mhurhangee/ep-ind-claims huggingface dataset:
An automated method of blending biodiesel into a distillate stream to achieve a target biodiesel content comprising: a) providing a distillate stream having a distillate stream flow rate; b) providing a supply of biodiesel having a biodiesel stream flow rate in liquid communication with said distillate stream, separated from said distillate stream by a regulating valve that is under the control of a central processing unit; c) providing a target biodiesel content for said distillate stream; d) periodically measuring an actual biodiesel content in said distillate stream, either upstream or downstream of said supply of biodiesel; e) periodically transmitting said actual biodiesel content to said central processing unit; f) periodically calculating in said central processing unit a target blending rate at which biodiesel can be blended into said distillate stream to achieve the target biodiesel content; and g) modulating said regulating valve to blend biodiesel into said distillate stream at said target blending rate; characterized in that said distillate stream comprises a batch of distillate fuel preceded and succeeded by batches of non-distillate fuel, further comprising monitoring said distillate stream for the identity of said batch at said valve, and only blending biodiesel into said distillate stream when said batch of distillate fuel is passing by said valve. a) providing a distillate stream having a distillate stream flow rate; b) providing a supply of biodiesel having a biodiesel stream flow rate in liquid communication with said distillate stream, separated from said distillate stream by a regulating valve that is under the control of a central processing unit; c) providing a target biodiesel content for said distillate stream; d) periodically measuring an actual biodiesel content in said distillate stream, either upstream or downstream of said supply of biodiesel; e) periodically transmitting said actual biodiesel content to said central processing unit; f) periodically calculating in said central processing unit a target blending rate at which biodiesel can be blended into said distillate stream to achieve the target biodiesel content; and g) modulating said regulating valve to blend biodiesel into said distillate stream at said target blending rate;
A hearing device (1, 1A) configured to be worn at an ear of a user, where the hearing device comprising; - a ground unit, - an antenna unit, and - a feeder unit for feeding a current to the antenna unit; wherein the antenna unit comprises: - an active unit being connected to the ground unit by the feeder unit, the active unit includes an active surface; and - a shield unit having a continuous surface, where a first section of the continuous surface is arranged adjacent to the active surface and a second section of the continuous surface is arranged with the first section having a first inner angle in an inner space between the first section and the second section, and where the first inner angle is between 25 deg. and 160 deg.; wherein the active unit is positioned closer to the center of a housing of the hearing device than the shield unit, the center of the housing being the half width of the housing in the ear-to-ear axis; and wherein the active surface is configured to transmit an electric field in a direction along or perpendicular to an ear-to-ear axis of the user when the hearing device is worn in its operational position by the user, whereby the electric field is coupled by a capacitive coupling towards the first section generating an electromagnetic near field, and where the shield unit is configured to focus the electromagnetic near field inside the hearing device. - a ground unit, - an antenna unit, and - a feeder unit for feeding a current to the antenna unit; - an active unit being connected to the ground unit by the feeder unit, the active unit includes an active surface; and - a shield unit having a continuous surface, where a first section of the continuous surface is arranged adjacent to the active surface and a second section of the continuous surface is arranged with the first section having a first inner angle in an inner space between the first section and the second section, and where the first inner angle is between 25 deg. and 160 deg.; wherein the active unit is positioned closer to the center of a housing of the hearing device than the shield unit, the center of the housing being the half width of the housing in the ear-to-ear axis; and wherein the active surface is configured to transmit an electric field in a direction along or perpendicular to an ear-to-ear axis of the user when the hearing device is worn in its operational position by the user, whereby the electric field is coupled by a capacitive coupling towards the first section generating an electromagnetic near field, and where the shield unit is configured to focus the electromagnetic near field inside the hearing device.
A method for maintaining a voltage in an internal grid of a wind power plant at a desired voltage, comprising: detecting a change in the voltage in the internal grid; in response to detecting the change in the voltage, calculating an amount of reactive power that should be generated to maintain the voltage of the internal grid at a desired voltage; determining a capability of a High Voltage Direct Current HVDC converter and one or more wind turbine converters to generate reactive power; and allocating the generation of reactive power to maintain the voltage of the internal grid at the desired voltage to at least one or more of the HVDC converter and the one or more wind turbine converters based on the determined capability. detecting a change in the voltage in the internal grid; in response to detecting the change in the voltage, calculating an amount of reactive power that should be generated to maintain the voltage of the internal grid at a desired voltage; determining a capability of a High Voltage Direct Current HVDC converter and one or more wind turbine converters to generate reactive power; and allocating the generation of reactive power to maintain the voltage of the internal grid at the desired voltage to at least one or more of the HVDC converter and the one or more wind turbine converters based on the determined capability.
A gyrator for alternating current signals, comprising a Hall effect material, means for coupling a first alternating current (I 1; I 4) into the Hall effect material, means for enforcing the Hall effect material with a magnetic field being perpendicular to its plane or surface area as well as means for the conversion of a second current (I 3; I 2), which was generated by the first current I 1 being perpendicular to the electrical field in the Hall effect material generated by I 1, into a output voltage (U 4; U 1), wherein the Hall effect material is a material, which has a Hall angle θ H of at least 80 degrees at a magnetic field strength of 1 T, wherein the gyrator comprises a first transformer for the coupling of the first current (I 1; I 4) into the Hall effect material and a second transformer for the conversion of the second current (I 3; I 2) in the Hall effect material into the output voltage (U 4; U 1), wherein the first transformer and the second transformer each comprise at least one conductor loop (1a; 2a) made of a normally conductive or semi-conductive material and at least one conductor loop (1; 2) made of the Hall effect material, wherein the Hall effect material is arranged in the said at least two conductor loops (1; 2) made of the Hall effect material in such a way, that when a magnetic field is applied, an electromotive force in one of the conductor loops made of the Hall effect material of the first transformer causes a current flow mainly in one of the conductor loops made of the Hall effect material of the second transformer.
A pharmaceutically acceptable salt of a compound of Formula I: wherein: Y 6, Y 7 and Y 8 are each hydrogen and the compound (Cmpd) is that set forth in the table below: Cmpd Y1 Each Y2 Each Y3 Y4 each Y5 111 H D D H H wherein when a position is designated specifically as "D" that position has at least 90% incorporation of deuterium, any atom not designated as "D" (deuterium) is present at its natural isotopic abundance, and wherein the salt is selected from sulfate, pyrosulfate, bisulfate, sulfite, bisulfate, phosphate, monohydrogenphosphate, dihydrogenphosphate, metaphosphate, pyrophosphate, chloride, bromide, iodide, acetate, propionate, decanoate, caprylate, acrylate, formate, isobutyrate, caprate, heptanoate, propiolate, oxalate, malonate, succinate, suberate, sebacate, fumarate, maleate, butyne-1,4-dioate, hexyne-1,6-dioate, benzoate, chlorobenzoate, methylbenzoate, dinitrobenzoate, hydroxybenzoate, methoxybenzoate, phthalate, terephthalate, sulfonate, xylene sulfonate, phenylacetate, phenylpropionate, phenylbutyrate, citrate, lactate, 3-hydroxybutyrate, glycolate, maleate, tartrate, methanesulfonate, propanesulfonate, naphthalene-1-sulfonate, naphthalene-2-sulfonate, and mandelate. wherein when a position is designated specifically as "D" that position has at least 90% incorporation of deuterium, any atom not designated as "D" (deuterium) is present at its natural isotopic abundance, and wherein the salt is selected from sulfate, pyrosulfate, bisulfate, sulfite, bisulfate, phosphate, monohydrogenphosphate, dihydrogenphosphate, metaphosphate, pyrophosphate, chloride, bromide, iodide, acetate, propionate, decanoate, caprylate, acrylate, formate, isobutyrate, caprate, heptanoate, propiolate, oxalate, malonate, succinate, suberate, sebacate, fumarate, maleate, butyne-1,4-dioate, hexyne-1,6-dioate, benzoate, chlorobenzoate, methylbenzoate, dinitrobenzoate, hydroxybenzoate, methoxybenzoate, phthalate, terephthalate, sulfonate, xylene sulfonate, phenylacetate, phenylpropionate, phenylbutyrate, citrate, lactate, 3-hydroxybutyrate, glycolate, maleate, tartrate, methanesulfonate, propanesulfonate, naphthalene-1-sulfonate, naphthalene-2-sulfonate, and mandelate.
A device for drawing in and compressing solid and elastic materials, the device consisting of a frame structure on which geared, plastic or rubber rollers which rotate in opposite directions toward one another are disposed, the rollers having different shapes and surfaces and being driven by a motor, wherein the frame structure is made up of pairs of opposing connected horizontal longitudinal beams (1.1) and horizontal cross beams (1.2), characterized in that the two cross beams (1.2) are made in one piece and the two longitudinal beams (1.1) are split in half vertically, the separated parts of each longitudinal beam (1.1) being movably bridged by a spring which is disposed on both sides, the two beams being pulled apart and pulled back together, that the longitudinal beams (1.1) opposite one another are connected at least by a respective shaft on each side parallel to the split surfaces, a geared roller being mounted on each shaft, each of said rollers being made up of a plurality of separate pinions (2.1) which are disposed rotatably relative to one another in opposite directions and which in the state of rest interlock with one another, at least one of the shafts being provided as a drive shaft of a motor, that all of the pinions (2.1) are separated on both sides by plates on the shafts, the plates, due to the identical outer contours thereof on the shafts, radially protruding past the pinions (2.1) in the direction of a receptacle disposed under the frame structure, the plate edges below the geared rollers forming an interrupted horizontal plane pointing away from the geared rollers, each of the plate edges also being held fixedly stable opposite to and under the cross beams (1.2) designed in one piece, independent of the rotation of the pinions (2.1). that the longitudinal beams (1.1) opposite one another are connected at least by a respective shaft on each side parallel to the split surfaces, a geared roller being mounted on each shaft, each of said rollers being made up of a plurality of separate pinions (2.1) which are disposed rotatably relative to one another in opposite directions and which in the state of rest interlock with one another, at least one of the shafts being provided as a drive shaft of a motor, that all of the pinions (2.1) are separated on both sides by plates on the shafts, the plates, due to the identical outer contours thereof on the shafts, radially protruding past the pinions (2.1) in the direction of a receptacle disposed under the frame structure, the plate edges below the geared rollers forming an interrupted horizontal plane pointing away from the geared rollers, each of the plate edges also being held fixedly stable opposite to and under the cross beams (1.2) designed in one piece, independent of the rotation of the pinions (2.1).
A liner panel (72, 74) for a combustor of a gas turbine engine, comprising: a multiple of heat transfer augmentors, wherein a subset of said multiple of heat transfer augmentors defines a valley with a hemi-spherical depression; wherein said liner panel (72, 74) includes an entrance to at least one effusion flow passage; characterised in that: said entrance is within said hemi-spherical depression; and said entrance is centered within said hemi-spherical depression. a multiple of heat transfer augmentors, wherein a subset of said multiple of heat transfer augmentors defines a valley with a hemi-spherical depression; wherein said liner panel (72, 74) includes an entrance to at least one effusion flow passage; characterised in that: said entrance is within said hemi-spherical depression; and said entrance is centered within said hemi-spherical depression. said entrance is within said hemi-spherical depression; and said entrance is centered within said hemi-spherical depression.
A method for automatically configuring an electronic device, the method comprising: receiving at an electronic device a command specifying execution of an unidentified executable on first data, wherein the first data is stored at the electronic device; automatically determining at an electronic device, from metadata of the first data, a content type of the first data, wherein the metadata is stored at the electronic device; automatically selecting at an electronic device an executable for operating on the first data from a plurality of different executables in dependence upon the content type determined from the metadata; and operating at an electronic device on the first data using the selected executable. receiving at an electronic device a command specifying execution of an unidentified executable on first data, wherein the first data is stored at the electronic device; automatically determining at an electronic device, from metadata of the first data, a content type of the first data, wherein the metadata is stored at the electronic device; automatically selecting at an electronic device an executable for operating on the first data from a plurality of different executables in dependence upon the content type determined from the metadata; and operating at an electronic device on the first data using the selected executable.
A production method for a fiber reinforced composite material including a step for heating a preform formed by laminating a prepreg layer including a reinforcement fiber and a first thermosetting resin (B-1) with a resin layer including a second thermosetting resin (B-2) and a solid additive, wherein the preform is heated to cure the first thermosetting resin (B-1) and the second thermosetting resin (B-2), the cured resin layer (II') formed by curing the resin layer having an average thickness of 35 μm or more and 300 μm or less, wherein the resin layer contains a porous sheet-like base material having continuous holes that acts as spacer, wherein the hole diameter Le of the porous sheet-like base material meets the relation of Le < Lc where Lc is the average of the longest diameters across the primary particles of the solid additive. wherein the resin layer contains a porous sheet-like base material having continuous holes that acts as spacer, wherein the hole diameter Le of the porous sheet-like base material meets the relation of Le < Lc where Lc is the average of the longest diameters across the primary particles of the solid additive.
A computer-implemented method for identifying a user, the method using a computing device comprising an illumination source that, when activated, emits visible light, the method comprising taking two images of a scene potentially comprising a living body part carrying a biometric characteristic, wherein a first image is taken without the illumination source being activated and the second image is taken with the illumination source being activated, transferring the first image and the second image to a neural network and processing, by the neural network the first image and the second image, wherein the processing comprises comparing the first image and the second image, thereby determining whether the first image and the second image are images of a living body part, the method further comprising, if it is determined that the first image and the second image are images of a living body part, performing an identification algorithm to find a biometric characteristic for identifying the user and, if it is determined that the first image and the second image are not images of a living body part, not performing the identification algorithm; wherein the neural network comprises three sub-networks, wherein a first sub-network processes the first image to extract first information from the first image and a second sub-network processes the second image to extract second information from the second image, wherein a third sub-network compares the first information and the second information in order to determine whether the first image and the second image are images of a living body part.
A method for reducing success of bark beetle and/or cerambycid wood borer attacks on trees comprising treatment of the tree with a composition comprising emamectin benzoate, wherein the composition is applied to the tree by injection about 0.3 m above the ground.
A method for preparing a chiral intermediate of formula for use in statin drugs, characterized in that the method comprises the following steps: 1) conducting etherification reaction using chloroacetic acid and benzyl alcohol as starting materials to produce benzyloxy acetic acid; 2) conducting condensation reaction of benzyloxy acetic acid with morpholine to produce 2-benzyloxymorpholine acetamide; 3) conducting substitution reaction of 2-benzyloxymorpholine acetamide with an acetylacetate ester of formula to produce a diketone intermediate of formula; 4) conducting asymmetric reduction of the diketone intermediate of formula to produce a chiral diol intermediate of formula; 5) reacting the chiral diol intermediate of formula with 2,2-dimethoxypropane to produce (4 R - cis)-6-(benzyloxy)-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula; 6) removing the benzyl group from the (4 R - cis)-6-(benzyloxy)-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula to give (4 R - cis)-6-hydroxymethyl-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula; and 7) conducting oxidation reaction of the (4 R - cis)-6-hydroxymethyl-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula to give the chiral intermediate of formula, wherein the reaction scheme is as follows: wherein R represents C4-C10 alkyl, cyclopentyl or cyclohexyl. 1) conducting etherification reaction using chloroacetic acid and benzyl alcohol as starting materials to produce benzyloxy acetic acid; 2) conducting condensation reaction of benzyloxy acetic acid with morpholine to produce 2-benzyloxymorpholine acetamide; 3) conducting substitution reaction of 2-benzyloxymorpholine acetamide with an acetylacetate ester of formula to produce a diketone intermediate of formula; 4) conducting asymmetric reduction of the diketone intermediate of formula to produce a chiral diol intermediate of formula; 5) reacting the chiral diol intermediate of formula with 2,2-dimethoxypropane to produce (4 R - cis)-6-(benzyloxy)-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula; 6) removing the benzyl group from the (4 R - cis)-6-(benzyloxy)-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula to give (4 R - cis)-6-hydroxymethyl-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula; and 7) conducting oxidation reaction of the (4 R - cis)-6-hydroxymethyl-2,2-dimethyl-1,3-dioxane-4-hexanoate ester of formula to give the chiral intermediate of formula,
A composition for use in treating injured cardiac tissue in a patient in need thereof, and for inducing angiogenesis in said patient; said composition comprising modified placental tissue configured for placement at or adjacent to injured cardiac tissue without obstructing the function thereof in an amount sufficient to reduce damage and induce healing; wherein the modified placental tissue comprises an amnion having an epithelial layer and/or a fibroblast cell layer; wherein the injured cardiac tissue is a result of ischemia, acute myocardial infarction, myocardial infarction, cardiomyopathy, unstable angina, refractory angina, heart attack, heart failure, cor pulmonale, vein graft diseases, occlusive coronary thrombus, valvular heart diseases, inflammatory cardiomegaly, atherosclerosis, acute pericarditis, Dresslers syndrome, inflammatory heart condition or a necrotizing heart condition; wherein the modified placental tissue retains an effective amount of stem cell recruiting factors which recruit hematopoietic stem cells or mesenchymal stem cells; wherein the composition is micronized; and wherein the modified placental tissue retains an effective amount of angiogenesis inducing factors.
A device for height setting of an air deflector comprising a shield adapted to being pivotable about a forward horizontal spindle associated with a vehicle roof of a tractor vehicle; characterised by a spring which endeavours to pivot the shield about the spindle in an upward direction from the roof; an elongate pull means connected to the shield for manual height setting of the shield against the action of the spring; and a locking mechanism, acting between the pull means and the shield and operable by pulling force applied to the pull means, to lock the shield in a relevant height position upon removal of force from the pull means, and to release the shield, enabling it to move to a different height position, upon application of pulling force to the pull means.
A method of maintaining coherency in a multi-processor system characterized by: establishing a state including: a write-data-invalid, WDI state for a first cache entry in a first cache, wherein the WDI state comprises permission for a first processor associated with the first cache, to write to one or more higher levels of memory hierarchy (112, 114) for a write request to the cache entry by the first processor, and wherein the WDI state is treated as an invalid state for a read request to the first cache entry by the first processor.
A method of baling using a square baler comprising a baling chamber that includes a bale-forming channel having at least one adjustable friction control element, a plunger mounted within the channel and a rotary drive mechanism for driving reciprocating movement of the plunger; characterised by the method comprising determining an actual maximum torque value associated with the rotary drive mechanism, comparing the actual MTV with a selected desired MTV and adjusting the friction control element to regulate the actual MTV according to the desired MTV.
A dielectric resin composition for a film capacitor which is a mixture containing a first organic material and a second organic material, wherein the first organic material includes at least two kinds of organic material components having reactive groups that cross-link each other; the second organic material does not have a reactive site capable of reacting with the first organic material and has a dielectric loss tanδ of 0.3% or less at a temperature of 125°C; and the mixture has a glass transition temperature of 130°C or higher.