mhurhangee/ep-ind-claims huggingface dataset:
A method for conveying and metering bulk material, for example blasting medium, welding powder, coating agent or the like, during machining, joining or coating of surfaces by means of vacuum suction blasting, in which the bulk material is kept ready in a reservoir placed under vacuum (p uB) by a suction unit, the bulk material is conveyed therefrom via a hose line to an injection blasting lance, accelerated therein by an atmospherically aspirated outside air stream and directed onto a machining surface kept under vacuum (p uB) by a blasting cap, aspirated from the blasting cap, then fed to a separation unit for cleaning purposes and conveyed back into the reservoir, such that the bulk material may be recirculated, characterised in that a suction stream for removing and metering the bulk material is produced using an injection metering tube immersed in a removal region of the bulk material, the bed being loosened in the removal region by an air stream (L A) removed from the suction air of the separation unit, which air stream (L A) is directed into the removal region using a stagnation tube connected in the inlet cone of the separation unit.
A variable geometry turbocharger with an exhaust nozzle having nozzle vanes interposed between front and rear exhaust introduction walls (10, 51), a space being between said rear exhaust introduction wall and a turbine housing, a sealing device being arranged upstream, in a direction of exhaust gas, of each through hole provided in said rear exhaust introduction wall for penetration of a vane shaft (16a, 16b) to prevent exhaust gas in a scroll passage from leaking through said space to a turbine impeller, wherein each of said front and rear exhaust introduction walls (10, 51) is disk-shaped, said turbine housing being formed with a shoulder to which the disk-shaped rear exhaust introduction wall is fitted with said space without axially contacting the turbine housing.
Arrangement having an actuator and a control module for a vehicle, the control module comprising: a printed circuit board, which carries electronic components for controlling the actuator, a dam, which is applied to the printed circuit board and which surrounds the electronic components; a potting compound, in which the electronic components are embedded and which is cast within the dam; electric contact pads for the actuator; characterized in that a partition is applied to the printed circuit board between the electric contact pads, wherein the partition and the dam are produced from the same plastics material, wherein the actuator has at least two contact springs, which are pressed onto at least two contact pads, so that the partition runs at least partly between the contact springs, wherein the actuator has protective walls, which at least partly surround the contact springs and which point in the direction of the printed circuit board, wherein the protective walls run along the partition for the at least two contact pads, and wherein a channel for receiving the partition is formed between the protective walls. a printed circuit board, which carries electronic components for controlling the actuator, a dam, which is applied to the printed circuit board and which surrounds the electronic components; a potting compound, in which the electronic components are embedded and which is cast within the dam; electric contact pads for the actuator; characterized in that a partition is applied to the printed circuit board between the electric contact pads, wherein the partition and the dam are produced from the same plastics material, wherein the actuator has at least two contact springs, which are pressed onto at least two contact pads, so that the partition runs at least partly between the contact springs, wherein the actuator has protective walls, which at least partly surround the contact springs and which point in the direction of the printed circuit board, wherein the protective walls run along the partition for the at least two contact pads, and wherein a channel for receiving the partition is formed between the protective walls.
A transmission time measuring apparatus for a broadcast signal, in which a pilot signal having already-known amplitude and phase characteristics is repeatedly inserted at a given symbol cycle, and which receives a digital broadcast signal whose mode and guard interval length are specified by an OFDM, Orthogonal Frequency Division Multiplex, transmission format, and which measures the transmission time of the received digital broadcast signal, the transmission time measuring apparatus comprising: generating means for generating a comparing OFDM signal whose mode and guard interval length are coincident with those of the received digital broadcast signal; time information acquiring means for acquiring reference time information at the time of transmitting the comparing OFDM signal; time difference computing means (111,113,114,115) for determining an incoming delay time difference between the received digital broadcast signal and the comparing OFDM signal by referring to the comparing OFDM signal; and time computing means for determining the transmission time of the digital broadcast signal by adding the reference time information to the incoming delay time difference. generating means for generating a comparing OFDM signal whose mode and guard interval length are coincident with those of the received digital broadcast signal; time information acquiring means for acquiring reference time information at the time of transmitting the comparing OFDM signal; time difference computing means (111,113,114,115) for determining an incoming delay time difference between the received digital broadcast signal and the comparing OFDM signal by referring to the comparing OFDM signal; and time computing means for determining the transmission time of the digital broadcast signal by adding the reference time information to the incoming delay time difference.
A block copolymer composition comprising (i) a diblock copolymer comprising one block of a monovinylaromatic hydrocarbon and one block of a conjugated diene having a peak molecular weight from 30,000 to 78,000 and a vinyl content from 35 to 80 mol percent based on the number of repeat monomer units in the conjugated diene block, and (ii) a block copolymer comprising at least two blocks of monovinylaromatic hydrocarbon and at least one block of conjugated diene, the block copolymer selected from linear triblock copolymers having a peak molecular weight that is 1.5 to 3.0 times the peak molecular weight of the diblock copolymer, multiarm coupled block copolymers having a peak molecular weight that is 1.5 to 9.0 times the peak molecular weight of the diblock copolymer, and mixtures thereof, wherein each block copolymer has a vinyl content from 35 to 80 mol percent based on the number of repeat monomer units in the conjugated diene block, wherein the peak molecular weight of each monovinylaromatic hydrocarbon block in each of diblock copolymer (i) and block copolymer (ii) is from 10,000 to 25,000, wherein the term "molecular weights" refers to the true molecular weight in g/mol measured with gel permeation chromatography using polystyrene calibration standards, according to ASTM 3536, measured at the peak of the GPC trace, wherein the melt index for the block copolymer composition is from 16 to 35 g/10 min as determined by ASTM D-1238, condition G (200°C, 5 kg) and wherein the ratio of (i) to (ii) in the block copolymer composition is greater than 1:1. (i) a diblock copolymer comprising one block of a monovinylaromatic hydrocarbon and one block of a conjugated diene having a peak molecular weight from 30,000 to 78,000 and a vinyl content from 35 to 80 mol percent based on the number of repeat monomer units in the conjugated diene block, and (ii) a block copolymer comprising at least two blocks of monovinylaromatic hydrocarbon and at least one block of conjugated diene, the block copolymer selected from linear triblock copolymers having a peak molecular weight that is 1.5 to 3.0 times the peak molecular weight of the diblock copolymer, multiarm coupled block copolymers having a peak molecular weight that is 1.5 to 9.0 times the peak molecular weight of the diblock copolymer, and mixtures thereof, wherein each block copolymer has a vinyl content from 35 to 80 mol percent based on the number of repeat monomer units in the conjugated diene block, wherein the peak molecular weight of each monovinylaromatic hydrocarbon block in each of diblock copolymer (i) and block copolymer (ii) is from 10,000 to 25,000, wherein the term "molecular weights" refers to the true molecular weight in g/mol measured with gel permeation chromatography using polystyrene calibration standards, according to ASTM 3536, measured at the peak of the GPC trace, wherein the melt index for the block copolymer composition is from 16 to 35 g/10 min as determined by ASTM D-1238, condition G (200°C, 5 kg) and wherein the ratio of (i) to (ii) in the block copolymer composition is greater than 1:1.
A thermoelectric device using radiant heat as a heat source, comprising: a substrate; a heat absorption layer formed on the substrate and absorbing radiant heat; a leg for transferring the heat absorbed by the heat absorption layer to a heat dissipation layer; the heat dissipation layer for dissipating the heat transferred from the leg away from the heat dissipation layer; an anti-reflection layer formed on the heat absorption layer and having a lower refractive index than the heat absorption layer; an insulating layer formed on the leg and the heat dissipation layer and having a lower refractive index than a first reflection layer; and the first reflection layer formed on the insulating layer and totally reflecting the radiant light, wherein the radiant light is not reflected to the outside due to the anti-reflection layer but is absorbed by the heat absorption layer, and the radiant light is not absorbed by the heat dissipation layer but is totally reflected by the insulating layer and the first reflection layer. a substrate; a heat absorption layer formed on the substrate and absorbing radiant heat; a leg for transferring the heat absorbed by the heat absorption layer to a heat dissipation layer; the heat dissipation layer for dissipating the heat transferred from the leg away from the heat dissipation layer; an anti-reflection layer formed on the heat absorption layer and having a lower refractive index than the heat absorption layer; an insulating layer formed on the leg and the heat dissipation layer and having a lower refractive index than a first reflection layer; and the first reflection layer formed on the insulating layer and totally reflecting the radiant light, wherein the radiant light is not reflected to the outside due to the anti-reflection layer but is absorbed by the heat absorption layer, and the radiant light is not absorbed by the heat dissipation layer but is totally reflected by the insulating layer and the first reflection layer.
A diesel fuel injection system in a motor vehicle provided with a diesel engine; the system comprising: - a common rail; - a filter arranged along a duct which delivers diesel fuel to said common rail; - a heater; - control means (11, 13) configured so as to activate/deactivate said heater in response to signals that are received and on the basis of algorithms implemented in said control means (11, 13); said control means being configured so as to activate said heater in response to an activation signal indicating an event leading to the opening of a driver side door of said vehicle; characterised in that said heater is housed in said filter, and said control means is configured so as to deactivate said heater when the outside temperature is above a given threshold. - a common rail; - a filter arranged along a duct which delivers diesel fuel to said common rail; - a heater; - control means (11, 13) configured so as to activate/deactivate said heater in response to signals that are received and on the basis of algorithms implemented in said control means (11, 13);
A mold level measuring method for measuring a level of molten metal in a mold by an eddy current mold level measuring device, the method comprising the steps of: determining a reference value of a positive feedback ratio of an amplifying section of the measuring device in environmental conditions before pouring of molten metal into the mold; detecting, by a coil (105C2) of the measuring device, a change in a value of impedance caused by a change in the level of molten metal in the mold; amplifying, by the amplifying section, a voltage corresponding to the change in the value of impedance; obtaining a standard value of difference in an output of the measuring device, the standard value of difference corresponding to a known value of amplitude of mold oscillation when the positive feedback ratio is the reference value, obtaining a deviation of measurement based on a difference between the maximum value and the minimum value of the output of the measuring device during a time period of mold oscillation and the standard value of difference; and correcting the positive feedback ratio so as to reduce the deviation of measurement while the positive feedback ratio is maintained within a predetermined range having an upper limit (A1, B1) and a lower limit (A2, B2) and including the reference value. determining a reference value of a positive feedback ratio of an amplifying section of the measuring device in environmental conditions before pouring of molten metal into the mold; detecting, by a coil (105C2) of the measuring device, a change in a value of impedance caused by a change in the level of molten metal in the mold; amplifying, by the amplifying section, a voltage corresponding to the change in the value of impedance; obtaining a standard value of difference in an output of the measuring device, the standard value of difference corresponding to a known value of amplitude of mold oscillation when the positive feedback ratio is the reference value, obtaining a deviation of measurement based on a difference between the maximum value and the minimum value of the output of the measuring device during a time period of mold oscillation and the standard value of difference; and correcting the positive feedback ratio so as to reduce the deviation of measurement while the positive feedback ratio is maintained within a predetermined range having an upper limit (A1, B1) and a lower limit (A2, B2) and including the reference value.
A slide fastener slider comprising: a body for engaging fastener elements; and a pull-attaching post integrated to the body, wherein a logo or a pattern (30, 50) is engraved on an upper surface of the post and wherein a parting line is not formed in an area of the upper surface of the post where the logo or the pattern (30, 50) is engraved, characterised in that; the parting line is formed in the remaining area of the upper surface. a body for engaging fastener elements; and a pull-attaching post integrated to the body, wherein a logo or a pattern (30, 50) is engraved on an upper surface of the post and wherein a parting line is not formed in an area of the upper surface of the post where the logo or the pattern (30, 50) is engraved, characterised in that; the parting line is formed in the remaining area of the upper surface.
A method for resolving a Temporary Block Flow, a TBF, in a wireless network including one or more mobile stations, MS, exchanging data with a base stations system, a BSS, by means of one or more RLC/MAC blocks each associated with the TBF and wherein the TBF is associated to an MS and identified by means of a Temporary Flow Identity, a TFI; the method comprising the steps of: - receiving a RLC/MAC block including an RLC/MAC header and an RLC data block; - retrieving a first TFI from a first group of TFIs in the RLC/MAC header; - comparing the first TFI with an assigned TFI; - determining capability in the MS to retrieve an extended TFI, eTFI, field in a transmitted downlink RLC/MAC block; - decoding the payload of the RLC/MAC block when the first TFI matches the assigned TFI and represents a comprehensive TFI for the associated MS, when it is determined that the mobile station represents a legacy mobile station lacking eTFI capability; - decoding at least a predetermined field of the RLC data block and retrieving an extended TFI, eTFI, from a second group of TFIs when the first TFI matches the assigned TFI value and is identified as a code point to an eTFI, wherein the eTFI information is included in a PAN field which enables the sending of acknowledgements of data; - comparing the eTFI with an assigned eTFI; - decoding the payload of the RLC data block when the eTFI matches the assigned eTFI; - disregarding the RLC/MAC block if the first TFI does not match the assigned TFI or the eTFI does not match the assigned eTFI; - receiving a new RLC/MAC block and repeating the steps for said RLC/MAC block. - receiving a RLC/MAC block including an RLC/MAC header and an RLC data block; - retrieving a first TFI from a first group of TFIs in the RLC/MAC header; - comparing the first TFI with an assigned TFI; - determining capability in the MS to retrieve an extended TFI, eTFI, field in a transmitted downlink RLC/MAC block; - decoding the payload of the RLC/MAC block when the first TFI matches the assigned TFI and represents a comprehensive TFI for the associated MS, when it is determined that the mobile station represents a legacy mobile station lacking eTFI capability; - decoding at least a predetermined field of the RLC data block and retrieving an extended TFI, eTFI, from a second group of TFIs when the first TFI matches the assigned TFI value and is identified as a code point to an eTFI, wherein the eTFI information is included in a PAN field which enables the sending of acknowledgements of data; - comparing the eTFI with an assigned eTFI; - decoding the payload of the RLC data block when the eTFI matches the assigned eTFI; - disregarding the RLC/MAC block if the first TFI does not match the assigned TFI or the eTFI does not match the assigned eTFI; - receiving a new RLC/MAC block and repeating the steps for said RLC/MAC block.
A method comprising: prior to establishing a communication session between a virtual network controller and a virtual network agent executing on a server device, sending network packets by the server device to the virtual network controller using a default route for a physical network; after establishing the communication session between the virtual network controller device and the virtual network agent, receiving from the virtual network controller a command to install a new route at the server device, wherein the new route specifies encapsulation information to use for encapsulating network packets for sending the network packets to the virtual network controller over an overlay network; and responsive to detecting a failed link in the physical network, sending packets to the virtual network controller on an alternate route in the overlay network. prior to establishing a communication session between a virtual network controller and a virtual network agent executing on a server device, sending network packets by the server device to the virtual network controller using a default route for a physical network; after establishing the communication session between the virtual network controller device and the virtual network agent, receiving from the virtual network controller a command to install a new route at the server device, wherein the new route specifies encapsulation information to use for encapsulating network packets for sending the network packets to the virtual network controller over an overlay network; and responsive to detecting a failed link in the physical network, sending packets to the virtual network controller on an alternate route in the overlay network.
A method for producing nanoparticles, wherein at least two kinds of fluids to be processed are used, wherein, at least one of the fluids is a diketopyrrolopyrrole pigment solution containing at least one kind of diketopyrrolopyrrole pigment dissolved therein and at least one of the fluids other than the above-mentioned is an alcohol solvent containing at least one kind of alcohol compound solvent, wherein, the fluids to be processed are mixed to separate the diketopyrrolopyrrole pigment thereby providing the method for producing the nanoparticles, wherein: of the diketopyrrolopyrrole pigment solution and the alcohol solvent, at least any one of the fluids to be processed contains an acidic substance, and the diketopyrrolopyrrole pigment solution and the alcohol solvent, both of them being as the fluids to be processed, are mixed in a thin film fluid formed between at least two processing surfaces (1,2) arranged opposite to each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other, thereby separating the diketopyrrolopyrrole pigment, characterized in that pH of a mixed solution obtained by mixing the fluids to be processed in the thin film fluid is 7 or lower. of the diketopyrrolopyrrole pigment solution and the alcohol solvent, at least any one of the fluids to be processed contains an acidic substance, and the diketopyrrolopyrrole pigment solution and the alcohol solvent, both of them being as the fluids to be processed, are mixed in a thin film fluid formed between at least two processing surfaces (1,2) arranged opposite to each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other, thereby separating the diketopyrrolopyrrole pigment, characterized in that pH of a mixed solution obtained by mixing the fluids to be processed in the thin film fluid is 7 or lower.