mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of isocyanates by reaction of primary amines with phosgene in the gas phase, in which a) the primary amine is vaporized in a vaporizer, and b) the vaporized amine obtained in step a), which still contains droplets, exits from the vaporizer and is led to the reactor via a feed, in which a superheater is arranged, and is introduced into the reactor, characterized in that c) the vaporized amine obtained in step a), which still contains droplets, is superheated in the feed to the reactor, so that it has a temperature of at least 15 oC above the dew point in the feed directly before entry into the reactor, wherein a device for drop separation which has a drop diameter limit of from 5 to 550 μm is arranged in the feed, where this device for drop separation does not bring about comprehensive drop separation, and d) the dwell time of the vaporized amine in step b) is more than 0.03 second, and e) the pressure difference over the feed between the exit from the vaporizer and the entry into the reactor is between 1 and 500 mbar. a) the primary amine is vaporized in a vaporizer, and b) the vaporized amine obtained in step a), which still contains droplets, exits from the vaporizer and is led to the reactor via a feed, in which a superheater is arranged, and is introduced into the reactor, c) the vaporized amine obtained in step a), which still contains droplets, is superheated in the feed to the reactor, so that it has a temperature of at least 15 oC above the dew point in the feed directly before entry into the reactor, wherein a device for drop separation which has a drop diameter limit of from 5 to 550 μm is arranged in the feed, where this device for drop separation does not bring about comprehensive drop separation, and d) the dwell time of the vaporized amine in step b) is more than 0.03 second, and e) the pressure difference over the feed between the exit from the vaporizer and the entry into the reactor is between 1 and 500 mbar.
A fill limit vent valve configured for use with a reductant tank, the fill limit vent valve comprising: a valve body having a circumferential wall that extends between an upper tank mounting end and an opposite end, the valve body defining a valve body seat, at least one valve opening and a valve inner chamber; a vapor permeable membrane disposed adjacent to the at least one valve opening and configured to permit vapor to pass through the vapor permeable membrane and into the at least one valve opening while inhibiting liquid from passing therethrough; a float having a float body configured to be received within the valve inner chamber, the float further comprising a float seal configured to sealingly engage the valve body seat; and the float movable between (i) an open position wherein vapor flows along a first flow path through the valve inner chamber and out of the valve body; and (ii) a closed position wherein the float seal sealingly engages the valve body seat and precludes vapor from flowing along the first flow path, wherein vapor is permitted to flow along a second flow path through the vapor permeable membrane, through the at least one valve opening and out of the valve body. characterized in that the fill limit vent valve further comprises: a clip that mounts around the circumferential wall of the valve body at the upper tank mounting end, the clip aligning around the vapor permeable membrane and the vapor permeable membrane is mounted around the outer circumferential wall. a valve body having a circumferential wall that extends between an upper tank mounting end and an opposite end, the valve body defining a valve body seat, at least one valve opening and a valve inner chamber; a vapor permeable membrane disposed adjacent to the at least one valve opening and configured to permit vapor to pass through the vapor permeable membrane and into the at least one valve opening while inhibiting liquid from passing therethrough; a float having a float body configured to be received within the valve inner chamber, the float further comprising a float seal configured to sealingly engage the valve body seat; and the float movable between (i) an open position wherein vapor flows along a first flow path through the valve inner chamber and out of the valve body; and (ii) a closed position wherein the float seal sealingly engages the valve body seat and precludes vapor from flowing along the first flow path, wherein vapor is permitted to flow along a second flow path through the vapor permeable membrane, through the at least one valve opening and out of the valve body. characterized in that the fill limit vent valve further comprises: a clip that mounts around the circumferential wall of the valve body at the upper tank mounting end, the clip aligning around the vapor permeable membrane and the vapor permeable membrane is mounted around the outer circumferential wall. a clip that mounts around the circumferential wall of the valve body at the upper tank mounting end, the clip aligning around the vapor permeable membrane and the vapor permeable membrane is mounted around the outer circumferential wall.
A fluid pressure sensing device comprising: - a pressure sensing transducer having a support structure and a diaphragm attached to said support structure, the diaphragm having a fluid facing side to be exposed to a fluid pressure; - a connector body having connector terminals therein; - a housing for forming a chamber together with the connector body; and - an electrical circuit disposed in the chamber electrically connected to the transducer and connector terminals for providing an electrical signal corresponding to the applied pressure at the diaphragm, the housing having a transducer receiving cavity defined by a bottom wall and a housing sidewall extending upwardly from the bottom wall, the bottom wall formed with a fluid pressure receiving recess, a fluid pressure port formed in the housing in communication with the recess, wherein, the diaphragm is positioned between the support structure and the fluid pressure receiving recess and a seal material around a support structure sidewall fixes the pressure sensing transducer in the housing and provides a hermetic seal, characterised in that the coefficient of thermal expansion CTE of the housing is larger than the CTE of the support structure and the CTE of the sealing material. - a pressure sensing transducer having a support structure and a diaphragm attached to said support structure, the diaphragm having a fluid facing side to be exposed to a fluid pressure; - a connector body having connector terminals therein; - a housing for forming a chamber together with the connector body; and - an electrical circuit disposed in the chamber electrically connected to the transducer and connector terminals for providing an electrical signal corresponding to the applied pressure at the diaphragm, the housing having a transducer receiving cavity defined by a bottom wall and a housing sidewall extending upwardly from the bottom wall, the bottom wall formed with a fluid pressure receiving recess, a fluid pressure port formed in the housing in communication with the recess,
An isolated peptide consisting of the sequence selected from the group consisting of: (i) the sequence set forth in any one of SEQ ID NOs: 1-10; and (ii) a variant or mutant of the sequence set forth in any one of SEQ ID NOs: 1-10, wherein one amino acid has been substituted by a conservative or non-conservative amino acid. (i) the sequence set forth in any one of SEQ ID NOs: 1-10; and (ii) a variant or mutant of the sequence set forth in any one of SEQ ID NOs: 1-10, wherein one amino acid has been substituted by a conservative or non-conservative amino acid.
Ladder foot for a ladder, with which ladder foot the ladder can be placed on a surface, for example on the ground, wherein the ladder foot comprises at least one pivotable ground spike, wherein the ground spike can be pivoted between a first position, in which it is in a non-use position, and a second position, wherein the ground spike is arranged in a displaceable manner at the same time and can be displaced between the second position and a third position, in which it is in a use position, and wherein the ladder foot has a guide means to which the ground spike is fitted in a displaceable manner, characterized in that the guide means is fitted in a pivotable manner to a part of the ladder foot which can be connected to the ladder.
A composition for controlling a plant disease comprising a tetrazolinone compound represented by formula: wherein X 1 represents a chlorine atom, and X 2 represents a methyl group, and a carboxamide compound represented by formula: X 1 represents a chlorine atom, and X 2 represents a methyl group, and
A cleaning apparatus, comprising: A carriage assembly (104, 204, 300, 402, 1902, 2100) having a motor (303, 405) and a driving wheel; a trailing assembly (105, 205, 408, 1904, 2007, 2204) having at least one roller; a brush assembly comprising at least one rotatable brush (103, 403, 2400) having a rotational axis, wherein the brush assembly is attached to the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204), wherein the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204) are configured to translate the brush assembly along a rail by driving with the motor (303, 405) the driving wheel along the rail, and the brush assembly is configured to brush while the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204) move along the rail, and wherein the brush assembly includes a telescoping shaft which is configured to expand and retract as the angle or the direction of movement of the brush assembly changes, wherein in an operational position the rotational axis makes an angle with a direction of travel and in a rest position the rotational axis is perpendicular to the direction of travel. A carriage assembly (104, 204, 300, 402, 1902, 2100) having a motor (303, 405) and a driving wheel; a trailing assembly (105, 205, 408, 1904, 2007, 2204) having at least one roller; a brush assembly comprising at least one rotatable brush (103, 403, 2400) having a rotational axis, wherein the brush assembly is attached to the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204), wherein the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204) are configured to translate the brush assembly along a rail by driving with the motor (303, 405) the driving wheel along the rail, and the brush assembly is configured to brush while the carriage assembly (104, 204, 300, 402, 1902, 2100) and the trailing assembly (105, 205, 408, 1904, 2007, 2204) move along the rail, and wherein the brush assembly includes a telescoping shaft which is configured to expand and retract as the angle or the direction of movement of the brush assembly changes, wherein in an operational position the rotational axis makes an angle with a direction of travel and in a rest position the rotational axis is perpendicular to the direction of travel.
A block copolymer comprising: at least one aromatic vinyl compound polymer block; and at least one chloroprene polymer block, the block copolymer having a functional group with a structure represented by Chemical Formula or and having a number average molecular weight of 100,000 or more, the chloroprene polymer block having a number average molecular weight of 80,000 or more in total: (in Chemical Formula, R 1 is a substituted or unsubstituted heterocyclyl group). at least one aromatic vinyl compound polymer block; and at least one chloroprene polymer block, the block copolymer having a functional group with a structure represented by Chemical Formula or and having a number average molecular weight of 100,000 or more, the chloroprene polymer block having a number average molecular weight of 80,000 or more in total:
A frame for a welding machine, in particular for an ultrasonic welding machine, comprising: a base plate; a column which is connected to the base plate; a guide rail which is provided along the column; a linear drive for applying a force from a work member to a workpiece which can be positioned on the base plate; a slide which is displaceably guided along the guide rail; and a support which supports the slide, characterized in that: the slide supports the linear drive; the work member is aligned with the displacement path of the linear drive; and the support is configured to counteract a force-induced displacement of the slide as a consequence of a force application by the linear drive onto a workpiece which can be positioned on the base plate. a base plate; a column which is connected to the base plate; a guide rail which is provided along the column; a linear drive for applying a force from a work member to a workpiece which can be positioned on the base plate; a slide which is displaceably guided along the guide rail; and a support which supports the slide, characterized in that: the slide supports the linear drive; the work member is aligned with the displacement path of the linear drive; and the support is configured to counteract a force-induced displacement of the slide as a consequence of a force application by the linear drive onto a workpiece which can be positioned on the base plate. the slide supports the linear drive; the work member is aligned with the displacement path of the linear drive; and the support is configured to counteract a force-induced displacement of the slide as a consequence of a force application by the linear drive onto a workpiece which can be positioned on the base plate.
A method for transmitting a physical downlink control channel signal, characterized by comprising: when a total number of available resource blocks of an downlink bandwidth in a radio frame is less than or equal to k, a transmitting end fixedly using 2 symbols of a subframe to transmit the physical downlink control channel signal, wherein k is a natural number; wherein the subframe is subframe 1 and subframe 6 in a frame structure used in a Long Term Evolution, LTE, system in the Time Division Duplex mode, k=10; or the subframe is a Multiple Broadcast Single Frequency Network subframe in a frame structure used in an LTE system in the Frequency Division Duplex mode, k=10. when a total number of available resource blocks of an downlink bandwidth in a radio frame is less than or equal to k, a transmitting end fixedly using 2 symbols of a subframe to transmit the physical downlink control channel signal, wherein k is a natural number; wherein the subframe is subframe 1 and subframe 6 in a frame structure used in a Long Term Evolution, LTE, system in the Time Division Duplex mode, k=10; or the subframe is a Multiple Broadcast Single Frequency Network subframe in a frame structure used in an LTE system in the Frequency Division Duplex mode, k=10.
An inspection apparatus (100, 100A, 100B) that inspects a photo device, the inspection apparatus comprising: an irradiation part (12, 12A, 12B) that irradiates said photo device with pulsed light emitted from a femtosecond laser; a detecting part (13, 13A, 13B) that detects an electromagnetic wave, which is generated from said photo device according to the irradiation of said pulsed light; and a continuous light irradiation part that irradiates a portion, which is irradiated with said pulsed light in said photo device, with continuous light, characterized in that said photo device is a photovoltaic cell, said continuous light irradiation part irradiates said photovoltaic cell with said continuous light, thereby generating an electromotive force in said photovoltaic cell, and said irradiation part (12, 12A, 12B) irradiates said photovoltaic cell generating said electromotive force with said pulsed light. an irradiation part (12, 12A, 12B) that irradiates said photo device with pulsed light emitted from a femtosecond laser; a detecting part (13, 13A, 13B) that detects an electromagnetic wave, which is generated from said photo device according to the irradiation of said pulsed light; and a continuous light irradiation part that irradiates a portion, which is irradiated with said pulsed light in said photo device, with continuous light, characterized in that said photo device is a photovoltaic cell, said continuous light irradiation part irradiates said photovoltaic cell with said continuous light, thereby generating an electromotive force in said photovoltaic cell, and said irradiation part (12, 12A, 12B) irradiates said photovoltaic cell generating said electromotive force with said pulsed light.
An apparatus for identifying a document having a security feature having wavelength conversion properties, comprising: a light-generation device, which is configured to illuminate the security feature using excitation light to emit light; an image recording device, which is configured to record light emitted by the security feature in response to the excitation light to obtain an emission recording, wherein the image recording device is furthermore configured to record light emitted by the security feature in response to a reference light to obtain a reference recording; and a processor, which is configured to identify the document on the basis of the emission recording and of the reference recording. a light-generation device, which is configured to illuminate the security feature using excitation light to emit light; an image recording device, which is configured to record light emitted by the security feature in response to the excitation light to obtain an emission recording, wherein the image recording device is furthermore configured to record light emitted by the security feature in response to a reference light to obtain a reference recording; and a processor, which is configured to identify the document on the basis of the emission recording and of the reference recording.
Heat exchanger plate comprising an edge, a groove running along the edge, a gasket arranged in the groove, and a corrugated area having tops and valleys between the groove and the edge, wherein tops run substantially perpendicular to the edge, wherein in at least one valley a raised section extends from a bottom area of the valley and the gasket comprises a click-on extension arranged in the valley and having a recess adapted to the raised section, characterized in that at least one inner projection (21, 22) is provided in the recess of the click-on extension of the gasket, the raised section forms a hollow, and the at least one inner projection (21, 22) projects into the hollow.
A heat exchanger element comprising: a cylindrical outer peripheral wall made of ceramic containing SiC as a main component, and partition walls which are made of ceramic containing SiC as a main component and separate and form a plurality of cells functioning as passages for a first fluid in a portion inside the outer peripheral wall; wherein the outer peripheral wall and the partition walls mediate heat exchange between the first fluid flowing through the portion inside the outer peripheral wall and the second fluid flowing through the portion outside the outer peripheral wall, characterised in that the thickness of the outer peripheral wall, the equivalent circle diameter calculated from the area of the portion inside the outer peripheral wall in a cross section perpendicular to an axial direction of the outer peripheral wall, and thickness (t) of the partition walls satisfy the following formulae to: 0.3 mm ≤ T ≤ 4.0 mm 15 mm ≤ D ≤ 120 mm 0.04 × T ≤ t ≤ 0.6 mm a cylindrical outer peripheral wall made of ceramic containing SiC as a main component, and partition walls which are made of ceramic containing SiC as a main component and separate and form a plurality of cells functioning as passages for a first fluid in a portion inside the outer peripheral wall; wherein the outer peripheral wall and the partition walls mediate heat exchange between the first fluid flowing through the portion inside the outer peripheral wall and the second fluid flowing through the portion outside the outer peripheral wall, characterised in that the thickness of the outer peripheral wall, the equivalent circle diameter calculated from the area of the portion inside the outer peripheral wall in a cross section perpendicular to an axial direction of the outer peripheral wall, and thickness (t) of the partition walls satisfy the following formulae to: 0.3 mm ≤ T ≤ 4.0 mm 15 mm ≤ D ≤ 120 mm 0.04 × T ≤ t ≤ 0.6 mm
A ceramic sheet comprising: a principal surface having particle marks, wherein an average width of the particle marks is 0.2 to 50 μm, an average depth of the particle marks along a sheet thickness direction is 0.1 to 25 μm, whereby the width and depth are measured by laser microscopy, as described in the description, and a coefficient of variation of widths of the particle marks is 0.23 or more, whereby the coefficient of variation of widths is obtained by dividing the standard deviation of the width by the average width. a principal surface having particle marks, wherein an average width of the particle marks is 0.2 to 50 μm, an average depth of the particle marks along a sheet thickness direction is 0.1 to 25 μm, whereby the width and depth are measured by laser microscopy, as described in the description, and a coefficient of variation of widths of the particle marks is 0.23 or more, whereby the coefficient of variation of widths is obtained by dividing the standard deviation of the width by the average width.
A photoelectric conversion device including a plurality of photoelectric conversion units, each including a plurality of photoelectric conversion elements (PD1, PD2, PD3, PD4) and each of the plurality of photoelectric conversion elements being connected to a floating diffusion region via a respective transfer transistor (205, 206), wherein each of the plurality of photoelectric conversion elements includes a first semiconductor region (203a, 203b, 204a, 204b) of a first conductivity type for collecting the signal charge, wherein a second semiconductor region of a second conductivity type, which is opposite to the first conductive type, is arranged between the first semiconductor regions (203a, 203b, 204a, 204b) of the photoelectric conversion elements arranged adjacent to each other and included in the photoelectric conversion unit, wherein a third semiconductor region of the second conductivity type is arranged between the first semiconductor regions of the photoelectric conversion elements arranged adjacent to each other among the plurality of photoelectric conversion elements included in different photoelectric conversion units arranged adjacent to each other, wherein light condensed by one microlens (202a, 202b) is incident on the plurality of photoelectric conversion elements included in one photoelectric conversion unit, and light condensed by a different microlens (202a, 202b) is incident on photoelectric conversion elements included in a different photoelectric conversion unit, characterized in that the photoelectric conversion device is configured to add signals of the plurality of photoelectric conversion elements included in the photoelectric conversion units and in that a net impurity concentration of the second conductivity type of at least a first portion of the second semiconductor region is lower than a net impurity concentration of the second conductivity type of the third semiconductor region, such that a height of a potential barrier between the first semiconductor regions (203a, 203b, 204a, 204b) of the photoelectric conversion elements arranged adjacent to each other and included in the same photoelectric conversion unit is smaller than a height of a potential barrier between the first semiconductor regions (203a, 203b, 204a, 204b) of the photoelectric conversion elements arranged adjacent to each other among the plurality of photoelectric conversion elements included in different photoelectric conversion units arranged adjacent to each other.