mhurhangee/ep-ind-claims huggingface dataset:
A cargo system for use with a vehicle, the system comprising: a cargo loader, the cargo loader including a plurality of stanchions (30, 32), each stanchion (30, 32) connected to opposing sides of the vehicle; a plurality of hoops, each hoop having a pair of legs, each leg attached at one end to one of the plurality of stanchions (30, 32) on an opposite side of the vehicle from the other leg, a plurality of elbows (74, 78) each attached to an opposing end of one of the plurality of legs, and a cross bar connecting a pair of the plurality of elbows (74, 78); a plurality of cargo loader beam supports, each cargo loader beam support being attached to one of the plurality of hoops; and a cargo loader beam connected with the plurality of cargo loader beam supports and operable to support cargo, characterized in that the cargo loader beam is movable with respect to the plurality of hoops. a plurality of stanchions (30, 32), each stanchion (30, 32) connected to opposing sides of the vehicle; a plurality of hoops, each hoop having a pair of legs, each leg attached at one end to one of the plurality of stanchions (30, 32) on an opposite side of the vehicle from the other leg, a plurality of elbows (74, 78) each attached to an opposing end of one of the plurality of legs, and a cross bar connecting a pair of the plurality of elbows (74, 78); a plurality of cargo loader beam supports, each cargo loader beam support being attached to one of the plurality of hoops; and a cargo loader beam connected with the plurality of cargo loader beam supports and operable to support cargo, characterized in that the cargo loader beam is movable with respect to the plurality of hoops.
A method of estimating vehicle location in a roadway with a direction of travel using an automatic vehicle identification system, the system including a directional antenna (18, 104, 106, 204, 302, 402a-402e, 602, 604, 606) defining a coverage area (26, 208) for communicating with a transponder (20, 206) mounted to a vehicle (22, 202) in the roadway, the method being characterised by: broadcasting a continuous wave signal over the antenna; receiving a set of modulated response signals containing communication information by way of backscatter modulation of the continuous wave signal from the transponder (20, 206) at points in time (t1-t5) and determining a range rate of the transponder (20, 206) relative to the antenna (18, 104, 106, 204, 302, 402a-402e, 602, 604, 606) at each point in time (t1-t5) by measuring the Doppler shift in the response signal at each point in time (t1-t5), said range rate being a speed of the transponder relative to the antenna; identifying a minimum value of the range rate; estimating a first position of the transponder (20, 206) at a first time corresponding to the occurrence of the minimum value; estimating a velocity (v) of the vehicle (22, 202) based upon one or more of the determined range rates; and estimating a second position (pos1, pos2, pos3) of the transponder (20, 206) based upon the first position and the velocity (v). broadcasting a continuous wave signal over the antenna; receiving a set of modulated response signals containing communication information by way of backscatter modulation of the continuous wave signal from the transponder (20, 206) at points in time (t1-t5) and determining a range rate of the transponder (20, 206) relative to the antenna (18, 104, 106, 204, 302, 402a-402e, 602, 604, 606) at each point in time (t1-t5) by measuring the Doppler shift in the response signal at each point in time (t1-t5), said range rate being a speed of the transponder relative to the antenna; identifying a minimum value of the range rate; estimating a first position of the transponder (20, 206) at a first time corresponding to the occurrence of the minimum value; estimating a velocity (v) of the vehicle (22, 202) based upon one or more of the determined range rates; and estimating a second position (pos1, pos2, pos3) of the transponder (20, 206) based upon the first position and the velocity (v).
A method of analysis, the method comprising: forming a plurality of partitions containing a target at partial occupancy, each partition containing a forward primer, a reverse primer, and a reporter including a first oligomer and a second oligomer capable of base-pairing with one another below a melting temperature of the reporter to reduce a photoluminescence detectable from a photoluminophore of the first oligomer, wherein each of the first oligomer and the second oligomer includes a quencher of the photoluminophore, and wherein the first oligomer is configured to bind to the target at a position that is intermediate binding sites for the forward primer and the reverse primer; amplifying the target in the plurality of partitions, at least in part by extending the forward primer and the reverse primer at a temperature above the melting temperature of the reporter, wherein the step of amplifying causes cleavage of the first oligomer, and wherein the cleavage affects the photoluminescence detectable from the photoluminophore; detecting the photoluminescence from the photoluminophore in the plurality of partitions while each partition is at a temperature below the melting temperature of the reporter; and determining a level of the target based on the photoluminescence detected; wherein the first oligomer forms a greater number of base pairs with the target than with the second oligomer such that the first oligomer hybridized with the target has a higher melting temperature than the reporter. forming a plurality of partitions containing a target at partial occupancy, each partition containing a forward primer, a reverse primer, and a reporter including a first oligomer and a second oligomer capable of base-pairing with one another below a melting temperature of the reporter to reduce a photoluminescence detectable from a photoluminophore of the first oligomer, wherein each of the first oligomer and the second oligomer includes a quencher of the photoluminophore, and wherein the first oligomer is configured to bind to the target at a position that is intermediate binding sites for the forward primer and the reverse primer; amplifying the target in the plurality of partitions, at least in part by extending the forward primer and the reverse primer at a temperature above the melting temperature of the reporter, wherein the step of amplifying causes cleavage of the first oligomer, and wherein the cleavage affects the photoluminescence detectable from the photoluminophore; detecting the photoluminescence from the photoluminophore in the plurality of partitions while each partition is at a temperature below the melting temperature of the reporter; and determining a level of the target based on the photoluminescence detected; wherein the first oligomer forms a greater number of base pairs with the target than with the second oligomer such that the first oligomer hybridized with the target has a higher melting temperature than the reporter.
Medical drainage tube, especially for use in vacuum therapy, preferably endoluminal vacuum therapy, comprising at least one tube body and a flock material, wherein the flock material is joined to the tube body or its surface via an adhesive layer covering the surface of the tube body at least partially and the flock material is flock fibres, characterized in that the flock fibres are disposed on only one of the ends of the tube body on the adhesive layer at least partially covering the surface of the tube body.
Hinged structure for counters and cabinets provided with at least one plate intended for goods' presentation or sale, comprising a supporting profile and a retaining profile both extending parallel to the plate; the supporting profile having at least a first wing (2.1), at least a second wing (2.2) and at least a third wing (2.3) where the second wing (2.2) being interposed between the remaining wings (2.1, 2.3); said first wing (2.1) being arranged to the front fastening to the counter or cabinet and said third wing (2.3) being arranged to the support fastening to the counter or cabinet; below the second wing (2.2) a gasket being fixed; the first wing (2.1) having in its free end a longitudinal opening (2.8); said retaining profile having a groove (3.1) delimited by two wings (3.2, 3.3) which lodges the lower part of the plate; the free end of the wing (3.2) of the retaining profile facing towards the first wing (2.1) of the supporting profile having a longitudinal opening (3.5); said opening (3.5) lodging a slipper; the retaining profile having a slot (3.9) in a position opposite to that of the groove (3.1); said slot (3.9) of the retaining profile lodging the free end of the second wing (2.2) of the supporting profile; said free end of the second wing (2.2) forming a pivot around whose longitudinal axis rotate the retaining profile and the plate it supports; said structure being characterized in that the gasket below the second wing is a silicone gasket and the longitudinal axis of the said free end of the second wing (2.2) of the supporting profile is more external with respect to the first wing (2.1) of the supporting profile of the longitudinal axis being the barycenter of the plate by a distance "l" and in that said free end of the wing (3.2) of the retaining profile facing towards the first wing (2.1) of the supporting profile being linked to the body of the wing (3.2) by means of a thin layer area (3.4); said wing (3.2) of the retaining profile facing towards the first wing (2.1) of the supporting profile presenting through threaded holes (3.6, 3.12) which lodge threaded elements able to deform the thin layer area (3.4); said wing (3.2) of the retaining profile facing towards the first wing (2.1) of the supporting profile having at least two additional through threaded holes (3.7) located near the end of the wing (3.2) of the retaining profile, each one hosting the end of a screw; said longitudinal opening (2.8) present in the free end of the first wing (2.1) of the supporting profile being facing towards the end of the wing (3.2) of the retaining profile; said opening (2.8) lodging a further slipper; a gasket being interposed between the slipper located in the free end of the first wing (2.1) and the free end of the wing (2.1) itself; said gasket being constituted by a rectilinear elastic element.
A composite wheel comprising a spoke portion, a shaped preform component for the spoke portion, and a mass addition, wherein the shaped preform component comprises: an elongate body configured to be located in a spoke of a composite wheel, wherein the composite wheel is characterised in that the shaped preform component is formed from a cured composite fibre material having a compressibility of < 2% volumetric under moulding conditions of 50 bar hydrostatic pressure and a temperature of 60 to 150 °C, and wherein the density of the cured composite fibre material is selected to form a counterbalance mass for the mass addition to the composite wheel. a spoke portion, a shaped preform component for the spoke portion, and a mass addition, an elongate body configured to be located in a spoke of a composite wheel, wherein the composite wheel is characterised in that the shaped preform component is formed from a cured composite fibre material having a compressibility of < 2% volumetric under moulding conditions of 50 bar hydrostatic pressure and a temperature of 60 to 150 °C, and wherein the density of the cured composite fibre material is selected to form a counterbalance mass for the mass addition to the composite wheel.
A service vehicle providing a platform for servicing a container handling vehicle (201, 301) while on a grid-based rail system of a three-dimensional storage grid of an automated storage system for storing storage containers, wherein the service vehicle comprises two or more wheel modules, each module having a first set of wheels configured to move the vehicle along a first lateral direction of the grid-based rail system and a second set of wheels configured to move the vehicle along a second lateral direction of the grid-based rail system, the second direction being perpendicular to the first direction, wherein a platform is mounted on the two or more wheel modules, characterised in that said platform comprises an enclosure that has at least one opening that can be closed by a barrier, and the platform has a set of tracks matching the width of the tracks on the grid.
A brake disk excellent in temper softening resistance and toughness, having a martensitic structure having prior-austenite grains with an average diameter of 8 μm to less than 15 μm, the brake disk containing, by mass, 0.01% or more and 0.1% or less of C, 0.05% or more and 1.0% or less of Si, 0.3% or more and 2.0% or less of Mn, 10.5% or more and 15.0% or less of Cr, between more than 0.03% and 0.1% or less of N, 0.02% or more and 0.6% or less of Nb, 0.01% to 0.5% Cu and optionally containing one or more selected from 0.01% to 2.0% of Mo, 0.10% to 2.0% of Ni, 0.01 % to 1.0% of Co, 0.02% to 0.3% of Ti, 0.02% to 0.3% of V, 0.02% to 0.3% of Zr, 0.02% to 0.3% of Ta, 0.0005% to 0.0050% of B and 0.0005% to 0.0050% of Ca the remainder being Fe and unavoidable impurities, such that the following inequalities and are satisfied: 5 ⁢ Cr + 10 Si + 15 ⁢ Mo + 30 ⁢ Nb − 9 ⁢ Ni − 5 ⁢ Mn − 3 ⁢ Cu − 225 ⁢ N − 270 ⁢ C < 45 0.03 ≤ C + N − 13 / 92 Nb ≤ 0.09 0.5 < precipitated Nb / total Nb ≤ 0.7 wherein Cr, Si, Mo, Nb, Ni, Mn, Cu, N, and C each represent the content of the corresponding elements on a mass percent basis and precipitated Nb and total Nb representing the amount of Nb precipitated in the form of precipitate and the amount of total Nb contained, respectively, satisfy the above inequality.
Position sensor for an actuator, such as a control valve, of a processing plant, such as a chemical plant, a power plant or the like, having a measuring shaft capable of pivoting less than 360° around a pivot axis, and an angle sensor for detecting an actual angular position of the measuring shaft relative to a stationary reference point, wherein the measuring shaft comprises: a first section of the measuring shaft extending coaxially to the pivot axis for introducing a pivotal movement to the measuring shaft corresponding to a control movement of an actuator rod or -shaft, a second section of the measuring shaft particularly extending coaxially to the pivot axis, to which a measuring shaft-based angle sensor component, such as a permanent magnet, of the angle sensor is attached, and at least one bar (11, 13) extending eccentrically relative to the pivot axis, in an axial direction, and arranged between the first section of the measuring shaft and the second section of the measuring shaft in the axial direction, and connecting the sections of the measuring shaft (15, 17) rotationally fixed, and a particularly cylindrical free space which is arranged between the sections of the measuring shaft (15, 17) in the axial direction, and at the level of the pivot axis in a radial direction, wherein the angle sensor is arranged at least partially in the free space, wherein the at least one eccentric bar (11, 13) enables access to the free space in the radial direction transverse relative to the axial direction. a first section of the measuring shaft extending coaxially to the pivot axis for introducing a pivotal movement to the measuring shaft corresponding to a control movement of an actuator rod or -shaft, a second section of the measuring shaft particularly extending coaxially to the pivot axis, to which a measuring shaft-based angle sensor component, such as a permanent magnet, of the angle sensor is attached, and at least one bar (11, 13) extending eccentrically relative to the pivot axis, in an axial direction, and arranged between the first section of the measuring shaft and the second section of the measuring shaft in the axial direction, and connecting the sections of the measuring shaft (15, 17) rotationally fixed, and a particularly cylindrical free space which is arranged between the sections of the measuring shaft (15, 17) in the axial direction, and at the level of the pivot axis in a radial direction, wherein the angle sensor is arranged at least partially in the free space, wherein the at least one eccentric bar (11, 13) enables access to the free space in the radial direction transverse relative to the axial direction.
A method for the manufacture of a hole in a component consisting of a composite material, such as a fiber reinforced plastic part or a fabric reinforced plastic part, characterized in that the component having first and second oppositely disposed sides (14, 16) is placed with its first side on a support having an iris diaphragm, in that a tip which diverges in the axial direction is pressed coming from the second side of the component through the component, which optionally has a pre-piercing, for the formation of the hole or for the enlargement of the pre-piercing and in that the iris diaphragm has a smaller starting opening which receives a narrower region of the tip and opens into a larger opening with increasing penetration of the component by the tip.
A decomposition mitigation assembly, for treating an exhaust gas flow, comprising: a decomposition tube elbow (604, 804) including an inner bend wall portion and an outer bend wall portion, an injector port (606, 806) formed in the outer bend wall portion, the injector port (606, 806) configured to receive a reductant injector therein; an injection exhaust flow path divider wall positioned in the decomposition tube elbow (604, 804), the injection exhaust flow path divider wall forming an injector passage (224, 808) the injector passage (224, 808) extending along at least a portion of the outer bend wall portion; and the decomposition mitigation assembly being characterised in that it further comprises a bypass exhaust flow path divider wall positioned in the decomposition tube elbow (604, 804), the bypass exhaust flow path divider wall forming a bypass passage (222, 818), the bypass passage extending along at least a portion of the inner bend wall portion of the decomposition tube elbow (604, 804), the bypass exhaust flow path divider wall and the injection exhaust flow path divider wall forming a primary passage (230, 830), the primary passage positioned in the decomposition tube elbow (604, 804) between the injection exhaust flow path divider wall and the bypass exhaust flow path divider wall. a decomposition tube elbow (604, 804) including an inner bend wall portion and an outer bend wall portion, an injector port (606, 806) formed in the outer bend wall portion, the injector port (606, 806) configured to receive a reductant injector therein; an injection exhaust flow path divider wall positioned in the decomposition tube elbow (604, 804), the injection exhaust flow path divider wall forming an injector passage (224, 808) the injector passage (224, 808) extending along at least a portion of the outer bend wall portion; and the decomposition mitigation assembly being characterised in that it further comprises a bypass exhaust flow path divider wall positioned in the decomposition tube elbow (604, 804), the bypass exhaust flow path divider wall forming a bypass passage (222, 818), the bypass passage extending along at least a portion of the inner bend wall portion of the decomposition tube elbow (604, 804), the bypass exhaust flow path divider wall and the injection exhaust flow path divider wall forming a primary passage (230, 830), the primary passage positioned in the decomposition tube elbow (604, 804) between the injection exhaust flow path divider wall and the bypass exhaust flow path divider wall.
Method for treating a mixture in view of separating carbon dioxide and hydrogen of this mixture, wherein: i) the mixture is cooled and partially condensed and a first liquid is separated from the mixture in a first (phase separator, ii) a gas coming from the first phase separator is treated in an adsorption module with pressure variation for hydrogen to produce a gas rich in hydrogen and a hydrogen-depleted waste gas, and iii) said hydrogen-depleted waste gas is cooled and partially condensed and a second liquid is separated from the gas remaining in a second phase separator, separate from the first phase separator, the first and the second liquid (4, 7) being rich in carbon dioxide, characterised in that the partial condensations in steps i) and iii) are achieved in one same cryogenic unit. i) the mixture is cooled and partially condensed and a first liquid is separated from the mixture in a first (phase separator, ii) a gas coming from the first phase separator is treated in an adsorption module with pressure variation for hydrogen to produce a gas rich in hydrogen and a hydrogen-depleted waste gas, and iii) said hydrogen-depleted waste gas is cooled and partially condensed and a second liquid is separated from the gas remaining in a second phase separator, separate from the first phase separator,
A pump cassette comprising: a housing comprising at least one fluid inlet line and at least one fluid outlet line; wherein said cassette housing comprises: a top plate; a midplate; and a bottom plate, wherein said top plate includes a fluid port; and at least one reciprocating positive displacement membrane pump (820, 828) within said housing, wherein the at least one reciprocating positive displacement pump comprises an actuation chamber defined by a rigid chamber wall with an aperture for actuating the pump and wherein said pump is arranged to pump a fluid from said fluid inlet line to said fluid outlet line; and at least one metering pump, said metering pump fluidly connected to said fluid port on said housing and to a metering pump fluid line, wherein said metering pump fluid line is fluidly connected to said fluid outlet line. a housing comprising at least one fluid inlet line and at least one fluid outlet line; wherein said cassette housing comprises: a top plate; a midplate; and a bottom plate, wherein said top plate includes a fluid port; and a top plate; a midplate; and a bottom plate, wherein said top plate includes a fluid port; at least one reciprocating positive displacement membrane pump (820, 828) within said housing, wherein the at least one reciprocating positive displacement pump comprises an actuation chamber defined by a rigid chamber wall with an aperture for actuating the pump and wherein said pump is arranged to pump a fluid from said fluid inlet line to said fluid outlet line; and at least one metering pump, said metering pump fluidly connected to said fluid port on said housing and to a metering pump fluid line, wherein said metering pump fluid line is fluidly connected to said fluid outlet line.