mhurhangee/ep-ind-claims huggingface dataset:
A polyethylene composition suitable for use in a living hinge component, the composition comprising: a first ethylene-based polymer component, wherein the first ethylene-based polymer component has a density of from 0.940 g/cc to less than 0.960 g/cc, a melt index, I 2.16, of less than 0.5 g/10 min, and a weight average molecular weight as measured by gel permeation chromatography measured according to the method described in the description, M w,cc, of greater than or equal to 200,000 g/mol; and a second ethylene-based polymer component, wherein the second ethylene-based polymer component has a density from 0.940 g/cc to less than 0.970 g/cc and a melt index, I 2.16, of 20 - 150 g/10 min; wherein the composition has an overall density of from 0.945 g/cc to 0.960 g/cc and an overall melt index, I 2.16, of from 10 g/10 min to 70 g/10 min. a first ethylene-based polymer component, wherein the first ethylene-based polymer component has a density of from 0.940 g/cc to less than 0.960 g/cc, a melt index, I 2.16, of less than 0.5 g/10 min, and a weight average molecular weight as measured by gel permeation chromatography measured according to the method described in the description, M w,cc, of greater than or equal to 200,000 g/mol; and a second ethylene-based polymer component, wherein the second ethylene-based polymer component has a density from 0.940 g/cc to less than 0.970 g/cc and a melt index, I 2.16, of 20 - 150 g/10 min; wherein the composition has an overall density of from 0.945 g/cc to 0.960 g/cc and an overall melt index, I 2.16, of from 10 g/10 min to 70 g/10 min.
Device for preparing plastic containers for putting into use, wherein the containers are formed in container blocks side by side along separating lines with respect to one another, along which the individual containers can be separated from one another for use and along which cutting blades can at least partially be movably guided, the respective cutting blade being arranged on a carriage and guided such that it can be displaced to and from between a usage position and a non-usage position, and wherein the respective cutter blade, lowered in its non-usage position, is at a distance from the containers to be separated from one another, characterised in that, in the usage position, the respective cutter blade is displaced, raised by a swivel apparatus (54, 78, 82), along the respective assignable separating line.
A method for producing dipropylene glycol containing 1,1'-oxybis-2-propanol in a proportion of 0.10 to 0.70 and/or tripropylene glycol containing 1,1'-[(1-methyl-1,2-ethanediyl)bis(oxy)]bis-2-propanol in a proportion of 0.10 to 0.70, the method comprising a reaction step of making a reactant comprising propylene oxide and water react in the presence of a catalyst, wherein the catalyst comprises at least one element selected from the group consisting of vanadium, niobium, and tantalum, and the Hammett acidity function of the catalyst satisfies H ≤ 9.3.
A respiratory therapy apparatus comprising a housing having a bottom wall, a pneumatic system carried by the housing, the pneumatic system including a first pressure source, at least one valve, and control circuitry, a pneumatic patient circuit, an outlet port carried by the housing, the pneumatic system being configured to deliver respiratory therapy to a patient via the outlet port and the pneumatic patient circuit, a nebulizer coupled to the pneumatic patient circuit, a nebulizer tray selectively couplable to a bottom of the housing so as to underlie at least a majority of the bottom wall, and a second pressure source carried by the nebulizer tray and operable to provide pressurized air to the nebulizer. a housing having a bottom wall, a pneumatic system carried by the housing, the pneumatic system including a first pressure source, at least one valve, and control circuitry, a pneumatic patient circuit, an outlet port carried by the housing, the pneumatic system being configured to deliver respiratory therapy to a patient via the outlet port and the pneumatic patient circuit, a nebulizer coupled to the pneumatic patient circuit, a nebulizer tray selectively couplable to a bottom of the housing so as to underlie at least a majority of the bottom wall, and a second pressure source carried by the nebulizer tray and operable to provide pressurized air to the nebulizer.
A rotating device for rotating a load suspended at a suspension, wherein the rotating device is attachable at the suspension and the rotating device comprises: a motor whose motor shaft is basically vertically oriented in its suspended state and is connectable to the load in a torque-proof manner, wherein the motor housing is fixedly connected to a rotatable rotation body (21; 33); characterized in that the rotation body (21; 33) is fixedly connected to an energy storage and the axis of the motor shaft basically overlaps with a main axis of inertia of the rotation body. a motor whose motor shaft is basically vertically oriented in its suspended state and is connectable to the load in a torque-proof manner, wherein the motor housing is fixedly connected to a rotatable rotation body (21; 33); characterized in that the rotation body (21; 33) is fixedly connected to an energy storage and the axis of the motor shaft basically overlaps with a main axis of inertia of the rotation body.
A food composition comprising from 1-60% protein, from 1-50% carbohydrate, from 1-40% MCT fat, and a maintaining amount of at least one MCT maintaining component, wherein the food composition comprises at least one MCT integrally incorporated into the food matrix and at least one MCT not integrally incorporated into the food matrix, wherein the MCT from the MCT fat is integrally incorporated into the food composition and comprises from 2-10% of the food composition; wherein the MCT not integrally incorporated into the food matrix is a coating comprising 2 to 7% MCT of the food composition; wherein the food composition comprises from 10-15% total MCT; wherein the MCT maintaining component comprises gluten meal and wherein the food composition is an extruded food composition.
A method for making specific discrete polyethylene glycol (dPEG) compounds containing a discrete and predetermined number of ethylene oxide moieties, which comprises the steps of: (a) forming a reaction mixture comprising a first dPEG reactant having the general structural formula R 1 -dPEG x -OH and 18-crown-6; (b) adding a potassium t-butoxide solution in THF; (c) adding a solution of a second dPEG reactant having the general structural formula R 3 -dPEG y OR 2 to produce a dPEG compound having the general formula R 1 -dPEG x+y -R 3, wherein dPEG represents a (OCH 2 CH 2) moiety, R 1 and R 3 each independently are one or more of a hydroxyl protecting group, a functional group; R 2 is a leaving group; x ranges from 1 to 300; and y ranges from 1 to 300. (a) forming a reaction mixture comprising a first dPEG reactant having the general structural formula R 1 -dPEG x -OH and 18-crown-6; (b) adding a potassium t-butoxide solution in THF; (c) adding a solution of a second dPEG reactant having the general structural formula R 3 -dPEG y OR 2 to produce a dPEG compound having the general formula R 1 -dPEG x+y -R 3,
A gas turbine engine system comprising: an engine electronic control operative to receive and provide information corresponding to engine operating parameters such that a gas turbine engine operates in accordance with the information provided from the EEC; multiple control devices (122,124,126,128,130), each of the control devices being operative to perform at least one of: monitoring at least one engine operating parameter, providing information corresponding to the at least one engine operating parameter for use by the EEC, and affecting at least one engine operating parameter; a signal relay device operative to receive multiplexed signals from the EEC, demultiplex the signals, and provide demultiplexed electrical signals to a first subset of the multiple control devices, characterised in that said multiplexed/demultiplexed signals are for distribution to the first subset of the multiple control devices, the first subset of the multiple control devices being non-flight critical devices (126,128,130) only; and wherein the engine control system further comprises one or more non-multiplexed wiring harnesses (123,125) operative to interconnect the EEC and a second subset of the multiple control devices such that the one or more wiring harnesses facilitate communication of signals between the EEC and the second subset of the multiple control devices instead of the signal relay device, wherein each of the control devices of the second subset (122, 124) uses discrete wiring for communicating control signals associated with the EEC. an engine electronic control operative to receive and provide information corresponding to engine operating parameters such that a gas turbine engine operates in accordance with the information provided from the EEC; multiple control devices (122,124,126,128,130), each of the control devices being operative to perform at least one of: monitoring at least one engine operating parameter, providing information corresponding to the at least one engine operating parameter for use by the EEC, and affecting at least one engine operating parameter; a signal relay device operative to receive multiplexed signals from the EEC, demultiplex the signals, and provide demultiplexed electrical signals to a first subset of the multiple control devices, characterised in that said multiplexed/demultiplexed signals are for distribution to the first subset of the multiple control devices, the first subset of the multiple control devices being non-flight critical devices (126,128,130) only; and wherein the engine control system further comprises one or more non-multiplexed wiring harnesses (123,125) operative to interconnect the EEC and a second subset of the multiple control devices such that the one or more wiring harnesses facilitate communication of signals between the EEC and the second subset of the multiple control devices instead of the signal relay device, wherein each of the control devices of the second subset (122, 124) uses discrete wiring for communicating control signals associated with the EEC.
A guide post for use in the final part of a guided lowering of equipment towards a predetermined point, or location, on the seabed, which guide post is continued in a guide wire extending towards a structure on the sea surface, characterized in that it further comprises a joint and a fixation foot, the joint is introduced between the very guide post and the fixation foot designed for fixed attachment to a subsea structure, said joint forms a support element including an elastomeric matrix located at the interface between the guide post and the fixation foot. so that said guide post is able to transfer axially acting forces simultaneously with suspending, or annulling, bending moments.
Hob apparatus, in particular induction hob apparatus, comprising at least one hob plate (12a-b), comprising at least one electronics unit (14a-b), and comprising at least one storage unit (16a-b) which stores the electronics unit (14a-b) in at least one mounted state in relation to the hob plate (12a-b), wherein the storage unit (16a-b) stores the electronics unit (14a-b) in a position in relation to the hob plate (12a-b) in which a main extension plane of the electronics unit (14a-b) and a main extension plane of the hob plate (12a-b) enclose a minimum angle of more than 0° and less than 180° to one another, and comprising at least one space divider element which in the mounted state stores the storage unit at least to a large extent, characterized in that in the mounted state the storage unit at least partially engages through a storage recess of the space divider element and wherein in the mounted state the electronics unit partially engages through the storage recess of the space divider element.
A bracket for a radiator or the like, comprising an elongate rail which includes first and second support means for supporting from beneath the radiator or stirrup members disposed thereon, and a locking device for preventing against unintentional dismounting of the radiator at at least the first support means, the locking device being pivotally disposed in the rail about a pivot point (10, 15), which is disposed below the adjacent first support means, and the locking device being movable between a locking position and a dismounting position, where a spring means is disposed for counteracting the movement of the locking device between the locking position and the dismounting position in both directions, and the spring means is disposed on the locking device and is pivotal together therewith about the pivot point (10, 15), characterised in that the spring means comprises a spring projection being movable in a recess in the rail, wherein the recess has a side edge with a first blocking member which forces the spring projection, on passage, to move against the spring force of the spring means during the movement of the locking device between the locking position and the dismounting position in both directions.
A method for preparing aliphatic isocyanate comprising the steps of: progressing a phosgenation reaction by reacting an aliphatic amine salt and phosgene in the presence of a solvent; separating aliphatic isocyanate, which is a product in the reaction mixture of the phosgenation reaction step, and sending a mixture comprising hydrogen chloride, unreacted phosgene and a solvent to a condenser to condense; sending the condensed mixture to a scrubber to discharge hydrogen chloride to the upper stage and separate unreacted phosgene and solvent to the lower stage; sending the separated unreacted phosgene and solvent to a distillation column to recover unreacted phosgene to the upper stage and separate the solvent to the lower stage; and introducing the recovered unreacted phosgene into the phosgenation reaction step, and sending the solvent separated to the lower stage to the scrubber, wherein the aliphatic amine is m-xylylene diamine, p-xylylene diamine or o-xylylene diamine, and wherein the phosgenation reaction step comprises a first reaction step of reacting an aliphatic amine and hydrogen chloride to form the aliphatic amine salt; and a second reaction step of reacting the aliphatic amine salt and phosgene in the presence of an organic solvent having a boiling point of 100 to 200°C. progressing a phosgenation reaction by reacting an aliphatic amine salt and phosgene in the presence of a solvent; separating aliphatic isocyanate, which is a product in the reaction mixture of the phosgenation reaction step, and sending a mixture comprising hydrogen chloride, unreacted phosgene and a solvent to a condenser to condense; sending the condensed mixture to a scrubber to discharge hydrogen chloride to the upper stage and separate unreacted phosgene and solvent to the lower stage; sending the separated unreacted phosgene and solvent to a distillation column to recover unreacted phosgene to the upper stage and separate the solvent to the lower stage; and introducing the recovered unreacted phosgene into the phosgenation reaction step, and sending the solvent separated to the lower stage to the scrubber, wherein the aliphatic amine is m-xylylene diamine, p-xylylene diamine or o-xylylene diamine, and wherein the phosgenation reaction step comprises a first reaction step of reacting an aliphatic amine and hydrogen chloride to form the aliphatic amine salt; and a second reaction step of reacting the aliphatic amine salt and phosgene in the presence of an organic solvent having a boiling point of 100 to 200°C.
A method by a terminal in a wireless communication system supporting carrier aggregation, CA, the method comprising the steps of: receiving a first control message for enquiring capability information of the terminal, wherein the first control message includes a value indicating a type of radio access technology, RAT, the value being set as an evolved universal terrestrial radio access, EUTRA; reporting the capability information corresponding to the value being set as the EUTRA, wherein the capability information includes information indicating whether the terminal needs an interruption on a primary cell for a predetermined band combination; receiving a second control message for radio resource control, RRC, connection reconfiguration to add or release a secondary cell; and performing an RRC connection reconfiguration procedure based on the second control message, wherein an interruption of up to 5 subframes on the primary cell during the RRC connection reconfiguration procedure is allowed for the terminal, in case that the primary cell is in the same frequency band as the secondary cell being added or released. receiving a first control message for enquiring capability information of the terminal, wherein the first control message includes a value indicating a type of radio access technology, RAT, the value being set as an evolved universal terrestrial radio access, EUTRA; reporting the capability information corresponding to the value being set as the EUTRA, wherein the capability information includes information indicating whether the terminal needs an interruption on a primary cell for a predetermined band combination; receiving a second control message for radio resource control, RRC, connection reconfiguration to add or release a secondary cell; and performing an RRC connection reconfiguration procedure based on the second control message, wherein an interruption of up to 5 subframes on the primary cell during the RRC connection reconfiguration procedure is allowed for the terminal, in case that the primary cell is in the same frequency band as the secondary cell being added or released.
A signal transmission method, comprising: receiving a first message in an active first bandwidth part, BWP; determining, based on the first message, that a new active BWP of a terminal device is a second BWP, wherein the second BWP is a BWP in one or more to-be-activated BWPs of the terminal device, and the terminal device is in a radio frequency enabled state for the one or more to-be-activated BWPs of the terminal device; and transmitting a signal in the second BWP; wherein the determining, based on the first message, a new active BWP of a terminal device comprises: determining, based on a BWP indicator field in the first message, that the new active BWP of the terminal device is the second BWP, wherein a length of the BWP indicator field is determined based on a quantity of BWPs comprised in one BWP group of the terminal device and a quantity of BWP groups of the terminal device; and the quantity of BWPs comprised in the BWP group of the terminal device is greater than or equal to a quantity of BWPs comprised in another BWP group of the terminal device. receiving a first message in an active first bandwidth part, BWP; determining, based on the first message, that a new active BWP of a terminal device is a second BWP, wherein the second BWP is a BWP in one or more to-be-activated BWPs of the terminal device, and the terminal device is in a radio frequency enabled state for the one or more to-be-activated BWPs of the terminal device; and transmitting a signal in the second BWP; wherein the determining, based on the first message, a new active BWP of a terminal device comprises: determining, based on a BWP indicator field in the first message, that the new active BWP of the terminal device is the second BWP, wherein a length of the BWP indicator field is determined based on a quantity of BWPs comprised in one BWP group of the terminal device and a quantity of BWP groups of the terminal device; and the quantity of BWPs comprised in the BWP group of the terminal device is greater than or equal to a quantity of BWPs comprised in another BWP group of the terminal device. determining, based on a BWP indicator field in the first message, that the new active BWP of the terminal device is the second BWP, wherein a length of the BWP indicator field is determined based on a quantity of BWPs comprised in one BWP group of the terminal device and a quantity of BWP groups of the terminal device; and the quantity of BWPs comprised in the BWP group of the terminal device is greater than or equal to a quantity of BWPs comprised in another BWP group of the terminal device.
A method of modeling drilling equipment to represent vibrational performance of the drilling equipment, the method comprising: identifying two or more fundamental excitation modes for a drilling bottom hole assembly; wherein each fundamental excitation mode is weighted relative to at least one other fundamental excitation mode; and wherein the excitation modes are related to at least one vibration-related drilling parameter; constructing at least one surrogate representing at least a portion of a bottom hole assembly; utilizing a frequency-domain model to simulate a response of the at least one surrogate to excitations corresponding with the identified fundamental excitation modes; determining one or more performance indices for the simulated surrogate, wherein at least one of the performance indices is based at least in part on the simulated response of the surrogate at least at two fundamental excitation modes and on the relative weight of the at least two fundamental excitation modes; and utilizing the one or more performance indices in selecting at least one of one or more bottom hole assembly configurations and one or more drilling plans for use in drilling operations. identifying two or more fundamental excitation modes for a drilling bottom hole assembly; wherein each fundamental excitation mode is weighted relative to at least one other fundamental excitation mode; and wherein the excitation modes are related to at least one vibration-related drilling parameter; constructing at least one surrogate representing at least a portion of a bottom hole assembly; utilizing a frequency-domain model to simulate a response of the at least one surrogate to excitations corresponding with the identified fundamental excitation modes; determining one or more performance indices for the simulated surrogate, wherein at least one of the performance indices is based at least in part on the simulated response of the surrogate at least at two fundamental excitation modes and on the relative weight of the at least two fundamental excitation modes; and utilizing the one or more performance indices in selecting at least one of one or more bottom hole assembly configurations and one or more drilling plans for use in drilling operations.