mhurhangee/ep-ind-claims huggingface dataset:
A fluid delivery device comprising: a housing having a hydraulic basal chamber and a hydraulic pump chamber configured to contain hydraulic fluid, wherein the hydraulic pump chamber is covered by a hydraulic cap; a flow restrictor fluidly coupling the hydraulic basal chamber and the hydraulic pump chamber; a cartridge filled with a liquid in use, having a container forming a fluid reservoir sealed at a proximal end with a piston, the cartridge including a septum configured to be pierced by a delivery needle, wherein the cartridge is configured to be inserted into the housing when the hydraulic pump chamber contains hydraulic fluid, to couple, in use, the piston with the hydraulic fluid in the hydraulic pump chamber; an actuator coupled to the housing and configured to deliver a force to the piston through the hydraulic basal chamber, the flow restrictor and the hydraulic fluid in the hydraulic pump chamber (214, 318); and a cartridge seal configured to sealingly couple, in use, the proximal end of the cartridge with the housing and the hydraulic pump chamber when the cartridge is inserted into the housing, wherein the cartridge seal is compressible; wherein the hydraulic cap is configured to: prevent the hydraulic fluid in the hydraulic pump chamber from leaking before insertion of the cartridge into the housing; and extend through the cartridge seal and couple the piston and the hydraulic pump chamber when the cartridge is inserted into the housing. a housing having a hydraulic basal chamber and a hydraulic pump chamber configured to contain hydraulic fluid, wherein the hydraulic pump chamber is covered by a hydraulic cap; a flow restrictor fluidly coupling the hydraulic basal chamber and the hydraulic pump chamber; a cartridge filled with a liquid in use, having a container forming a fluid reservoir sealed at a proximal end with a piston, the cartridge including a septum configured to be pierced by a delivery needle, wherein the cartridge is configured to be inserted into the housing when the hydraulic pump chamber contains hydraulic fluid, to couple, in use, the piston with the hydraulic fluid in the hydraulic pump chamber; an actuator coupled to the housing and configured to deliver a force to the piston through the hydraulic basal chamber, the flow restrictor and the hydraulic fluid in the hydraulic pump chamber (214, 318); and a cartridge seal configured to sealingly couple, in use, the proximal end of the cartridge with the housing and the hydraulic pump chamber when the cartridge is inserted into the housing, wherein the cartridge seal is compressible; wherein the hydraulic cap is configured to: prevent the hydraulic fluid in the hydraulic pump chamber from leaking before insertion of the cartridge into the housing; and extend through the cartridge seal and couple the piston and the hydraulic pump chamber when the cartridge is inserted into the housing. prevent the hydraulic fluid in the hydraulic pump chamber from leaking before insertion of the cartridge into the housing; and extend through the cartridge seal and couple the piston and the hydraulic pump chamber when the cartridge is inserted into the housing.
A method for managing the production cycle of a plant for building tyres for vehicle wheels, said plant being provided with a storage region for anchoring annular structures and a plurality of processing stations at least one of which being associated with a forming drum, said method comprising: a) feeding a plurality of anchoring annular structures to said storage region; b) picking up said anchoring annular structures from said storage region at a predetermined picking-up position that does not change on changing of the types of the anchoring annular structures; c) feeding the picked-up anchoring annular structures to the processing station associated with the forming drum, wherein action a) comprises: orderly arranging the anchoring annular structures supporting them at a support portion of the same; action b) comprising: picking up each anchoring annular structure at a picking up portion coinciding with said support portion. a) feeding a plurality of anchoring annular structures to said storage region; b) picking up said anchoring annular structures from said storage region at a predetermined picking-up position that does not change on changing of the types of the anchoring annular structures; c) feeding the picked-up anchoring annular structures to the processing station associated with the forming drum, picking up each anchoring annular structure at a picking up portion coinciding with said support portion.
An arrangement for handling purged alcohol-based fuel originating from an alcohol fuel system configured to fuel an alcohol fueled engine, the arrangement comprising: a boiler system comprising a burner, and a fuel inlet configured to selectively supply a fuel and thereby selectively sustain a primary flame in the burner for production of heat and/or steam in the boiler system, and a purge connection configured to receive a purge mixture purged from the alcohol fuel system using an inert gas, the purge mixture comprising a mixture of the inert gas and purged alcohol-based fuel, and a vapor-liquid separator, wherein the arrangement is configured to selectively direct at least a vapour phase of the purge mixture from the purge connection to a vapour phase purge mixture inlet of the boiler system in case the boiler system is in a hot condition and is ready to receive and combust purge mixture, the vapour phase purge mixture inlet being configured to intermittently receive vapour phase of the purge mixture from the alcohol fuel system and supply the vapour phase of the purge mixture to the burner, wherein the burner is configured to combust the vapour phase of the purge mixture, or to selectively direct the purge mixture from the purge connection to the vapor-liquid separator separating the purge mixture into a vapour phase and a liquid phase, whereafter the liquid phase is stored in the vapor-liquid separator and/or in a separate tank until the boiler system is in a hot condition and is ready to receive and combust the liquid phase of the purge mixture. a boiler system comprising a burner, and a fuel inlet configured to selectively supply a fuel and thereby selectively sustain a primary flame in the burner for production of heat and/or steam in the boiler system, and a burner, and a fuel inlet configured to selectively supply a fuel and thereby selectively sustain a primary flame in the burner for production of heat and/or steam in the boiler system, and a purge connection configured to receive a purge mixture purged from the alcohol fuel system using an inert gas, the purge mixture comprising a mixture of the inert gas and purged alcohol-based fuel, and a vapor-liquid separator, wherein the arrangement is configured to selectively direct at least a vapour phase of the purge mixture from the purge connection to a vapour phase purge mixture inlet of the boiler system in case the boiler system is in a hot condition and is ready to receive and combust purge mixture, the vapour phase purge mixture inlet being configured to intermittently receive vapour phase of the purge mixture from the alcohol fuel system and supply the vapour phase of the purge mixture to the burner, wherein the burner is configured to combust the vapour phase of the purge mixture, or to selectively direct the purge mixture from the purge connection to the vapor-liquid separator separating the purge mixture into a vapour phase and a liquid phase, whereafter the liquid phase is stored in the vapor-liquid separator and/or in a separate tank until the boiler system is in a hot condition and is ready to receive and combust the liquid phase of the purge mixture.
A control system for a combined cycle power generation system comprising gas turbine engines (16, 116), heat recovery steam generators (HRSG) (18, 118), and a steam turbine, the combined cycle power generation system having nominal operating constraints, the control system comprising: a display for providing to an operator information about predicted operating parameters of the power generation system; a user interface for receiving from the operator (a) additional operating constraints of the power generation system, and characterised in that the user interface is further configured for receiving from the operator (b) operator commands regarding the number of GTs to start, the order of starting the GTs, blending types of HRSGs to the STs, load levels for blending of the GTs, or a combination thereof; and the control system further comprises: a controller for (a) receiving input corresponding to any additional operating constraints, (b) obtaining component operating parameters of the power generation system, (c) generating input profiles of the GTs, the HRSGs, and the ST that satisfy the nominal constraints and any additional constraints, (d) generating the information about the predicted operating parameters of the power generation system, and (e) controlling a plurality of components required for a startup of the combined cycle power generating system. a display for providing to an operator information about predicted operating parameters of the power generation system; a user interface for receiving from the operator (a) additional operating constraints of the power generation system, and characterised in that the user interface is further configured for receiving from the operator (b) operator commands regarding the number of GTs to start, the order of starting the GTs, blending types of HRSGs to the STs, load levels for blending of the GTs, or a combination thereof; and the control system further comprises: a controller for (a) receiving input corresponding to any additional operating constraints, (b) obtaining component operating parameters of the power generation system, (c) generating input profiles of the GTs, the HRSGs, and the ST that satisfy the nominal constraints and any additional constraints, (d) generating the information about the predicted operating parameters of the power generation system, and (e) controlling a plurality of components required for a startup of the combined cycle power generating system. a controller for (a) receiving input corresponding to any additional operating constraints, (b) obtaining component operating parameters of the power generation system, (c) generating input profiles of the GTs, the HRSGs, and the ST that satisfy the nominal constraints and any additional constraints, (d) generating the information about the predicted operating parameters of the power generation system, and (e) controlling a plurality of components required for a startup of the combined cycle power generating system.
A water-soluble composition comprising • a water miscible liquid, and • at least 10 wt.-% water-soluble particles, the water-soluble particles comprising substances selected from organic acids and their salts, amino acids and their salts, sugars, and mixtures thereof, the water-soluble composition containing less than 2 wt.-% water, wt.-% with respect to the whole composition and having a consistency of less than 35 mm at 25°C in accordance with ISO 4823:2000 measured according to the procedure described in the experimental section. • a water miscible liquid, and • at least 10 wt.-% water-soluble particles, the water-soluble particles comprising substances selected from organic acids and their salts, amino acids and their salts, sugars, and mixtures thereof,
A magnetic sensing device, comprising: a magnetic multi-turn sensor configured to detect a number of turns of a rotating magnetic field; an angle sensor configured to detect an orientation of the rotating magnetic field, the angle sensor configured to detect angles in a range from 0 to 180 degrees; and a quadrant detector comprising at least two magnetoresistive elements (R1-R16), the quadrant detector being configured to detect a quadrant of a magnetic field angle of the rotating magnetic field. a magnetic multi-turn sensor configured to detect a number of turns of a rotating magnetic field; an angle sensor configured to detect an orientation of the rotating magnetic field, the angle sensor configured to detect angles in a range from 0 to 180 degrees; and a quadrant detector comprising at least two magnetoresistive elements (R1-R16), the quadrant detector being configured to detect a quadrant of a magnetic field angle of the rotating magnetic field.
A labyrinth sealing joint for a turbomachine, in particular of an aircraft, comprising a rotor element extending around an axis, and a stator element extending around the rotor element, the rotor element comprising two annular lips (112a, 112b) extending radially outwards and surrounded by at least one abradable element carried by said stator element, a plurality of gas passage cavities (132a, 132b) being arranged circumferentially next to one another between the two lips (112a, 112b), the two lips (112a, 112b) being interconnected by connecting partitions, at least one of said lips (112a, 112b) comprising at least one axial gas passage opening (128, 130) that leads into at least some of said cavities (132a, 132b), and said partitions extending substantially axially between the lips and defining therebetween sectors of spaces (124a, 124b) for gas passage, characterized in that said sectors of spaces (124a, 124b) are divided by separation walls to form said cavities (132a, 132b).
A particle quantitative measurement device, comprising: an image acquisition unit configured to acquire a sample image representing a particulate sample as a sample including particles; and a data processing unit configured to perform arithmetic processing on the sample image, wherein the data processing unit includes: an extraction unit configured to extract low-brightness pixels, for which I < M - kσ is satisfied for brightness I, from pixels of the sample image, wherein M represents a reference brightness for a reference image, k represents a real positive number, and σ represents a standard deviation for the brightness of pixels in the reference image, and a particle quantitative measurement unit configured to quantitatively measure the number of particles in the particulate sample based on the number of the extracted pixels. an image acquisition unit configured to acquire a sample image representing a particulate sample as a sample including particles; and a data processing unit configured to perform arithmetic processing on the sample image, wherein the data processing unit includes: an extraction unit configured to extract low-brightness pixels, for which I < M - kσ is satisfied for brightness I, from pixels of the sample image, wherein M represents a reference brightness for a reference image, k represents a real positive number, and σ represents a standard deviation for the brightness of pixels in the reference image, and a particle quantitative measurement unit configured to quantitatively measure the number of particles in the particulate sample based on the number of the extracted pixels. an extraction unit configured to extract low-brightness pixels, for which I < M - kσ is satisfied for brightness I, from pixels of the sample image, wherein M represents a reference brightness for a reference image, k represents a real positive number, and σ represents a standard deviation for the brightness of pixels in the reference image, and a particle quantitative measurement unit configured to quantitatively measure the number of particles in the particulate sample based on the number of the extracted pixels.
A PEGylated hemoglobin (PEG-Hb) conjugate wherein the hemoglobin • is bovine; • is free of chemical cross-linking agents and includes less than 5% cross-linked hemoglobin; • has an average P 50 of from aboutl0mm Hg to about 14 mm Hg; • wherein at least 95% of the hemoglobin in said conjugate is in the form of carboxyhemoglobin (COHb); and • wherein the pegylated haemoglobin conjugate transfers oxygen between the red blood cells and tissues for use in: treating hypoxia resulting from disease, injury or insult; treating sickle cell anaemia, stroke, or ischemia; or promoting vasodilation. • is bovine; • is free of chemical cross-linking agents and includes less than 5% cross-linked hemoglobin; • has an average P 50 of from aboutl0mm Hg to about 14 mm Hg; • wherein at least 95% of the hemoglobin in said conjugate is in the form of carboxyhemoglobin (COHb); and • wherein the pegylated haemoglobin conjugate transfers oxygen between the red blood cells and tissues
A method for diagnosing allergy in a human or animal patient, wherein the level of species-specific lipocalin, especially lipocalin 2 in a human patient, is measured in a sample of said patient and wherein a lowered level of said lipocalin compared to the level of said lipocalin in the corresponding sample of a human or animal that has no allergy, is indicative of an allergy.
Lock device, having - a first lock part, - a second lock part, which can be arranged on the first lock part in a fastening direction and is connected to the first lock part in a closing state, and - an actuating element, on which the second lock part is movably arranged, wherein in the closing state the second lock part is held on the first lock part via the actuating element and, moreover, the second lock part acts together with the actuating element in such a way that in a loaded state, when a force is acting on the second lock part relative to the first lock part along the fastening direction, the actuating element is rigidly connected to the first lock part and holds the second lock part on the first lock part, whereas in an unloaded state the second lock part can be detached from the first lock part by actuation of the actuating element, characterized in that in the closing state the actuating element is held by friction or catch locking on the first lock part via a section (40, 400), which is elastic at least in sections, in that - in the closing state in the loaded state the actuating element is held friction-locking by static friction on the first lock part or - the actuating element has at least one catch locking element, which in the closing state engages positive-locking with a catch section of the first lock part. - a first lock part, - a second lock part, which can be arranged on the first lock part in a fastening direction and is connected to the first lock part in a closing state, and - an actuating element, on which the second lock part is movably arranged, wherein in the closing state the second lock part is held on the first lock part via the actuating element and, moreover, the second lock part acts together with the actuating element in such a way that in a loaded state, when a force is acting on the second lock part relative to the first lock part along the fastening direction, the actuating element is rigidly connected to the first lock part and holds the second lock part on the first lock part, whereas in an unloaded state the second lock part can be detached from the first lock part by actuation of the actuating element, - in the closing state in the loaded state the actuating element is held friction-locking by static friction on the first lock part or - the actuating element has at least one catch locking element, which in the closing state engages positive-locking with a catch section of the first lock part.
A device for treating blood in an extracorporeal circulation comprising: - A box-like shaped body having a first end and a second opposing end and that defines therebetween an inside treating chamber having an internal surface; - At least one exchanging unit comprising a flat diaphragm, that is impermeable to blood flows (W, W1) and that has a greater axis 10 and a smaller axis and is fitted inside said treating chamber, around which a winding of hollow micro-porous fibers is wound; - At least one inlet port of blood to be treated and an outlet port of treated blood which is axially aligned with said inlet port according to an aligning direction; - An amassing and delivering compartment for blood to be treated and a collecting compartment for treated blood which are defined respectively downstream said inlet port and upstream said outlet port between said exchanging unit and said internal surface; characterized in that said flat diaphragm is placed with said greater 20 axis parallel to said aligning direction and in that among said hollow fibers windings dividing elements having greater axis placed parallel to said aligning direction and smaller axis transversal to said aligning direction, are arranged, said delivering compartment and said collecting compartment extend along the 25 windings. - A box-like shaped body having a first end and a second opposing end and that defines therebetween an inside treating chamber having an internal surface; - At least one exchanging unit comprising a flat diaphragm, that is impermeable to blood flows (W, W1) and that has a greater axis 10 and a smaller axis and is fitted inside said treating chamber, around which a winding of hollow micro-porous fibers is wound; - At least one inlet port of blood to be treated and an outlet port of treated blood which is axially aligned with said inlet port according to an aligning direction; - An amassing and delivering compartment for blood to be treated and a collecting compartment for treated blood which are defined respectively downstream said inlet port and upstream said outlet port between said exchanging unit and said internal surface; characterized in that said flat diaphragm is placed with said greater 20 axis parallel to said aligning direction and in that among said hollow fibers windings dividing elements having greater axis placed parallel to said aligning direction and smaller axis transversal to said aligning direction, are arranged, said delivering compartment and said collecting compartment extend along the 25 windings.
A method, comprising: introducing plasma species via a plasma in-feed line into a reaction chamber for a deposition target in a substrate processing apparatus, wherein the plasma in-feed line goes via a plasma formation section, the method being characterized in that it comprises: speeding up velocity of plasma species within the plasma in-feed line and downstream from the plasma in-feed line by a constriction of a tubular form providing a straight cylindrical channel downstream of the plasma formation section, wherein the constriction within the plasma in-feed line reduces a cross-sectional flow area of the plasma in-feed line by at least 8 %.
A composition comprising: (a) 5 wt% to 50 wt% of a butyrate, and (b) 50 wt% to 95 wt% of benzoic acid or benzoate. (a) 5 wt% to 50 wt% of a butyrate, and (b) 50 wt% to 95 wt% of benzoic acid or benzoate.