mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic resin composition for refrigerant transporting piping, wherein the thermoplastic resin composition comprises a matrix containing a thermoplastic resin, and a rubber-containing domain dispersed in the matrix; the thermoplastic resin has a melting point of not less than 150°C; the rubber is a butyl-based rubber or olefin-based rubber; the matrix contains a viscosity stabilizer; the thermoplastic resin composition comprises at least one selected from the group consisting of a phenylenediamine-based antioxidant, quinoline-based antioxidant, and trihydric alcohol having a triazine skeleton, and a processing aid; and at least part of the rubber is cross-linked.
A device for distributing air, the device comprising at least one housing, the housing having an air inlet opening and a plurality of air outlet openings, at least two displacement elements being arranged in an interior of the housing, the at least two displacement elements each having at least one cutting plane that is configured as a cutting plane of a trumpet-shaped hollow cylinder widening along a longitudinal axis of the housing, and the at least two displacement elements being spaced apart from an inner wall of the housing such that air flows around the at least two displacement elements, characterized in that - the housing has essentially the shape of a cube, - the air outlet openings are located on different sides of the housing, and - the at least two displacement elements are rotationally symmetrical and configured as trumpet-shaped hollow cylinders conically widening along the longitudinal axis of the housing. the device comprising at least one housing, the housing having an air inlet opening and a plurality of air outlet openings, at least two displacement elements being arranged in an interior of the housing, the at least two displacement elements each having at least one cutting plane that is configured as a cutting plane of a trumpet-shaped hollow cylinder widening along a longitudinal axis of the housing, and the at least two displacement elements being spaced apart from an inner wall of the housing such that air flows around the at least two displacement elements, characterized in that - the housing has essentially the shape of a cube, - the air outlet openings are located on different sides of the housing, and - the at least two displacement elements are rotationally symmetrical and configured as trumpet-shaped hollow cylinders conically widening along the longitudinal axis of the housing. - the housing has essentially the shape of a cube, - the air outlet openings are located on different sides of the housing, and - the at least two displacement elements are rotationally symmetrical and configured as trumpet-shaped hollow cylinders conically widening along the longitudinal axis of the housing.
A method for preparing a compound of formula I, comprising the following steps: lactonizing a compound of formula II into the compound of formula I in the presence of a catalyst selected from the group consisting of organic sulfonic acid, monohalo or polyhalo acetic acid and a mixture thereof and a dehydrant in a first solvent, wherein the lactonization of the compound of formula II is not required to be performed under heat, and the lactone compound of formula I is obtained by filtering to remove the dehydrant from the first solvent, evaporating the first solvent and isolating; crystallizing the lactone product in a second solvent; wherein Z represents H, ammonium, or a metal cation, R 1 is H or CH 3, R 2 is CH 3, wherein the organic sulfonic acid contains crystal water or is anhydrous, and is selected from the group consisting of p-toluenesulfonic acid, benzenesulfonic acid, and a mixture thereof; and the monohalo or polyhalo acetic acid is selected from the group consisting of trifluoroacetic acid, chloroacetic acid and dichloroacetic acid, and the dehydrant is selected from the group consisting of magnesium sulfate and sodium sulfate. wherein Z represents H, ammonium, or a metal cation, R 1 is H or CH 3, R 2 is CH 3,
A method of exposing and recording desired embedded avionics data of an aircraft controller that are not otherwise visible using dynamically assigned labels, comprising: assigning a first plurality of data labels to aircraft controller parameters designated for at least one aircraft sub-controller (12a-c); dynamically assigning a second plurality of data labels to desired embedded parameters of an aircraft main controller (10;40;40a,40b) that are not otherwise visible; creating at least one data word storing one of the desired embedded parameters, the data word having one of the second plurality of data labels; exposing the at least one data word by transmitting said at least one data word to a selective recording device (34;46) configured to record the at least one data word having one of the second plurality of data labels; recording the at least one data word using the selective recording device if the at least one data word has one of the second plurality of data labels. assigning a first plurality of data labels to aircraft controller parameters designated for at least one aircraft sub-controller (12a-c); dynamically assigning a second plurality of data labels to desired embedded parameters of an aircraft main controller (10;40;40a,40b) that are not otherwise visible; creating at least one data word storing one of the desired embedded parameters, the data word having one of the second plurality of data labels; exposing the at least one data word by transmitting said at least one data word to a selective recording device (34;46) configured to record the at least one data word having one of the second plurality of data labels; recording the at least one data word using the selective recording device if the at least one data word has one of the second plurality of data labels.
A wind turbine tower comprising a tower vibration damper, the tower vibration damper comprising a tuned mass damper comprising: - a pendulum structure (101, 208) suspended inside the wind turbine tower, - a chamber comprising an outer boundary, the chamber connects a friction media to the pendulum structure (101, 208), and - a suspension arrangement (103-111, 206, 207, 306, 307, 308, 309, 406, 407, 408, 409), suspending the pendulum structure (101, 208) inside the wind turbine tower such that the pendulum structure (101, 208) is allowed to displace from a neutral position towards the outer boundary of the chamber, and an impact damper comprising: - one or more impact damping units (113,114,115,200,300,400) positioned between the pendulum structure (101, 208) and the outer boundary of the chamber, such that the outer boundary of the chamber and the pendulum structure (101, 208) may collide via the impact damper, wherein the impact damper is adapted to be deactivated in order to prevent collision of the outer boundary and the pendulum structure (101, 208) via the impact damper. a tuned mass damper comprising: - a pendulum structure (101, 208) suspended inside the wind turbine tower, - a chamber comprising an outer boundary, the chamber connects a friction media to the pendulum structure (101, 208), and - a suspension arrangement (103-111, 206, 207, 306, 307, 308, 309, 406, 407, 408, 409), suspending the pendulum structure (101, 208) inside the wind turbine tower such that the pendulum structure (101, 208) is allowed to displace from a neutral position towards the outer boundary of the chamber, and - a pendulum structure (101, 208) suspended inside the wind turbine tower, - a chamber comprising an outer boundary, the chamber connects a friction media to the pendulum structure (101, 208), and - a suspension arrangement (103-111, 206, 207, 306, 307, 308, 309, 406, 407, 408, 409), suspending the pendulum structure (101, 208) inside the wind turbine tower such that the pendulum structure (101, 208) is allowed to displace from a neutral position towards the outer boundary of the chamber, and an impact damper comprising: - one or more impact damping units (113,114,115,200,300,400) positioned between the pendulum structure (101, 208) and the outer boundary of the chamber, such that the outer boundary of the chamber and the pendulum structure (101, 208) may collide via the impact damper, wherein - one or more impact damping units (113,114,115,200,300,400) positioned between the pendulum structure (101, 208) and the outer boundary of the chamber, such that the outer boundary of the chamber and the pendulum structure (101, 208) may collide via the impact damper, wherein the impact damper is adapted to be deactivated in order to prevent collision of the outer boundary and the pendulum structure (101, 208) via the impact damper.
A method for producing latex composition comprising adding a pH adjustor to a chloroprene polymer latex, and then blending an acrylic polymer latex, wherein the latex composition comprises: the chloroprene polymer latex; the acrylic polymer latex; and the pH adjustor, wherein the chloroprene polymer latex contains a chloroprene polymer, wherein the acrylic polymer latex contains an acrylic polymer having a glass transition temperature of -40 to -10°C, wherein the pH adjustor is 3 to 6 parts by mass (in terms of solid content) of boric acid or at least one compound selected from amino acids having an isoelectric point of 5.5 to 6.5, wherein the rate of the chloroprene polymer latex in the latex composition is 50 to 85% by mass in terms of solid content, and wherein the rate of the acrylic polymer latex in the latex composition is 15 to 50% by mass in terms of solid content. the chloroprene polymer latex; the acrylic polymer latex; and the pH adjustor,
An airway tube for use in an artificial airway device for establishing an airway in a patient, the device including a tube for introduction into the patient's trachea for passage of gases to and from the patient's lungs, the tube defining a longitudinal axis and including a flexible tube wall, the tube being capable of bending so as to fit into a patient's airway and including a distal portion and a proximal portion, characterised in that the tube is adapted such that all or a part of the proximal portion is relatively more resistant to bending out of the longitudinal axis than all or a part of the distal portion, wherein the proximal portion is relatively more resistant to bending by a modification to the tube wall, wherein the said modification comprises an integral or additional sleeve upon the wall, wherein the sleeve comprises a through-bore of constant diameter such that it fits closely around the tube wall of the airway tube also having a constant diameter longitudinally, and wherein the said degree of resistance to bending of the said proximal portion decreases in the proximal to distal direction.
A method for separating a shell of at least one tower section of a tower of a wind turbine, the method comprising: connecting a guide structure to the shell of a tower section of a tower, the guide structure comprising a stile of a ladder; after connecting the guide structure, placing a transportable separating apparatus on the shell of the tower section, so that a guiding feature of the transportable separating apparatus is coupled to the guide structure, so that a separating device of the transportable separating apparatus moves along a desired separating line during a movement along the guide structure; and separating the shell of the tower section along the desired separating line while the guiding feature of the transportable separating apparatus moves along the guide structure. connecting a guide structure to the shell of a tower section of a tower, the guide structure comprising a stile of a ladder; after connecting the guide structure, placing a transportable separating apparatus on the shell of the tower section, so that a guiding feature of the transportable separating apparatus is coupled to the guide structure, so that a separating device of the transportable separating apparatus moves along a desired separating line during a movement along the guide structure; and separating the shell of the tower section along the desired separating line while the guiding feature of the transportable separating apparatus moves along the guide structure.
A method for determining a settling rate of at least one foulant in oil-based fluids comprising: implementing a change to a refinery process associated with an oil-based fluid based on the settling rate of at least one foulant in the oil-based fluid; wherein the settling rate is determined by obtaining at least two absorbance measurements after solvent dosing and stirring have stopped during a turbidimetric flocculation titration of the oil-based fluid; wherein the settling rate correlates to -dA/dt where dA is the change in absorbance measurements over a period of time dt; and wherein implementing a change to the refinery process comprises adding an additional feed stream to the oil-based fluid to stabilize the oil-based fluid. implementing a change to a refinery process associated with an oil-based fluid based on the settling rate of at least one foulant in the oil-based fluid; wherein the settling rate is determined by obtaining at least two absorbance measurements after solvent dosing and stirring have stopped during a turbidimetric flocculation titration of the oil-based fluid; wherein the settling rate correlates to -dA/dt where dA is the change in absorbance measurements over a period of time dt; and wherein implementing a change to the refinery process comprises adding an additional feed stream to the oil-based fluid to stabilize the oil-based fluid.
Damping skin for protecting composite parts, wherein it consists of a composite material comprising at least two superposed layers (3, 5), i.e. a first layer consisting of a juxtaposition of hollow spheres designed to be applied and fixed, directly or indirectly, to the surface of the part to be protected, and a second layer, covering the first one, and consisting of a wall made of a material having plastic deformation properties.
Clutch transmission, in particular dual clutch transmission for a vehicle, in particular motor vehicle, with at least one manual transmission, which comprises an hydraulically operated clutch (K1, K2) and at least one hydraulically operated gear actuator (155, 157, 155', 157'), and with an hydraulic circuit comprising a tank providing an unpressurised hydraulic medium as well as a pressure source providing a pressurised hydraulic medium, wherein a first pressure control valve (101, 101') is provided in each case upstream of the respective clutch (K1, K2) for the activation thereof and at least one second pressure control valve is provided upstream of the respective gear actuator (155, 157, 155', 157'), wherein at least one of the pressure control valves (101, 101'; 141) is connected to an upstream switching device, which connects the at least one pressure control valve (101, 101'; 141) and an hydraulically operated parking brake either to the pressure source or to the tank, characterised in that the at least one second pressure control valve is directly connected to the pressure source.
A high-throughput screening method for selecting a microorganism having antagonistic activity against a plant pathogenic fungi, said method comprising: a) providing a multitest platform comprising at least 90 compartments and providing a plurality of microbial samples, wherein said multitest platform comprises one or more solid microbial growth media containing a dispersed population of said plant pathogenic fungi forming a cell layer on the surface of the solid microbial growth media or mixed with and incorporated into said solid microbial growth media prior to solidification of the media; b) separately bringing each of said plurality of microbial samples into simultaneous direct physical contact with said dispersed population of plant pathogenic fungi by pin tool transfer; c) co-culturing said microbial samples with said dispersed population of plant pathogenic fungi to assess the response of said plant pathogenic fungi to each of said microbial samples; indicated by the presence of a growth inhibition zone, the diameter of a growth inhibition zone, the production of a chemical compound, a change in morphology and/or physiology of the plant pathogenic fungi, or a combination of any thereof; and d) selecting one or more microbial samples comprising said microorganism having antagonistic activity against said plant pathogenic fungi. a) providing a multitest platform comprising at least 90 compartments and providing a plurality of microbial samples, wherein said multitest platform comprises one or more solid microbial growth media containing a dispersed population of said plant pathogenic fungi forming a cell layer on the surface of the solid microbial growth media or mixed with and incorporated into said solid microbial growth media prior to solidification of the media; b) separately bringing each of said plurality of microbial samples into simultaneous direct physical contact with said dispersed population of plant pathogenic fungi by pin tool transfer; c) co-culturing said microbial samples with said dispersed population of plant pathogenic fungi to assess the response of said plant pathogenic fungi to each of said microbial samples; indicated by the presence of a growth inhibition zone, the diameter of a growth inhibition zone, the production of a chemical compound, a change in morphology and/or physiology of the plant pathogenic fungi, or a combination of any thereof; and d) selecting one or more microbial samples comprising said microorganism having antagonistic activity against said plant pathogenic fungi.
A microchannel plate comprising: a. a substrate defining a plurality of channels extending from a top surface of the substrate to a bottom surface of the substrate; b. a resistive layer formed over an outer surface of the plurality of channels, c. an emissive layer formed over the resistive layer; d. a top electrode positioned on the top surface of the substrate; and e. a bottom electrode positioned on the bottom surface of the substrate, characterised in that the resistive layer comprises a nanolaminate structure formed of a combination of a metal oxide conducting layer and an insulating layer that provides ohmic conduction with a predetermined resistivity that is determined by a composition of the nanolaminate structure and that is substantially constant as a function of applied voltage. a. a substrate defining a plurality of channels extending from a top surface of the substrate to a bottom surface of the substrate; b. a resistive layer formed over an outer surface of the plurality of channels, c. an emissive layer formed over the resistive layer; d. a top electrode positioned on the top surface of the substrate; and e. a bottom electrode positioned on the bottom surface of the substrate,
Process for preparing a hydroconversion catalyst based on a modified zeolite of the FAU framework type with preserved crystallinity and interconnected trimodal porosity, comprising the steps of: A- preparation of a modified zeolite of the FAU framework type, whose intracrystalline structure presents at least one network of micropores, at least one network of small mesopores with a mean diameter of 2 to 5 nm and at least one network of large mesopores with a mean diameter of 10 to 50 nm; these various networks being interconnected; B- mixing the zeolite with a binder, shaping the mixture, and then calcining and obtaining a shaped zeolite; C- impregnation of the shaped zeolite with at least one compound of a catalytic metal chosen from compounds of a metal from group VIII and/or from group VIB, in acidic medium, provided that at least one compound of a catalytic metal is soluble within said acidic medium and that the acid acts as a complexing or chelating agent for at least one compound of a catalytic metal, and obtaining a final catalyst exhibiting a crystallinity and a volume of micropores from 60 to 130% of those of the shaped zeolite. A- preparation of a modified zeolite of the FAU framework type, whose intracrystalline structure presents at least one network of micropores, at least one network of small mesopores with a mean diameter of 2 to 5 nm and at least one network of large mesopores with a mean diameter of 10 to 50 nm; these various networks being interconnected; B- mixing the zeolite with a binder, shaping the mixture, and then calcining and obtaining a shaped zeolite; C- impregnation of the shaped zeolite with at least one compound of a catalytic metal chosen from compounds of a metal from group VIII and/or from group VIB, in acidic medium, provided that at least one compound of a catalytic metal is soluble within said acidic medium and that the acid acts as a complexing or chelating agent for at least one compound of a catalytic metal, and obtaining a final catalyst exhibiting a crystallinity and a volume of micropores from 60 to 130% of those of the shaped zeolite.
A vibratory separator for screening solids laden drilling mud, said vibratory separator comprising at least one screen (510,511,512) arranged in a basket isolated from a base, a vibratory apparatus for vibrating said at least one screen (510,511,512) and means for adjusting the angle of said at least one screen (510,511,512), such that in use solids laden drilling mud forms a pool on said at least one screen, the pool having a surface, the surface having a trailing edge defining a beach wherein the vibratory separator further comprises a variable frequency drive or inverter and control apparatus to control the variable frequency drive or invertor for driving the at least one screen in at least one motion profile, a measuring device arranged to measure a distance related to the position of the surface to assess the length of said beach, wherein the measuring device comprises a sensing apparatus configured to measure a distance to fluid or material at a certain location on a screen or screen assembly, wherein the means for adjusting the angle of the at least one screen is for adjusting the incline angle of the screen or screen assembly to adjust and maintain the extent of the beach, the vibratory separator further comprising sensor apparatus connected to the vibratory separator for sensing a parameter indicative of basket angle for providing a signal corresponding to the basket angle, wherein the control apparatus is for receiving signals from the sensor apparatus and for controlling the basket angle based on the signals, wherein the control apparatus is configured such that if the fluid level in the basket increases above a desired level, then the basket angle is decreased to tilt the basket uphill to a fully uphill position, whereupon the variable frequency drive or inverter increases acceleration; wherein the control apparatus includes timing apparatus configured to indicate that the basket has been maintained at the largest possible uphill angle for a pre-set time period and actuation apparatus for actuating the variable frequency drive or invertor to increase the speed of the vibratory motor apparatus upon the pre-set time being achieved, wherein the actuating is done for a pre-set period of time or until a preset flow of material to a material introduction end is sensed by the sensor apparatus.