mhurhangee/ep-ind-claims huggingface dataset:
Use of a membrane gas separator for air conditioning-heating-ventilation technology for separating gas bubbles, which may contain a flammable gas, from a flowing aqueous liquid for transferring heat from or to a refrigeration circuit, the refrigeration circuit being operated with a flammable refrigerant, the membrane separator comprising - at least one chamber for collecting separated gas components containing refrigerant, - a fume cupboard for the separated gas containing refrigerant - a composite membrane in the flow path of the gas to be separated, which is composed of at least two layers, of which at least one layer is formed from a ceramic layer of zeolite and at least one further layer is formed from a rubber-like polymer membrane - and the at least one layer of the ceramic layer of zeolite is provided as the first layer in the flow path of the gas to be separated, - downstream of the further layer of a rubbery polymer membrane in the flow path is the chamber for collecting separated gas components, which has a connection that is connected to an exhaust under negative pressure. characterised in that - the flammable gas components containing refrigerant are adsorbed in the ceramic zeolite layer either from the gas phase or from the liquid phase, - subsequently in the flow path of the gas to be separated, the further layer of a rubber-like polymer membrane is formed as a diffusion layer. - at least one chamber for collecting separated gas components containing refrigerant, - a fume cupboard for the separated gas containing refrigerant - a composite membrane in the flow path of the gas to be separated, which is composed of at least two layers, of which at least one layer is formed from a ceramic layer of zeolite and at least one further layer is formed from a rubber-like polymer membrane - and the at least one layer of the ceramic layer of zeolite is provided as the first layer in the flow path of the gas to be separated, - downstream of the further layer of a rubbery polymer membrane in the flow path is the chamber for collecting separated gas components, which has a connection that is connected to an exhaust under negative pressure. characterised in that - the flammable gas components containing refrigerant are adsorbed in the ceramic zeolite layer either from the gas phase or from the liquid phase, - subsequently in the flow path of the gas to be separated, the further layer of a rubber-like polymer membrane is formed as a diffusion layer.
A method for determining locations of an electrode array implanted in a cochlea of a living subject and spiral ganglion, SG, nerves that the electrode array stimulates, wherein the electrode array comprises a plurality of electrodes, comprising the steps of: (a) identifying an SG neural region that is targeted for stimulation and its corresponding modiolar interface; (b) constructing a tonotopic map of the modiolar interface to have a tonotopically mapped modiolar interface; and (c) identifying the position for each of the plurality of electrodes relative to the tonotopically mapped modiolar interface in vivo, wherein the step of identifying the SG neural region comprises the steps of constructing a statistical shape model, SSM, of cochlear anatomy that includes the SG from a set of CT image volumes of cochlea pre-operatively acquired from a number of living subjects, wherein the set of CT images of cochlea comprises μCT image volumes of cochlea, wherein in each μCT image volume, structures of the scala vestibuli, scala tympani, and SG are manually segmented, and wherein during the SSM construction, a set of SG points in the SSM that interfaces with intra-cochlear anatomy is identified, wherein the set of SG points is located in an active region, AR, to be stimulated, the AR corresponding to the SG neural region that is targeted for stimulation. (a) identifying an SG neural region that is targeted for stimulation and its corresponding modiolar interface; (b) constructing a tonotopic map of the modiolar interface to have a tonotopically mapped modiolar interface; and (c) identifying the position for each of the plurality of electrodes relative to the tonotopically mapped modiolar interface in vivo,
A system for wireless building automation control, the system comprising: a first building control system device (16, 22) having a transmitter (34, 44, 46); second and third building control system devices (20, 22) having second and third receivers (36, 44, 46), respectively; and a control processor adapted to determine and to set a transmit power of the transmitter (34, 44, 46) as a function of information received at the control processor from the second and third receivers (36, 44, 46), wherein the control processor comprises a processor remote from the first, second and third building control system devices (16, 20, 22). a first building control system device (16, 22) having a transmitter (34, 44, 46); second and third building control system devices (20, 22) having second and third receivers (36, 44, 46), respectively; and a control processor adapted to determine and to set a transmit power of the transmitter (34, 44, 46) as a function of information received at the control processor from the second and third receivers (36, 44, 46), wherein the control processor comprises a processor remote from the first, second and third building control system devices (16, 20, 22).
A method of determining positions of a global navigation satellite system, GNSS device, the method comprising: receiving, at the GNSS device, a first plurality of GNSS signals from a first plurality of GNSS satellites; receiving, at the GNSS device, a correction signal from a GNSS base unit; executing, on the GNSS device, a first algorithm to determine first position data for the GNSS device based on the first plurality of GNSS signals and the correction signal; storing the first position data in memory of the GNSS device; receiving, at the GNSS device, a second plurality of GNSS signals from a second plurality of GNSS satellites; executing, on the GNSS device, a second algorithm to determine second position data for the GNSS device based on the second plurality of GNSS signals; after determining that the second algorithm fails to determine the second position data, storing GNSS signal data in memory of the GNSS device, wherein the GNSS signal data is based on the second plurality of GNSS signals and data received from the GNSS base unit; transmitting the GNSS signal data to a server for processing; providing, by the server, a correction, based on the data from the GNSS base unit present in the GNSS signal data; and determining the second position data for the GNSS device based on the second plurality of GNSS signals and the correction. receiving, at the GNSS device, a first plurality of GNSS signals from a first plurality of GNSS satellites; receiving, at the GNSS device, a correction signal from a GNSS base unit; executing, on the GNSS device, a first algorithm to determine first position data for the GNSS device based on the first plurality of GNSS signals and the correction signal; storing the first position data in memory of the GNSS device; receiving, at the GNSS device, a second plurality of GNSS signals from a second plurality of GNSS satellites; executing, on the GNSS device, a second algorithm to determine second position data for the GNSS device based on the second plurality of GNSS signals; after determining that the second algorithm fails to determine the second position data, storing GNSS signal data in memory of the GNSS device, wherein the GNSS signal data is based on the second plurality of GNSS signals and data received from the GNSS base unit; transmitting the GNSS signal data to a server for processing; providing, by the server, a correction, based on the data from the GNSS base unit present in the GNSS signal data; and determining the second position data for the GNSS device based on the second plurality of GNSS signals and the correction.
Method for operating a sealing station of a packaging machine for producing packages with packaging optics being at least essentially similar to one another at possibly varying filling degrees, the method comprising the following steps: • filling a packaging volume, enclosed between a lower and an upper packaging material (8, 10), of at least one package positioned inside the sealing station, with a gas intended for creating a desired atmosphere, to a preset gassing target pressure (p soll) for a finished package, • discharging a partial quantity of the gas introduced into the packaging volume from the packaging volume via a line connected thereto into a collection volume linked thereto while retaining the packaging volume generated by the preceding filling so that inside the packaging volume, a pressure reduced (p red) relative to the gassing target pressure occurs for the remaining residual quantity of the filled gas, wherein the discharged partial quantity of the gas substantially corresponds to the mass of the gas received within an imaginary partial volume of the packaging volume, which imaginary partial volume is enclosed by an imaginary plane, which crosses the packaging volume and which occupies at least a part of an edge of the lower packaging material and the upper packaging material, and • reducing the packaging volume maintained until then by the imaginary partial volume while moving the upper packaging material to an end position essentially falling to the imaginary plane so that the pressure (p red) inside the package increases again to the gassing target pressure (p soll). • filling a packaging volume, enclosed between a lower and an upper packaging material (8, 10), of at least one package positioned inside the sealing station, with a gas intended for creating a desired atmosphere, to a preset gassing target pressure (p soll) for a finished package, • discharging a partial quantity of the gas introduced into the packaging volume from the packaging volume via a line connected thereto into a collection volume linked thereto while retaining the packaging volume generated by the preceding filling so that inside the packaging volume, a pressure reduced (p red) relative to the gassing target pressure occurs for the remaining residual quantity of the filled gas, • reducing the packaging volume maintained until then by the imaginary partial volume while moving the upper packaging material to an end position essentially falling to the imaginary plane so that the pressure (p red) inside the package increases again to the gassing target pressure (p soll).
A multilayer film comprising an odor barrier layer having sound dampening properties, wherein the odor barrier layer is formed from a polyamide modified with a functionalized vinyl-bond rich triblock copolymer, wherein the vinyl-bond rich triblock copolymer is a vinyl-bond rich styrene-isoprene-styrene block copolymer or a vinyl-bond rich styrene-ethylene-propylene-styrene (SEPS) block copolymer.
A method, performed in a radio network node, of detecting at least one signal transmitted from a wireless device, wherein the radio network node transmits a synchronization signal to the wireless device with a synchronization signal rate, the method comprising: - obtaining, a measure indicative of a time drift and/or a frequency drift of a carrier frequency in the wireless device, wherein the time drift and/or the frequency drift are attributable to instability of an oscillator of the wireless device, and wherein the obtaining comprises receiving the measure from the wireless device; - determining a period of time that has passed since the most recent transmission of the synchronization signal to the wireless device; - estimating an amount of synchronization error between a transmitter in the wireless device and a receiver in the radio network node caused by the time drift and/or the frequency drift in the wireless device for the determined period of time; - configuring, in the radio network node, at least one radio setting related to detecting the at least one signal, based on the estimated synchronization error for the determined period of time; - monitoring a radio spectrum for the at least one signal using the at least one radio setting. - obtaining, a measure indicative of a time drift and/or a frequency drift of a carrier frequency in the wireless device, wherein the time drift and/or the frequency drift are attributable to instability of an oscillator of the wireless device, and wherein the obtaining comprises receiving the measure from the wireless device; - determining a period of time that has passed since the most recent transmission of the synchronization signal to the wireless device; - estimating an amount of synchronization error between a transmitter in the wireless device and a receiver in the radio network node caused by the time drift and/or the frequency drift in the wireless device for the determined period of time; - configuring, in the radio network node, at least one radio setting related to detecting the at least one signal, based on the estimated synchronization error for the determined period of time; - monitoring a radio spectrum for the at least one signal using the at least one radio setting.
A polyacetal resin composition containing 100 parts by mass of a polyacetal resin and 10 parts by mass or more and 100 parts by mass or less of a glass filler, wherein at least one copolymer resin having at least one acid component is contained as a material having a function of modifying the surface of the glass filler, and wherein, when a molded article formed of the polyacetal resin composition by molding is fractured by application of tensile force, the surface of the glass filler protruding from a fractured surface of a fractured molded article is covered with a component containing the polyacetal resin having an average thickness of 0.2 μm or more and 3.0 μm or less.
A molded object comprising: a first layer formed using a fiber-reinforced resin material including thermoplastic resin and strip-shaped reinforcement fiber bundles each composed of a plurality of reinforcement fibers aligned unidirectionally, the strip-shaped reinforcement fiber bundles being three-dimensionally and randomly stacked; and a second layer made of a fiber-reinforced resin material including thermoplastic resin and reinforcement fibers of filaments,, characterized in that each of the thermoplastic resin included in the first layer and the thermoplastic resin included in the second layer is late-reactive thermoplastic epoxy resin obtained as a result of reaction after being added to the reinforcement fiber, the second layer is formed on both surfaces of the first layer, and the late-reactive thermoplastic resin is reactive resin that is cured as a result of initiating or promoting reaction by adding a curing agent. a first layer formed using a fiber-reinforced resin material including thermoplastic resin and strip-shaped reinforcement fiber bundles each composed of a plurality of reinforcement fibers aligned unidirectionally, the strip-shaped reinforcement fiber bundles being three-dimensionally and randomly stacked; and a second layer made of a fiber-reinforced resin material including thermoplastic resin and reinforcement fibers of filaments,, characterized in that each of the thermoplastic resin included in the first layer and the thermoplastic resin included in the second layer is late-reactive thermoplastic epoxy resin obtained as a result of reaction after being added to the reinforcement fiber, the second layer is formed on both surfaces of the first layer, and the late-reactive thermoplastic resin is reactive resin that is cured as a result of initiating or promoting reaction by adding a curing agent.
A method for preparing a compound of formula II or a pharmaceutically acceptable salt thereof, wherein: the method comprises a step of reacting a compound of formula IV with a compound of formula III, the compound of formula II is a compound of formula I, the compound of formula III is a compound of formula VII, and the compound of formula IV is a compound of formula VI, wherein R 2 is selected from the group consisting of hydrogen, an amino protecting group, cycloalkyl, cycloalkenyl, alkyl, alkenyl, alkynyl, aralkyl, and substituted or unsubstituted aryl or heteroaryl; and R is selected from the group consisting of hydroxy and halogen. the method comprises a step of reacting a compound of formula IV with a compound of formula III, the compound of formula II is a compound of formula I, the compound of formula III is a compound of formula VII, and the compound of formula IV is a compound of formula VI, wherein R 2 is selected from the group consisting of hydrogen, an amino protecting group, cycloalkyl, cycloalkenyl, alkyl, alkenyl, alkynyl, aralkyl, and substituted or unsubstituted aryl or heteroaryl; and R is selected from the group consisting of hydroxy and halogen.
Tube motor cable drum for a building opening shading device to accommodate a section of a cable, which is connected with a motor head of a tube motor provided for the drive of a winding shaft, said motor head being supported in a stationary and non-rotatable manner on an attributed holding part on the front side of the building, the tube motor cable drum being suitable for arrangement in the area of the motor head, characterized in that the tube motor cable drum comprises two ring disk sections (41, 42) laterally enclosing a circumferential winding section for guiding the accommodated cable section, and a cable inlet through which the cable coming from the motor head can be lead onto the tube motor cable drum between the ring disk sections (41, 42).
A spark plug comprising: a first electrode including an electrode base member containing Ni as a main material, an intermediate member which is formed of an alloy containing Ni as a main material, and is welded to the electrode base member so as to protrude from the electrode base member, a tip formed of an alloy containing Pt as a main material, and a melt portion formed by melting the intermediate member and the tip together; and a second electrode opposing a discharge surface of the tip with a spark gap, said spark plug characterized in that the tip contains not less than 6 mass% of Rh, at least one element selected from an R group consisting of Rh, Re, Ir, Ru, W, Mo, and Nb, not less than 5 mass% of Ni, and at least one element selected from an N group consisting of Ni, Co, Fe, and Cu, the tip contains Rh most among the elements of the R group, and contains Ni most among the elements of the N group, the total of contents of Pt, Rh, and Ni is not less than 91 mass%, the total of contents of Pt, the R group, and the N group is not less than 95 mass%, and a value obtained by dividing the content of the R group by the content of the N group is not less than 0.7 and not greater than 8. a first electrode including an electrode base member containing Ni as a main material, an intermediate member which is formed of an alloy containing Ni as a main material, and is welded to the electrode base member so as to protrude from the electrode base member, a tip formed of an alloy containing Pt as a main material, and a melt portion formed by melting the intermediate member and the tip together; and a second electrode opposing a discharge surface of the tip with a spark gap, said spark plug characterized in that the tip contains not less than 6 mass% of Rh, at least one element selected from an R group consisting of Rh, Re, Ir, Ru, W, Mo, and Nb, not less than 5 mass% of Ni, and at least one element selected from an N group consisting of Ni, Co, Fe, and Cu, the tip contains Rh most among the elements of the R group, and contains Ni most among the elements of the N group, the total of contents of Pt, Rh, and Ni is not less than 91 mass%, the total of contents of Pt, the R group, and the N group is not less than 95 mass%, and a value obtained by dividing the content of the R group by the content of the N group is not less than 0.7 and not greater than 8.
An article of footwear comprising a knitted component incorporated into a full monofilament upper of the article of footwear, the knitted component comprises: a monofilament knit element formed by at least one monofilament strand, the monofilament knit element defining substantially all of an exterior surface of the full monofilament upper and an opposite interior surface of the full monofilament upper, the interior surface defining a void for receiving a foot; and wherein the monofilament knit element extends (a) through each of a forefoot region, a midfoot region, and a heel region of the article of footwear, and (b) across a top of the full monofilament upper between a medial side and a lateral side of the article of footwear; characterized in that the monofilament knit element comprises a first and a second knitted layer formed of unitary knit construction, the first and a second knitted layer being overlapping and at least partially coextensive with each other; wherein the monofilament knit element includes a first monofilament strand and a second monofilament strand; and wherein the knitted component is further characterized in that the first knitted layer is formed by the first monofilament strand and the second knitted layer is formed by the second monofilament strand. a monofilament knit element formed by at least one monofilament strand, the monofilament knit element defining substantially all of an exterior surface of the full monofilament upper and an opposite interior surface of the full monofilament upper, the interior surface defining a void for receiving a foot; and wherein the monofilament knit element extends (a) through each of a forefoot region, a midfoot region, and a heel region of the article of footwear, and (b) across a top of the full monofilament upper between a medial side and a lateral side of the article of footwear; characterized in that the monofilament knit element comprises a first and a second knitted layer formed of unitary knit construction, the first and a second knitted layer being overlapping and at least partially coextensive with each other; wherein the monofilament knit element includes a first monofilament strand and a second monofilament strand; and wherein the knitted component is further characterized in that the first knitted layer is formed by the first monofilament strand and the second knitted layer is formed by the second monofilament strand.