mhurhangee/ep-ind-claims huggingface dataset:
A method for making a cheese comprising adding at least two live food grade micro-organisms to a milk, wherein said two micro-organisms are at least one yeast strain selected from the genus Kluyveromyces and at least one bacterial strain selected from the genus Propionibacterium, wherein said bacterial strain controls the growth and/or survival of said yeast strain during the production process of said cheese, and wherein the bacterial strain selected from the genus Propionibacterium produces during the production process propionic acid at a level of at least 2 mmol per kg cheese moisture.
A smoking article comprising: a rod having a first end and a second end; a combustible heat source located at or proximate to the second end of the rod; and a removable cap, the removable cap being removably couplable to both the first end and the second end of the rod, wherein in a first configuration of the smoking article the removable cap is coupled to the first end of the rod such that air may be drawn from the rod through the removable cap, and in a second configuration of the smoking article the removable cap is coupled to the second end of the rod such that the second end is at least substantially covered by the removable cap such that in the second configuration the removable cap facilitates disposal of the smoking article after use, and wherein the removable cap comprises a thermally insulating material to thermally isolate the combustible heat source when the removable cap is coupled to the second end of the rod, and wherein the removable cap further comprises one or more materials that, when coupled to the second end of the rod: (a) undergo decomposition to produce a decomposition product that extinguishes the heat source; or (b) undergo a phase change to consume heat energy produced by the heat source, the one or more phase change materials comprising a polymer, a wax, or both a polymer and a wax. a rod having a first end and a second end; a combustible heat source located at or proximate to the second end of the rod; and a removable cap, the removable cap being removably couplable to both the first end and the second end of the rod, wherein in a first configuration of the smoking article the removable cap is coupled to the first end of the rod such that air may be drawn from the rod through the removable cap, and in a second configuration of the smoking article the removable cap is coupled to the second end of the rod such that the second end is at least substantially covered by the removable cap such that in the second configuration the removable cap facilitates disposal of the smoking article after use, and wherein the removable cap comprises a thermally insulating material to thermally isolate the combustible heat source when the removable cap is coupled to the second end of the rod, and wherein the removable cap further comprises one or more materials that, when coupled to the second end of the rod: (a) undergo decomposition to produce a decomposition product that extinguishes the heat source; or (b) undergo a phase change to consume heat energy produced by the heat source, the one or more phase change materials comprising a polymer, a wax, or both a polymer and a wax. (a) undergo decomposition to produce a decomposition product that extinguishes the heat source; or (b) undergo a phase change to consume heat energy produced by the heat source, the one or more phase change materials comprising a polymer, a wax, or both a polymer and a wax.
A method of preparing a pharmaceutical composition comprising acetaminophen and nefopam, wherein said method comprises a. in a first process step, providing a wet granulated powder by mixing acetaminophen, one or more excipients and water; b. in a second process step, mixing the wet granulated powder with nefopam and a lubricant, and c. in a third process step, forming the pharmaceutical composition, wherein the first process step further comprises drying the wet granulated powder to a water content of between 2 and 5 wt%. a. in a first process step, providing a wet granulated powder by mixing acetaminophen, one or more excipients and water; b. in a second process step, mixing the wet granulated powder with nefopam and a lubricant, and c. in a third process step, forming the pharmaceutical composition,
Clutch mechanism for electromechanical lock cylinders, where the clutch mechanism comprises the following: • an electromagnetic motor having an output shaft connected to a screw spindle; • a movable carriage that can be moved in an axial manner by means of said spindle; the movable carriage in turn comprises clutch pegs and a resilient device in its interior which is engaged in a thread root of the spindle, and which moves the movable carriage between a clutch-released position and a clutch-engaged position; characterized in that the resilient device is determined by two front springs joined at one of the ends thereof by a common transverse portion engaged in the thread root of the spindle, wherein in the clutch-released position the two front springs are compressed, and in the clutch-engaged position, the common transverse portion is deformed, such that in both positions, the common transverse portion pushes continuously against the spindle. • an electromagnetic motor having an output shaft connected to a screw spindle; • a movable carriage that can be moved in an axial manner by means of said spindle; the movable carriage in turn comprises clutch pegs and a resilient device in its interior which is engaged in a thread root of the spindle, and which moves the movable carriage between a clutch-released position and a clutch-engaged position;
Bushing assembly comprising terminal ears coupled to opposed end walls of the bushing assembly, for heating the bushing tip plate and walls, each of said terminal ears comprising: (a) an electrically conductive plate, said conductive plate comprising at least a first portion extending along a longitudinal axis from a first terminal edge substantially normal to said longitudinal axis and coupled to a bushing end wall, and further comprising a second, free terminal edge connectable to a source of power, and (b) at least one elongated reinforcing member coupled to said at least first portion of said plate to increase the bending moment of the latter, characterized in that, said at least one elongated reinforcing member extends from, or adjacent to the plate first terminal edge along a direction non parallel and non normal to said longitudinal axis. (a) an electrically conductive plate, said conductive plate comprising at least a first portion extending along a longitudinal axis from a first terminal edge substantially normal to said longitudinal axis and coupled to a bushing end wall, and further comprising a second, free terminal edge connectable to a source of power, and (b) at least one elongated reinforcing member coupled to said at least first portion of said plate to increase the bending moment of the latter,
An airbag module for a steering wheel, comprising a gas generator support, a gas generator that includes a flange-type extension and is retained at said gas generator support, an associated retainer having a recess, an airbag being inflatable by said gas generator and being at least partially clamped between said retainer and said gas generator support, said gas generator being at least partially arranged in said recess of said associated retainer, characterized in that said flange-type extension of said gas generator is retained between said associated retainer and said gas generator support such that said gas generator is retained at said gas generator support by means of said associated retainer, wherein said retainer comprises at least one retaining element that releasably retains said gas generator in said recess and that radially spring-loads said gas generator with respect to said recess.
A personal protective device tether, comprising: an elongate tether comprising a polymer blend, the tether defining opposing, first and second ends and a length separating the first and second ends; wherein the tether is configured to provide an initial state in which the length is an initial length; and further wherein the tether is configured to self-retain a stretched state when stretched from the initial state at a first temperature, the length in the stretched state being a stretched length that is greater than L1; and even further wherein the tether is configured to self-transition from the stretched state to a recovered state when heated to a second temperature greater than T1, the length in the recovered state being a recovered length that is less than L2. an elongate tether comprising a polymer blend, the tether defining opposing, first and second ends and a length separating the first and second ends; wherein the tether is configured to provide an initial state in which the length is an initial length; and further wherein the tether is configured to self-retain a stretched state when stretched from the initial state at a first temperature, the length in the stretched state being a stretched length that is greater than L1; and even further wherein the tether is configured to self-transition from the stretched state to a recovered state when heated to a second temperature greater than T1, the length in the recovered state being a recovered length that is less than L2.
A method of controlling a voltage source converter including at least one converter limb (16A, 16B, 16C), the or each converter limb (16A, 16B, 16C) extending between first and second DC terminals (12, 14) and including first and second limb portions (18A, 18B, 18C, 20A, 20B, 20C) separated by an AC terminal (22A, 22B, 22C), at least one limb portion (18A, 18B, 18C, 20A, 20B, 20C) including a chain-link converter having a plurality of series-connected modules, each module including at least one switching element and at least one energy storage device, the or each switching element and the or each energy storage device of each module combining to selectively provide a voltage source (V IND), characterized in that the corresponding chain-link converter is operable to provide a stepped variable voltage source (V A+, V B+, V C+, V A-, V B-, V C-), the method comprising with respect to at least one chain-link converter the steps of: (a) establishing during an operating cycle of the chain-link converter a utilisation peak (Up) based on the actual peak number of modules providing a voltage source (V IND), wherein the utilisation peak (U P) is a ratio of the actual peak number of modules providing a voltage source (V IND) during an operating cycle of the chain-link converter to the total number of modules available to provide a voltage source; (b) establishing a target utilisation (U T) based on a desired number of modules providing a voltage source (V IND) during an operating cycle of the chain-link converter; and (c) determining, based on a difference between the established utilisation peak (U P) and the target utilisation (U T), a control function (Fc) which modifies an operating cycle average module voltage (V AVE) of the modules within the chain-link converter and alters the peak number of modules providing a voltage source (V IND) during a subsequent operating cycle of the chain-link converter so as to drive the utilisation peak (Up) towards the target utilisation (U T). (a) establishing during an operating cycle of the chain-link converter a utilisation peak (Up) based on the actual peak number of modules providing a voltage source (V IND), wherein the utilisation peak (U P) is a ratio of the actual peak number of modules providing a voltage source (V IND) during an operating cycle of the chain-link converter to the total number of modules available to provide a voltage source; (b) establishing a target utilisation (U T) based on a desired number of modules providing a voltage source (V IND) during an operating cycle of the chain-link converter; and (c) determining, based on a difference between the established utilisation peak (U P) and the target utilisation (U T), a control function (Fc) which modifies an operating cycle average module voltage (V AVE) of the modules within the chain-link converter and alters the peak number of modules providing a voltage source (V IND) during a subsequent operating cycle of the chain-link converter so as to drive the utilisation peak (Up) towards the target utilisation (U T).
A photocurable inkjet printing ink composition containing a photopolymerizable compound and a photopolymerization initiator, wherein in 100 percent by mass of the photocurable inkjet printing ink composition, included are: a. an acryloyl morpholine monomer by 20.0 to 50 percent by mass; b. a monofunctional monomer other than acrylamide-based monomer by 15 to 70 percent by mass; c. a polymerizable compound having two or more functionalities by 5.0 to 30.0 percent by mass; d. vinyl caprolactam by 0.1 to 15 percent by mass and an acrylated amine compound having two photopolymerizable functional groups and two amino groups in the molecule by 0 to 10 percent by mass; and e. the percentage of monofunctional monomers in the photopolymerizable compound is 60 to 99.5 percent by mass. a. an acryloyl morpholine monomer by 20.0 to 50 percent by mass; b. a monofunctional monomer other than acrylamide-based monomer by 15 to 70 percent by mass; c. a polymerizable compound having two or more functionalities by 5.0 to 30.0 percent by mass; d. vinyl caprolactam by 0.1 to 15 percent by mass and an acrylated amine compound having two photopolymerizable functional groups and two amino groups in the molecule by 0 to 10 percent by mass; and e. the percentage of monofunctional monomers in the photopolymerizable compound is 60 to 99.5 percent by mass.
A method in an apparatus, the method comprising: transmitting configuration information regarding a downlink control information message for a physical uplink shared channel transmission; sending the downlink control information message on a physical downlink control channel in a first subframe to a user equipment, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; and receiving, from the user equipment, a data packet on the physical uplink shared channel in a resource of a selected resource assignment in the second subframe on the uplink carrier, where the selected resource assignment is selected from the plurality of resource assignments; wherein a cyclic shift for a demodulation reference signal for the received data packet is based on a cell radio network temporary identifier of the user equipment that sent the data packet. transmitting configuration information regarding a downlink control information message for a physical uplink shared channel transmission; sending the downlink control information message on a physical downlink control channel in a first subframe to a user equipment, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; and receiving, from the user equipment, a data packet on the physical uplink shared channel in a resource of a selected resource assignment in the second subframe on the uplink carrier, where the selected resource assignment is selected from the plurality of resource assignments; wherein a cyclic shift for a demodulation reference signal for the received data packet is based on a cell radio network temporary identifier of the user equipment that sent the data packet.
A hydraulic unit comprising at least two pressure connections (2, 3) for the required supply of one or more hydraulically driven devices (4, 5), in particular hydraulic rescue devices, with hydraulic fluid from a fluid container, comprising a first hydraulic circuit with a first pump arrangement consisting of at least two first pump elements (13, 14) from which first fluid lines (20, 21) lead to a first pressure connection, at least one second hydraulic circuit with a second pump arrangement consisting of at least two second pump elements (16, 17) from which second fluid lines (23, 24) lead to a second pressure connection, wherein the first pump elements (13, 14) and the second pump elements (16, 17) are driven at the same time by a common drive, and wherein by means of a first directional valve arranged in one of the first fluid lines, the volume flow of said first fluid line can be diverted via a first connecting line to a second fluid line in the second hydraulic circuit, and by means of a second directional valve arranged in one of the second fluid lines, the volume flow of said second fluid line can be diverted via a second connecting line to a first fluid line in the first hydraulic circuit, wherein the directional valves (26, 28) comprise a spring (30, 31) acting in the direction of an initial position and a first control line runs from the first hydraulic circuit or from the second hydraulic circuit to a first actuator acting on the first directional valve and a second control line runs from the second hydraulic circuit or from the first hydraulic circuit to a second actuator acting on the second directional valve, wherein the first pump elements (13, 14) comprise at least one high pressure element with a lower flow rate at a reference intensity of the drive and at least one low pressure element with a higher flow rate at the reference intensity, and the second pump elements (16, 17) comprise at least one high pressure element with a lower flow rate and at least one low pressure element with a higher flow rate, and each of the first and second directional valves (26, 28) are arranged in the fluid lines (21, 24) leading away from the low pressure elements (42, 43).
A method of imaging cellular plasma membrane potential, the method comprising: providing a construct comprising a nanoparticle operable as an electron donor; a modular peptide attached to the nanoparticle; and an electron acceptor, the peptide comprising a nanoparticle association domain, a motif configured to mediate peptide insertion into the plasma membrane, and at least one attachment point for an attachment of the peptide to the electron acceptor positioned at a controlled distance from the nanoparticle; contacting a cell with the construct; and measuring a change in photoluminescence from the electron donor, wherein a rate of electron transfer between the electron donor and the electron acceptor is modulated by changes in plasma membrane potential and the construct correlates modulation of the rate of electron transfer by the change in photoluminescence, wherein the modular peptide is selected from the group consisting of SEQ ID No: 1, SEQ ID No: 2, and SEQ ID No: 3, and wherein the nanoparticle is a quantum dot, and wherein the electron acceptor is C 60. providing a construct comprising a nanoparticle operable as an electron donor; a modular peptide attached to the nanoparticle; and an electron acceptor, the peptide comprising a nanoparticle association domain, a motif configured to mediate peptide insertion into the plasma membrane, and at least one attachment point for an attachment of the peptide to the electron acceptor positioned at a controlled distance from the nanoparticle; contacting a cell with the construct; and measuring a change in photoluminescence from the electron donor, wherein a rate of electron transfer between the electron donor and the electron acceptor is modulated by changes in plasma membrane potential and the construct correlates modulation of the rate of electron transfer by the change in photoluminescence, wherein the modular peptide is selected from the group consisting of SEQ ID No: 1, SEQ ID No: 2, and SEQ ID No: 3, and wherein the nanoparticle is a quantum dot, and wherein the electron acceptor is C 60.
A process for the direct amination of hydrocarbons to aminohydrocarbons, which comprises the steps: a) reaction of a feed stream E comprising at least one hydrocarbon and at least one aminating reagent to form a reaction mixture R comprising aminohydrocarbons and hydrogen and b) electrochemical separation of at least part of the hydrogen formed in the reaction from the reaction mixture R by means of a gastight membrane-electrode assembly having at least one selectively proton-conducting membrane and at least one electrode catalyst on each side of the membrane, where at least part of the hydrogen is oxidized to protons over the anode catalyst on the retentate side of the membrane and the protons are, after passing through the membrane, b1) reduced to hydrogen and/or b2) reacted with oxygen from an oxygen-comprising stream 0 which is brought into contact with the permeate side of the membrane to form water over the cathode catalyst on the permeate side. a) reaction of a feed stream E comprising at least one hydrocarbon and at least one aminating reagent to form a reaction mixture R comprising aminohydrocarbons and hydrogen and b) electrochemical separation of at least part of the hydrogen formed in the reaction from the reaction mixture R by means of a gastight membrane-electrode assembly having at least one selectively proton-conducting membrane and at least one electrode catalyst on each side of the membrane, where at least part of the hydrogen is oxidized to protons over the anode catalyst on the retentate side of the membrane and the protons are, after passing through the membrane, b1) reduced to hydrogen and/or b2) reacted with oxygen from an oxygen-comprising stream 0 which is brought into contact with the permeate side of the membrane to form water over the cathode catalyst on the permeate side. b1) reduced to hydrogen and/or b2) reacted with oxygen from an oxygen-comprising stream 0 which is brought into contact with the permeate side of the membrane to form water
An Ophthalmic composition comprising an association of Alpha-Glyceryl-Phosphoryl-Choline, vitamin and pro-vitamin factors belonging to group B and a rheological agent commonly used in ophthalmic compositions; wherein vitamin and pro-vitamin factors belonging to group B are vitamin B6, vitamin B12 and D-panthenol;and wherein the rheological agent is: a cellulose derivative, carboxymethyl cellulose, hydroxypropylethyl cellulose, hydroxyethyl cellulose, polyvinyl alcohol and its derivatives, xanthan gum, a thermogelling polymer, Bis-Methoxy PEG-13, PEG-438/SMDI PPG-110 copolymer, hyaluronic acid or a salt thereof.