mhurhangee/ep-ind-claims huggingface dataset:
A method for air separation module management, the method comprising: determining an amount of nitrogen-enriched-air to be supplied to each fuel tank of a plurality of fuel tanks of an aircraft, wherein determining the amount of the nitrogen-enriched-air to be supplied to each fuel tank comprises: determining an amount of oxygen in nitrogen-enriched-air flowing from the plurality of air separation modules; and determining an amount of oxygen in conditioned air being supplied to the plurality of air separation modules from an air supply control system; evaluating a status and usage of each air separation module of a plurality of air separation modules onboard the aircraft; determining an optimal distribution of workload among the plurality of air separation modules based on the amount of the nitrogen-enriched-air to be supplied to each fuel tank and the status and usage of each air separation module; and regulating a valve associated with each air separation module or a group of air separation modules based on the optimal distribution of workload to each air separation module. determining an amount of nitrogen-enriched-air to be supplied to each fuel tank of a plurality of fuel tanks of an aircraft, wherein determining the amount of the nitrogen-enriched-air to be supplied to each fuel tank comprises: determining an amount of oxygen in nitrogen-enriched-air flowing from the plurality of air separation modules; and determining an amount of oxygen in conditioned air being supplied to the plurality of air separation modules from an air supply control system; evaluating a status and usage of each air separation module of a plurality of air separation modules onboard the aircraft; determining an optimal distribution of workload among the plurality of air separation modules based on the amount of the nitrogen-enriched-air to be supplied to each fuel tank and the status and usage of each air separation module; and regulating a valve associated with each air separation module or a group of air separation modules based on the optimal distribution of workload to each air separation module.
A surface marker resin formulation comprising: a linear aromatic polyester or a co-polymer thereof containing at least 40 monomer percent of aromatic polyester subunits, the said polyester or co-polymer thereof being present in an amount of 10 to 45 total weight percent of the formulation, wherein said linear aromatic polyester or a co-polymer thereof has a weight average molecular weight of between 9,000 and 108,000 g/mol; a solvent in which said linear aromatic polyester or a co-polymer thereof is dissolved or dispersed; a colorant package dissolved or dispersed in said solvent, wherein the formulation further comprises a thixotropic agent present in an amount from 0.5 to 8 total weight percent. a linear aromatic polyester or a co-polymer thereof containing at least 40 monomer percent of aromatic polyester subunits, the said polyester or co-polymer thereof being present in an amount of 10 to 45 total weight percent of the formulation, wherein said linear aromatic polyester or a co-polymer thereof has a weight average molecular weight of between 9,000 and 108,000 g/mol; a solvent in which said linear aromatic polyester or a co-polymer thereof is dissolved or dispersed; a colorant package dissolved or dispersed in said solvent, wherein the formulation further comprises a thixotropic agent present in an amount from 0.5 to 8 total weight percent.
A non-transitory computer readable storage medium having stored thereon instructions which, when executed by a processor, cause the processor to: determine whether an aircraft wheel brake is capable of performing a future rejected take-off event, characterised by: determining from a rejected take-off energy parameter and a set of brake parameters whether a predicted mass of the brake is sufficient to perform the future rejected take-off event.
A chemical mechanical polishing polishing composition for cobalt-containing substrate, comprising: 0.005 wt. % to 25 wt.% of abrasive; 0.05 wt. % to 5 wt. % of α-alanine; 2 ppm to 100 ppm of phosphate compound comprising H 2 PO 4 1-, HPO 4 2-, or PO 4 3-; 0.0005 wt. % to 0.25 wt. % of corrosion inhibitor; 0.005 wt. % to 10 wt. % of oxidizer; and water; wherein the chemical mechanical polishing polishing composition has a pH from 2.0 to 12. 0.005 wt. % to 25 wt.% of abrasive; 0.05 wt. % to 5 wt. % of α-alanine; 2 ppm to 100 ppm of phosphate compound comprising H 2 PO 4 1-, HPO 4 2-, or PO 4 3-; 0.0005 wt. % to 0.25 wt. % of corrosion inhibitor; 0.005 wt. % to 10 wt. % of oxidizer; and water; wherein the chemical mechanical polishing polishing composition has a pH from 2.0 to 12.
A composition, comprising a physiologically active polypeptide-immunoglobulin Fc fragment conjugate which maintains the intrinsic binding affinity of the immunoglobulin Fc fragment for FcRn, the conjugate comprising only one molecule of a physiologically active polypeptide linked via a non-peptidyl linker to an immunoglobulin Fc fragment comprising an FcRn-binding region, wherein a binding ratio of the conjugate is within the range of ± 6% of the binding ratio of the immunoglobulin Fc fragment determined under the same conditions as those used for the conjugate, wherein the binding ratio of the conjugate and the binding ratio of the immunoglobulin Fc fragment are determined using the following equation: Binding ratio % = amount bound to FcRn at pH 7.4 / amount bound to FcRn at pH 6.0 × 100; wherein the composition comprises only monomeric forms of said conjugate; and wherein the physiologically active polypeptide is selected from the group consisting of glucagon-like peptide-1 (GLP-1), GLP-1 receptor agonist, granulocyte colony stimulating factor (G-CSF), human growth hormone (hGH), erythropoietin, glucagon, oxyntomodulin, insulin, growth hormone releasing hormone, growth hormone releasing peptide, interferons, interferon receptors, G-protein-coupled receptor, interleukins, interleukin receptors, enzymes, interleukin binding proteins, cytokine binding proteins, macrophage activating factor, macrophage peptide, B cell factor, T cell factor, protein A, allergy inhibitor, cell necrosis glycoproteins, immunotoxin, lymphotoxin, tumor necrosis factor, tumor suppressors, metastasis growth factor, alpha-1 antitrypsin, albumin, α-lactalbumin, apolipoprotein-E, highly glycosylated erythropoietin, angiopoietins, hemoglobin, thrombin, thrombin receptor activating peptide, thrombomodulin, blood factors VII, VIIa, VIII, IX and XIII, plasminogen activating factor, fibrin-binding peptide, urokinase, streptokinase, hirudin, protein C, C-reactive protein, renin inhibitor, collagenase inhibitor, superoxide dismutase, leptin, platelet-derived growth factor, epithelial growth factor, epidermal growth factor, angiostatin, angiotensin, bone growth factor, bone stimulating protein, calcitonin, atriopeptin, cartilage inducing factor, elcatonin, connective tissue activating factor, tissue factor pathway inhibitor, follicle stimulating hormone, luteinizing hormone, luteinizing hormone releasing hormone, nerve growth factors, parathyroid hormone, relaxin, secretin, somatomedin, insulin-like growth factor, adrenocortical hormone, cholecystokinin, pancreatic polypeptide, gastrin releasing peptide, corticotropin releasing factor, thyroid stimulating hormone, autotaxin, lactoferrin, myostatin, cell surface antigens, virus derived vaccine antigens, monoclonal antibodies, polyclonal antibodies, and antibody fragments.
A method of providing data processor operation information from a processor embedded with an IC that contains a trace collector connected to the processor, said method comprising: producing a composite stream of trace commands and sending that stream to one or more IC output pins; wherein each command consists of one or more packets containing opcodes and parameters indicating the type of data being sent and the actual trace data; if there are remaining free bits in the packets due to short opcodes, no padding bits are inserted, filling the packets with subsequent parameter and data bits; wherein the composite stream of trace commands comprises: program counter trace commands indicating the current program counter values used by a data processor; PC synchronization point commands containing a PC synchronization ID; data processing operation commands indicating the current processing operation performed by the data processor; incrementing and embedded counter in the IC upon each increment of the PC, and clearing it upon each occurrence of a PC synchronization point; and in commands relating to data processing operation, including the current PC value as an offset value as the last PC synchronization point is represented by the current counter value. producing a composite stream of trace commands and sending that stream to one or more IC output pins; wherein each command consists of one or more packets containing opcodes and parameters indicating the type of data being sent and the actual trace data; if there are remaining free bits in the packets due to short opcodes, no padding bits are inserted, filling the packets with subsequent parameter and data bits; wherein the composite stream of trace commands comprises: program counter trace commands indicating the current program counter values used by a data processor; PC synchronization point commands containing a PC synchronization ID; data processing operation commands indicating the current processing operation performed by the data processor; program counter trace commands indicating the current program counter values used by a data processor; PC synchronization point commands containing a PC synchronization ID; data processing operation commands indicating the current processing operation performed by the data processor; incrementing and embedded counter in the IC upon each increment of the PC, and clearing it upon each occurrence of a PC synchronization point; and in commands relating to data processing operation, including the current PC value as an offset value as the last PC synchronization point is represented by the current counter value.
Suspension element (20, 30) for vibration insulation for the mechanical connection of a load which is suspended in a support, having a rigidity, characterized in that it comprises at least two mechanical interfaces (21, 31, 22, 32) with the load and with the support, respectively, and at least two plates (23, 33) which connect each of the two interfaces in a complete connection, the interfaces forming a monolithic structure with the plates, the rigidity of the element being adjusted to specific values along three orthogonal axes in accordance with the number of plates, their distribution between the interfaces and their dimensions in terms of length, thickness and depth, further comprising at least one damping element (24, 25).
A machine for extracting puree, or juice, from a food product, comprises a machine body provided with: - an inlet for introducing the food product; - an extraction section configured to separate, during an extraction configuration, said food product in a main product comprising said puree, or juice, and a waste product, within said extraction section a sieve having a cylindrical, or conical, shape being mounted, and provided with a plurality of holes, and a rotor having a cylindrical, or conical, shape positioned within said sieve and configured to rotate about a rotation axis in such a way to apply a centrifugal force on said food product to force the same against said sieve and separate the food product in said main product, which passes through said holes of said sieve, and is discharged through a first outlet, and said waste product, which, instead, does not pass through said holes of said sieve and is discharged through a second outlet positioned downstream of said first outlet with respect to the advancing direction of the food product along said extraction section; - a motor operatively connected to said rotor and configured to cause said rotor to rotate about said rotation axis; said machine being characterized in that a displacement device is, furthermore, provided configured to move said sieve along a longitudinal direction, which is longitudinal to said machine body, to position said sieve in a determined working position (Pe) when said extraction section does not work in said extraction configuration, said determined working position (Pe) being arranged between a predetermined first limit position and a predetermined second limit position. - an inlet for introducing the food product; - an extraction section configured to separate, during an extraction configuration, said food product in a main product comprising said puree, or juice, and a waste product, within said extraction section a sieve having a cylindrical, or conical, shape being mounted, and provided with a plurality of holes, and a rotor having a cylindrical, or conical, shape positioned within said sieve and configured to rotate about a rotation axis in such a way to apply a centrifugal force on said food product to force the same against said sieve and separate the food product in said main product, which passes through said holes of said sieve, and is discharged through a first outlet, and said waste product, which, instead, does not pass through said holes of said sieve and is discharged through a second outlet positioned downstream of said first outlet with respect to the advancing direction of the food product along said extraction section; - a motor operatively connected to said rotor and configured to cause said rotor to rotate about said rotation axis;
A process for the production of ethylene glycol comprising the steps of (i) supplying ethylene and oxygen and an organic chloride moderator to an ethylene oxide reactor wherein ethylene and oxygen react in the presence of a catalyst to produce ethylene oxide, thereby producing a reactor product stream; (ii) supplying the reactor product stream to an ethylene oxide absorber wherein ethylene oxide is recovered from the reactor product stream by absorption in water in the absorber section, thereby producing a fat absorbent stream; (iii) supplying the fat absorbent stream to an ethylene oxide stripper wherein the fat absorbent stream is steam stripped, thereby producing a concentrated ethylene oxide stream and a lean absorbent stream; (iv) recirculating the lean absorbent stream to the ethylene oxide absorber; (v) optionally supplying the concentrated ethylene oxide stream to one or more carboxylation reactors wherein ethylene oxide reacts with carbon dioxide to form an ethylene carbonate stream; and (vi) supplying the concentrated ethylene oxide stream and/or the ethylene carbonate stream to one or more hydrolysis reactors wherein ethylene oxide and/or ethylene carbonate reacts with water in the presence of a hydrolysis catalyst selected from one or more basic alkali metal salts to form an ethylene glycol stream; wherein the process comprises the additional steps of: (vii) removing a glycol bleed stream from the ethylene oxide stripper; and (viii) adding a base to the ethylene oxide stripper such that the pH in the bottom section of the stripper is maintained in the range of from at least 9.5 to at most 12.0. (i) supplying ethylene and oxygen and an organic chloride moderator to an ethylene oxide reactor wherein ethylene and oxygen react in the presence of a catalyst to produce ethylene oxide, thereby producing a reactor product stream; (ii) supplying the reactor product stream to an ethylene oxide absorber wherein ethylene oxide is recovered from the reactor product stream by absorption in water in the absorber section, thereby producing a fat absorbent stream; (iii) supplying the fat absorbent stream to an ethylene oxide stripper wherein the fat absorbent stream is steam stripped, thereby producing a concentrated ethylene oxide stream and a lean absorbent stream; (iv) recirculating the lean absorbent stream to the ethylene oxide absorber; (v) optionally supplying the concentrated ethylene oxide stream to one or more carboxylation reactors wherein ethylene oxide reacts with carbon dioxide to form an ethylene carbonate stream; and (vi) supplying the concentrated ethylene oxide stream and/or the ethylene carbonate stream to one or more hydrolysis reactors wherein ethylene oxide and/or ethylene carbonate reacts with water in the presence of a hydrolysis catalyst selected from one or more basic alkali metal salts to form an ethylene glycol stream; wherein the process comprises the additional steps of: (vii) removing a glycol bleed stream from the ethylene oxide stripper; and (viii) adding a base to the ethylene oxide stripper such that the pH in the bottom section of the stripper is maintained in the range of from at least 9.5 to at most 12.0.
A laser system for creating a corneal pocket (104, 204) and an entry channel (106, 206, 306, 406) adapted to allow insertion and positioning of an intracorneal lens in the corneal pocket (104, 204), said laser system comprising a low-energy femtosecond laser configured to create the corneal pocket (104, 204) and said entry channel (106, 206, 306, 406), said system being configured to; position the laser proximate to a cornea such that it can be used to create the corneal pocket (104, 204); determine a generally curvilinear movement path and an energy output in a range between approximately 0.2 microjoules and 1.5 microjoules for the laser in order to form the corneal pocket (104, 204) having a specific shape and a thickness conforming to predefined surfaces of an intracorneal lens to be inserted into the corneal pocket (104, 204); follow the generally curvilinear movement path using a positioning software; focus a laser beam from the laser to a focal point at a predetermined depth within the cornea between an anterior surface and a posterior surface of the cornea such that the laser beam cuts and separates corneal tissue at the predetermined depth; move the laser beam in the generally curvilinear movement path in order to create the corneal pocket (104, 204) having the specific pocket shape and a thickness about the size of a diameter of the laser beam focal point; form the entry channel (106, 206, 306, 406) extending between an entry incision and the corneal pocket (104, 204), into the corneal pocket (104, 204), with the laser beam; characterised in that the generally curvilinear movement path used to form the corneal pocket (104, 204) follows the natural curvature of the eye. position the laser proximate to a cornea such that it can be used to create the corneal pocket (104, 204); determine a generally curvilinear movement path and an energy output in a range between approximately 0.2 microjoules and 1.5 microjoules for the laser in order to form the corneal pocket (104, 204) having a specific shape and a thickness conforming to predefined surfaces of an intracorneal lens to be inserted into the corneal pocket (104, 204); follow the generally curvilinear movement path using a positioning software; focus a laser beam from the laser to a focal point at a predetermined depth within the cornea between an anterior surface and a posterior surface of the cornea such that the laser beam cuts and separates corneal tissue at the predetermined depth; move the laser beam in the generally curvilinear movement path in order to create the corneal pocket (104, 204) having the specific pocket shape and a thickness about the size of a diameter of the laser beam focal point; form the entry channel (106, 206, 306, 406) extending between an entry incision and the corneal pocket (104, 204), into the corneal pocket (104, 204), with the laser beam; characterised in that the generally curvilinear movement path used to form the corneal pocket (104, 204) follows the natural curvature of the eye.
A vehicle comprising: • a luggage compartment accessible through a rear opening and delimited, at the bottom, by a bottom surface and, at the rear, by a transversal element defining a sill of said rear opening; • an additional loading floor, that has an upper surface and can be arranged by a user in said luggage compartment in a lowered position, adjacent to said bottom surface, and in at least one raised position, spaced apart from said bottom surface; • retention means for securing luggage placed, in use, on said loading floor; at least part of said retention means being arranged above said upper surface; • anchorage means (43,45,49) for connecting said retention means in said luggage compartment; characterized in that said anchorage means comprise: • first anchorage means carried by a front end portion of said additional loading floor; • second anchorage means carried by said transversal element; • third anchorage means carried by a rear end portion of said additional loading floor. • a luggage compartment accessible through a rear opening and delimited, at the bottom, by a bottom surface and, at the rear, by a transversal element defining a sill of said rear opening; • an additional loading floor, that has an upper surface and can be arranged by a user in said luggage compartment in a lowered position, adjacent to said bottom surface, and in at least one raised position, spaced apart from said bottom surface; • retention means for securing luggage placed, in use, on said loading floor; at least part of said retention means being arranged above said upper surface; • anchorage means (43,45,49) for connecting said retention means in said luggage compartment; • first anchorage means carried by a front end portion of said additional loading floor; • second anchorage means carried by said transversal element; • third anchorage means carried by a rear end portion of said additional loading floor.
A method (310, 710) for positioning and assembling a shoe part in an automated manner during a shoe-manufacturing process, the method comprising: receiving an image depicting a two-dimensional representation of an attachment shoe part, which is to be attached to a base shoe part, wherein the two-dimensional representation of the attachment shoe part comprises at least one reference feature (234, 236) that is identified; determining an identity of the image by substantially matching the image to a reference image, the reference image having at least one pre-determined reference feature; determining pixel coordinates of the image that correspond to the at least one pre-determined reference feature; converting, by a computer processor, the pixel coordinates of the image to a geometric coordinate of a geometric coordinate system, which maps a three-dimensional space within which the attachment shoe part is positioned and a multi-functional manufacturing tool operates; determining another geometric coordinate of the geometric coordinate system by analyzing a different image depicting a two-dimensional representation of the base shoe part to which the attachment shoe part will be attached; transferring, by the multi-functional manufacturing tool, the attachment shoe part to the other geometric coordinate, thereby moving the attachment shoe part to a location in the three-dimensional space at which the attachment shoe part is to be attached to the base shoe part; and attaching, by the multi-functional manufacturing tool, the attachment shoe part to the base shoe part.