mhurhangee/ep-ind-claims huggingface dataset:
A container wall, comprising: a polyester; about 0.2 to about 4.0 weight percent polymethylpentene based on the weight of the wall; and about 0.1 to about 5.0 weight percent light scattering pigment based on the weight of the wall, wherein the ratio of PMP to light scattering pigment is from about 5:1 to about 1:5; wherein the wall has a gonioappearance of less than 10 units, measured with a multi-angle spectrophotometer as CIELAB DE CMC with a 45° incident light source between 15° near-specular reflection and 110° far specular reflection; and wherein the light scattering pigment interacts with incident light by primarily diffracting light. a polyester; about 0.2 to about 4.0 weight percent polymethylpentene based on the weight of the wall; and about 0.1 to about 5.0 weight percent light scattering pigment based on the weight of the wall, wherein the ratio of PMP to light scattering pigment is from about 5:1 to about 1:5; wherein the wall has a gonioappearance of less than 10 units, measured with a multi-angle spectrophotometer as CIELAB DE CMC with a 45° incident light source between 15° near-specular reflection and 110° far specular reflection; and wherein the light scattering pigment interacts with incident light by primarily diffracting light.
Method for thermal hydrolysis and steam explosion of biomass, said method comprises the following steps: (i) feeding the biomass approximately continuously into a first preheating step and heating the biomass, (ii) leading the preheated biomass sequentially into at least two reactors, (iii) heating and pressurising the reactor(s) by the supply of steam, (iv) holding the reactor(s) at a given temperature and pressure over a given time, (v) leading the heated and pressurised biomass from the reactor(s) to a first pressure relief tank via a nozzle without any substantial reduction of the reactor pressure between the reactor(s) and the nozzle, before relieving the pressure in the biomass quickly with the help of the nozzle so that the biomass is broken up in the relief tank, (vi) leading steam from the first pressure relief tank to the preheating tank, (vii) leading the biomass from the first pressure relief tank to a second pressure relief tank at a lower pressure than the pressure in the first pressure relief tank, maintaining underpressure in the second pressure relief tank such that the pressure in the second pressure relief tank is of the order of 0,3 - 0,8 bar abs, (viii) leading steam from the second pressure relief tank to the preheating tank and/or the reactor for the heating of these (ix) leading the treated biomass to a downstream installation for further treatment. (i) feeding the biomass approximately continuously into a first preheating step and heating the biomass, (ii) leading the preheated biomass sequentially into at least two reactors, (iii) heating and pressurising the reactor(s) by the supply of steam, (iv) holding the reactor(s) at a given temperature and pressure over a given time, (v) leading the heated and pressurised biomass from the reactor(s) to a first pressure relief tank via a nozzle without any substantial reduction of the reactor pressure between the reactor(s) and the nozzle, before relieving the pressure in the biomass quickly with the help of the nozzle so that the biomass is broken up in the relief tank, (vi) leading steam from the first pressure relief tank to the preheating tank, (vii) leading the biomass from the first pressure relief tank to a second pressure relief tank at a lower pressure than the pressure in the first pressure relief tank, maintaining underpressure in the second pressure relief tank such that the pressure in the second pressure relief tank is of the order of 0,3 - 0,8 bar abs, (viii) leading steam from the second pressure relief tank to the preheating tank and/or the reactor for the heating of these (ix) leading the treated biomass to a downstream installation for further treatment.
A light module of a vehicle comprising an optical element and at least one light source, the rays emitted from which pass through a transparent optical surface of the optical element and emerge in the form of a light beam, the transparent optical surface extending mainly along a transverse axis between a first transverse end and a second transverse end, characterized in that the optical element comprises at least one means for attachment (22, 24) to the light module at each of the transverse ends (19, 21) of the transparent optical surface, the attachment means (22, 24) being an attachment lug (22, 24) extending substantially perpendicularly to the transparent optical surface along a longitudinal axis, the light module comprising at least one support for the at least one light source and for the optical element, the support having a housing (26, 28) for each attachment means (22, 24) of the optical element, characterized in that the light module further comprises a reflector attached to the support to deflect the light rays emitted by the light source toward the optical element, said reflector being positioned to cover attachment means (22, 24) of the optical element, each of which is positioned in a housing (26, 28) of the support, and in that the reflector comprises at least one elastically deformable tab (120, 122) in contact with one of the attachment means (22, 24) of the optical element, so as to immobilize said attachment means (22, 24) in the corresponding housing along the vertical axis. the attachment means (22, 24) being an attachment lug (22, 24) extending substantially perpendicularly to the transparent optical surface along a longitudinal axis, the light module comprising at least one support for the at least one light source and for the optical element, the support having a housing (26, 28) for each attachment means (22, 24) of the optical element, characterized in that the light module further comprises a reflector attached to the support to deflect the light rays emitted by the light source toward the optical element, said reflector being positioned to cover attachment means (22, 24) of the optical element, each of which is positioned in a housing (26, 28) of the support, and in that the reflector comprises at least one elastically deformable tab (120, 122) in contact with one of the attachment means (22, 24) of the optical element, so as to immobilize said attachment means (22, 24) in the corresponding housing along the vertical axis.
Expansion device for use in a working medium circuit, wherein within the working medium circuit a process sequence can be executed which corresponds to that of a Clausius Rankine cycle or an Organic Rankine cycle, wherein the expansion device is designed as a Scroll machine through which a working medium circulating in the working medium circuit can flow in the expansion direction, characterised in that along an expansion path, several inlets (6.1 to 6.5) are arranged in a stationary Scroll base plate, by means of which inlets (6.1 to 6.5) working medium of the working medium circuit can be fed to the expansion device, wherein each inlet (6.1 to 6.5) in the stationary Scroll base plate is assigned a separate cycle valve whereby the working medium of the working medium circuit can be fed to the expansion device under open- and/or closed-loop control.
Pellets comprising a fluororesin, each of the pellets, placed on a horizontal surface, having a substantially circular outline or a substantially elliptic outline and having a major axis D 1 of 3.1 mm or shorter and a minor axis D 2 of 3.1 mm or shorter when observed in the direction normal to the horizontal surface, characterized in that the major axis D 1 is 1.6 mm or longer and the minor axis D 2 is 1.6 mm or longer and the pellets satisfy the following formula: D 1 + D 2 / 2 L = 1.8 to 2.6 wherein L represents the height from the horizontal surface to the highest point of each pellet, and wherein the measurement of pellet diameter is carried out as follows: 20 g of the resulting pellets are weighed, the major axis D 1 and minor axis D 2 of each pellet relative to the horizontal surface, and the height L from the horizontal surface to the highest point of the pellet are measured with a caliper, and the average values of the measured values of the pellets are calculated.
Shading device for a motor vehicle window, having a shading structure with an extension profile attached to the end side of the shading structure, said extension profile being displaceable in lateral guide rails secured to the vehicle between a lowered rest position and an extended shading position with the aid of drive transmission means, wherein, in the rest position, the shading structure has been lowered through a passage into a compartment secured to the vehicle, wherein the passage is closable by a cover that is movable between an open and a closed position, and wherein a control mechanism for opening and closing the cover is provided, said control mechanism being coupled with a displacement movement of the extension profile, wherein the control mechanism has a traction mechanism drive which, depending on whether the extension profile has passed through the passage, controls the cover between an open position and an intermediate position which is located between the open position and closed position of the cover, and in which the cover, in a fully extended position of the extension profile, rests on the extended shading structure without contact or with slight pressure, characterized in that the traction mechanism drive extends between a driver, arranged in the region of at least one lateral guide rail, and a region of action rotationally fixed to the cover.
An outdoor unit (100, 100A) comprising: a motor comprising: a rotor having a rotor core and a permanent magnet attached to the rotor core, the permanent magnet forming a magnet magnetic pole, a part of the rotor core forming a virtual magnetic pole; and a stator surrounding the rotor; a frame holding the motor; a support body supporting the frame; a unit housing in which the frame and the support body are housed, the unit housing having a top plate located above the frame, a bottom portion located under the frame, and a side plate (113, 114); and a nonmagnetic body (71, 72, 73) disposed between the support body and the top plate wherein a nonmagnetic body (74, 75, 82, 84, 85) is further disposed at least one of between the support body and the bottom portion, between the side plate (113, 114) and the top plate and between the side plate (113, 114) and the bottom portion. a motor comprising: a rotor having a rotor core and a permanent magnet attached to the rotor core, the permanent magnet forming a magnet magnetic pole, a part of the rotor core forming a virtual magnetic pole; and a stator surrounding the rotor; a rotor having a rotor core and a permanent magnet attached to the rotor core, the permanent magnet forming a magnet magnetic pole, a part of the rotor core forming a virtual magnetic pole; and a stator surrounding the rotor; a frame holding the motor; a support body supporting the frame; a unit housing in which the frame and the support body are housed, the unit housing having a top plate located above the frame, a bottom portion located under the frame, and a side plate (113, 114); and a nonmagnetic body (71, 72, 73) disposed between the support body and the top plate wherein a nonmagnetic body (74, 75, 82, 84, 85) is further disposed at least one of between the support body and the bottom portion, between the side plate (113, 114) and the top plate and between the side plate (113, 114) and the bottom portion.
A container filling machine, selected from a rotary filling machine or an inline filling machine, comprising alternating filling units, each of said filling units comprising: a. a valve actuator assembly having a first end moveably connected to the filling machine to effect both lateral movement and reciprocating longitudinal movement of the valve actuator assembly relative to the filling machine; and b. a valve connected to a second end of the valve actuator assembly, such that longitudinal movement of the valve actuator assembly actuates the valve to open and fill a container, wherein the alternating filling units each comprise a different valve dedicated for a particular variety of container. a. a valve actuator assembly having a first end moveably connected to the filling machine to effect both lateral movement and reciprocating longitudinal movement of the valve actuator assembly relative to the filling machine; and b. a valve connected to a second end of the valve actuator assembly, such that longitudinal movement of the valve actuator assembly actuates the valve to open and fill a container,
A system comprising: a sales gas pipeline coupled to a glycol dehydration unit in a gas plant and operable to receive sales gas output from the gas plant; and a computer system operable to: receive one or more operational parameters of the glycol dehydration unit in the gas plant; determine an amount of glycol carryover and an amount of water carryover in the sales gas output from the glycol dehydration unit, based on the one or more operational parameters of the glycol dehydration unit; determine an amount of glycol and water co-condensation in the sales gas pipeline based on the amount of glycol carryover, the amount of water carryover, and one or more operational parameters of the sales gas pipeline; and determine an amount of black powder formation of the sales gas in the sales gas pipeline based on the amount of glycol and water co-condensation. a sales gas pipeline coupled to a glycol dehydration unit in a gas plant and operable to receive sales gas output from the gas plant; and a computer system operable to: receive one or more operational parameters of the glycol dehydration unit in the gas plant; determine an amount of glycol carryover and an amount of water carryover in the sales gas output from the glycol dehydration unit, based on the one or more operational parameters of the glycol dehydration unit; determine an amount of glycol and water co-condensation in the sales gas pipeline based on the amount of glycol carryover, the amount of water carryover, and one or more operational parameters of the sales gas pipeline; and determine an amount of black powder formation of the sales gas in the sales gas pipeline based on the amount of glycol and water co-condensation. receive one or more operational parameters of the glycol dehydration unit in the gas plant; determine an amount of glycol carryover and an amount of water carryover in the sales gas output from the glycol dehydration unit, based on the one or more operational parameters of the glycol dehydration unit; determine an amount of glycol and water co-condensation in the sales gas pipeline based on the amount of glycol carryover, the amount of water carryover, and one or more operational parameters of the sales gas pipeline; and determine an amount of black powder formation of the sales gas in the sales gas pipeline based on the amount of glycol and water co-condensation.
Component with a support (4, 32) for which a flat region is defined, wherein the support (4, 32) has a support cover (10, 36) which at least partly has the shape of a hollow cone, a funnel, or a tent and which is raised out of the flat region, wherein one end of the at least partly hollow cone-shaped, funnel-shaped, or tent-shaped support cover (10, 36), said end facing away from the flat region of the support (4, 32), is equipped with a recess (12, 40) for receiving a securing element to be secured to the component (2, 30), characterized in that the component (2, 30) is formed as a forged component, wherein the support cover (10, 36) has the shape of an inclined hollow cone, wherein an axis along which the at least partly hollow cone-shaped, funnel-shaped, or tent-shaped support cover (10, 36) extends from the flat region of the support (4, 32) is oriented at any angle, in particular at 90°, to the flat region.
A honeycomb filter comprising: a plurality of honeycomb fired bodies being combined with one another via adhesive layers therebetween, each honeycomb fired body comprising: an outer wall on its outer periphery; a plurality of cells as exhaust gas passages; and porous cell walls defining the cells, the cells including exhaust gas introduction cells each having an open end at an exhaust gas inlet side and a plugged end at an exhaust gas outlet side and exhaust gas emission cells each having an open end at the exhaust gas outlet side and a plugged end at the exhaust gas inlet side, wherein the exhaust gas introduction cells and the exhaust gas emission cells each have a uniform cross-sectional shape throughout from the end at the exhaust gas inlet side to the end at the exhaust gas outlet side excluding the plugged portion in a direction perpendicular to the longitudinal direction of the cells, because the cross-sectional figure defined by the inner cell walls does not physically exist at the plugged portions due to the presence of the plugs, each exhaust gas emission cell is adjacently surrounded fully by the exhaust gas introduction cells across the porous cell walls, except for the cells adjacent to the outer wall, and the cells adjacent to the outer wall consist of the exhaust gas introduction cells and the exhaust gas emission cells, the total volume of the exhaust gas emission cells adjacent to the outer wall being greater than that of the exhaust gas introduction cells adjacent to the outer wall. a plurality of honeycomb fired bodies being combined with one another via adhesive layers therebetween, each honeycomb fired body comprising: an outer wall on its outer periphery; a plurality of cells as exhaust gas passages; and porous cell walls defining the cells, an outer wall on its outer periphery; a plurality of cells as exhaust gas passages; and porous cell walls defining the cells, the cells including exhaust gas introduction cells each having an open end at an exhaust gas inlet side and a plugged end at an exhaust gas outlet side and exhaust gas emission cells each having an open end at the exhaust gas outlet side and a plugged end at the exhaust gas inlet side, wherein the exhaust gas introduction cells and the exhaust gas emission cells each have a uniform cross-sectional shape throughout from the end at the exhaust gas inlet side to the end at the exhaust gas outlet side excluding the plugged portion in a direction perpendicular to the longitudinal direction of the cells, because the cross-sectional figure defined by the inner cell walls does not physically exist at the plugged portions due to the presence of the plugs, each exhaust gas emission cell is adjacently surrounded fully by the exhaust gas introduction cells across the porous cell walls, except for the cells adjacent to the outer wall, and the cells adjacent to the outer wall consist of the exhaust gas introduction cells and the exhaust gas emission cells, the total volume of the exhaust gas emission cells adjacent to the outer wall being greater than that of the exhaust gas introduction cells adjacent to the outer wall.
A compound of Formula or a tautomer or a stereoisomeric form thereof, wherein R 1 and R 2 are independently selected from the group consisting of hydrogen, halo, cyano, C 1-3 alkyl, mono- and polyhalo-C 1-3 alkyl, and C 3-6 cycloalkyl; wherein halo is fluoro, chloro or bromo, R 3 is selected from the group consisting of hydrogen, C 1-3 alkyl, C 3-6 cycloalkyl, mono- and polyhalo-C 1-3 alkyl, homoaryl and heteroaryl; X 1, X 2, X 3, X 4 are independently C(R 4) or N, provided that no more than two thereof represent N; each R 4 is selected from the group consisting of hydrogen, halo, C 1-3 alkyl, mono- andpolyhalo-C 1-3 alkyl, cyano, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyloxy; L is a bond or -N(R 5)CO-, wherein R 5 is hydrogen or C 1-3 alkyl; Ar is homoaryl or heteroaryl; wherein homoaryl is phenyl or phenyl substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl; heteroaryl is selected from the group consisting of pyridyl, pyrimidyl, pyrazyl, pyridazyl, furanyl, thienyl, pyrrolyl, pyrazolyl, imidazolyl, triazolyl, thiazolyl, isothiazolyl, thiadiazolyl, oxazolyl, and oxadiazolyl, each optionally substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl; or an addition salt or a solvate thereof R 1 and R 2 are independently selected from the group consisting of hydrogen, halo, cyano, C 1-3 alkyl, mono- and polyhalo-C 1-3 alkyl, and C 3-6 cycloalkyl; wherein halo is fluoro, chloro or bromo, R 3 is selected from the group consisting of hydrogen, C 1-3 alkyl, C 3-6 cycloalkyl, mono- and polyhalo-C 1-3 alkyl, homoaryl and heteroaryl; X 1, X 2, X 3, X 4 are independently C(R 4) or N, provided that no more than two thereof represent N; each R 4 is selected from the group consisting of hydrogen, halo, C 1-3 alkyl, mono- andpolyhalo-C 1-3 alkyl, cyano, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyloxy; L is a bond or -N(R 5)CO-, wherein R 5 is hydrogen or C 1-3 alkyl; Ar is homoaryl or heteroaryl; wherein homoaryl is phenyl or phenyl substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl; heteroaryl is selected from the group consisting of pyridyl, pyrimidyl, pyrazyl, pyridazyl, furanyl, thienyl, pyrrolyl, pyrazolyl, imidazolyl, triazolyl, thiazolyl, isothiazolyl, thiadiazolyl, oxazolyl, and oxadiazolyl, each optionally substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl; or an addition salt or a solvate thereof
A parking management system comprising: a detection module for detecting a parking violation, the detection module being arranged to receive data and to receive vehicle data that has been read from a vehicle, to determine if a parking violation has occurred based on the data and vehicle data; an enforcement module for use in executing at least one enforcement action when it is determined that a parking violation has occurred; and a resolution module for facilitating performance of remedial measures, the resolution module comprising a payment processing module for facilitating payment of a fine corresponding to the enforcement action by an operator of the vehicle; characterised in that the at least one enforcement action comprises immobilization of the vehicle by placing a boot on a wheel of the vehicle, which boot comprises a lock which is unlockable using an unlock code; and in that the resolution module comprises a release processor for providing the operator of the vehicle with the unlock code upon payment of the fine to assist the operator in releasing the boot, and a return processor configured to communicate to the operator instructions for returning the boot to a location. a detection module for detecting a parking violation, the detection module being arranged to receive data and to receive vehicle data that has been read from a vehicle, to determine if a parking violation has occurred based on the data and vehicle data; an enforcement module for use in executing at least one enforcement action when it is determined that a parking violation has occurred; and a resolution module for facilitating performance of remedial measures, the resolution module comprising a payment processing module for facilitating payment of a fine corresponding to the enforcement action by an operator of the vehicle; characterised in that the at least one enforcement action comprises immobilization of the vehicle by placing a boot on a wheel of the vehicle, which boot comprises a lock which is unlockable using an unlock code; and in that the resolution module comprises a release processor for providing the operator of the vehicle with the unlock code upon payment of the fine to assist the operator in releasing the boot, and a return processor configured to communicate to the operator instructions for returning the boot to a location.