mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a poly(phenylene ether), the method comprising: oxidatively polymerizing a poly(phenylene ether) starting material having an initial intrinsic viscosity in the presence of an organic solvent and a copper-amine catalyst to form a reaction mixture comprising a poly(phenylene ether) having a final intrinsic viscosity that is at least 50% greater than the initial intrinsic viscosity, wherein the initial intrinsic viscosity and the final intrinsic viscosity are determined using an Ubbelohde viscometer at 25°C in chloroform; terminating the oxidative polymerization to form a post-termination reaction mixture; combining an aqueous solution comprising a chelant comprising an alkali metal salt of an aminopolycarboxylic acid with the post-termination reaction mixture to form a chelation mixture comprising an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); separating the aqueous phase and the organic phase; and isolating the poly(phenylene ether) from the organic phase. oxidatively polymerizing a poly(phenylene ether) starting material having an initial intrinsic viscosity in the presence of an organic solvent and a copper-amine catalyst to form a reaction mixture comprising a poly(phenylene ether) having a final intrinsic viscosity that is at least 50% greater than the initial intrinsic viscosity, wherein the initial intrinsic viscosity and the final intrinsic viscosity are determined using an Ubbelohde viscometer at 25°C in chloroform; terminating the oxidative polymerization to form a post-termination reaction mixture; combining an aqueous solution comprising a chelant comprising an alkali metal salt of an aminopolycarboxylic acid with the post-termination reaction mixture to form a chelation mixture comprising an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); separating the aqueous phase and the organic phase; and isolating the poly(phenylene ether) from the organic phase.
A computer-implemented method for generating virtual data for components or sections of an industrial automation system (40; 80) that lack awareness or communication capabilities, the method comprising: receiving design data associated with industrial automation components in an industrial automation system (40; 80), wherein the design data includes electrical and/or communication information or drawings that specify how the industrial automation components within the industrial automation system are connected and interact with each other; receiving a first set of data acquired by a first portion of the industrial automation components; identifying a second portion of the industrial automation components lacking communication abilities based on the design data and the first set of data, wherein the second portion of the industrial automation components are stand-alone components that do not receive data from other components; generating virtual data associated with the second portion of the industrial automation components based on the first set of data and based on the design data, wherein generating said virtual data comprises determining how the second portion of the industrial automation components should be performing or comprises determining data that the second portion of the industrial automation components should be receiving; and adjusting at least one operation of at least one of the first portion of industrial automation components based on the first set of data and the virtual data. receiving design data associated with industrial automation components in an industrial automation system (40; 80), wherein the design data includes electrical and/or communication information or drawings that specify how the industrial automation components within the industrial automation system are connected and interact with each other; receiving a first set of data acquired by a first portion of the industrial automation components; identifying a second portion of the industrial automation components lacking communication abilities based on the design data and the first set of data, wherein the second portion of the industrial automation components are stand-alone components that do not receive data from other components; generating virtual data associated with the second portion of the industrial automation components based on the first set of data and based on the design data, wherein generating said virtual data comprises determining how the second portion of the industrial automation components should be performing or comprises determining data that the second portion of the industrial automation components should be receiving; and adjusting at least one operation of at least one of the first portion of industrial automation components based on the first set of data and the virtual data.
Use of a seizure prevention bolt in which the bolt is screwed into a female screw to which a foreign matter in the form of a spatter is attached, the spatter having a diameter S 1, the bolt having a normal screw portion having an outer diameter D and a root diameter D 1, and the female screw has a nominal diameter D and an inner diameter D 1, wherein the bolt has an incomplete screw portion having an outer diameter d that is larger than the root diameter D 1 and smaller than (D + D 1)/2 is formed at a front end of a normal screw portion formed in a bolt shaft over one or more pitches, and a vertical groove for cutting out the foreign matter is formed in the incomplete screw portion and a depth F of the vertical groove is (2S 1 + d - D 1)/2 or greater.
A shoe sole having a front foot portion that supports a toe portion and a ball portion of a foot of a wearer, a middle foot portion that supports an arch portion of the foot; and a rear foot portion that supports a heel portion of the foot, the front foot portion, the middle foot portion, and the rear foot portion being connected in a front-rear direction, the shoe sole comprising: a sole body portion located to continuously extend from the front foot portion to the rear foot portion; and a plate portion located to continuously extend from the front foot portion to the rear foot portion and joined to the sole body portion, the plate portion being formed of a material that is higher in rigidity than a material forming the sole body portion, wherein the plate portion has an exposed region that forms a ground contact surface of the shoe sole at least in the front foot portion, and an accommodated region that is accommodated inside the sole body portion at least in the rear foot portion, and in at least a part of the middle foot portion, the plate portion is inclined upward as the plate portion extends rearward, wherein, from a front end to a rear end of the rear foot portion, the plate portion is inclined upward as the plate portion extends rearward. a sole body portion located to continuously extend from the front foot portion to the rear foot portion; and a plate portion located to continuously extend from the front foot portion to the rear foot portion and joined to the sole body portion, the plate portion being formed of a material that is higher in rigidity than a material forming the sole body portion, wherein the plate portion has an exposed region that forms a ground contact surface of the shoe sole at least in the front foot portion, and an accommodated region that is accommodated inside the sole body portion at least in the rear foot portion, and an exposed region that forms a ground contact surface of the shoe sole at least in the front foot portion, and an accommodated region that is accommodated inside the sole body portion at least in the rear foot portion, and in at least a part of the middle foot portion, the plate portion is inclined upward as the plate portion extends rearward, wherein, from a front end to a rear end of the rear foot portion, the plate portion is inclined upward as the plate portion extends rearward.
A muffler for a single-cylinder diesel engine having an oxidation catalyst with a muffler housing, which is attached to the cylinder head of the engine, wherein the muffler housing is divided by an intermediate wall into two chambers and the oxidation catalyst is fastened in the intermediate wall in such a way that it places two chambers fluidically in communication with one another, and wherein an outlet chamber of the muffler, connected downstream from the intermediate wall in flow direction, is joined in gas-tight manner to an outlet pipe for the post-treated exhaust gas, wherein the muffler housing is attached by means of a flanged joint directly to the cylinder head and the intermediate wall has openings for gas-tight installation of mounting pipes, which traverse the muffler housing and at their engine-side ends are fastened to the inside of a muffler-side attachment flange in association with its joint bores, for the purpose of applying a screw coupling of the attachment flange to a corresponding flange part of the cylinder head, characterized in that the intermediate wall has an opening for receiving the closed inner end of the exhaust pipe in a gas-tight manner.
Reciprocating-piston internal combustion engine, having at least one air inlet valve, which is arranged on the cylinder head, and at least one air outlet valve, which is arranged on the cylinder head; and an electromagnetic valve for introducing air into the combustion chamber and/or for discharging air from the combustion chamber, which valve is arranged on the cylinder head, wherein the electromagnetic valve pneumatically couples the combustion chamber and a compressed air accumulator via a compressed air line in an open position, wherein the compressed air accumulator is set up to supply a compressed air brake of a vehicle, and wherein the electromagnetic valve can be controlled by means of a control unit in accordance with a pressure and/or a temperature of the compressed air system, a piston position, a load demand, an engine speed and/or a charging pressure in the cylinder, and the control unit is designed so as, in operating states in which the full engine torque is not required, to open the electromagnetic valve during the upward movement of the piston and to close said electromagnetic valve again in the region of the top dead centre in the case of at least one cylinder with deactivated fuel injection in order to take compressed air from the combustion chamber and feed it to the compressed air accumulator, characterized in that the control unit is furthermore designed, to open the electromagnetic valve immediately after the closure of the inlet valve during the compression stroke of an overrun mode in order to inject additional compressed air, and to close it again at the latest when the gas pressure in the cylinder reaches an air pressure in the compressed air accumulator.
A cutting support apparatus that generates a cutting pattern for cutting a plurality of plate-like parts that form a shoe last from a plate-like member, the cutting support apparatus comprising: an input unit that receives shoe last data; a storage unit in which a shape and a type of the plurality of plate-like parts are stored; a computing unit that generates the cutting pattern for cutting the plurality of plate-like parts from the plate-like member having a predetermined size based on the shoe last data received by the input unit and the shape of the plurality of plate-like parts stored in the storage unit; and an output unit that outputs the cutting pattern computed by the computing unit, wherein the computing unit divides an area of plate-like parts to be arranged in the plate-like member into a plurality of areas in accordance with the type of the plate-like parts that form the shoe last, and determines positions of the plurality of plate-like parts to be arranged in each of the areas based on an arrangement condition and generates the cutting pattern, and wherein the arrangement condition includes at least one of a condition of alignment of the plurality of plate-like parts in an order of assembly and a condition of minimization of an area of each of the areas where the plurality of plate-like parts are arranged. an input unit that receives shoe last data; a storage unit in which a shape and a type of the plurality of plate-like parts are stored; a computing unit that generates the cutting pattern for cutting the plurality of plate-like parts from the plate-like member having a predetermined size based on the shoe last data received by the input unit and the shape of the plurality of plate-like parts stored in the storage unit; and an output unit that outputs the cutting pattern computed by the computing unit, wherein the computing unit divides an area of plate-like parts to be arranged in the plate-like member into a plurality of areas in accordance with the type of the plate-like parts that form the shoe last, and determines positions of the plurality of plate-like parts to be arranged in each of the areas based on an arrangement condition and generates the cutting pattern, and divides an area of plate-like parts to be arranged in the plate-like member into a plurality of areas in accordance with the type of the plate-like parts that form the shoe last, and determines positions of the plurality of plate-like parts to be arranged in each of the areas based on an arrangement condition and generates the cutting pattern, and wherein the arrangement condition includes at least one of a condition of alignment of the plurality of plate-like parts in an order of assembly and a condition of minimization of an area of each of the areas where the plurality of plate-like parts are arranged.
A method for collecting data comprising: at a user device comprising a sensor, the user device being capable of detecting by means of the sensor interaction by a user with any of a plurality of predefined user interface elements: generating a raw dataset from sensor data collected by the sensor as a result of a user input, the user interface elements with which the user has interacted being derivable from the raw dataset and the raw dataset including finer-level sensor data indicating the manner of the user's interaction with those elements; determining whether an element that the user interacted with in performing a task is sensitive or not; wherein an element is considered to be sensitive when the user interacts with the element when performing a sensitive task, wherein certain tasks are predefined as sensitive or have been set by the user as sensitive, and wherein the user device automatically determines the sensitivity of an element based on the format of the element; if it is determined that said element is not sensitive, sending the raw dataset to a remote computing device and/or locally storing the raw dataset; if it is determined that said element is sensitive, processing the raw dataset to obscure the sensitive element by forming an obscured dataset that obscures which user interface elements the user has interacted with and retain at least some of the finer-level sensor data; and transmitting the obscured dataset to a remote computing device and/or storing the obscured dataset at the user device. generating a raw dataset from sensor data collected by the sensor as a result of a user input, the user interface elements with which the user has interacted being derivable from the raw dataset and the raw dataset including finer-level sensor data indicating the manner of the user's interaction with those elements; determining whether an element that the user interacted with in performing a task is sensitive or not; wherein an element is considered to be sensitive when the user interacts with the element when performing a sensitive task, wherein certain tasks are predefined as sensitive or have been set by the user as sensitive, and wherein the user device automatically determines the sensitivity of an element based on the format of the element; if it is determined that said element is not sensitive, sending the raw dataset to a remote computing device and/or locally storing the raw dataset; if it is determined that said element is sensitive, processing the raw dataset to obscure the sensitive element by forming an obscured dataset that obscures which user interface elements the user has interacted with and retain at least some of the finer-level sensor data; and transmitting the obscured dataset to a remote computing device and/or storing the obscured dataset at the user device.
An audio mixing console labeling system, comprising: an audio mixing console and a remote device, the audio mixing console including a processor, an input port configured to receive by a wire an audio signal from one of a microphone and a musical instrument, the input port being associated with a channel of the audio mixing console, and a wireless access point configured to wirelessly receive a label signal including a channel label to be assigned to the channel, wherein the remote device includes a user interface allowing a user to input the channel label, and a wireless transmitter configured to wirelessly transmit the label signal, and wherein the remote device is one of a mobile phone, tablet, personal digital assistant, e-reader, laptop computer, and a SmartWatch; and the audio mixing console is further configured to: identify the channel associated with the input port in response to receiving the audio signal at the input port; associate the received label signal with the identified channel; and assign the channel label to the channel. an audio mixing console and a remote device, the audio mixing console including a processor, an input port configured to receive by a wire an audio signal from one of a microphone and a musical instrument, the input port being associated with a channel of the audio mixing console, and a wireless access point configured to wirelessly receive a label signal including a channel label to be assigned to the channel, wherein the remote device includes a user interface allowing a user to input the channel label, and a wireless transmitter configured to wirelessly transmit the label signal, and wherein the remote device is one of a mobile phone, tablet, personal digital assistant, e-reader, laptop computer, and a SmartWatch; and the audio mixing console is further configured to: identify the channel associated with the input port in response to receiving the audio signal at the input port; associate the received label signal with the identified channel; and assign the channel label to the channel. identify the channel associated with the input port in response to receiving the audio signal at the input port; associate the received label signal with the identified channel; and assign the channel label to the channel.
A network node (104, 204) in a cellular mobile network operable to communicate data to a user equipment, UE, (102, 202), the network node in the cellular mobile network comprising one or more processors configured to: identify radio-access-technology, RAT, specific radio-capability information relating to RATs supported in the cellular mobile network, wherein the RAT-specific radio-capability information includes information regarding a plurality of frequency bands that are supported in the cellular mobile network; send a UE-capability inquiry message to the UE, wherein the UE-capability inquiry message includes the RAT-specific radio-capability information; and receive UE radio capability information from the UE, wherein the UE radio capability information includes information regarding combinations of frequency bands for carrier aggregation that are supported by the UE, wherein the frequency bands are selected based on the plurality of frequency bands that are supported in the cellular mobile network, as indicated in the RAT-specific radio-capability information. identify radio-access-technology, RAT, specific radio-capability information relating to RATs supported in the cellular mobile network, wherein the RAT-specific radio-capability information includes information regarding a plurality of frequency bands that are supported in the cellular mobile network; send a UE-capability inquiry message to the UE, wherein the UE-capability inquiry message includes the RAT-specific radio-capability information; and receive UE radio capability information from the UE, wherein the UE radio capability information includes information regarding combinations of frequency bands for carrier aggregation that are supported by the UE, wherein the frequency bands are selected based on the plurality of frequency bands that are supported in the cellular mobile network, as indicated in the RAT-specific radio-capability information.
Method for connecting opposing modules (1, 1') of a modular blade, each opposing module (1, 1') comprising inserts housed by machining inside the opposing modules (1, 1'), the connection between inserts being made through a single bolt per pair of facing inserts, each bolt comprising two threaded ends configured to be threaded in the inserts of the modules (1, 1'), the method comprises the following steps: - manufacture of modules (1, 1') where the creation of threads on the inserts is done as a final step following facing of the connection surface of these modules (1, 1'), - insertion of bolts into one of the modules, - precision positioning of the other module against said one of the modules, - turning the bolts so that the bolts penetrate the other module leaving a gap between the modules (1, 1'), - separating the modules (1, 1') so that the gap increases, and - pre-tensioning all the bolts by inserting a spacer over each bolt in the increased gap between the modules (1, 1') after the spacers have being compressed. - manufacture of modules (1, 1') where the creation of threads on the inserts is done as a final step following facing of the connection surface of these modules (1, 1'), - insertion of bolts into one of the modules, - precision positioning of the other module against said one of the modules, - turning the bolts so that the bolts penetrate the other module leaving a gap between the modules (1, 1'), - separating the modules (1, 1') so that the gap increases, and - pre-tensioning all the bolts by inserting a spacer over each bolt in the increased gap between the modules (1, 1') after the spacers have being compressed.
An electrolyte composition in form of a colloidal dispersion comprising: a) polyelectrolyte selected from one or more cationic polymers being quaternized nitrogen containing compounds selected from the group consisting of copolymer having quaternized vinylimidazolium repeating units and poly(diallyldimethyl ammonium chloride) or copolymers thereof; b) a particulate phase comprising solid particles having a diameter of between 1 to 10000 nm and being inert to the other components included in the electrolyte composition; c) a binder system comprising binder molecules able to form a polymeric network upon radical polymerization, and initiator molecules able to initiated radical polymerization of the binder molecules, said binder molecules being polyfunctional and monofunctional acrylates or methacrylates, or being di- or polyfunctional thiols and molecules having double bonds; wherein said polyelectrolyte is substantially absent of groups that are readily polymerizable under conditions of radical polymerization. a) polyelectrolyte selected from one or more cationic polymers being quaternized nitrogen containing compounds selected from the group consisting of copolymer having quaternized vinylimidazolium repeating units and poly(diallyldimethyl ammonium chloride) or copolymers thereof; b) a particulate phase comprising solid particles having a diameter of between 1 to 10000 nm and being inert to the other components included in the electrolyte composition; c) a binder system comprising binder molecules able to form a polymeric network upon radical polymerization, and initiator molecules able to initiated radical polymerization of the binder molecules, said binder molecules being polyfunctional and monofunctional acrylates or methacrylates, or being di- or polyfunctional thiols and molecules having double bonds;