mhurhangee/ep-ind-claims huggingface dataset:
A two-component putty comprising a base component and a curing component, wherein the base component comprises: - a polycarbonate diol having a hydroxyl number in the range of from 50 to 500 mg KOH/g; - a further resin component having a hydroxyl number of at least 300 mg KOH/g; and - an inorganic filler, wherein the curing component comprises a polyisocyanate, and wherein the amount of the inorganic filler is in the range of from 35 wt% to 60 wt%, based on the total weight of the putty, the putty contains less than 5 wt% of organic solvent, and the viscosity of the putty as measured by means of a rotary viscometer at a shear rate of 1 s -1 and a temperature of 23 °C, 30 seconds after having combined and mixed the base component and the curing component, is in the range of from 30,000 mPa.s to 250,000 mPa.s. - a polycarbonate diol having a hydroxyl number in the range of from 50 to 500 mg KOH/g; - a further resin component having a hydroxyl number of at least 300 mg KOH/g; and - an inorganic filler,
A method for producing a composite semipermeable membrane comprising a substrate, a porous support layer comprising polysulfone formed on the substrate, and a separation functional layer formed on the porous support layer, the method comprising the steps of applying a macromolecular solution A containing polysulfone as a major component and further containing hydrophilic macromolecules for forming a first layer onto the substrate, at the same time applying a macromolecular solution B containing polysulfone as a major component but not containing hydrophilic macromolecules for forming a second layer, wherein the hydrophilic macromolecule is polyvinylpyrrolidone or a copolymer containing polyvinylpyrrolidone as a hydrophilic site, subsequently bringing the substrate into contact with a coagulating bath for phase separation, and forming the porous support layer, and thereafter forming the separation functional layer on top of the porous support layer.
Tank valve, wherein the tank valve seals a tank nozzle against the environment, wherein the tank valve has an inlet chamber, wherein the inlet chamber has an inlet opening for filling, wherein the inlet opening is surrounded by an inlet rim of the inlet chamber, wherein the inlet chamber has an outlet opening, wherein the outlet opening is connected to a tank, wherein the tank valve has an inlet closure, wherein the tank valve has a force element, wherein the force element presses the inlet closure against the inlet edge with a first force from the inside towards the outside and seals the inlet opening from the inside of the inlet chamber, characterised in that the inlet closure is designed to close the inlet opening, wherein the inlet closure is arranged in the inlet chamber, wherein the inlet closure is connected to an outer seal via a spacer element, wherein the outer seal is arranged outside the inlet chamber, wherein the outer seal can be pressed sealingly against the inlet edge with a second force from the outside in the direction of the inside, which is greater than the first force.
Process for producing dichloropropanol, by subjecting glycerol to a reaction with a chlorinating agent, according to which the glycerol used contains organic impurities selected from fatty acids and esters of fatty acids, the content of said organic impurities being of at most 8 % by weight, wherein the esters of fatty acids are mono esters of glycerol with fatty acids and wherein the fatty acids are selected from saturated and unsaturated fatty acids containing more than 12 carbons atoms.
A liquid pharmaceutical composition for oral administration in the form of suspension which comprises: a) Ibuprofen in an amount comprised between 2% w/v and 10% w/v; b) phenylephrine or a pharmaceutically acceptable salt thereof, in an amount comprised between 0.005% w/v and 2% w/v, expressed as equivalent amount of phenylephrine hydrochloride; c) hypromellose, in an amount comprised between 0.1% w/v and 5% w/v; d) xanthan gum, in an amount comprised between 0.05% w/v and 4% w/v; e) liquid maltitol; f) glycerine; and g) water. a) Ibuprofen in an amount comprised between 2% w/v and 10% w/v; b) phenylephrine or a pharmaceutically acceptable salt thereof, in an amount comprised between 0.005% w/v and 2% w/v, expressed as equivalent amount of phenylephrine hydrochloride; c) hypromellose, in an amount comprised between 0.1% w/v and 5% w/v; d) xanthan gum, in an amount comprised between 0.05% w/v and 4% w/v; e) liquid maltitol; f) glycerine; and g) water.
A method of producing a fiber composite preform, the method comprising: stacking first (1 206) and second (2 210) material layers of two-dimensional fiber fabric separated by a first layer spacing; inserting first interlayer fibers through the first and the second material layers; stacking at least a third (3 216) material layer of two-dimensional fiber fabric with at least the first and second material layers; inserting second interlayer fibers through at least the second and third material layers, wherein the first layer spacing enables the second interlayer fibers to be manipulated during insertion; and closing the first layer spacing to bring the first and second material layers into contact. stacking first (1 206) and second (2 210) material layers of two-dimensional fiber fabric separated by a first layer spacing; inserting first interlayer fibers through the first and the second material layers; stacking at least a third (3 216) material layer of two-dimensional fiber fabric with at least the first and second material layers; inserting second interlayer fibers through at least the second and third material layers, wherein the first layer spacing enables the second interlayer fibers to be manipulated during insertion; and closing the first layer spacing to bring the first and second material layers into contact.
A process for the production of milk of lime for the production of soda, characterized in that a preheated lime from the production process of cement and a fine lime from the production process of lime is mixed in a mixing process to a preheated lime mixture, in two subsequent process steps the preheated lime mixture with a burnt lime is mixed in a mixing process and slaked in a slaking process to milk of lime, and the thus produced milk of lime is fed to the subsequent Solvay process for the production of soda.
A system comprising one or more processors configured to: receive a first set of weather data from an onboard weather data system disposed on an aircraft; receive a second set of weather data from a remote weather data system (20, 40, 42, 44, 150) separate from the aircraft, wherein the second set of weather data and the first set of weather data provide coverage at least in part of an overlapping volume of airspace and an overlapping time interval; determine whether a difference between the first set of weather data and the second set of weather data is above a nominal threshold of difference; and generate a corrective output (118, 592) comprising a corrective data set corresponding to the overlapping volume of airspace and the overlapping time interval in response to determining that the difference between the first set of weather data and the second set of weather data is above the nominal threshold of difference; characterized in that the one or more processors are further configured to transmit the corrective output to a data-aggregating system external to the aircraft in response to determining that the difference between the first set of weather data and the second set of weather data is above the nominal threshold of difference. receive a first set of weather data from an onboard weather data system disposed on an aircraft; receive a second set of weather data from a remote weather data system (20, 40, 42, 44, 150) separate from the aircraft, wherein the second set of weather data and the first set of weather data provide coverage at least in part of an overlapping volume of airspace and an overlapping time interval; determine whether a difference between the first set of weather data and the second set of weather data is above a nominal threshold of difference; and generate a corrective output (118, 592) comprising a corrective data set corresponding to the overlapping volume of airspace and the overlapping time interval in response to determining that the difference between the first set of weather data and the second set of weather data is above the nominal threshold of difference; characterized in that the one or more processors are further configured to transmit the corrective output to a data-aggregating system external to the aircraft in response to determining that the difference between the first set of weather data and the second set of weather data is above the nominal threshold of difference.
A vehicle trailer system for loading, transporting and unloading a load, the vehicle trailer system comprising: a trailer, arranged along a front-to-back, longitudinal direction, the trailer comprising: a wheeled trailer structure for attachment to a towing vehicle; a carriage mounted for bidirectional travel on the trailer structure along the longitudinal direction; a carriage hitch carried by the carriage, the carriage hitch being configured for coupling to a load; a movable arm carried by the trailer structure; an arm actuator carried by the trailer structure and operably engaging the movable arm to selectively position the movable arm in a lowered position in which the carriage can travel over the movable arm, and in a plurality of raised positions in which the movable arm extends above the carriage; and a flexible, windable elongated element supported by the arm actuator in at least one of the raised positions, the flexible, windable elongated element comprising a fastener for coupling to and pulling the load. a wheeled trailer structure for attachment to a towing vehicle; a carriage mounted for bidirectional travel on the trailer structure along the longitudinal direction; a carriage hitch carried by the carriage, the carriage hitch being configured for coupling to a load; a movable arm carried by the trailer structure; an arm actuator carried by the trailer structure and operably engaging the movable arm to selectively position the movable arm in a lowered position in which the carriage can travel over the movable arm, and in a plurality of raised positions in which the movable arm extends above the carriage; and a flexible, windable elongated element supported by the arm actuator in at least one of the raised positions, the flexible, windable elongated element comprising a fastener for coupling to and pulling the load.
Inlet nozzle for a radial fan having, as seen in the direction of flow, a plurality of flow sections defined via the wall of the inlet nozzle, said flow sections comprising at least: an inlet section having an inlet opening, an disturbance section directly adjoining the inlet section, and an outlet section directly adjoining the disturbance section, wherein a flow cross section of the inlet nozzle is reduced in the inlet section, wherein the disturbance section formed between the inlet section and the discharge section is cylindrical over its entire axial length and extends parallel to the axis of rotation of the inlet nozzle, such that the flow cross-section of the inlet nozzle is constant in the disturbance section, characterized in that a flow cross-section of the inlet nozzle decreases in the discharge section, and wherein as a further flow section, viewed in the direction of flow, an outlet section forming an outlet opening immediately adjoins the discharge section, said outlet section running divergently to the axis of rotation of the inlet nozzle in the direction of flow and its flow cross section increasing in the direction of flow.
A fastening system for fastening at least one lighting unit in an elongated, curved installation opening of a wall- or ceiling element, which separates a room side from an installation side having a plurality of U-shaped segments in cross section for forming an accommodating region for the at least one lighting unit, wherein each of the segments on the two free ends (5, 5') of the respective two U-legs (6, 6') has in each case a flange region (7, 7') pointing outwards with respect to the U-shape for contacting the wall- or ceiling element on the room side, wherein the flange region (7, 7') is designed as a contact element for a connecting element for fixing the respective segment against the wall- or ceiling element and the fastening system has a profile element for contacting the wall- or ceiling element on the installation side, which is designed as a support for the connecting element, characterized in that the profile element has incisions (86, 87), which are designed in such a manner that a bending of the profile element is facilitated by them.
A case for accommodating tools or small items, comprising a base body and a cover that is pivotably coupled to the base body, wherein the base body has two sidewalls, the upper edge of which is exposed in the closed state of the cover such that the cover is in the closed state arranged between the upper edges of the sidewalls of the base body and, when multiple cases are stacked, a lower edge of the sidewalls of the case engages into the upper edge of the respective sidewall of another case, and wherein each sidewall of the base body forms a labyrinth seal with the respective sidewall of the cover in the closed state of the case, characterized in that at least an inner surface of the sidewall of the base body, which faces an opening of the base body that can be closed with the cover, forms a continuation of the labyrinth seal with an outer surface of the sidewall of the cover.
A phosphinimide pre-polymerization catalyst having the following structure: wherein P is phosphorus; N is nitrogen; each X is independently an activatable ligand; R 1 is independently selected from a hydrogen atom, a hydrocarbyl group which is unsubstituted or substituted with one or more halogen atom, an alkoxy group, an aryl group, an aryloxy group, an amido group, a silyl group, and a germanyl group; R 2 is independently a hydrocarbyl group which is unsubstituted or substituted with one or more halogen atom; a is 1, 2 or 3; b is 2, 1, or 0; a + b = 3; c is 0, 1, 2 or 3; d is 3, 2, 1 or 0; and c + d = 3.
System positioning anchor for fastening insulating panels of a thermal insulation composite system, comprising a plastic anchor or steel anchor, an adjusting screw and an anchor plate arranged on the adjusting screw, wherein the underside of the anchor plate that is intended to bear against the insulating material has arranged thereon one or more upstands or other mechanical holding means which, when inserting the anchor plate, cut into the insulating material and fix the anchor plate on the insulating material, characterized in that a spacer in the form of an extension projects from the upper side of the anchor plate and is suitable for aligning the anchor plate in the stepped rebate of the insulating material of an insulating panel and for providing a support for fixing the anchor plate.
A portable frozen confection machine (100, 200, 300, 400, 610) comprising: a housing (105, 205, 305a, 305b) comprising a handle portion (110, 210, 415) and a hopper portion (120, 220, 320), wherein the hopper portion is configured for receiving ice therein; a motor (202, 302, 412) disposed within the housing, said motor comprising a drive shaft; a blade (213, 322, 500) configured to condition the ice to produce a shaved ice product; a spout (130, 230, 330) configured for dispensing the shaved ice product; wherein the blade (213, 322, 500) is disposed within the housing (105, 205, 305a, 305b) between the hopper portion (120, 220, 320) and the spout (130, 230, 330) such that ice received in the hopper is conditioned by the blade before it is dispensed from the spout; and characterised in that the blade is stationary with respect to the housing and a paddle (212, 312, 413) is mounted on the drive shaft to move ice received in the hopper into the blade; further comprising an ice shaper (135, 235, 335), wherein the spout (130, 230, 330) is configured to dispense shaved ice product into the ice shaper so as to provide a shaped top for the shaved ice product within a cup or container; and an angle is formed between a first line drawn through the handle portion (110, 210, 415) and aligned with a base portion of the machine and a second line that represents the axis of rotation of the motor (202, 302, 412), wherein the angle formed between the first line and the second line is such that, in use, a user can grip the handle to dampen or otherwise negate forces generated as the machine conditions ice. a housing (105, 205, 305a, 305b) comprising a handle portion (110, 210, 415) and a hopper portion (120, 220, 320), wherein the hopper portion is configured for receiving ice therein; a motor (202, 302, 412) disposed within the housing, said motor comprising a drive shaft; a blade (213, 322, 500) configured to condition the ice to produce a shaved ice product; a spout (130, 230, 330) configured for dispensing the shaved ice product; wherein the blade (213, 322, 500) is disposed within the housing (105, 205, 305a, 305b) between the hopper portion (120, 220, 320) and the spout (130, 230, 330) such that ice received in the hopper is conditioned by the blade before it is dispensed from the spout; and characterised in that the blade is stationary with respect to the housing and a paddle (212, 312, 413) is mounted on the drive shaft to move ice received in the hopper into the blade; further comprising an ice shaper (135, 235, 335), wherein the spout (130, 230, 330) is configured to dispense shaved ice product into the ice shaper so as to provide a shaped top for the shaved ice product within a cup or container; and an angle is formed between a first line drawn through the handle portion (110, 210, 415) and aligned with a base portion of the machine and a second line that represents the axis of rotation of the motor (202, 302, 412), wherein the angle formed between the first line and the second line is such that, in use, a user can grip the handle to dampen or otherwise negate forces generated as the machine conditions ice.
A method of forming silica soot, said method comprising the steps of: providing an apparatus comprising a mixer housing, a precursor delivery chamber having an output in communication with the mixer housing, an oxidizing gas delivery chamber having an output in communication with the mixer housing, and a flashback member disposed within the mixer housing and between the output of the precursor delivery chamber and the output of the oxidizing gas delivery chamber, wherein the flashback member is located at a minimum distance from the output of the oxidizing gas delivery chamber defined by L mimmum (cm) = 0.453U (Re) -0.5567, wherein U is the flow rate in cm/sec of precursor and Re is the flow Reynolds number; delivering via the precursor delivery chamber a vaporized precursor in the mixer housing; delivering via the oxidizing gas delivery chamber an oxidizing gas to be mixed with the vaporized precursor such that the vaporized precursor and the oxidizing gas are mixed in the mixer housing; and outputting the mixed vaporized precursor and oxidizing gas as a stream to a burner to form silica soot. providing an apparatus comprising a mixer housing, a precursor delivery chamber having an output in communication with the mixer housing, an oxidizing gas delivery chamber having an output in communication with the mixer housing, and a flashback member disposed within the mixer housing and between the output of the precursor delivery chamber and the output of the oxidizing gas delivery chamber, wherein the flashback member is located at a minimum distance from the output of the oxidizing gas delivery chamber defined by L mimmum (cm) = 0.453U (Re) -0.5567, wherein U is the flow rate in cm/sec of precursor and Re is the flow Reynolds number; delivering via the precursor delivery chamber a vaporized precursor in the mixer housing; delivering via the oxidizing gas delivery chamber an oxidizing gas to be mixed with the vaporized precursor such that the vaporized precursor and the oxidizing gas are mixed in the mixer housing; and outputting the mixed vaporized precursor and oxidizing gas as a stream to a burner to form silica soot.
A method for detecting and/or measuring atmospheric accretion on a suspended electrical cable span of overhead power lines, by using the device of claim 9, said suspended electrical cable span having a sag and a local tension, and being submitted to wind pressure (w wind), comprising the steps of independently: - measuring said sag, and measuring said wind pressure (w wind), over a first given time range, - measuring said local tension over a second given time range, the results of both steps being complemented and/or combined, so that to allow atmospheric accretion detection and/or measurement. - measuring said sag, and measuring said wind pressure (w wind), over a first given time range, - measuring said local tension over a second given time range,
A method comprising: measuring tensions on a measuring wire coupled to a displacer of a servo gauge, the servo gauge configured to raise and lower the displacer using a drum around which the measuring wire is wound, wherein different measured tensions are associated with different segments of the measuring wire, wherein a stored force measurement identifies the tensions on at least one portion of the measuring wire 113 currently wound around the drum 208 and a current force measurement identifies the tension on at least one portion of the measuring wire 113 currently unwound from the drum 208; and calculating or adjusting a measurement associated with material in a tank using the measured tensions to account for a change in a length of the measuring wire. measuring tensions on a measuring wire coupled to a displacer of a servo gauge, the servo gauge configured to raise and lower the displacer using a drum around which the measuring wire is wound, wherein different measured tensions are associated with different segments of the measuring wire, wherein a stored force measurement identifies the tensions on at least one portion of the measuring wire 113 currently wound around the drum 208 and a current force measurement identifies the tension on at least one portion of the measuring wire 113 currently unwound from the drum 208; and calculating or adjusting a measurement associated with material in a tank using the measured tensions to account for a change in a length of the measuring wire.
A storage assembly comprising: a sleeve defining an interior void operable to receive a foodstuff; and a container having a main body defining an interior cavity operable to receive the sleeve, the container comprising at least one clip having a proximal end (30a, 30b, 30c) removably attached to the main body of the container and a distal end (32a, 32b, 32c) extending away from the main body, characterised in that the at least one clip has an aperture disposed between the proximal end (30a, 30b, 30c) and the distal end (32a, 32b, 32c) for receiving a portion of the sleeve therein and in that a passage extends from the aperture to the distal end (32a, 32b, 32b) of the at least one clip. a sleeve defining an interior void operable to receive a foodstuff; and a container having a main body defining an interior cavity operable to receive the sleeve, the container comprising at least one clip having a proximal end (30a, 30b, 30c) removably attached to the main body of the container and a distal end (32a, 32b, 32c) extending away from the main body, characterised in that the at least one clip has an aperture disposed between the proximal end (30a, 30b, 30c) and the distal end (32a, 32b, 32c) for receiving a portion of the sleeve therein and in that a passage extends from the aperture to the distal end (32a, 32b, 32b) of the at least one clip.