mhurhangee/ep-ind-claims huggingface dataset:
A mobile telecommunications system comprising mobile terminals of a first type, mobile terminals of a second type and a base station for receiving uplink data transmitted from mobile terminals of the first type and mobile terminals of the second type over a radio interface using a plurality of sub-carriers, wherein the mobile terminals of the second type have a reduced capability as compared to the mobile terminals of the first type whereby the mobile terminals of the second type are arranged to transmit data across a reduced bandwidth as compared to the mobile terminals of the first type, the mobile terminals of the first type being arranged to transmit uplink data on a first group of sub-carriers of the plurality of sub-carriers over a first bandwidth and the mobile terminals of the second type being arranged to transmit uplink data on a second group of sub-carriers of the plurality of sub-carriers within the first group of sub-carriers over a second bandwidth, the second bandwidth being smaller than the first bandwidth, and wherein the base station is arranged to grant uplink radio resources in response to random access request messages transmitted by mobile terminals of the first type transmitted on a first random access channel and to grant uplink radio resources in response to random access request messages transmitted by mobile terminals of the second type transmitted on a second random access channel, wherein the mobile terminals of the second type are arranged to transmit the random access request messages on the second random access channel on sub-carriers within the second group of sub-carriers, wherein the mobile terminals of the first type and the mobile terminals of the second type are arranged to transmit the random access request messages using random access preambles, wherein the random access preambles are divided into a first group and a second group, and wherein mobile terminals of the first type are arranged to use random access preambles from the first group and mobile terminals of the second type are arranged to use random access preambles from the second group.
A corrosion detection product comprising: a coating including a film forming material and a complexing agent, wherein the film forming material is a film forming polymer, the complexing agent forming a coordination complex when it comes into contact with a corrosion byproduct comprising a metal ion, the corrosion byproduct produced by corrosion of a substrate on which the coating is applied, the coordination complex being detectably different from the complexing agent when the coating is exposed to radiation in order to detect the corrosion, the radiation being terahertz rays, the complexing agent being immobilized in the coating to reduce leaching of the complexing agent or the complex from the coating, wherein the substrate is an aluminium substrate and the complexing agent is an 8-hydroxyquinoline, and either wherein the complexing agent is immobilized by being part of the film forming polymer either in a main chain or a side chain or wherein the coating further includes a water insoluble metal oxide, and wherein the complexing agent is immobilized by being tethered to the metal oxide. wherein the substrate is an aluminium substrate and the complexing agent is an 8-hydroxyquinoline, and either wherein the complexing agent is immobilized by being part of the film forming polymer either in a main chain or a side chain or wherein the coating further includes a water insoluble metal oxide, and wherein the complexing agent is immobilized by being tethered to the metal oxide.
A method of coating a component having a multiple of cooling holes comprising: providing a component having flow path surfaces that are coated with a thermal barrier coating including a bond coat and a top coat; removing at least a portion of the thermal barrier coating that includes the bond coat and the top coat, the removing of the portion of the thermal barrier coating comprising removing all layers of the top coat and one or more layers of the bond coat in a repair area; reapply the removed one or more layers of the bond coat to bring a thickness of the bond coat to specification; cleaning and preparing a surface of the bond coat to receive the top coat; positioning the component to receive a gas through the multiple of cooling holes; directing the gas out of the component through the multiple of cooling holes; reapplying the layers of the top coat with a spray system while directing the gas out of the component through the multiple of cooling holes; and finish drilling the multiple of cooling holes, wherein the gas being directed out of the component through the multiple of cooling holes is air at a pressure between 100-200 psi (1psi = 6.9 kPa). providing a component having flow path surfaces that are coated with a thermal barrier coating including a bond coat and a top coat; removing at least a portion of the thermal barrier coating that includes the bond coat and the top coat, the removing of the portion of the thermal barrier coating comprising removing all layers of the top coat and one or more layers of the bond coat in a repair area; reapply the removed one or more layers of the bond coat to bring a thickness of the bond coat to specification; cleaning and preparing a surface of the bond coat to receive the top coat; positioning the component to receive a gas through the multiple of cooling holes; directing the gas out of the component through the multiple of cooling holes; reapplying the layers of the top coat with a spray system while directing the gas out of the component through the multiple of cooling holes; and finish drilling the multiple of cooling holes, wherein the gas being directed out of the component through the multiple of cooling holes is air at a pressure between 100-200 psi (1psi = 6.9 kPa).
Method for disinfecting an inanimate surface which is contaminated with microorganisms or which is suspected of being contaminated with microorganisms, the microorganism being one or more of Escherichia coli, Staphylococcus aureus, Pseudomonas aeruginosa, and Enterococcus hirae, comprising the step of contacting the surface with a disinfecting composition comprising: - 0.1-10 wt.% of one or more N-acylated amino acids or N-acylated peptides, or a salt thereof, - less than 0.1 wt.% of hydrogen peroxide, - 0.1-20 wt.% of one or more non-ethoxylated anionic surfactants, - 0.05-5 wt.% of a carboxylic acid, wherein the disinfecting composition has a pH in the range of 1-4.5, wherein the composition comprises less than 5 wt.% of ethoxylated anionic surfactant, wherein the acyl group of the N-acylated amino acids or N-acylated peptides or salts thereof is of the formula R-CO- wherein R-CO- represents an acyl group wherein R is a saturated or unsaturated, straight-chain C6 to C20 radical, and wherein, where an N-acylated peptide is used, the peptide has an average molecular weight of about 100 to about 3900 Dalton. - 0.1-10 wt.% of one or more N-acylated amino acids or N-acylated peptides, or a salt thereof, - less than 0.1 wt.% of hydrogen peroxide, - 0.1-20 wt.% of one or more non-ethoxylated anionic surfactants, - 0.05-5 wt.% of a carboxylic acid,
Method of optimization of a computer program, comprising - a first step (S 11, S 12, S 13, S 14) of automatic determination within said computer program of a call of a function having at least one input parameter, said call corresponding to a first criterion according to which said at least one input parameter is inside an interval substantially smaller than the range of possible values for said input parameter, said interval being formed by sample values stored for several executions of said program, and to a second criterion corresponding to a desired accuracy for said call; - a second step (S 2) of automatic generation by a computer program of an executable code for implementing said function, by choosing an implementation according to said interval and said desired accuracy, said executable code comprising a sequence of code expressions, each associated to a term of a mathematical series, and by determining a number of said terms according to said desired accuracy; - a third step (S 3) of automatically replacing the existing code implementing said function by the executable code generated at said second step. - a first step (S 11, S 12, S 13, S 14) of automatic determination within said computer program of a call of a function having at least one input parameter, said call corresponding to a first criterion according to which said at least one input parameter is inside an interval substantially smaller than the range of possible values for said input parameter, said interval being formed by sample values stored for several executions of said program, and to a second criterion corresponding to a desired accuracy for said call; - a second step (S 2) of automatic generation by a computer program of an executable code for implementing said function, by choosing an implementation according to said interval and said desired accuracy, said executable code comprising a sequence of code expressions, each associated to a term of a mathematical series, and by determining a number of said terms according to said desired accuracy; - a third step (S 3) of automatically replacing the existing code implementing said function by the executable code generated at said second step.
A method for treating solutions containing one or more endotoxins at detectable levels comprising: a. adding a suspension of a salt of stearic acid to said solution to reduce detectable amounts of said endotoxins; and b. optionally removing the salt of stearic acid. a. adding a suspension of a salt of stearic acid to said solution to reduce detectable amounts of said endotoxins; and b. optionally removing the salt of stearic acid.
A polynucleotide sequence comprising a nuclear export signal and encoding a mutated form of thymidine kinase from a human herpes simplex virus 1 (HSV1-TK), wherein the encoded HSV1-TK is mutated at amino acid residues 32 and 33 and optionally in combination with at least one of amino acid residues 25 or 26, wherein the amino acid residues 32, 33, 25, and 26 correspond to residues 32, 33, 25, and 26, respectively, of polypeptide sequence of SEQ ID NO: 2, and wherein amino acid residues 32 and 33 are independently mutated to an amino acid chosen from the group consisting of glycine, serine, and glutamic acid; and wherein amino acid residues 25 and 26 are independently mutated to an amino acid chosen from the group consisting of: glycine, serine, and glutamic acid, and wherein the mutated form of the thymidine kinase increases nucleoside analogue mediated cell kill activity relative to the wild-type HSV1 thymidine kinase set forth in SEQ ID NO: 2.
A multi-fiber light guide comprising - a multitude of light guiding fibers, each of the fibers comprising - an elongated glass core, wherein - the cores are surrounded by a glass cladding so that - the cladding with the cores form a rigid continuous glass element, and - wherein the cores have a higher refractive index than the cladding so that light can be guided by total reflection along the glass cores, and wherein the glass element of the multi-fiber light guide has two abutting faces (10, 11), with the cores ending in both abutting faces (10, 11), so that light can be guided along the cores from one abutting face to the other abutting face, and wherein - the glasses of the cores and the cladding contain alkali ions, and wherein - the alkali ions of the glasses are at least partly exchanged by alkali ions of a higher atomic number within an ion exchange layer at each of the abutting faces (10, 11), the exchanged alkali ions within the ion exchange layer imparting a compressive stress at the abutting faces (10, 11), characterized in that the glass element comprises a glass shell which encompasses the cladding with the embedded cores; wherein the ion-exchange layer also extends along the shell of the glass element which extends between the two abutting faces (10, 11). - a multitude of light guiding fibers, each of the fibers comprising - an elongated glass core, wherein - the cores are surrounded by a glass cladding so that - the cladding with the cores form a rigid continuous glass element, and - wherein the cores have a higher refractive index than the cladding so that light can be guided by total reflection along the glass cores, and wherein the glass element of the multi-fiber light guide has two abutting faces (10, 11), with the cores ending in both abutting faces (10, 11), so that light can be guided along the cores from one abutting face to the other abutting face, and wherein - the glasses of the cores and the cladding contain alkali ions, and wherein - the alkali ions of the glasses are at least partly exchanged by alkali ions of a higher atomic number within an ion exchange layer at each of the abutting faces (10, 11), the exchanged alkali ions within the ion exchange layer imparting a compressive stress at the abutting faces (10, 11),
Liquid chromatography separating column oven, having at least 5 temperature-controllable separating columns (2, 3, 21, 22, 23, 24, 25), where each separating column (2, 3, 21, 22, 23, 24, 25) incorporates a first liquid connection (F1, 21E, 22E, 23E, 24E, 25E) and a second liquid connection (F2, 21A, 22A, 23A, 24A, 25A) and where, depending on the direction of flow, the liquid connections (F1, F2, 21E, 22E, 23E, 24E, 25E, 21A, 22A, 23A, 24A, 25A) are referred to as the inlet and outlet of the respective separating column (2, 3, 21, 22, 23, 24, 25), and having a valve assembly that individually determines the control of liquid flows to the separating columns (2, 3, 21, 22, 23, 24, 25), where by means of the valve assembly each of the separating columns (2, 3, 21, 22, 23, 24, 25) can be shut off or flowed through, as required and where the valve assembly is designed in such a way that the direction of flow through the separating column (2, 3, 21, 22, 23, 24, 25) is reversible in that the same liquid connection (F1, F2, 21E, 22E, 23E, 24E, 25E, 21A, 22A, 23A, 24A, 25A) of one separating column (2, 3, 21, 22, 23, 24, 25) is used as an inlet or an outlet, as required, while at the same time the other liquid connection (F2, F1, 21E, 22E, 23E, 24E, 25E, 21A, 22A, 23A, 24A, 25A) of the same separating column (2, 3, 21, 22, 23, 24, 25) accordingly forms the inlet or the outlet and where the valves of the valve assembly can be adjusted by means of a motor, and where a programmable oven control system is provided for, which is designed so as to enable automatic temperature control and automatic control of the valve assembly, where each separating column (2, 3, 21, 22, 23, 24, 25) is assigned a feed line and a drain line as well as a first multi-way valve (28, 29) that switches a flow connection to the first liquid connection (F1, 21E, 22E, 23E, 24E, 25E) as well as a first multi-way valve (28, 29) that switches a flow connection from the inlet to the first liquid connection (F1, 21E, 22E, 23E, 24E, 25E) or to the second liquid connection (F2, 21A, 22A, 23A, 24A, 25A), as required, as well as a second multi-way valve (28, 29) that, depending on the position of the first multi-way valve (28, 29), switches a flow connection from the second liquid connection or from the first liquid connection (F1, 21E, 22E, 23E, 24E, 25E) to the drain line, and that each separating column (2, 3, 21, 22, 23, 24, 25) is assigned a stop valve that opens or shuts the feed line, as required.
An animal feed additive effective as broad-spectrum preservative comprising 15-80% by weight of propionic acid, 10-70% by weight of glyceryl propionates and 5-40% by weight of hexanoic acid, balance to 100% by weight being water.
A cooling appliance comprising an ice maker assembly; the ice maker assembly comprising; an ice mold including a plurality of three dimensional cavities, placed into the ice maker assembly and configured to rotate about a longitudinal axis; a container placed underneath the ice mold and configured to store ice; characterized by a guide at least partly extending longitudinally along a side wall of the ice mold, wherein the guide is configured to, upon rotation of the ice mold, contact the ice stored in the container and push said ice towards an edge of the container. an ice mold including a plurality of three dimensional cavities, placed into the ice maker assembly and configured to rotate about a longitudinal axis; a container placed underneath the ice mold and configured to store ice; characterized by a guide at least partly extending longitudinally along a side wall of the ice mold, wherein the guide is configured to, upon rotation of the ice mold, contact the ice stored in the container and push said ice towards an edge of the container.
A combine comprising: a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to produce grain and residue; a first residue spreader wheel spinning at a speed for expelling the residue from the combine; a second residue spreader wheel spinning at another speed for expelling the residue from the combine; a first residue deflector positioned at an angle for deflecting the expelled residue in a predetermined direction; a second residue deflector positioned at another angle for deflecting the expelled residue in another direction; and a controller, characterized in that, the combine further comprises a camera at the rear and the controller is configured to: 1) determine a heading of the combine, 2) determine wind effects on the expelled residue based on an observation with the camera of the expelled residue at the determined heading, and 3) adjust at least one of the speed of the first residue spreader wheel or the angle of the first residue deflector and at least one of the speed of the second residue spreader wheel or the angle of the second residue deflector based on the wind effects to achieve a desired residue spread at the determined heading. a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to produce grain and residue; a first residue spreader wheel spinning at a speed for expelling the residue from the combine; a second residue spreader wheel spinning at another speed for expelling the residue from the combine; a first residue deflector positioned at an angle for deflecting the expelled residue in a predetermined direction; a second residue deflector positioned at another angle for deflecting the expelled residue in another direction; and a controller, characterized in that, the combine further comprises a camera at the rear and the controller is configured to: 1) determine a heading of the combine, 2) determine wind effects on the expelled residue based on an observation with the camera of the expelled residue at the determined heading, and 3) adjust at least one of the speed of the first residue spreader wheel or the angle of the first residue deflector and at least one of the speed of the second residue spreader wheel or the angle of the second residue deflector based on the wind effects to achieve a desired residue spread at the determined heading. 1) determine a heading of the combine, 2) determine wind effects on the expelled residue based on an observation with the camera of the expelled residue at the determined heading, and 3) adjust at least one of the speed of the first residue spreader wheel or the angle of the first residue deflector and at least one of the speed of the second residue spreader wheel or the angle of the second residue deflector based on the wind effects to achieve a desired residue spread at the determined heading.
A fermentation container for a beverage maker, comprising: a main body having a central axis and a circumferential portion; a bonding portion vertically spaced apart from a bottom surface of the circumferential portion of the main body; a connecting portion configured to connect the bonding portion and the main body; and a flexible container disposed below the circumferential portion of the main body and including a thermal bonding portion and a container portion, wherein the thermal bonding portion is thermally bonded to a surface of the bonding portion facing the circumferential portion of the main body, and wherein the container portion is connected to the thermal bonding portion and includes a fermentation space therein; characterized in that the fermentation container further comprises: a pressing member comprising an elastic material and being fitted between the circumferential portion of the main body and the thermal bonding portion to press the thermal bonding portion to the bonding portion. a main body having a central axis and a circumferential portion; a bonding portion vertically spaced apart from a bottom surface of the circumferential portion of the main body; a connecting portion configured to connect the bonding portion and the main body; and a flexible container disposed below the circumferential portion of the main body and including a thermal bonding portion and a container portion, wherein the thermal bonding portion is thermally bonded to a surface of the bonding portion facing the circumferential portion of the main body, and wherein the container portion is connected to the thermal bonding portion and includes a fermentation space therein; characterized in that the fermentation container further comprises: a pressing member comprising an elastic material and being fitted between the circumferential portion of the main body and the thermal bonding portion to press the thermal bonding portion to the bonding portion.
A method for producing deoxyketohexose and a derivative thereof, comprising epimerizing a raw material 1-deoxy D-ketohexose or 6-deoxy D-ketohexose or 1-deoxy L-ketohexose or 6-deoxy L-ketohexose at position 3, using a deoxyketohexose isomerase derived from Pseudomonas chichorii ST-24 FERM BP-2736, to produce the corresponding 1-deoxy D-ketohexose or 6-deoxy D-ketohexose or 1-deoxy L-ketohexose or 6-deoxy L-ketohexose as an intended product.