mhurhangee/ep-ind-claims huggingface dataset:
A method of making a spray-dried Ziegler-Natta procatalyst system, the method comprising: mixing a spray-dried particulate solid, consisting essentially of a hydrophobic fumed silica, MgCl 2, and THF, with a hydrocarbon liquid and one of titanium tetraisopropoxide (Ti(OiPr) 4) and ethylaluminum dichloride (EADC), but not both Ti(OiPr) 4 and EADC, to give an intermediate mixture consisting essentially of, or being a reaction product made from, the spray-dried particulate solid, hydrocarbon liquid, and either Ti(OiPr) 4 or EADC, but not both Ti(OiPr) 4 and EADC; and combining the intermediate mixture with the other one of the Ti(OiPr) 4 or EADC that was not used in the mixing step to give the spray-dried Ziegler-Natta procatalyst system. mixing a spray-dried particulate solid, consisting essentially of a hydrophobic fumed silica, MgCl 2, and THF, with a hydrocarbon liquid and one of titanium tetraisopropoxide (Ti(OiPr) 4) and ethylaluminum dichloride (EADC), but not both Ti(OiPr) 4 and EADC, to give an intermediate mixture consisting essentially of, or being a reaction product made from, the spray-dried particulate solid, hydrocarbon liquid, and either Ti(OiPr) 4 or EADC, but not both Ti(OiPr) 4 and EADC; and combining the intermediate mixture with the other one of the Ti(OiPr) 4 or EADC that was not used in the mixing step to give the spray-dried Ziegler-Natta procatalyst system.
An airfoil comprising: an airfoil section having a ceramic airfoil wall that defines a suction side and a pressure side, and an interior cavity in the airfoil section; and a rib spanning across the interior cavity and connecting the suction side and the pressure side, characterized in that the rib has a thermal conductance element that is configured to conduct heat away from the suction side and the pressure side and into the rib to maintain the rib at a relatively higher temperature, the rib including a forward side ceramic matrix composite skin, an aft side ceramic matrix composite skin, and the thermal conductance element being between the forward side ceramic matrix composite skin and the aft side ceramic matrix composite skin. an airfoil section having a ceramic airfoil wall that defines a suction side and a pressure side, and an interior cavity in the airfoil section; and a rib spanning across the interior cavity and connecting the suction side and the pressure side, characterized in that the rib has a thermal conductance element that is configured to conduct heat away from the suction side and the pressure side and into the rib to maintain the rib at a relatively higher temperature, the rib including a forward side ceramic matrix composite skin, an aft side ceramic matrix composite skin, and the thermal conductance element being between the forward side ceramic matrix composite skin and the aft side ceramic matrix composite skin.
Method for applying a corrosion-resistant coating to a metal part by immersing/withdrawing said part in/from an aqueous paint bath, characterised in that the aqueous paint bath includes water, a binder and cellulose microfibrils or nanofibrils (CMNFs), and the coated metal part is subjected to vibrations when removed from the bath.
A method for producing a viewing screen having an injection-overmolded insert, comprising the steps of: - placing an insert that is to be overmolded in an injection mold, - holding the insert using at least one suction nozzle incorporated into the injection mold, - injecting a thermoplastics material into the mold to form a mechanical support layer supporting the viewing screen, - demolding the viewing screen thus formed, characterized in that the mold has only one suction nozzle positioned in a zone which, insofar as the viewing screen is concerned, corresponds to the cutout portion that accommodates the nose of a user. - placing an insert that is to be overmolded in an injection mold, - holding the insert using at least one suction nozzle incorporated into the injection mold, - injecting a thermoplastics material into the mold to form a mechanical support layer supporting the viewing screen, - demolding the viewing screen thus formed,
Gear arrangement for a spindle drive arrangement,comprising a gear housing and a gear holder, the gear holder having at least two receiving openings for in each case one fastening screw or in each case one fastening pin for fastening to another component, in particular to a vehicle seat, and these at least two receiving openings being oriented at a right angle and/or obliquely with respect to one another, characterized in that the gear housing is mounted pivotably on the gear holder.
Apparatus for sawing up at least two workpieces which are in the form of a panel or a stack of panels, wherein the apparatus has at least two feed means (2a, 2b) which are movable independently of each other for displacing at least in each case one workpiece in a main direction of transport, and at least one sawing device for sawing up the workpieces along a sawing line transversely, in particular orthogonally, to the main direction of transport, and, viewed in the main direction of transport, on the side of the sawing line opposed to the feed means (2a, 2b) a transport arrangement with a plurality of transporters with in each case at least one contact face for contacting one of the sawn-up workpieces and for spacing apart the sawn-up workpieces in at least one direction (8, 9) transversely to the main direction of transport, wherein the workpieces upon displacement and upon sawing-up and upon spacing apart from each other can be arranged on a workpiece support side of a workpiece support plane of the apparatus, characterised in that at least the contact face of a respective transporter can be extended by at least one drive of the transport arrangement out of the workpiece support plane onto the workpiece support side and then for spacing apart the sawn-up workpieces is movable along a transverse transport path in at least one of the directions (8, 9) transversely, preferably orthogonally, to the main direction of transport, and at the end of the transverse transport path can be retracted at least as far as the workpiece support plane, preferably over the workpiece support plane.
A separation module comprising a porous asymmetric membrane, comprising a poly(phenylene ether) copolymer comprising: 80 to 20 mole percent repeat units derived from 2,6-dimethylphenol; and 20 to 80 mole percent repeat units derived from 2-methyl-6-phenylphenol; wherein all mole percents are based on the total moles of all repeat units; and having an intrinsic viscosity of 0.7 to 1.5 deciliters per gram, measured in chloroform at 25 °C, and a weight average molecular weight of 100,000 to 500,000 daltons, measured by gel permeation chromatography against polystyrene standards; and an amphiphilic block copolymer comprising a hydrophobic block comprising a polystyrene block and a hydrophilic block or graft; wherein the porous asymmetric membrane is formed by method of forming the porous asymmetric membrane comprising dissolving the poly(phenylene ether) copolymer and the amphiphilic block copolymer to form a porous asymmetric membrane-forming composition; and phase-inverting the porous asymmetric membrane forming-composition in a first non-[[]]solvent composition to form the porous asymmetric membrane; and wherein the porous asymmetric membrane is in a sheet, disc, spiral wound, plate and frame, hollow fiber, capillary, or tubular configuration. 80 to 20 mole percent repeat units derived from 2,6-dimethylphenol; and 20 to 80 mole percent repeat units derived from 2-methyl-6-phenylphenol; wherein all mole percents are based on the total moles of all repeat units; and having an intrinsic viscosity of 0.7 to 1.5 deciliters per gram, measured in chloroform at 25 °C, and a weight average molecular weight of 100,000 to 500,000 daltons, measured by gel permeation chromatography against polystyrene standards; and an amphiphilic block copolymer comprising a hydrophobic block comprising a polystyrene block and a hydrophilic block or graft; wherein the porous asymmetric membrane is formed by method of forming the porous asymmetric membrane comprising dissolving the poly(phenylene ether) copolymer and the amphiphilic block copolymer to form a porous asymmetric membrane-forming composition; and phase-inverting the porous asymmetric membrane forming-composition in a first non-[[]]solvent composition to form the porous asymmetric membrane; and wherein the porous asymmetric membrane is in a sheet, disc, spiral wound, plate and frame, hollow fiber, capillary, or tubular configuration.
An ex vivo method of generating T cells with regulatory activity (T regs) comprising a. selecting leukocytes expressing CD4 to obtain CD4+ cells b. incubating CD4+ autologous leukocytes with autologous apoptotic peripheral blood mononuclear cells (ACs) wherein the ACs are obtained by an apoptosis-inducing treatment which is an ECP procedure that employs a photoactivable compound together with light of a wavelength that activates the photoactivable compound. a. selecting leukocytes expressing CD4 to obtain CD4+ cells b. incubating CD4+ autologous leukocytes with autologous apoptotic peripheral blood mononuclear cells (ACs) wherein the ACs are obtained by an apoptosis-inducing treatment which is an ECP procedure that employs a photoactivable compound together with light of a wavelength that activates the photoactivable compound.
A load carrying body for a vehicle, the load carrying body including a curved metal plate floor and a floor attachment system that attaches the floor to opposite sides of the body so that the floor is suspended between the sides, the floor attachment system including a plurality of tensile members, each of which is coupled at one end to one of the sides of the body of the vehicle and at the other end to a side edge of the floor, with the tensile members being at least the principal means for transferring forces from the floor to the remainder of the body, characterized in that each tensile member has a coupling element that is retained within (a) a recess in the edge of the floor or (b) an opening that extends through the floor from a top surface to a bottom surface of the floor, and further characterized in that the coupling element and the recess or the opening being formed to allow swivelling movement of the coupling element in the recess or the opening in two mutually perpendicular directions to accommodate variations in alignment of the floor and the body that can occur as a consequence of varying the load on the floor and/or manufacturing variations.
A lomitapide composition comprising: lomitapide or a pharmaceutically acceptable salt thereof, and less than 0.1% by weight of a carbamate product represented by and a pharmaceutically acceptable excipient.
A nacelle for a wind turbine comprising a nacelle roof and a first wind turbine component, wherein said nacelle roof is configured to cover the first wind turbine component, the nacelle roof comprising a first sliding section and a second sliding section, wherein the first sliding section and/or the second sliding section is configured to slide over at least a part of the surface of the nacelle roof, wherein the first sliding section and the second sliding section are moveable between a closed position, in which the first wind turbine component is covered by the nacelle roof, and an opened position, resulting in an opening of the nacelle roof through which the first wind turbine component can be hoisted, wherein the first sliding section is configured to slide over the second sliding section and/or the second sliding section is configured to slide over the first sliding section, wherein the first sliding section and/or the second sliding section is configured to be lifted by a lifting system, wherein the first sliding section is stackable over the second sliding section and/or the second sliding section is stackable over the first sliding section, characterized in that the lifting system comprises shifting means coupled at the bottom part of the first sliding section and/or the second sliding section for allowing the sliding of the first and/or second sliding section (3, 4) over at least a part of the surface of the nacelle roof, rails placed under the shifting means, and studs supported on the nacelle by a supporting element, wherein an end of the studs abuts the rails. wherein said nacelle roof is configured to cover the first wind turbine component, the nacelle roof comprising a first sliding section and a second sliding section, wherein the first sliding section and/or the second sliding section is configured to slide over at least a part of the surface of the nacelle roof, wherein the first sliding section and the second sliding section are moveable between a closed position, in which the first wind turbine component is covered by the nacelle roof, and an opened position, resulting in an opening of the nacelle roof through which the first wind turbine component can be hoisted, wherein the first sliding section is configured to slide over the second sliding section and/or the second sliding section is configured to slide over the first sliding section, wherein the first sliding section and/or the second sliding section is configured to be lifted by a lifting system, wherein the first sliding section is stackable over the second sliding section and/or the second sliding section is stackable over the first sliding section, characterized in that the lifting system comprises shifting means coupled at the bottom part of the first sliding section and/or the second sliding section for allowing the sliding of the first and/or second sliding section (3, 4) over at least a part of the surface of the nacelle roof, rails placed under the shifting means, and studs supported on the nacelle by a supporting element, wherein an end of the studs abuts the rails.
An injection device comprising: a. a dose selector, rotatable by a user to set a dose to be ejected from the injection device b. a drive assembly including a drive shaft and a plunger element, the drive assembly being capable of providing an axial force for ejecting a dose of medicament from a medicament container, wherein said drive shaft is selectively rotationally coupled to said dose selector, c. a dose limit nut rotationally coupled to but not axially coupled to said drive shaft, wherein said plunger element is threaded so that the dose limit nut is engaged with said plunger element via said thread, in order to guide relative axial movement between the dose limit nut and the plunger element, wherein said dose limit nut is provided with dose limiting endstop features (141a, 141b) which are engageable with one or more formations (147, 148) comprising a change in a depth of said thread of the plunger element so as to limit axial travel of said dose limit nut with respect to said plunger element, so as to limit maximum and minimum doses of medicament which can be set by the dose selector, wherein said dose limit nut further comprises a last dose rotary endstop feature which prevents further rotation of said dose limit nut with respect to said plunger element so as to prevent the user setting a dose that is greater than an injectable volume of medicament remaining in said medicament container. a. a dose selector, rotatable by a user to set a dose to be ejected from the injection device b. a drive assembly including a drive shaft and a plunger element, the drive assembly being capable of providing an axial force for ejecting a dose of medicament from a medicament container, wherein said drive shaft is selectively rotationally coupled to said dose selector, c. a dose limit nut rotationally coupled to but not axially coupled to said drive shaft, wherein said plunger element is threaded so that the dose limit nut is engaged with said plunger element via said thread, in order to guide relative axial movement between the dose limit nut and the plunger element, wherein said dose limit nut is provided with dose limiting endstop features (141a, 141b) which are engageable with one or more formations (147, 148) comprising a change in a depth of said thread of the plunger element so as to limit axial travel of said dose limit nut with respect to said plunger element, so as to limit maximum and minimum doses of medicament which can be set by the dose selector, wherein said dose limit nut further comprises a last dose rotary endstop feature which prevents further rotation of said dose limit nut with respect to said plunger element so as to prevent the user setting a dose that is greater than an injectable volume of medicament remaining in said medicament container.
A method for controlling an elevator system said elevator system comprising one or more elevator groups and said elevator system being connected to observation points (140, 141) transmitting different types of hints depending on the nature of the observation points, characterized in that the method comprises the steps of - receiving hints relating to potential elevator passengers from the observation points and recognizing the type of the received hint and to take said hint type into account when defining forecasts relating to potential elevator passengers; - combining the information obtained from different observation points; - collecting temporal statistical information about hints received and traveling actions having taken place; - preparing forecasts relating to potential elevator passengers on the basis of the combined effect of passenger flows and on basis of the statistical information thus collected, wherein at least one forecast parameter is defined, which parameter is used for the said preparing of the said forecasts; and executing one or more anticipatory control actions on the basis of said predicted combined effect. - receiving hints relating to potential elevator passengers from the observation points and recognizing the type of the received hint and to take said hint type into account when defining forecasts relating to potential elevator passengers; - combining the information obtained from different observation points; - collecting temporal statistical information about hints received and traveling actions having taken place; - preparing forecasts relating to potential elevator passengers on the basis of the combined effect of passenger flows and on basis of the statistical information thus collected, wherein at least one forecast parameter is defined, which parameter is used for the said preparing of the said forecasts; and
A computer system for managing devices in an loT environment, the system comprising: one or more processors; and one or more computer-readable media having stored thereon instructions that, when executed by the one or more processors, configure the computer system to perform at least the following: as a result of a device being provisioned by a special-purpose solution, store at a central unified registry a correlation of the device and the given special purpose solution; correlate the device to a different special-purpose solution at the unified registry, wherein each of the special-purpose solution and the different special-purpose solution is a collection of hardware and software configured to interface with a set of devices for configuring the devices; receive a request from the device for an identification of a special-purpose solution for the device, and as a result, identify the different special-purpose solution to the device so that the subsequent configuration of the device can be performed by the different special-purpose solution; and as a result, cause subsequent configuration of the device to be performed by the different special-purpose solution. one or more processors; and one or more computer-readable media having stored thereon instructions that, when executed by the one or more processors, configure the computer system to perform at least the following: as a result of a device being provisioned by a special-purpose solution, store at a central unified registry a correlation of the device and the given special purpose solution; correlate the device to a different special-purpose solution at the unified registry, wherein each of the special-purpose solution and the different special-purpose solution is a collection of hardware and software configured to interface with a set of devices for configuring the devices; receive a request from the device for an identification of a special-purpose solution for the device, and as a result, identify the different special-purpose solution to the device so that the subsequent configuration of the device can be performed by the different special-purpose solution; and as a result, cause subsequent configuration of the device to be performed by the different special-purpose solution. as a result of a device being provisioned by a special-purpose solution, store at a central unified registry a correlation of the device and the given special purpose solution; correlate the device to a different special-purpose solution at the unified registry, wherein each of the special-purpose solution and the different special-purpose solution is a collection of hardware and software configured to interface with a set of devices for configuring the devices; receive a request from the device for an identification of a special-purpose solution for the device, and as a result, identify the different special-purpose solution to the device so that the subsequent configuration of the device can be performed by the different special-purpose solution; and as a result, cause subsequent configuration of the device to be performed by the different special-purpose solution.
Apparatus for adjusting the yaw of a wind turbine and adapted for mounting on a wind turbine, said wind turbine comprising a tower, nacelle, yaw drive, spinner or rotor (8, 4), said apparatus comprising - a system for measuring the wind direction and comprising a wind vane or a sonic wind sensor positioned on the nacelle behind the rotor in relation to the wind when the wind turbine is in operation, said system adapted, via a control signal, to control the yaw angle of the wind turbine based on the wind direction, and - a wind sensor system (7, 9) comprising a LiDAR or a spinner anemometer having a sensor, for determining the wind speed and which is placed on spinner or rotor (8, 4), and adapted to determine the yaw error of the wind turbine, and - means for modifying the control signal obtained from the wind vane or sonic wind sensor positioned on the nacelle based on the yaw error determined by the wind sensor system (7, 9) placed on spinner or rotor (8, 4). - a system for measuring the wind direction and comprising a wind vane or a sonic wind sensor positioned on the nacelle behind the rotor in relation to the wind when the wind turbine is in operation, said system adapted, via a control signal, to control the yaw angle of the wind turbine based on the wind direction, and - a wind sensor system (7, 9) comprising a LiDAR or a spinner anemometer having a sensor, for determining the wind speed and which is placed on spinner or rotor (8, 4), and adapted to determine the yaw error of the wind turbine, and - means for modifying the control signal obtained from the wind vane or sonic wind sensor positioned on the nacelle based on the yaw error determined by the wind sensor system (7, 9) placed on spinner or rotor (8, 4).
A collapsible bottle for liquid enteral nutrition, comprising a body extending axially from a base to a neck and having a front, a back and two sides (12, 14) that define a width dimension of the bottle, wherein the bottle can stand upright on its base with the base being provided with an integrally formed tab for also hanging the bottle neck-down, the body having a shoulder region adjacent to the neck, a hip region adjacent to the base and a waist region therebetween, wherein a circumference of the bottle in the waist region is less than a circumference of the bottle in both the hip region and the shoulder region, the bottle further comprising hinge columns extending at the sides of the bottle in at least the waist region, the hinge columns providing the wall of the body with a region of increased stiffness in the axial direction while facilitating collapse by bending of the wall about the hinge column.