mhurhangee/ep-ind-claims huggingface dataset:
A method for producing hydrogen sulphide from hydrogen and elemental sulphur, comprising the following steps: (a) Contacting sulphur with a solid catalyst comprising at least one metal, selected from metals of groups VIB and VIII of the Periodic Table of Elements, in the form of metal sulphide, at a temperature ranging from 120 to 160°C; (b) Circulating the mixture of sulphur and of catalyst resulting from step (a) in a reaction area, wherein said mixture is contacted with hydrogen, the reaction area having a temperature at the point of intake of catalyst greater than or equal to 150°C and a temperature at the point of outlet of the catalyst less than or equal to 300°C, and a pressure less than or equal to 3.10 5 Pa; (c) Separating the catalyst and the off-gas containing hydrogen sulphide; and (d) Recycling the catalyst to step (a). (a) Contacting sulphur with a solid catalyst comprising at least one metal, selected from metals of groups VIB and VIII of the Periodic Table of Elements, in the form of metal sulphide, at a temperature ranging from 120 to 160°C; (b) Circulating the mixture of sulphur and of catalyst resulting from step (a) in a reaction area, wherein said mixture is contacted with hydrogen, the reaction area having a temperature at the point of intake of catalyst greater than or equal to 150°C and a temperature at the point of outlet of the catalyst less than or equal to 300°C, and a pressure less than or equal to 3.10 5 Pa; (c) Separating the catalyst and the off-gas containing hydrogen sulphide; and (d) Recycling the catalyst to step (a).
Method for producing an EMC shielding housing for a set of electronics, comprising the steps of: placing the electronics in a moulding tool, placing an EMC-active woven fabric in the form of a prepreg, i.e. a woven fabric impregnated with a plastics material, in the moulding tool in such a way that the EMC-active woven fabric encloses the electronics at a distance therefrom; injecting a plastics component to form a potting compound for encapsulating the electronics into the moulding tool, wherein the plastics component for the potting compound at least partially penetrates the EMC-active woven fabric; injecting a first plastics component to form a plastic moulded part of the EMC shielding housing adjacent to the EMC-active woven fabric and the plastics component for the potting compound into the moulding tool; and injecting a second plastics component for the plastic moulded part of the EMC shielding housing adjacent to the first plastics component for the plastic moulded part of the EMC shielding housing into the moulding tool. placing the electronics in a moulding tool, placing an EMC-active woven fabric in the form of a prepreg, i.e. a woven fabric impregnated with a plastics material, in the moulding tool in such a way that the EMC-active woven fabric encloses the electronics at a distance therefrom; injecting a plastics component to form a potting compound for encapsulating the electronics into the moulding tool, wherein the plastics component for the potting compound at least partially penetrates the EMC-active woven fabric; injecting a first plastics component to form a plastic moulded part of the EMC shielding housing adjacent to the EMC-active woven fabric and the plastics component for the potting compound into the moulding tool; and injecting a second plastics component for the plastic moulded part of the EMC shielding housing adjacent to the first plastics component for the plastic moulded part of the EMC shielding housing into the moulding tool.
Sheet or strip of cold rolled and annealed ferrous alloy, its composition consists of, in weight percentages: - traces ≤ C ≤ 0.2%, preferably traces ≤ C ≤ 0.05%, more preferably traces ≤ C ≤ 0.015%; - traces ≤ Co ≤ 40%; - if Co ≥ 35%, traces ≤ Si ≤ 1.0%; - if traces ≤ Co < 35%, traces ≤ Si ≤ 3.5%; - if traces ≤ Co < 35%, Si + 0.6% Al ≤ 4.5 - 0.1% Co, preferably Si + 0.6% Al ≤ 3.5 - 0.1% Co; - traces ≤ Cr ≤ 10%; - traces ≤ V + W + Mo + Ni ≤ 4%, preferably ≤ 2%; - traces ≤ Mn ≤ 4%, preferably ≤ 2%; - traces ≤ Al ≤ 3%, preferably ≤ 1%; - traces ≤ S ≤ 0.005%; - traces ≤ P ≤ 0.007%; - traces ≤ Ni ≤ 3%, preferably ≤ 0.3%; - traces ≤ Cu ≤ 0.5%, preferably ≤ 0.05%; - traces ≤ Nb ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Zr ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Ti ≤ 0.2%; - traces ≤ N ≤ 0.01%; - traces ≤ Ca ≤ 0.01%; - traces ≤ Mg ≤ 0.01%; - traces ≤ Ta ≤ 0.01 %; - traces ≤ B ≤ 0.005%; - traces ≤ O ≤ 0.01%; the remainder being iron and impurities resulting from the preparation, characterized in that, for an induction of 1.8 T, the maximum difference (Max Δλ) between the magnetostriction deformation amplitudes λ, measured parallel to the magnetic field (Ha) applied (λ//H) and perpendicular to the magnetic field (Ha) applied (λ ⊥ H) on three rectangular samples (2, 3, 4) of the said sheet or strip, whose long sides are respectively parallel to the direction of rolling of the said sheet or strip, parallel to the transverse direction of the said sheet or strip, and parallel to the direction forming an angle of 45° with the said rolling direction, and with the said transverse direction, is at most 25ppm, in that its recrystallization rate is 80 to 100% and in that it comprises not more than 30% of any {hkl}<uvw> texture component defined by a disorientation of less than 15° from a defined crystallographic orientation {h 0 k 0 l 0}<u 0 v 0 w 0 >, the texture component and the difference between the magnetostriction deformation amplitudes being measured according to the description. - traces ≤ C ≤ 0.2%, preferably traces ≤ C ≤ 0.05%, more preferably traces ≤ C ≤ 0.015%; - traces ≤ Co ≤ 40%; - if Co ≥ 35%, traces ≤ Si ≤ 1.0%; - if traces ≤ Co < 35%, traces ≤ Si ≤ 3.5%; - if traces ≤ Co < 35%, Si + 0.6% Al ≤ 4.5 - 0.1% Co, preferably Si + 0.6% Al ≤ 3.5 - 0.1% Co; - traces ≤ Cr ≤ 10%; - traces ≤ V + W + Mo + Ni ≤ 4%, preferably ≤ 2%; - traces ≤ Mn ≤ 4%, preferably ≤ 2%; - traces ≤ Al ≤ 3%, preferably ≤ 1%; - traces ≤ S ≤ 0.005%; - traces ≤ P ≤ 0.007%; - traces ≤ Ni ≤ 3%, preferably ≤ 0.3%; - traces ≤ Cu ≤ 0.5%, preferably ≤ 0.05%; - traces ≤ Nb ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Zr ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Ti ≤ 0.2%; - traces ≤ N ≤ 0.01%; - traces ≤ Ca ≤ 0.01%; - traces ≤ Mg ≤ 0.01%; - traces ≤ Ta ≤ 0.01 %; - traces ≤ B ≤ 0.005%; - traces ≤ O ≤ 0.01%;
A filter device for fluids, in particular for fuels such as diesel oil, with a filter housing defining a longitudinal axis, which housing has housing ports as fluid inlet and fluid outlet and in which at least one filter element is accommodated, the filter medium of which, surrounding an inner filter cavity, can be flowed through during the filtration process, wherein the filter element is enclosed by an end cap on its lower end facing the bottom part of the filter housing, which end cap has a passage forming a fluid connection to the inner filter cavity and can be fixed onto an element retainer of the filter housing, wherein the element retainer has a retainer piece located on the bottom part of the filter housing, open towards the filter element into which a fluid channel leading to a housing port opens, wherein the end cap of the filter element has a connecting piece which can be accommodated in the retainer piece and can be secured in the latter in a support region, and wherein the connecting piece has an opening which forms a fluid connection to the fluid channel discharging into the element retainer, as well as a seal arrangement (45, 47) which seals the opening with respect to the open end of the retainer piece, wherein the retainer piece has an insertion slope diverging towards the open end on its inside, wherein the seal arrangement is formed by sealing elements (45, 47) which are arranged on the outside of the connecting piece, spaced apart from one another by an axial distance which corresponds to the length of the support region, and which secure the connecting piece in the element retainer by resting it against the inside of the retainer piece of said element retainer, and wherein the one sealing ring is provided with a greater diameter than the other sealing ring, and, viewed in the installed state of the filter element, the insertion slope tapering conically downwards extends between the two sealing rings (45 and 47), which in this respect rest against cylindrical wall sections which close upwards and downwards at the insertion slope.
A method for estimation of a soot load in a particle filter in an exhaust cleaning system, which estimation uses a pressure drop across said particle filter to determine said soot load, characterised in that said estimation is based on measurement of said pressure drop at a specific time when - an exhaust volume flow of said exhaust cleaning system exceeds a flow threshold value, - said particle filter has for a sufficient length of time maintained a temperature above a second temperature threshold value which is high enough to remove water from said particle filter, so that said filter is substantially free from water, and - a temperature of said particle filter exceeds a first threshold value which is higher than a temperature at which water in exhaust gases in said exhaust cleaning system can condense. - an exhaust volume flow of said exhaust cleaning system exceeds a flow threshold value, - said particle filter has for a sufficient length of time maintained a temperature above a second temperature threshold value which is high enough to remove water from said particle filter, so that said filter is substantially free from water, and - a temperature of said particle filter exceeds a first threshold value which is higher than a temperature at which water in exhaust gases in said exhaust cleaning system can condense.
Chopping blade for a straw chopper, said chopping blade having a fastening opening for receiving a fastening element for attaching the chopping blade in a pendular manner to a rotor of the straw chopper, two side faces (80, 80') and cutting edges arranged at one or both ends of the side faces (80, 80'), wherein at least one of the side faces is provided with means for reducing the frictional resistance of the chopping blade with respect to the air and/or the chopping material, characterized in that the means for reducing the air resistance of the chopping blade have a texture that reduces frictional resistance, and in that the texture is formed by steps extending parallel to the cutting edges or waves extending parallel to the cutting edges with recesses and elevations or recesses and elevations that follow one another in both directions defined by the plane of the side faces.
A winch drum tension isolation system comprising: a winch drum (14, 114) including an outwardly extending flange (38, 138), the flange (38, 138) including a plurality of holes (42, 142) spaced along the flange (38, 138); and a locking mechanism (52, 152) positioned proximate the winch drum (14, 114) and including a locking member (54, 154) engageable with the flange (38, 138), the locking member (54, 154) movable between a first position, in which the locking member (54, 154) is received in a first one of the plurality of holes (42, 142) to prevent rotation of the winch drum (14, 114), and a second position, in which the locking member (54, 154) is spaced apart from the flange (38, 138) to permit rotation of the winch drum (14, 114); characterized in that the winch drum (14, 114) tension isolation system further includes a safety release mechanism that includes a release member that is selectively engageable with a second one of the plurality of holes (42, 142) to permit removal of the locking member (54, 154). a winch drum (14, 114) including an outwardly extending flange (38, 138), the flange (38, 138) including a plurality of holes (42, 142) spaced along the flange (38, 138); and a locking mechanism (52, 152) positioned proximate the winch drum (14, 114) and including a locking member (54, 154) engageable with the flange (38, 138), the locking member (54, 154) movable between a first position, in which the locking member (54, 154) is received in a first one of the plurality of holes (42, 142) to prevent rotation of the winch drum (14, 114), and a second position, in which the locking member (54, 154) is spaced apart from the flange (38, 138) to permit rotation of the winch drum (14, 114); characterized in that the winch drum (14, 114) tension isolation system further includes a safety release mechanism that includes a release member that is selectively engageable with a second one of the plurality of holes (42, 142) to permit removal of the locking member (54, 154).
A printing device for carrying out printing with respect to a medium; the printing device comprising: an ejection head (102c-k) configured to eject an ink to the medium; and an infrared irradiating member configured to irradiate an infrared light in which a wavelength is smaller than or equal to 3 μm with respect to the ink on the medium; wherein the ejection head is configured to eject the ink containing a solvent that generates heat by absorbing the infrared light; and the infrared irradiating member is configured to volatilize and remove at least one part of the solvent in the ink by irradiating the infrared light with respect to the ink on the medium; characterized in that the infrared irradiating member is configured to generate the infrared light in which a peak wavelength is smaller than or equal to 3 μm, and an intensity of a component in which a wavelength is 4 μm is smaller than or equal to 1/10 of an intensity at the peak wavelength. an ejection head (102c-k) configured to eject an ink to the medium; and an infrared irradiating member configured to irradiate an infrared light in which a wavelength is smaller than or equal to 3 μm with respect to the ink on the medium; wherein the ejection head is configured to eject the ink containing a solvent that generates heat by absorbing the infrared light; and the infrared irradiating member is configured to volatilize and remove at least one part of the solvent in the ink by irradiating the infrared light with respect to the ink on the medium; characterized in that the infrared irradiating member is configured to generate the infrared light in which a peak wavelength is smaller than or equal to 3 μm, and an intensity of a component in which a wavelength is 4 μm is smaller than or equal to 1/10 of an intensity at the peak wavelength.
A method of reading a ferroelectric memory cell, comprising: applying a positive voltage to a ferroelectric capacitor of the ferroelectric memory cell, wherein the ferroelectric capacitor is in electronic communication with a digit line; thereafter determining that a rate of change of a voltage of the digit line caused by the application of the positive voltage has reached a threshold in response to the positive voltage being applied; applying a negative voltage to the ferroelectric capacitor after the rate of change of the voltage of the digit line reaches the threshold; and thereafter comparing the voltage of the digit line to a ground reference after the negative voltage is applied. applying a positive voltage to a ferroelectric capacitor of the ferroelectric memory cell, wherein the ferroelectric capacitor is in electronic communication with a digit line; thereafter determining that a rate of change of a voltage of the digit line caused by the application of the positive voltage has reached a threshold in response to the positive voltage being applied; applying a negative voltage to the ferroelectric capacitor after the rate of change of the voltage of the digit line reaches the threshold; and thereafter comparing the voltage of the digit line to a ground reference after the negative voltage is applied.
A slider garage, comprising: an overmolded body, the overmolded body oriented on a zipper, the overmolded body including an overmolded male portion and an overmolded female portion, the overmolded male and female portions positioned on an end of the zipper, such that each is on one side of the zipper, the overmolded male portion being shaped such that it fits in the overmolded female portion in a watertight fashion.
A point-of-care system, including: a touch screen display (24, 628, 1124, 1128) mounted in a point-of-care location; a computer (12, 1118) coupled to the display having software for enabling the computer to generate a plurality of screens on the display; a bed (402, 500) having an actuator coupled to the computer, the actuator configured to adjust the position of the bed in response to receipt of a signal from the computer; and a sensor (38, 625, 2011) for detecting a tag associated with a caregiver, the sensor configured to provide an identification signal to the computer in response to detection of the tag, the computer configured to generate a lock out icon on the display upon receipt of the identification signal, wherein when the lock out icon is activated the computer is configured to generate a lock out screen including a plurality of bed control icons, wherein when the caregiver touches one or more of the plurality of bed control icons, the computer is configured to prevent a patient from controlling the corresponding one or more functions of the bed actuator. a touch screen display (24, 628, 1124, 1128) mounted in a point-of-care location; a computer (12, 1118) coupled to the display having software for enabling the computer to generate a plurality of screens on the display; a bed (402, 500) having an actuator coupled to the computer, the actuator configured to adjust the position of the bed in response to receipt of a signal from the computer; and a sensor (38, 625, 2011) for detecting a tag associated with a caregiver, the sensor configured to provide an identification signal to the computer in response to detection of the tag, the computer configured to generate a lock out icon on the display upon receipt of the identification signal, wherein when the lock out icon is activated the computer is configured to generate a lock out screen including a plurality of bed control icons, wherein when the caregiver touches one or more of the plurality of bed control icons, the computer is configured to prevent a patient from controlling the corresponding one or more functions of the bed actuator.
Kit for treating an enamel lesion, comprising a curable infiltrant, comprising polymerizable or crosslinkable monomers, and an infiltration solution for treating an enamel lesion, characterized in that the infiltration solution comprises: (a) at least 25% by weight of a solvent or solvent mixture which is volatile at room temperature (23°C), and (b) dissolved in solution in the solvent or solvent mixture, a radiopaque metal compound having a radiopacity of more than 200% aluminum as determined in accordance with EN ISO 4049:2000, wherein the infiltration solution is composed to an extent of at least 80% by weight of the solvent or solvent mixture (a) and of the dissolved metal compound (b) (a) at least 25% by weight of a solvent or solvent mixture which is volatile at room temperature (23°C), and (b) dissolved in solution in the solvent or solvent mixture, a radiopaque metal compound having a radiopacity of more than 200% aluminum as determined in accordance with EN ISO 4049:2000,
A clutch release bearing device that includes an inner ring, an outer ring and a plurality of rolling elements arranged between the inner ring and the outer ring, wherein an outer ring rib is formed at one end portion of the outer ring so as to extend radially inward, an inner ring rib is formed at one end portion of the inner ring, with a gap left between the inner ring rib and the outer ring rib, so as to extend radially inward, and a seal member is arranged between the outer ring rib and the inner ring rib, wherein:: the seal member has a fitting cylindrical portion that is formed by pressing a thin steel plate and that is press-fitted to an outer peripheral surface of the one end portion of the inner ring, an annular portion that extends radially inward from one end portion of the fitting cylindrical portion along an outer side surface of the inner ring rib, and a cylindrical seal portion that protrudes from a radially inner end of the annular portion along a radially inner end surface of the outer ring rib with a small gap left between the cylindrical seal portion and the radially inner end surface of the outer ring rib, and that constitutes a labyrinth in cooperation with the radially inner end surface of the outer ring rib; characterized in that the seal member is a single-piece member, and the radially inner end surface of the outer ring rib has an inclined surface or a curved surface having a diameter that gradually increases outward from a portion that constitutes the labyrinth. the seal member has a fitting cylindrical portion that is formed by pressing a thin steel plate and that is press-fitted to an outer peripheral surface of the one end portion of the inner ring, an annular portion that extends radially inward from one end portion of the fitting cylindrical portion along an outer side surface of the inner ring rib, and a cylindrical seal portion that protrudes from a radially inner end of the annular portion along a radially inner end surface of the outer ring rib with a small gap left between the cylindrical seal portion and the radially inner end surface of the outer ring rib, and that constitutes a labyrinth in cooperation with the radially inner end surface of the outer ring rib; characterized in that the seal member is a single-piece member, and the radially inner end surface of the outer ring rib has an inclined surface or a curved surface having a diameter that gradually increases outward from a portion that constitutes the labyrinth.
Method for using an air intake of an aircraft turbojet engine nacelle extending along an X axis oriented from upstream to downstream wherein an internal air flow (F-INT) circulates from upstream to downstream during a thrust phase and a reverse air flow (F-INV) from downstream to upstream during a thrust reversal phase, the air intake extending circumferentially around the X axis and comprising an internal wall turned towards the X axis and configured to guide the internal air flow (F-INT) and the reverse air flow (F-INV) and an external wall, opposite the internal wall and configured to guide an external air flow (F-EXT), the internal wall and the external wall being interconnected by an air intake lip in order to form an annular cavity, the air intake lip comprising at least one elastically deformable portion, the air intake comprising at least one connecting member (3, 3', 3"), mounted in the annular cavity integral with the elastically deformable portion and at least one controllable displacement member mechanically connected to the connecting member (3, 3', 3") and configured to move said connecting member (3, 3', 3"), method wherein: - during a thrust phase of the turbojet engine, the controllable displacement member moves the connecting member (3, 3', 3") into a first position, wherein the elastically deformable portion of the air intake lip comprises an aerodynamic profile so as to guide the internal air flow (F-INT) on the internal wall to promote a thrust phase, and - during a reverse thrust phase of the turbojet engine, the controllable displacement member moves the connecting member (3, 3', 3") into a second position, in which the elastically deformable portion of the air intake lip comprises an irregular profile so as to allow a release of the reverse air flow (F-INV) from the elastically deformable portion. - during a thrust phase of the turbojet engine, the controllable displacement member moves the connecting member (3, 3', 3") into a first position, wherein the elastically deformable portion of the air intake lip comprises an aerodynamic profile so as to guide the internal air flow (F-INT) on the internal wall to promote a thrust phase, and - during a reverse thrust phase of the turbojet engine, the controllable displacement member moves the connecting member (3, 3', 3") into a second position, in which the elastically deformable portion of the air intake lip comprises an irregular profile so as to allow a release of the reverse air flow (F-INV) from the elastically deformable portion.