mhurhangee/ep-ind-claims huggingface dataset:
A gas-premix burner device, including a fan for aspirating the air/gas mixture, sections for the passing of the gas and of the air, a gas supply valve, a gas injector, and a venturi interposed between said injector and said fan so as to create a negative pressure on said gas valve, wherein said venturi includes a movable part capable of moving under the action of said fan and of a return spring, the displacement of said movable part being capable of changing the sections for the passing (41, 42) of gas and air.
A method of wireless communications by a user equipment, UE, the method comprising: establishing communication between the UE and a source base station over a first radio access technology, RAT, and a second RAT; identifying a coupling between the first RAT and the second RAT in the communication between the UE and the source base station; and configuring, by the UE in response to determining that a handover procedure for the first RAT has occurred or is imminent, a handover procedure for the second RAT to a target base station based on the identified coupling between the first RAT and the second RAT, wherein configuring the handover procedure is characterized by: configuring the UE to initiate a handover event for the second RAT in response to detection of a handover event for the first RAT and in response to a determination that the target base station of the handover event at the second RAT satisfies at least one predetermined criterion, wherein the at least one predetermined criterion is that a target base station of the handover event for the first RAT and the target base station of the handover event for the second RAT supports the coupling of the first RAT and the second RAT. establishing communication between the UE and a source base station over a first radio access technology, RAT, and a second RAT; identifying a coupling between the first RAT and the second RAT in the communication between the UE and the source base station; and configuring, by the UE in response to determining that a handover procedure for the first RAT has occurred or is imminent, a handover procedure for the second RAT to a target base station based on the identified coupling between the first RAT and the second RAT, wherein configuring the handover procedure is characterized by: configuring the UE to initiate a handover event for the second RAT in response to detection of a handover event for the first RAT and in response to a determination that the target base station of the handover event at the second RAT satisfies at least one predetermined criterion, wherein the at least one predetermined criterion is that a target base station of the handover event for the first RAT and the target base station of the handover event for the second RAT supports the coupling of the first RAT and the second RAT.
A solid cosmetic product comprising (i) an inner non-effervescent material comprising at least a colouring and a solid carrier material, wherein the non-effervescent material is a free-flowing powder, wherein the non-effervescent material does not effervesce on contact with water; (ii) an outer effervescent material, wherein the effervescent material is capable of effervescence on contact with water, wherein the outer effervescent material envelops the inner non-effervescent material. (i) an inner non-effervescent material comprising at least a colouring and a solid carrier material, wherein the non-effervescent material is a free-flowing powder, wherein the non-effervescent material does not effervesce on contact with water; (ii) an outer effervescent material, wherein the effervescent material is capable of effervescence on contact with water,
A fault-tolerant industrial control device comprising: a host processor being adapted to provide data to be communicated between the control device and an industrial control network; a network communication circuit being adapted to communicate between the host processor and at least two ports (22a; 22b) on the control device being adapted to use a single MAC address and adapted to be connected to different network media leading to different switches (16; 16a-d; 16', 16", 16'"), the communication circuit being adapted to switchably connect the host processor from a first of the ports to a second of the ports upon occurrence of a fault affecting the first of the ports without changing the MAC address; wherein the network communication circuit includes a logic circuit being adapted to detect faults by monitoring regular beacon messages on the at least two ports from at least one beacon device being adapted to communicate on the industrial control network with the control device; wherein the network communication circuit is further adapted to periodically transmit a path check request message to a target beacon device, wherein the network communication circuit is adapted to receive beacon messages from multiple beacon devices, characterized in that the network communication circuit is further adapted to change the target beacon device receiving the periodically transmitted path check request message, and to trigger the fault if a responding path check response is not received from the target beacon device in a predetermined interval. a host processor being adapted to provide data to be communicated between the control device and an industrial control network; a network communication circuit being adapted to communicate between the host processor and at least two ports (22a; 22b) on the control device being adapted to use a single MAC address and adapted to be connected to different network media leading to different switches (16; 16a-d; 16', 16", 16'"), the communication circuit being adapted to switchably connect the host processor from a first of the ports to a second of the ports upon occurrence of a fault affecting the first of the ports without changing the MAC address; wherein the network communication circuit includes a logic circuit being adapted to detect faults by monitoring regular beacon messages on the at least two ports from at least one beacon device being adapted to communicate on the industrial control network with the control device; wherein the network communication circuit is further adapted to periodically transmit a path check request message to a target beacon device, wherein the network communication circuit is adapted to receive beacon messages from multiple beacon devices, characterized in that the network communication circuit is further adapted to change the target beacon device receiving the periodically transmitted path check request message, and to trigger the fault if a responding path check response is not received from the target beacon device in a predetermined interval.
A probe with a capacitive measuring apparatus that comprises at least two coplanar electrodes and a separation device, wherein the capacitive measuring apparatus is adapted to measure a capacitance between the at least two coplanar electrodes at a predetermined position of the probe relative to a test object made from metallic, non-conductive, and/or composite materials for non-intrusively detecting imperfections in the test object, wherein the separation device maintains a substantially constant distance between the at least two coplanar electrodes and the test object during test measurements, and wherein an adjustment device is provided that adjusts a spatial separation between the at least two coplanar electrodes, characterized by the at least two coplanar electrodes being in the form of at least two disks (410, 420, 430) for non-intrusively detecting imperfections in test objects with a curved surface.
A method for producing hydrogen from ammonia, comprising: pressurizing liquid ammonia to produce a pressurized liquid ammonia; heating (and optionally vaporizing) the pressurized liquid ammonia by heat exchange with one or more hot fluids to produce heated ammonia; combusting a fuel in a furnace to heat catalyst-containing reactor tubes and to form a flue gas comprising oxides of nitrogen (NO x); contacting the flue gas with a selective reduction catalyst in the presence of ammonia in a selective catalytic reduction reactor to convert NO x to nitrogen gas and water; supplying the heated ammonia to the catalyst-containing reactor tubes to cause cracking of the ammonia into a cracked gas containing hydrogen gas, nitrogen gas and residual ammonia: purifying the cracked gas in a first PSA device to produce a first hydrogen product gas and a first PSA tail gas comprising ammonia; compressing at least a portion of the first PSA tail gas to produce compressed PSA tail gas; cooling the compressed PSA tail gas to produce cooled ammonia-depleted tail gas and an aqueous ammonia solution; and separating the cooled ammonia-depleted tail gas from the aqueous ammonia solution; wherein at least a portion of the separated aqueous ammonia solution is fed to the SCR reactor to provide the ammonia for the SCR reaction; and wherein the one or more hot fluids comprise the flue gas and/or the cracked gas. pressurizing liquid ammonia to produce a pressurized liquid ammonia; heating (and optionally vaporizing) the pressurized liquid ammonia by heat exchange with one or more hot fluids to produce heated ammonia; combusting a fuel in a furnace to heat catalyst-containing reactor tubes and to form a flue gas comprising oxides of nitrogen (NO x); contacting the flue gas with a selective reduction catalyst in the presence of ammonia in a selective catalytic reduction reactor to convert NO x to nitrogen gas and water; supplying the heated ammonia to the catalyst-containing reactor tubes to cause cracking of the ammonia into a cracked gas containing hydrogen gas, nitrogen gas and residual ammonia: purifying the cracked gas in a first PSA device to produce a first hydrogen product gas and a first PSA tail gas comprising ammonia; compressing at least a portion of the first PSA tail gas to produce compressed PSA tail gas; cooling the compressed PSA tail gas to produce cooled ammonia-depleted tail gas and an aqueous ammonia solution; and separating the cooled ammonia-depleted tail gas from the aqueous ammonia solution; purifying the cracked gas in a first PSA device to produce a first hydrogen product gas and a first PSA tail gas comprising ammonia; compressing at least a portion of the first PSA tail gas to produce compressed PSA tail gas; cooling the compressed PSA tail gas to produce cooled ammonia-depleted tail gas and an aqueous ammonia solution; and separating the cooled ammonia-depleted tail gas from the aqueous ammonia solution; wherein at least a portion of the separated aqueous ammonia solution is fed to the SCR reactor to provide the ammonia for the SCR reaction; and wherein the one or more hot fluids comprise the flue gas and/or the cracked gas.
A system for calibrating a payload of a satellite, the system comprising the payload comprising a multichannel receiver comprising one antenna per channel, one analogue processing chain (RF 1, RF 2) per channel and a set of digital integrated circuits, the system further comprising a ground station configured to transmit a calibration signal comprising a plurality of frequencies, the system further comprising a calibration device (DCAL) implemented in the payload or in the ground station, the calibration device (DCAL) being configured to: • acquire for all the channels of the receiver, the digitised calibration signal, • set a reference channel and, for each of the other channels, - determine a relative complex gain between the channel and the reference channel, for a plurality of frequencies of the calibration signal, - correct the relative complex gain of a relative gain of the antenna of the payload between the channel and the reference channel, - estimate, from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, a relative propagation delay of the calibration signal, - estimate, from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, and from the relative delay, a relative phase difference for the set of frequencies, - provide a correction of the relative gain, phase difference and delay of the channel with respect to the reference channel for a set of frequencies. • acquire for all the channels of the receiver, the digitised calibration signal, • set a reference channel and, for each of the other channels, - determine a relative complex gain between the channel and the reference channel, for a plurality of frequencies of the calibration signal, - correct the relative complex gain of a relative gain of the antenna of the payload between the channel and the reference channel, - estimate, from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, a relative propagation delay of the calibration signal, - estimate, from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, and from the relative delay, a relative phase difference for the set of frequencies, - provide a correction of the relative gain, phase difference and delay of the channel with respect to the reference channel for a set of frequencies.
A sprinkler housing for a sprinkler, in particular for operating pressures above 16 bar, comprising - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet, - a closure element, which is movable from a blocking position into a release position in a release direction, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a sealing element, which is mounted on the closure element and is designed to close the fluid channel in a fluid-tight manner in the blocking position, wherein the sprinkler housing has a recess, through which the closure element extends at least in the release position, wherein a protective chamber in which the sealing element is arranged is defined between the closure element and the recess in the release position, and wherein the closure element has an encircling groove in which the sealing element sits, and counter to the release direction and adjacent to the groove, the closure element has a projection for protecting the sealing element against flow influences in the release position, wherein a flow diverter is formed on the projection, und the flow diverter is designed to divert extinguishing fluid, which flows into the distribution chamber, from the first direction in which the recess for receiving the closure element is oriented, characterized in that the flow diverter extends counter to the release direction and in the release position of the sprinkler at least for the most part through the distribution chamber in the direction of the fluid inlet. - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet, - a closure element, which is movable from a blocking position into a release position in a release direction, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a sealing element, which is mounted on the closure element and is designed to close the fluid channel in a fluid-tight manner in the blocking position, wherein the sprinkler housing has a recess, through which the closure element extends at least in the release position, wherein a protective chamber in which the sealing element is arranged is defined between the closure element and the recess in the release position, and wherein the closure element has an encircling groove in which the sealing element sits, and counter to the release direction and adjacent to the groove, the closure element has a projection for protecting the sealing element against flow influences in the release position, wherein a flow diverter is formed on the projection, und the flow diverter is designed to divert extinguishing fluid, which flows into the distribution chamber, from the first direction in which the recess for receiving the closure element is oriented, characterized in that the flow diverter extends counter to the release direction and in the release position of the sprinkler at least for the most part through the distribution chamber in the direction of the fluid inlet.
A method of obtaining three-dimensional surface data of an object scene, the method comprising: positioning a handheld 3D measurement device so that a measurement field of view includes a first portion of a directional view of an object scene at a starting point in the object scene and acquiring 3D data for the measurement field of view; translating the handheld 3D measurement device while maintaining the directional view of the object scene so that the measurement field of view translates across a remainder of the directional view of the object scene and the handheld 3D measurement device acquires 3D data for the translating measurement field of view that are registered with the 3D data for the starting point in the object scene, the 3D data for the positioned and translated measurement field of views defining a backbone 3D data set; positioning the handheld 3D measurement device so that the measurement field of view includes a second portion of the directional view of the object scene and the handheld 3D measurement device acquires 3D data for the measurement field of view that overlap a portion of the backbone 3D data set; joining the 3D data that overlap the portion of the backbone 3D data set to the backbone 3D data set; and maneuvering the handheld 3D measurement device so that the measurement field of view includes a portion of an orthogonal directional view of the object scene and the handheld 3D measurement device acquires 3D data for the measurement field of view that are registered to the backbone 3D data set. positioning a handheld 3D measurement device so that a measurement field of view includes a first portion of a directional view of an object scene at a starting point in the object scene and acquiring 3D data for the measurement field of view; translating the handheld 3D measurement device while maintaining the directional view of the object scene so that the measurement field of view translates across a remainder of the directional view of the object scene and the handheld 3D measurement device acquires 3D data for the translating measurement field of view that are registered with the 3D data for the starting point in the object scene, the 3D data for the positioned and translated measurement field of views defining a backbone 3D data set; positioning the handheld 3D measurement device so that the measurement field of view includes a second portion of the directional view of the object scene and the handheld 3D measurement device acquires 3D data for the measurement field of view that overlap a portion of the backbone 3D data set; joining the 3D data that overlap the portion of the backbone 3D data set to the backbone 3D data set; and maneuvering the handheld 3D measurement device so that the measurement field of view includes a portion of an orthogonal directional view of the object scene and the handheld 3D measurement device acquires 3D data for the measurement field of view that are registered to the backbone 3D data set.
A network system, comprising: a first physical network that includes a first data transmission node that transmits data used in a first service and a second data transmission node that transmits data used in a second service; a second physical network that includes one or a plurality of apparatuses for receiving data from said first and second data transmission nodes; and a control apparatus, in said first physical network, for building a virtual network function, VNF, for transmitting data received from said first and second data transmission nodes directed to said second physical network, characterized in that a virtual network is built for each of the first service and the second service. a first physical network that includes a first data transmission node that transmits data used in a first service and a second data transmission node that transmits data used in a second service; a second physical network that includes one or a plurality of apparatuses for receiving data from said first and second data transmission nodes; and a control apparatus, in said first physical network, for building a virtual network function, VNF, for transmitting data received from said first and second data transmission nodes directed to said second physical network, characterized in that a virtual network is built for each of the first service and the second service.
A lubricating oil composition for transmissions comprising a mineral base oil having a 100oC kinematic viscosity of 1.5 mm 2 /s or higher and 3.5 mm 2 /s or lower, a pour point of -25oC or lower, a viscosity index of 110 or greater, a %C N of 2 or greater and 20 or less and a %C A of 3 or less, the lubricating oil composition having a 100oC kinematic viscosity of 2.5 mm 2 /s or higher and 3.8 mm 2 /s or lower, wherein the lubricating oil composition comprises a poly(meth)acrylate comprising at least a structural component derived from a monomer represented by formula as Component in an amount of 0.5 percent by mass or more and 20 percent by mass or less on the basis of the total mass of the composition: wherein R 1 is hydrogen or methyl, and R 2 is a hydrocarbon group having 1 to 30 carbon atoms; wherein Component comprises (B-1) a poly (meth) acrylate produced by polymerizing a monomer component comprising at least the following (Ba-1) to (Bd-1): (Ba-1) a (meth)acrylate wherein R 2 is an alkyl group having 1 to 4 carbon atoms: 20 to 60 percent by mass; (Bb-1) a (meth)acrylate wherein R 2 is an alkyl group having 5 to 10 carbon atoms: 0 to 30 percent by mass; (Bc-1) a (meth)acrylate wherein R 2 is an alkyl group having 11 to 18 carbon atoms: 20 to 70 percent by mass; and (Bd-1) a (meth)acrylate wherein R 2 is an alkyl group having 19 to 28 carbon atoms: 5 to 50 percent by mass; and wherein the poly (meth) acrylate (B-1) has a weight average molecular weight of 10,000 to 60,000 and is contained in an amount of 0.5 to 10 percent by mass, on the basis of the total mass of the composition. wherein R 1 is hydrogen or methyl, and R 2 is a hydrocarbon group having 1 to 30 carbon atoms; wherein Component comprises (B-1) a poly (meth) acrylate produced by polymerizing a monomer component comprising at least the following (Ba-1) to (Bd-1): (Ba-1) a (meth)acrylate wherein R 2 is an alkyl group having 1 to 4 carbon atoms: 20 to 60 percent by mass; (Bb-1) a (meth)acrylate wherein R 2 is an alkyl group having 5 to 10 carbon atoms: 0 to 30 percent by mass; (Bc-1) a (meth)acrylate wherein R 2 is an alkyl group having 11 to 18 carbon atoms: 20 to 70 percent by mass; and (Bd-1) a (meth)acrylate wherein R 2 is an alkyl group having 19 to 28 carbon atoms: 5 to 50 percent by mass; and (Ba-1) a (meth)acrylate wherein R 2 is an alkyl group having 1 to 4 carbon atoms: 20 to 60 percent by mass; (Bb-1) a (meth)acrylate wherein R 2 is an alkyl group having 5 to 10 carbon atoms: 0 to 30 percent by mass; (Bc-1) a (meth)acrylate wherein R 2 is an alkyl group having 11 to 18 carbon atoms: 20 to 70 percent by mass; and (Bd-1) a (meth)acrylate wherein R 2 is an alkyl group having 19 to 28 carbon atoms: 5 to 50 percent by mass; and wherein the poly (meth) acrylate (B-1) has a weight average molecular weight of 10,000 to 60,000 and is contained in an amount of 0.5 to 10 percent by mass, on the basis of the total mass of the composition.