mhurhangee/patent-ind-claim-en huggingface dataset:
Binder for injection moulding composition comprising: - at least 35% by volume of a polymeric base, - from 40 to 55% by volume of a mixture of waxes or a mixture of wax and palm oil, - and 10% by volume of a surfactant, wherein the polymeric base contains 2 to 7% by volume of an ethylene and vinyl acetate copolymer, 25% by volume of polyethylene, 2 to 15% by volume of polypropylene and 6 to 15% by volume of acrylic resin, the respective quantities of the components of the binders being such that, added together, they do not exceed 100%, and wherein the acrylic resin has a molecular weight of between 50,000 and 220,000 and an inherent viscosity of 0.21 to 0.83, and is chosen from the group comprising polymers of isobutyl methacrylate, methyl methacrylate, ethyl methacrylate and N-butyl methacrylate, and copolymers of isobutyl methacrylate and N-butyl methacrylate and of methyl methacrylate and N-butyl methacrylate, or a mixture of these polymers and/or copolymers. - at least 35% by volume of a polymeric base, - from 40 to 55% by volume of a mixture of waxes or a mixture of wax and palm oil, - and 10% by volume of a surfactant,
Method for producing a plant extract, quantified on D-pinitol, wherein a plant Desmodium adscendens is selected from the Desmodium family, wherein a fraction is extracted from Desmodium plant parts, wherein a plant extract is derived from said fraction thereof, characterized in that a characterised extract is derived from Desmodium adscendens, from which a preparation of said plant extract is quantified on D-pinitol; wherein said plant extract contains between 0,1 and 10%, preferably from 4 to 5% D-pinitol; particularly wherein a validated analytical method is performed for said quantification of Desmodium adscendens on D-pinitol, wherein a specific quantified Desmodium adscendens preparation is produced as "totum", more particularly wherein a biologically controlled isolation is carried out in said analytical method which is carried out with generating a composition quantified for D-pinitol, wherein the composition product is repeatedly enriched and numerous fractions are isolated, and wherein a decoction is obtained that contains a significant amount of D-pinitol; wherein said extract is separated and the isolated product is identified as the methylated cyclitol 3-O-methyl-chiro-inositol, i.e. D-pinitol, in that selected parts of said plant are first dried, and/or in that said plant parts are then ground or fragmented, particularly pulverized into powder form, more particularly wherein said powder is converted as such into a pharmaceutical form; wherein starting from 1 kg of dried plant parts, there is obtained from 60 to 70 g, in particular about 65 g of extract, respectively according to a ratio of 10-20 : 1, more particularly 14-16 : 1; in that an aqueous decoction of said plant parts of Desmodium_adscendens is then prepared warm to a decoct by boiling a certain quantity of dried, optionally powdered, leaves in a certain quantity of water for a certain period of time and in that said aqueous decoction of said plant parts of Desmodium adscendens is then cooled, after which the portions obtained are combined and filtered, after which the filtrate obtained is concentrated, in particular under vacuum, and then lyophilized to form a lyophilizate.
Closure assembly for the closure of an opening on a compressed fluid-insulated encapsulation housing, having a wall which has at least one clearance which penetrates the wall in a traversing direction and is encompassed by a border , characterized in that in the wall an elevation emerges in an archlike manner from the wall substantially in the traversing direction , wherein the elevation effects a reinforcement of the wall and, while in a manner substantially transverse to the traversing direction connecting a threshold , a border , and an elevation , opens in the elevation as well as in the border .
Hydraulic drive system comprising a first hydraulic machine and a second hydraulic machine which are mechanically interconnected; wherein the first hydraulic machine and the second hydraulic machine are jointly operated by a variable-speed drive ; wherein the first hydraulic machine and the second hydraulic machine are hydraulically connected to at least one first hydraulic cylinder comprising a first hydraulic cylinder surface and a second hydraulic cylinder surface ; wherein the first hydraulic machine or the second hydraulic machine has an adjustable delivery volume and wherein the first hydraulic machine and the second hydraulic machine are in the form of constant pumps; wherein the first hydraulic machine is connected to a reservoir of the hydraulic drive system ; and wherein the second hydraulic machine is hydraulically connected to the first hydraulic cylinder surface and the second hydraulic cylinder surface ; characterized in that the reservoir is in the form of a preloaded reservoir . wherein the first hydraulic machine and the second hydraulic machine are jointly operated by a variable-speed drive ; wherein the first hydraulic machine and the second hydraulic machine are hydraulically connected to at least one first hydraulic cylinder comprising a first hydraulic cylinder surface and a second hydraulic cylinder surface ; wherein the first hydraulic machine or the second hydraulic machine has an adjustable delivery volume and wherein the first hydraulic machine and the second hydraulic machine are in the form of constant pumps; wherein the first hydraulic machine is connected to a reservoir of the hydraulic drive system ; and wherein the second hydraulic machine is hydraulically connected to the first hydraulic cylinder surface and the second hydraulic cylinder surface ; characterized in that the reservoir is in the form of a preloaded reservoir .
An electronic apparatus , comprising: a communication interface ; and a processor configured to encrypt data in each of a plurality of sections of voice data, the voice data corresponding to a first user voice input, and control the communication interface to transmit the encrypted data to a server , wherein the processor is characterized in that it is further configured to: obtain a first authentication key that is set based on the encrypted data in a first section of the plurality of sections having been transmitted to the server, and encrypt data in a second section to be transmitted by using the first authentication key, and obtain a second authentication key that is set based on the encrypted data in a third section of the plurality of sections having been transmitted to the server, and encrypt data in a fourth section to be transmitted by using the second authentication key. a communication interface ; and a processor configured to encrypt data in each of a plurality of sections of voice data, the voice data corresponding to a first user voice input, and control the communication interface to transmit the encrypted data to a server , wherein the processor is characterized in that it is further configured to: obtain a first authentication key that is set based on the encrypted data in a first section of the plurality of sections having been transmitted to the server, and encrypt data in a second section to be transmitted by using the first authentication key, and obtain a second authentication key that is set based on the encrypted data in a third section of the plurality of sections having been transmitted to the server, and encrypt data in a fourth section to be transmitted by using the second authentication key. obtain a first authentication key that is set based on the encrypted data in a first section of the plurality of sections having been transmitted to the server, and encrypt data in a second section to be transmitted by using the first authentication key, and obtain a second authentication key that is set based on the encrypted data in a third section of the plurality of sections having been transmitted to the server, and encrypt data in a fourth section to be transmitted by using the second authentication key.
A carbon nanotube dispersion liquid comprising: bundle-type carbon nanotubes; a dispersion medium; and a polyvinyl butyral resin having a weight average molecular weight of greater than 50,000 g/mol, wherein the weight average molecular weight of the polyvinyl butyral resin is measured using gel permeation chromatography, wherein dispersed particle diameters of the bundle-type carbon nanotubes have particle size distribution D 50 of 3 μm to 10 μm, wherein the particle size distribution D 50 is a particle size at 50% base in the particle size distribution and is measured using laser diffraction method. bundle-type carbon nanotubes; a dispersion medium; and a polyvinyl butyral resin having a weight average molecular weight of greater than 50,000 g/mol, wherein the weight average molecular weight of the polyvinyl butyral resin is measured using gel permeation chromatography, wherein dispersed particle diameters of the bundle-type carbon nanotubes have particle size distribution D 50 of 3 μm to 10 μm, wherein the particle size distribution D 50 is a particle size at 50% base in the particle size distribution and is measured using laser diffraction method.
A process of producing a nonwoven sheet material of natural and/or man-made fibres, comprising: a) providing a three-phase (gas-liquid-solid) suspension containing water, natural and/or man-made fibres, a surfactant, and 20-50 vol.% of air, b) depositing the suspension onto a moving carrier sieve to produce a fibrous web on the carrier, c) removing aqueous residue of the suspension through the carrier sieve, and e) recycling the aqueous residue to step a), wherein the aqueous residue, before step e), is subjected to a step d) of phase separation, in which the aqueous residue is conveyed through one or more phase separation tanks in an essentially horizontal direction while providing a depressurised headspace above the aqueous residue, the phase-separation resulting in reducing the air content of the aqueous residue to below 20 vol.%. a) providing a three-phase (gas-liquid-solid) suspension containing water, natural and/or man-made fibres, a surfactant, and 20-50 vol.% of air, b) depositing the suspension onto a moving carrier sieve to produce a fibrous web on the carrier, c) removing aqueous residue of the suspension through the carrier sieve, and e) recycling the aqueous residue to step a), wherein the aqueous residue, before step e), is subjected to a step d) of phase separation, in which the aqueous residue is conveyed through one or more phase separation tanks in an essentially horizontal direction while providing a depressurised headspace above the aqueous residue, the phase-separation resulting in reducing the air content of the aqueous residue to below 20 vol.%.
A method of deploying and inflating an airbag comprising: providing a combustion chamber ; providing an amount of electrically operated propellant within the combustion chamber, said propellant comprising an ionic-based oxidizer such that the propellant has a self-sustaining threshold pressure of at least 1,000 psi at which the ignited propellant cannot be extinguished; coupling an airbag to the combustion chamber; igniting the electrically operated propellant in the chamber by applying an electrical input to the electrically operated propellant; and controlling the electrical input to the electrically operated propellant to vary the rate of combustion of the ignited electrically operated propellant, hence the pressure in the chamber at levels less than the self-sustaining threshold pressure, to control a pressure profile in the airbag and a total pressure impulse delivered to the airbag. providing a combustion chamber ; providing an amount of electrically operated propellant within the combustion chamber, said propellant comprising an ionic-based oxidizer such that the propellant has a self-sustaining threshold pressure of at least 1,000 psi at which the ignited propellant cannot be extinguished; coupling an airbag to the combustion chamber; igniting the electrically operated propellant in the chamber by applying an electrical input to the electrically operated propellant; and controlling the electrical input to the electrically operated propellant to vary the rate of combustion of the ignited electrically operated propellant, hence the pressure in the chamber at levels less than the self-sustaining threshold pressure, to control a pressure profile in the airbag and a total pressure impulse delivered to the airbag.
A semiconductor device, comprising: a first die and a second die bonded face-to-face, the first die comprising first transistors formed on a face side of the first die in a semiconductor portion and at least a contact structure disposed in an insulating portion outside the semiconductor portion , the second die comprising a substrate (103/104) and second transistors formed on a face side of the second die; a first pad structure (122/123) disposed on a back side of the first die and conductively coupled with the contact structure , an end of the contact structure protruding from the insulating portion into the first pad structure (122/123); and a connection structure disposed on the back side of the first die above the semiconductor portion and conductively connected with the semiconductor portion . a first die and a second die bonded face-to-face, the first die comprising first transistors formed on a face side of the first die in a semiconductor portion and at least a contact structure disposed in an insulating portion outside the semiconductor portion , the second die comprising a substrate (103/104) and second transistors formed on a face side of the second die; a first pad structure (122/123) disposed on a back side of the first die and conductively coupled with the contact structure , an end of the contact structure protruding from the insulating portion into the first pad structure (122/123); and a connection structure disposed on the back side of the first die above the semiconductor portion and conductively connected with the semiconductor portion .
A method of encoding a sequence of images into a bitstream using inter prediction, the method comprising: determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; encoding into the bitstream information about the target number for the slice; and performing, for each of one or more of the plurality of blocks in the slice encoded by an inter prediction mode, the steps of: generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, wherein the index information is encoded so that a number of bits in the code for the index information depends on the target number and whereby the information about the target number for the slice is usable to parse the bitstream when decoding the index information corresponding to the selected motion information predictor. determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; encoding into the bitstream information about the target number for the slice; and performing, for each of one or more of the plurality of blocks in the slice encoded by an inter prediction mode, the steps of: generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, wherein the index information is encoded so that a number of bits in the code for the index information depends on the target number and whereby the information about the target number for the slice is usable to parse the bitstream when decoding the index information corresponding to the selected motion information predictor.
A method of producing coated glass, the method comprising providing a glass pane having opposed first and second surfaces, the method further comprising sputtering a metallic indium tin target in an oxidizing atmosphere so as to deposit a substoichiometric indium tin oxide film on the first surface of the glass pane, thereby producing a coated glass pane, the substoichiometric indium tin oxide film having a thickness of less than 1,800 Å, a surface roughness of less than 3 nm, an optical bandgap of 400 nm or longer, and a carrier concentration of 5 x 10 20 /cm 3 or less, the method further comprising flash treating the substoichiometric indium tin oxide film so as to produce a flash-treated indium tin oxide film, the flash treating comprising flash lamp treatment at a peak pulse power of 15-45 kW/cm 2 , the flash-treated indium tin oxide film having a thickness of less than 1,800 Å, a surface roughness of less than 3 nm, an optical bandgap of 370 nm or shorter, a carrier concentration of 9 x 10 20 /cm 3 or more, and a sheet resistance of less than 15 Q/square in combination with providing said coated glass pane with a monolithic visible transmittance of greater than 0.82, the substoichiometric indium tin oxide film being absorptive of energy emitted by a flash of the flash lamp treatment in the 370 to 400 nm range.
A method of performing a quantum gate operation in an ion trap quantum computing system , the ion trap quantum computing system comprising a quantum processor comprising an ion chain including a plurality of trapped ions, each trapped ion having two hyperfine states, a classical computer , a system controller , and one or more lasers controlled by the system controller to emit a first Raman laser beam and a second Raman laser beam, which is provided to the ion chain in the quantum processor, the method comprising: identifying, using the classical computer , one or more error mechanisms that cause a quantum computational error in a quantum gate operation on a first trapped ion of the ion chain , wherein the quantum gate operation is performed by applying, by the system controller, a first Raman laser beam and a second Raman laser beam that are configured to cause a Raman transition in the first trapped ion in the ion chain and a coupling between the first trapped ion and one or more axial motional modes of the ion chain ; measuring, by the system controller, a temperature of an axial motional mode of the ion chain ; computing, by the classical computer , a first amplitude of the first Raman laser beam, and a second amplitude of the second Raman laser beam, based on the measured temperature of the axial motional mode of the ion chain , to suppress errors due to the identified one or more error mechanisms; and suppressing the errors due to the identified one or more error mechanisms, by applying, by the system controller, the first Raman laser beam having the computed first amplitude and the second Raman laser beam having the computed second amplitude on the first trapped ion to perform the quantum gate operation on the first trapped ion. identifying, using the classical computer , one or more error mechanisms that cause a quantum computational error in a quantum gate operation on a first trapped ion of the ion chain , wherein the quantum gate operation is performed by applying, by the system controller, a first Raman laser beam and a second Raman laser beam that are configured to cause a Raman transition in the first trapped ion in the ion chain and a coupling between the first trapped ion and one or more axial motional modes of the ion chain ; measuring, by the system controller, a temperature of an axial motional mode of the ion chain ; computing, by the classical computer , a first amplitude of the first Raman laser beam, and a second amplitude of the second Raman laser beam, based on the measured temperature of the axial motional mode of the ion chain , to suppress errors due to the identified one or more error mechanisms; and suppressing the errors due to the identified one or more error mechanisms, by applying, by the system controller, the first Raman laser beam having the computed first amplitude and the second Raman laser beam having the computed second amplitude on the first trapped ion to perform the quantum gate operation on the first trapped ion.
A suture assembly, comprising: (a) a button having two apertures ; (b) a suture defining a lumen and forming a double loop, formed by a double trap having a first end and a second end , formed in a double trap portion of said suture , opposed to said button , and in which a first portion (A) of said suture is threaded through said lumen in said double trap portion of said suture, from said first end to said second end, and a second portion (B) of said suture is threaded through said lumen in said double trap portion of said suture from said second end to said first end; characterized in that the suture further defines a first single trap , in which said first portion (A) of said suture, after emerging from said second end of said double trap , is threaded through said lumen between said second end and said button and a third trap , in which said second portion (B) of said suture, after emerging from said first end of said double trap , is threaded through said lumen between said first end and said button , said double loop being threaded through said two apertures of said button . (a) a button having two apertures ; (b) a suture defining a lumen and forming a double loop, formed by a double trap having a first end and a second end , formed in a double trap portion of said suture , opposed to said button , and in which a first portion (A) of said suture is threaded through said lumen in said double trap portion of said suture, from said first end to said second end, and a second portion (B) of said suture is threaded through said lumen in said double trap portion of said suture from said second end to said first end; characterized in that the suture further defines a first single trap , in which said first portion (A) of said suture, after emerging from said second end of said double trap , is threaded through said lumen between said second end and said button and a third trap , in which said second portion (B) of said suture, after emerging from said first end of said double trap , is threaded through said lumen between said first end and said button , said double loop being threaded through said two apertures of said button .
Sand mould for casting metal parts, configured to receive the incorporation of an insertable riser base provided with an interior cavity configured to receive molten metal from a feeding riser , characterised in that it comprises a main cavity which can be filled with molten metal to obtain a cast part and, at least, one auxiliary cavity with a geometry that allows the insertion of said riser base , the auxiliary cavity being disposed in respect to the main cavity in such a way that, when the riser base is inserted into the auxiliary cavity , the interior cavity of the riser base puts said main cavity of the mould in communication with a feeding riser , and in that the sand mould is made of silica sand.