mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for manufacturing a cosmetic product, comprising: - a first capsule including a first deformable compartment containing a predetermined amount of a first formulation, and a second capsule including a second deformable compartment containing a predetermined amount of a second formulation, the first and second capsules (3, 4) being distinct from each other, - a receiving device configured to receive the first and second capsules (3, 4), and - a mixing machine configured to receive the receiving device equipped with the first and second capsules (3, 4), and to mix the first and second formulations contained in the first and second capsules (3, 4) so as to obtain the cosmetic product, the mixing machine including a receiving housing and an insertion opening leading into the receiving housing, the receiving housing being configured to receive at least partially the receiving device, characterized in that the receiving device is configured to be inserted into the receiving housing through the insertion opening. - a first capsule including a first deformable compartment containing a predetermined amount of a first formulation, and a second capsule including a second deformable compartment containing a predetermined amount of a second formulation, the first and second capsules (3, 4) being distinct from each other, - a receiving device configured to receive the first and second capsules (3, 4), and - a mixing machine configured to receive the receiving device equipped with the first and second capsules (3, 4), and to mix the first and second formulations contained in the first and second capsules (3, 4) so as to obtain the cosmetic product, the mixing machine including a receiving housing and an insertion opening leading into the receiving housing, the receiving housing being configured to receive at least partially the receiving device, characterized in that the receiving device is configured to be inserted into the receiving housing through the insertion opening.
A steering controller (50; 154) to control a motor (41; 151) in accordance with a command value (T p *; T a *) calculated in response to a steering state, the motor being a source of a driving force to be provided to a steering operation mechanism configured to steer a steered wheel of a vehicle, the steering controller (50; 154) comprising a first calculation circuit (62; 163) to calculate a target rotation angle (θ p *) of a rotator in accordance with the steering state, the rotator being a component of the steering operation mechanism and being configured to rotate in conjunction with steering of the steered wheel, and a second calculation circuit (64; 164) to calculate the command value (T p *; T a *) by performing feedback control such that an actual rotation angle (θ p) of the rotator corresponds to the target rotation angle (θ p *), the steering controller being characterized by comprising a compensation control circuit to calculate a compensation amount (θ pb, θ pc, θ pd) in response to the steering state so as to compensate for at least one of an inertia component, a viscosity component, and a spring component of the steering operation mechanism in accordance with the target rotation angle (θ p *) of the rotator, the compensation amount (θ pb, θ pc, θ pd) being reflected in the command value (T p *; T a *), wherein the compensation control circuit includes a compensation amount calculation circuit to calculate the compensation amount (θ pb, θ pc, θ pd) in accordance with the target rotation angle (θ p *) calculated by the first calculation circuit, and an adder to add the compensation amount (θ pb, θ pc, θ pd) to the target rotation angle (θ p *) so as to calculate a final target rotation angle (θ p *(FINAL)) to be used for the calculation of the command value (T p *; T a *), the compensation amount (θ pb, θ pc, θ pd) being calculated by the compensation amount calculation circuit, the target rotation angle (θ p *) being calculated by the first calculation circuit (62; 163). a compensation amount calculation circuit to calculate the compensation amount (θ pb, θ pc, θ pd) in accordance with the target rotation angle (θ p *) calculated by the first calculation circuit, and an adder to add the compensation amount (θ pb, θ pc, θ pd) to the target rotation angle (θ p *) so as to calculate a final target rotation angle (θ p *(FINAL)) to be used for the calculation of the command value (T p *; T a *), the compensation amount (θ pb, θ pc, θ pd) being calculated by the compensation amount calculation circuit, the target rotation angle (θ p *) being calculated by the first calculation circuit (62; 163).
Amine oxide of the formula wherein R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration or R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration. R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration or * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration. * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration.
An elastomer composition comprising: (a) an elastomer blend component; (b) at least one first odor-reducing component; and (c) at least one second odor-reducing component, wherein the first odor-reducing component (b) is selected from the group consisting of plant oils, plant-based diluents, and mixtures thereof; wherein the second odor-reducing component (c) is at least one silicone. (a) an elastomer blend component; (b) at least one first odor-reducing component; and (c) at least one second odor-reducing component, wherein the first odor-reducing component (b) is selected from the group consisting of plant oils, plant-based diluents, and mixtures thereof; wherein the second odor-reducing component (c) is at least one silicone.
A chimeric antigen receptor, comprising from the N-terminus to the C-terminus an extracellular part, a transmembrane domain and at least one intracellular signaling domain, wherein the extracellular part of said CAR comprises a) at least one antigen binding domain, and b) at least one cytokine receptor activating domain, wherein said at least one cytokine receptor activation domain is selected from the group consisting of IL-1, IL-2, IL-4, IL-6, IL-7, GM-CSF, p35-p40 variant of IL-12, IL 18, and IL-32. a) at least one antigen binding domain, and b) at least one cytokine receptor activating domain,
Dosing device for generating a gas flow with an active substance finely dispersed in said gas flow as a result of a negative pressure applied to a mouthpiece of the dosing device, said dosing device having a first gas flow channel (60, 61, 62, 63, 68) and a dosing chamber, which is situated at least sometimes in the region of the first gas flow channel (60, 61, 62, 63, 68), as well as a dosing chamber release mechanism which has a separating element (54, 76, 77) which can be displaced between a closed position and an open position, wherein, in the closed position of the separating element (54, 76, 77), the first gas flow channel (60, 61, 62, 63, 68) and/or a connection between the first gas flow channel and the dosing chamber is blocked and, in the open position of the separating element (54, 76, 77), the first gas flow channel (60, 61, 62, 63, 68) and/or the connection between the first gas flow channel and the dosing chamber is released, and having a slide guide element (53, 55) on which the separating element (54, 76, 77) is displaceable between the closed position and the open position and on which the separating element (54, 76, 77) is driveable by means of the negative pressure applied at the mouthpiece, and wherein the separating element (54, 76, 77) and/or the slide guide element (53, 55) is provided at least in the sliding contact region with a slide element (100a, 100b, 101) that influences the sliding friction properties.
A lead casing for pencil characterized in that it is made of a composition comprising, by weight relative to the total weight of the lead casing for pencil: a) from 50 to 95%, advantageously from 60 to 95%, of a mixture of polylactic acid and polybutylene adipate terephthalate in a weight ratio polylactic acid/polybutylene adipate terephthalate ranging from 60/40 to 90/10, and b) from 5 to 40%, advantageously from 7 to 30%, of mineral fillers chosen in the group consisting of shellfish shells, preferably oyster shells, and more preferably milled oyster shells. a) from 50 to 95%, advantageously from 60 to 95%, of a mixture of polylactic acid and polybutylene adipate terephthalate in a weight ratio polylactic acid/polybutylene adipate terephthalate ranging from 60/40 to 90/10, and b) from 5 to 40%, advantageously from 7 to 30%, of mineral fillers chosen in the group consisting of shellfish shells, preferably oyster shells, and more preferably milled oyster shells.
Gas turbine engine comprising: an annular first combustor assembly; a second combustor assembly; at least three optical flame detectors, arranged to monitor flame presence in the first combustor assembly and configured to supply respective flame monitoring signals (SFM1, SFM2, SFM3) having a first state when a flame is detected in the first combustor assembly and a second state (FOFF) otherwise; a temperature monitoring assembly, configured to detect a control temperature of hot gas flowing from the first combustor assembly to the second combustor assembly at a location downstream of the first combustor assembly; and a processing unit, configured to determine dangerous flame failure based, at least in a control range of operating conditions, on the flame monitoring signals (SFM1, SFM2, SFM3) and a control function of the control temperature and based on M-out-of-N activation redundancy with Hardware Failure Tolerance of at least 1, wherein M is at least 3 and N is at least 4. an annular first combustor assembly; a second combustor assembly; at least three optical flame detectors, arranged to monitor flame presence in the first combustor assembly and configured to supply respective flame monitoring signals (SFM1, SFM2, SFM3) having a first state when a flame is detected in the first combustor assembly and a second state (FOFF) otherwise; a temperature monitoring assembly, configured to detect a control temperature of hot gas flowing from the first combustor assembly to the second combustor assembly at a location downstream of the first combustor assembly; and a processing unit, configured to determine dangerous flame failure based, at least in a control range of operating conditions, on the flame monitoring signals (SFM1, SFM2, SFM3) and a control function of the control temperature and based on M-out-of-N activation redundancy with Hardware Failure Tolerance of at least 1, wherein M is at least 3 and N is at least 4.
A water purifier comprising: a cooling water tank storing cooling water; a partition member mounted inside the cooling water tank and partitioning an inner space of the cooling water tank into an upper space and a lower space; a cold water pipe which is accommodated in the lower space and through which edible water flows; an evaporator which is accommodated in the upper space and through which a refrigerant flows; and an agitator penetrating the partition member and disposed in the lower space so as to stir the cooling water, wherein the partition member comprises: a bottom portion on which the evaporator is mounted, the bottom portion having a plurality of cooling water through-holes formed therein; and an outer wall portion extending upward along an edge of the bottom portion to form an evaporator accommodating portion, wherein the outer wall portion is spaced apart from an inner wall of the cooling water tank so as to prevent ice formed in the evaporator accommodating portion from being in contact with the inner wall of the cooling water tank. a cooling water tank storing cooling water; a partition member mounted inside the cooling water tank and partitioning an inner space of the cooling water tank into an upper space and a lower space; a cold water pipe which is accommodated in the lower space and through which edible water flows; an evaporator which is accommodated in the upper space and through which a refrigerant flows; and an agitator penetrating the partition member and disposed in the lower space so as to stir the cooling water, wherein the partition member comprises: a bottom portion on which the evaporator is mounted, the bottom portion having a plurality of cooling water through-holes formed therein; and an outer wall portion extending upward along an edge of the bottom portion to form an evaporator accommodating portion, wherein the outer wall portion is spaced apart from an inner wall of the cooling water tank so as to prevent ice formed in the evaporator accommodating portion from being in contact with the inner wall of the cooling water tank. a bottom portion on which the evaporator is mounted, the bottom portion having a plurality of cooling water through-holes formed therein; and an outer wall portion extending upward along an edge of the bottom portion to form an evaporator accommodating portion, wherein the outer wall portion is spaced apart from an inner wall of the cooling water tank so as to prevent ice formed in the evaporator accommodating portion from being in contact with the inner wall of the cooling water tank.
Plant comprising at least two apparatuses for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which plant comprises at least one powder module (6, 12 - 14) separably connected or connectable with the apparatuses, wherein the at least one powder module (6, 12 - 14) is moveable in a loading direction into the apparatus and in an unloading direction out of the apparatus, wherein the powder module (6, 12 - 14) is moved into a work position along the loading direction and out of the work position along the unloading direction, wherein the loading direction and the unloading direction comprise at least one directional component extending in the same direction, wherein the loading direction and the unloading direction define an angle between 90° and 180°, wherein the plant comprises multiple apparatuses, wherein at least two apparatuses are arranged in series and one lane connects two corresponding work positions of two apparatuses, wherein at least one apparatus is connected via at least one lane (3 - 5) with at least one pre-processing and/or post-processing device, wherein at least one powder module (6, 12 - 14) is movable along the at least one lane (3 - 5) from the pre-processing and/or post-processing device to the work position of the apparatus and/or from the work position of the apparatus to the pre-processing and/or post-processing device, characterised in that at least one pre-processing and/or post-processing device is arranged between two apparatuses that are arranged in series.
A micro check valve comprising a substrate body having a top side and an underside, wherein the top side includes a first trough and a second trough with a sealing bar between the first trough and the second trough, and the substrate body has at least one passage which leads from the underside of the substrate body to the top side of the substrate body and ends in the first trough, characterized in that arranged on the top side of the substrate body is a deposited diaphragm which is flexible at least in the region above the first trough, the second trough and the sealing bar in order to move at least in the direction of a normal vector to the surface of the substrate body with respect to the substrate body, and the diaphragm has at least one through opening arranged in the region of the diaphragm, that is arranged above the second trough.
A method for coding spectral peak positions of an audio signal segment, the method comprising: - determining (301, 302) which one out of two lossless spectral peak position coding schemes to use for coding the spectral peak positions of the audio signal segment, wherein a first lossless spectral peak position coding scheme is suitable for periodic or semi-periodic spectral peak position distributions, and a second lossless spectral peak position coding scheme is suitable for sparse spectral peak position distributions; and wherein the determining is based on a maximum distance d max between two spectral peaks in the audio signal segment and on comparing the number of bits consumed by the first and the second coding scheme for coding the spectral peak positions; - selecting the second spectral peak position coding scheme if the maximum distance d max between two spectral peaks in the audio signal segment exceeds a threshold T; - selecting the spectral peak position coding scheme that requires the least number of bits to code the spectral peak positions of the audio signal segment if the maximum distance d max does not exceed the threshold T; and - indicating the selected coding scheme to a decoder in association with the coded spectral peak positions. - determining (301, 302) which one out of two lossless spectral peak position coding schemes to use for coding the spectral peak positions of the audio signal segment, wherein a first lossless spectral peak position coding scheme is suitable for periodic or semi-periodic spectral peak position distributions, and a second lossless spectral peak position coding scheme is suitable for sparse spectral peak position distributions; and wherein the determining is based on a maximum distance d max between two spectral peaks in the audio signal segment and on comparing the number of bits consumed by the first and the second coding scheme for coding the spectral peak positions; - selecting the second spectral peak position coding scheme if the maximum distance d max between two spectral peaks in the audio signal segment exceeds a threshold T; - selecting the spectral peak position coding scheme that requires the least number of bits to code the spectral peak positions of the audio signal segment if the maximum distance d max does not exceed the threshold T; and - indicating the selected coding scheme to a decoder in association with the coded spectral peak positions.
A neutron proportional counter, comprising: a chamber comprising an anode and a cathode; and a gas mixture contained within the chamber, the gas mixture comprising: at least one neutron sensitive fill gas; and a quench gas characterized by the quench gas comprising BF 3. a chamber comprising an anode and a cathode; and a gas mixture contained within the chamber, the gas mixture comprising: at least one neutron sensitive fill gas; and a quench gas characterized by the quench gas comprising BF 3. at least one neutron sensitive fill gas; and a quench gas characterized by the quench gas comprising BF 3.
Surface-treated rare earth-based magnetic particles comprising rare-earth-based magnetic particles which are coated with a phosphoric acid compound and then coated with a composite coating layer of a silicon compound and a phosphoric acid compound, an amount of Fe eluted from the rare earth-based magnetic particles being not more than 10 mg/L.
Electrochemical process for preparing bis-O-alkyl-carbamates from primary diamines with CO 2 as carbonyl source, characterized in that at least one alkyl halide with at least 3 C-atoms in the alkyl group is used as alkylating agent in the presence of at least one iodide source and that the process is carried out at 10 to 215 °C, wherein the iodide source is not an alkyl iodide.
Process comprising the steps of a) transurethanizing a polyether polyurethane with at least one low-molecular-weight alcohol having at least 2 hydroxyl groups per molecule and a molecular weight of not more than 500 g/mol, forming polyether polyols and low-molecular-weight urethanes; and b) enzymatically cleaving the low-molecular-weight urethanes formed in process step a), with liberation of at least one amine and the at least one low-molecular-weight alcohol used in process step a). a) transurethanizing a polyether polyurethane with at least one low-molecular-weight alcohol having at least 2 hydroxyl groups per molecule and a molecular weight of not more than 500 g/mol, forming polyether polyols and low-molecular-weight urethanes; and b) enzymatically cleaving the low-molecular-weight urethanes formed in process step a), with liberation of at least one amine and the at least one low-molecular-weight alcohol used in process step a).
A multilayer radio frequency sealable film comprising an inner barrier layer and at least one layer forming an exterior surface of the film, said exterior layer comprising a blend of an ethylene/alpha olefin copolymer and 20% to 80% by weight of an ethylene acrylate and/or ethylene vinyl acetate copolymer selected from the group consisting of ethylene methyl acrylate, ethylene vinyl acetate and ethylene butyl acrylate, and combinations thereof, wherein the film has a dielectric loss of at least 0.02 determined in accordance with ASTM D 150.
Water heater for the provision of hot water, comprising a control device having a plurality of electronic components for controlling the water heater and a coolant pipe, through which cold water flows during operation, characterised in that the coolant pipe has at least one cooling region (5, 7) having at least two essentially opposing flattened cooling surfaces (5, 7), such that the electronic components of the control device are arranged on both sides on the essentially opposing cooling surfaces (5, 7), in order to cool the electronic components, characterised in that the control device has a circuit board with a first and a second circuit board side, on which the electronic components are arranged on both sides, and that the coolant pipe runs via a first and/or a second side of the circuit board of the control device.