride and alkyl dimethyl ethylbenzyl ammonium chloride, and mixtures thereof; b) from 0.50 wt% to 5.0 wt% of an amine oxide surfactant; c) greater than 2 wt% of additional non-ionic surfactant, wherein the additional non-ionic surfactant comprises an alkoxylated nonionic surfactant; and d) less than 1.0 wt% of anionic surfactant;
A cocoa powder composition characterized in that it comprises, on a dry weight basis, 75-99.5% cocoa powder having an average particle size of 2-20 microns, and 0.5-20% of at least one hydrophilic agent, wherein the at least one hydrophilic agent is selected from the group consisting of: one or more sugar alcohols, one or more sugars and mixtures thereof, and wherein the cocoa powder is coated with the at least one hydrophilic agent.
An antimicrobial composition comprising: a) at least one antimicrobial agent; and b) an iron-chelator, wherein the at least one antimicrobial agent and the iron chelator are present in a weight ratio of from about 1:1000 to about 1000:1, wherein the antimicrobial agent is zinc pyrithione; and wherein the iron-chelator is selected from a group consisting of N,N'-bis(o-hydroxybenzyl) ethylenediamine-N,N'diacetic acid (HBED); and 2-hydroxypyridine-1-oxide (2-HPNO); or selected from a group consisting of a sodium, potassium, calcium, magnesium, copper, and zinc salt of N,N'-bis(o-hydroxybenzyl) ethylenediamine-N,N'diacetic acid; and 2-hydroxypyridine-1-oxide. a) at least one antimicrobial agent; and b) an iron-chelator,
Open-end spinning machine coupled wirelessly or by cable to a control device for transmitting a control command, wherein the open-end spinning machine comprises a plurality of workstations, each of which has: a spinning device for producing a thread; a thread take-up device for taking up the thread from the spinning device; an accumulator navel for temporarily storing the taken-up thread; a winding device for producing a cross-wound package; and a suction nozzle, which can be subjected to a vacuum, wherein the open-end spinning machine being equipped with at least one service unit, which serves several of the workstations and which has an auxiliary thread delivery device for delivering an auxiliary thread and an auxiliary thread take-up, which are used during a piecing process at a workstation to be served, in particular in the course of a cross-wound package/empty tube change, characterised in that the auxiliary thread take-up is configured and can be operated in such a way that an auxiliary thread take-up speed (Avs) of the auxiliary thread take-up for the take-up of the pieced auxiliary thread has a speed offset, which takes into account the thread take-up speed (A VA) of the thread take-up device and at least one further correction factor, and the control device is designed to generate and transmit a control command for operating the auxiliary thread take-up for the take-up of the pieced auxiliary thread with the auxiliary thread take-up speed (Avs) having the speed offset, which takes into account the thread take-up speed (A VA) of the thread take-up device and at least the further correction factor. wherein the open-end spinning machine being equipped with at least one service unit, which serves several of the workstations and which has an auxiliary thread delivery device for delivering an auxiliary thread and an auxiliary thread take-up, which are used during a piecing process at a workstation to be served, in particular in the course of a cross-wound package/empty tube change, characterised in that the auxiliary thread take-up is configured and can be operated in such a way that an auxiliary thread take-up speed (Avs) of the auxiliary thread take-up for the take-up of the pieced auxiliary thread has a speed offset, which takes into account the thread take-up speed (A VA) of the thread take-up device and at least one further correction factor, and the control device is designed to generate and transmit a control command for operating the auxiliary thread take-up for the take-up of the pieced auxiliary thread with the auxiliary thread take-up speed (Avs) having the speed offset, which takes into account the thread take-up speed (A VA) of the thread take-up device and at least the further correction factor.
A seat for the interior of a means of public conveyance, particularly a rail vehicle, comprising a seat body (1; 15) of one or a plurality of different fiber reinforced, more particularly glass fiber reinforced plastic(s) (3; 30, 40, 60), with the seat body having a visible fabric insert (4; 20), of a colored, more particularly printed, design characterized in that the fabric insert (4; 20) is fully embedded in the plastic or in one of the several plastics or in the plastics.
An ink supply container comprising: a first portion configured to hold a first volume of ink and configured to be releasably connectable to a printhead; and a second portion extending at a generally perpendicular orientation from the first portion, configured to hold a second volume of ink, and in communication with the first portion, wherein the second portion is configured to extend over a top of at least one other ink supply container upon releasable connection of the first portion of the container to a printhead assembly; characterized in that the first portion includes: a first compartment containing at least one capillarity media and configured to hold ink within the at least one capillarity media; a second compartment configured to hold free ink; and a wall interposed between and separating the first compartment from the second compartment, wherein the wall includes a passage enabling fluid communication between the first compartment and the second compartment, wherein the second portion of the container is in fluid communication with the second compartment of the first portion of the container and wherein the second portion is configured to hold a free volume of ink. a first portion configured to hold a first volume of ink and configured to be releasably connectable to a printhead; and a second portion extending at a generally perpendicular orientation from the first portion, configured to hold a second volume of ink, and in communication with the first portion, wherein the second portion is configured to extend over a top of at least one other ink supply container upon releasable connection of the first portion of the container to a printhead assembly; characterized in that the first portion includes: a first compartment containing at least one capillarity media and configured to hold ink within the at least one capillarity media; a second compartment configured to hold free ink; and a wall interposed between and separating the first compartment from the second compartment, wherein the wall includes a passage enabling fluid communication between the first compartment and the second compartment, wherein the second portion of the container is in fluid communication with the second compartment of the first portion of the container and wherein the second portion is configured to hold a free volume of ink.
A crystalline solid electrolyte which includes Li 3 PO 4, Li 4 SiO 4, and Li 3 BO 3, wherein content of the Li 3 PO 4 is less than or equal to 75 mole%, based on the whole crystalline solid electrolyte. Li 3 PO 4, Li 4 SiO 4, and Li 3 BO 3, wherein content of the Li 3 PO 4 is less than or equal to 75 mole%, based on the whole crystalline solid electrolyte.
Method for operating a fuel cell system with at least one PEM fuel cell and with a supply air-side air delivery device and an exhaust-air side turbine, wherein the fuel cell system is purged with air from the air delivery device at least during a deactivation procedure, characterised in that during the purging process a connection is established between the air delivery device and the exhaust air side between the PEM fuel cell and the turbine, so that air from the air delivery device is directly introduced into the turbine via the connection for at least a part of the time without first flowing through the fuel cell itself.
An arylated alkoxylated polyethylenelmine dye, wherein the arylated alkoxylated polyethylenelmine dye is a polyethyleneimine having covalently bound to the nitrogen groups of the polyethyleneimine: (i) a blue or violet reactive dye; (ii) an alkylene oxide; and, (iii) an alkylene chain having covalently bound thereto a phenyl or naphthyl group. (i) a blue or violet reactive dye; (ii) an alkylene oxide; and, (iii) an alkylene chain having covalently bound thereto a phenyl or naphthyl group.
A method, by a processor, for testing networked systems in an Internet of Things, loT, environment, comprising: receiving one or more control parameters and information relating to a simulation environment; testing, as a Testing as a Service, TaaS, in the simulation environment, one or more real entities associated with a network system and one or more simulated entities associated with the network system according to the one or more control parameters, wherein the number of simulated entities under test is adjusted in real-time according to real-time information received from the one or more real entities; and estimating one or more properties of the one or more entities, the network system, or combination thereof based on the testing of the one or more simulated entities, wherein real-time data from a real entity affects the behaviour of a simulated entity. receiving one or more control parameters and information relating to a simulation environment; testing, as a Testing as a Service, TaaS, in the simulation environment, one or more real entities associated with a network system and one or more simulated entities associated with the network system according to the one or more control parameters, wherein the number of simulated entities under test is adjusted in real-time according to real-time information received from the one or more real entities; and estimating one or more properties of the one or more entities, the network system, or combination thereof based on the testing of the one or more simulated entities, wherein real-time data from a real entity affects the behaviour of a simulated entity.
Cable probe configured for a level measuring device, the cable probe comprising: a measuring cable having a predeterminable cross-section, which is configured to guide a radar wave or a microwave; a probe end device, comprising: a probe end body having a receiving opening, wherein an end portion of the measuring cable is inserted into the receiving opening; wherein the receiving opening comprises a wall (135, 135'), which is configured to define a course of the end portion (102") of the measuring cable inserted into the receiving opening; and wherein the wall (135, 135') is further configured to space apart the end portion of the measuring cable inserted into the receiving opening from at least one boundary (105', 105", 105"', 105'''') of the probe end body; wherein the wall (135, 135') forms a cavity within the probe end body which adjoins the receiving opening; characterized in that the cavity is L-shaped, U-shaped and/or helical-shaped such that the cavity has a length which is greater than the length of a vertical distance from the receiving opening to a boundary (105") arranged opposite the receiving opening of the probe end body. a measuring cable having a predeterminable cross-section, which is configured to guide a radar wave or a microwave; a probe end device, comprising: a probe end body having a receiving opening, wherein an end portion of the measuring cable is inserted into the receiving opening; wherein the receiving opening comprises a wall (135, 135'), which is configured to define a course of the end portion (102") of the measuring cable inserted into the receiving opening; and wherein the wall (135, 135') is further configured to space apart the end portion of the measuring cable inserted into the receiving opening from at least one boundary (105', 105", 105"', 105'''') of the probe end body; wherein the wall (135, 135') forms a cavity within the probe end body which adjoins the receiving opening; characterized in that the cavity is L-shaped, U-shaped and/or helical-shaped such that the cavity has a length which is greater than the length of a vertical distance from the receiving opening to a boundary (105") arranged opposite the receiving opening of the probe end body. a probe end body having a receiving opening, wherein an end portion of the measuring cable is inserted into the receiving opening; wherein the receiving opening comprises a wall (135, 135'), which is configured to define a course of the end portion (102") of the measuring cable inserted into the receiving opening; and wherein the wall (135, 135') is further configured to space apart the end portion of the measuring cable inserted into the receiving opening from at least one boundary (105', 105", 105"', 105'''') of the probe end body; wherein the wall (135, 135') forms a cavity within the probe end body which adjoins the receiving opening; characterized in that the cavity is L-shaped, U-shaped and/or helical-shaped such that the cavity has a length which is greater than the length of a vertical distance from the receiving opening to a boundary (105") arranged opposite the receiving opening of the probe end body.
A therapeutic agent comprising at least one of an OXPHOS inhibitor and a CDK4/6 inhibitor for use in a method of treating cancer having one or more energetic cancer stem cells (e-CSCs), wherein the method comprises: (a) determining, or having determined, the level of expression of an e-CSC gene signature comprising NQO1, ALDH5A1, TXNR and RRM2 in a biological sample of the cancer; and (b) if the level of expression of each member of the e-CSC gene signature exceeds a threshold level, wherein the threshold level comprises a level of expression of each member of the e-CSC gene signature from a non-cancerous biological sample, administering a pharmaceutically effective amount of the therapeutic agent. (a) determining, or having determined, the level of expression of an e-CSC gene signature comprising NQO1, ALDH5A1, TXNR and RRM2 in a biological sample of the cancer; and (b) if the level of expression of each member of the e-CSC gene signature exceeds a threshold level, wherein the threshold level comprises a level of expression of each member of the e-CSC gene signature from a non-cancerous biological sample, administering a pharmaceutically effective amount of the therapeutic agent.
Maize harvesting implement with a row unit and a stalk chopper mounted below the row unit, wherein the stalk chopper comprises a first blade and a second blade which are mounted below the row unit of the maize harvesting implement and can be set into rotation about at least substantially vertical axes of rotation, and the envelope circles of the blades (134, 136) overlap below a plant stalk dispensing region of the row unit of the maize harvesting implement, and the blades (132, 134) each act from different directions on plant stalks dispensed downwards by the row unit, characterized in that the second blade can be set into rotation in the opposite direction to the first blade about an axis of rotation coaxial with respect to the axis of rotation of the first blade and is arranged below the first blade.
A system for determining a measurement value of one or more constituents in a mixed constituent gas comprising at least one broad band absorber constituent therein and at least one narrow band absorber constituent, the system comprising: a cavity for receiving the mixed constituent gas; a laser for providing a light beam of a specific spectral position and width in the cavity, the laser configured to be tuned across a laser tuning range encompassing at least a spectral peak or a spectral trough of the at least one narrow band absorber constituent while the light bearr in the cavity maintains a pseudo-steady state, wherein a spectral ending point of the laser tuning range is locked relative to either the spectral peak or the spectral trough of the at least one narrow band absorber constituent at a desired absorption wavelength of the at least one broad band absorber in the cavity; a plurality of mirrors (81, 82) for providing reflection of the light beam within the cavity; a detector for measuring the light beam exiting the cavity; and a processing unit configured to (i) provide a feedback control to lock the laser, the feedback being provided in relation to the spectral peak or trough of the narrow band constituent, and (ii) determine the measurement value of the at least one broad band absorber constituent based on a cavity ringdown in the presence of the at least one broadband absorber constituent and a cavity reference value when the cavity is free of the at least one broad band absorber constituent, wherein the cavity ringdown includes a temporal light intensity decrease due to absorption of the broad band constituent determined as light exits the cavity. a cavity for receiving the mixed constituent gas; a laser for providing a light beam of a specific spectral position and width in the cavity, the laser configured to be tuned across a laser tuning range encompassing at least a spectral peak or a spectral trough of the at least one narrow band absorber constituent while the light bearr in the cavity maintains a pseudo-steady state, wherein a spectral ending point of the laser tuning range is locked relative to either the spectral peak or the spectral trough of the at least one narrow band absorber constituent at a desired absorption wavelength of the at least one broad band absorber in the cavity; a plurality of mirrors (81, 82) for providing reflection of the light beam within the cavity; a detector for measuring the light beam exiting the cavity; and a processing unit configured to (i) provide a feedback control to lock the laser, the feedback being provided in relation to the spectral peak or trough of the narrow band constituent, and (ii) determine the measurement value of the at least one broad band absorber constituent based on a cavity ringdown in the presence of the at least one broadband absorber constituent and a cavity reference value when the cavity is free of the at least one broad band absorber constituent, wherein the cavity ringdown includes a temporal light intensity decrease due to absorption of the broad band constituent determined as light exits the cavity.