mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of a shaped material , such as a disk for a disk brake, preferably a ventilated disk, comprising the following steps: i) providing a fabric predominantly or exclusively made of carbon fibres , manufactured in a spiral shape around a development axis (X), in the form of a ribbon that extends in curvilinear fashion around said axis (X); ii) axially overlapping the coils of said fabric so as to form a plurality of layers of material ; iii) optionally needling the coils of step ii), so as to transpose the carbon fibres or precursors of such fibres through the thickness of the layers of material ; iv) impregnating at least part of the layers of material of step ii) or step iii) by means of an impregnating agent, for example a phenolic resin; v) densifying the product of step iii) or iv) up to a desired density range to obtain the shaped material . i) providing a fabric predominantly or exclusively made of carbon fibres , manufactured in a spiral shape around a development axis (X), in the form of a ribbon that extends in curvilinear fashion around said axis (X); ii) axially overlapping the coils of said fabric so as to form a plurality of layers of material ; iii) optionally needling the coils of step ii), so as to transpose the carbon fibres or precursors of such fibres through the thickness of the layers of material ; iv) impregnating at least part of the layers of material of step ii) or step iii) by means of an impregnating agent, for example a phenolic resin; v) densifying the product of step iii) or iv) up to a desired density range to obtain the shaped material .
Device for damaging weeds, having - a treatment tool which is designed to damage the weeds; - a classification unit which has position data of the weeds and/or is designed to detect weeds; - a localization unit which is designed to determine a relative position between the treatment tool and the weeds; and - a manipulator unit which is designed to position the treatment tool appropriately in a manner dependent on the determined relative position, characterized in that the treatment tool is designed to exert a pressure in the form of a pulse in order to damage the weeds, wherein the treatment tool is formed in particular as a stamp . - a treatment tool which is designed to damage the weeds; - a classification unit which has position data of the weeds and/or is designed to detect weeds; - a localization unit which is designed to determine a relative position between the treatment tool and the weeds; and - a manipulator unit which is designed to position the treatment tool appropriately in a manner dependent on the determined relative position,
A supporting pad for a hiking stick, which is in the form of a stick consisting of a longitudinal tubular profile section with an axis (X, X') whose upper end is equipped with a retaining handle and whose lower end comprises the supporting pad , whereas the periphery of the supporting face of the supporting pad comprises a plurality of supporting and hooking projections (3a, 3b, 3'b, 3c, 3'c, 3d, 3'd, 3e), the projections being elastically deformable to return into their initial position after deformation and that said supporting pad consists of a pad body made of a rigid material, characterised in that the supporting and hooking projections (3a, 3b, 3'b, 3c, 3'c, 3d, 3'd, 3e) are carried by a crown mounted on an assembly part , and in that the crown is fastened by clipping to the pad body so as to be dismountable.
An embedded universal integrated circuit card, eUICC, configured to control and enforce policy rules, the eUICC including a policy rule storage configured to define actions and conditions required to enforce a plurality of policies and store a plurality of policy rules, the eUICC comprising: a policy controller configured to control the plurality of policy rules; and a policy enforcer configured to enforce the plurality of policy rules, wherein a policy is a principle reflecting rules for controlling the eUICC and an external entity remotely managing the eUICC , and wherein the plurality of policy rules include first type of policy rules associated with the eUICC and second type of policy rules associated with a profile, the first type of policy rules and the second type of policy rules being managed in physically different places, and wherein the first type of policy rules includes a first policy rule of which a type is eUICC capabilities and has a download and loading-allowed profile identifier, ID, list as a variable, a policy controller configured to control the plurality of policy rules; and a policy enforcer configured to enforce the plurality of policy rules, wherein a policy is a principle reflecting rules for controlling the eUICC and an external entity remotely managing the eUICC , and wherein the plurality of policy rules include first type of policy rules associated with the eUICC and second type of policy rules associated with a profile, the first type of policy rules and the second type of policy rules being managed in physically different places, and wherein the first type of policy rules includes a first policy rule of which a type is eUICC capabilities and has a download and loading-allowed profile identifier, ID, list as a variable,
A warming article having a heat generating main body comprising a heat generating element having water vapor generating capability and an air permeable holder for holding the heat generating element , the heat generating main body being expandable by water vapor generated with heat generation of the heat generating element , wherein the heat generating element comprises a molded sheet prepared by papermaking and containing an oxidizable metal, a moisture-retaining agent, a fibrous material, and water, wherein: - the volume expansion ratio of the warming article is 1.5 to 10000, - the warming article has a water vapor permeability of 1.5 to 10 kg/(m 2 ·24 hr) and an air permeability of 10 to 5000 sec/100 ml, - the warming article generates 1.0 to 100 mg/(cm 2 ·10 min) of water vapor, - the holder has a water vapor permeability of 1.5 to 10 kg/(m 2 ·24 hr), and - the molded sheet , when free from an electrolyte and water, contains from 80% to 98% by weight of components other than the fibrous material, and the fibrous material has a CSF of 600 ml or less. - the volume expansion ratio of the warming article is 1.5 to 10000, - the warming article has a water vapor permeability of 1.5 to 10 kg/(m 2 ·24 hr) and an air permeability of 10 to 5000 sec/100 ml, - the warming article generates 1.0 to 100 mg/(cm 2 ·10 min) of water vapor, - the holder has a water vapor permeability of 1.5 to 10 kg/(m 2 ·24 hr), and - the molded sheet , when free from an electrolyte and water, contains from 80% to 98% by weight of components other than the fibrous material, and the fibrous material has a CSF of 600 ml or less.
A method for manufacturing a vane for a turbine engine including a root connected to a blade extending according to a longitudinal direction, the method comprising the steps of: a) providing a root made of a titanium-based alloy, the root being intended to be assembled on a disc, said root being preferably made by additive manufacturing; b) providing a mould comprising a first cavity and a second cavity together defining a recess in which the blade is intended to be formed, said recess comprising a first space intended to form the blade and a second space intended to form the root , c) providing aluminium strips including a coating comprising at least one of the hydrophobic and anti-erosion functions and placing them in contact: o with the first cavity in the first space of the recess , and/or o with the second cavity in the first space of the recess ; d) placing a fibrous reinforcement in the first space of the recess and/or in the second space of the recess and at least partially in contact with the aluminium strips ; e) arranging said vane root in the second space of the recess of said mould ; f) injecting a compound comprising aluminium into the first space of the recess of the mould so that the compound impregnates the fibrous reinforcement. a) providing a root made of a titanium-based alloy, the root being intended to be assembled on a disc, said root being preferably made by additive manufacturing; b) providing a mould comprising a first cavity and a second cavity together defining a recess in which the blade is intended to be formed, said recess comprising a first space intended to form the blade and a second space intended to form the root , c) providing aluminium strips including a coating comprising at least one of the hydrophobic and anti-erosion functions and placing them in contact: o with the first cavity in the first space of the recess , and/or o with the second cavity in the first space of the recess ; o with the first cavity in the first space of the recess , and/or o with the second cavity in the first space of the recess ; d) placing a fibrous reinforcement in the first space of the recess and/or in the second space of the recess and at least partially in contact with the aluminium strips ; e) arranging said vane root in the second space of the recess of said mould ; f) injecting a compound comprising aluminium into the first space of the recess of the mould so that the compound impregnates the fibrous reinforcement.
A fixed-wing combat aircraft comprising: - an electrical power source , - a propulsion system , - a low-power non-propulsion assembly comprising a flight control system, - a high-power non-propulsion assembly comprising an electrical weapon system , and - a management unit configured to selectively establish on command multiple operating modes comprising: - a flight mode, in which the management unit distributes the electrical power supplied by the electrical power source depending on the needs to the propulsion system and to the low-power non-propulsion assembly , and - an attack mode, in which the management unit limits the electrical power supplied by the electrical power source to the propulsion system and to the low-power non-propulsion assembly , to the power required to allow the aircraft to glide, and reserves a majority of the available electrical power for the high-power non-propulsion assembly . - an electrical power source , - a propulsion system , - a low-power non-propulsion assembly comprising a flight control system, - a high-power non-propulsion assembly comprising an electrical weapon system , and - a management unit configured to selectively establish on command multiple operating modes comprising: - a flight mode, in which the management unit distributes the electrical power supplied by the electrical power source depending on the needs to the propulsion system and to the low-power non-propulsion assembly , and - an attack mode, in which the management unit limits the electrical power supplied by the electrical power source to the propulsion system and to the low-power non-propulsion assembly , to the power required to allow the aircraft to glide, and reserves a majority of the available electrical power for the high-power non-propulsion assembly . - a flight mode, in which the management unit distributes the electrical power supplied by the electrical power source depending on the needs to the propulsion system and to the low-power non-propulsion assembly , and - an attack mode, in which the management unit limits the electrical power supplied by the electrical power source to the propulsion system and to the low-power non-propulsion assembly , to the power required to allow the aircraft to glide, and reserves a majority of the available electrical power for the high-power non-propulsion assembly .
A waste separator scrap oil extraction device comprising: a first extraction means into which pulverized scrap is input, and configured to extrude and pressurize the input pulverized scrap by a pressurization method with a screw to primarily remove oil contained in the scrap; and a secondary extraction means into which the scrap from which the oil is separated by the first extraction means is input, wherein the secondary extraction means is configured to apply heat to the scrap when the scrap is transferred by a screw, convert remaining oil remaining in the heated scrap into oil vapor, and discharge the scrap from which the oil is secondarily removed while vacuum-suctioning the generated oil vapor. a first extraction means into which pulverized scrap is input, and configured to extrude and pressurize the input pulverized scrap by a pressurization method with a screw to primarily remove oil contained in the scrap; and a secondary extraction means into which the scrap from which the oil is separated by the first extraction means is input, wherein the secondary extraction means is configured to apply heat to the scrap when the scrap is transferred by a screw, convert remaining oil remaining in the heated scrap into oil vapor, and discharge the scrap from which the oil is secondarily removed while vacuum-suctioning the generated oil vapor.
A sterilely packaged set of right and left glove-in-gloves , each glove-in-glove comprising: an outer glove having a thumb and a plurality of fingers , further comprising crotches between adjacent fingers and thumb ; and an inner glove having a thumb and a plurality of fingers with finger tips, further comprising crotches between adjacent fingers and thumb , characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material ; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer , and the inner gloves have a lesser cross-sectional thickness than the outer . an outer glove having a thumb and a plurality of fingers , further comprising crotches between adjacent fingers and thumb ; and an inner glove having a thumb and a plurality of fingers with finger tips, further comprising crotches between adjacent fingers and thumb , characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material ; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer , and the inner gloves have a lesser cross-sectional thickness than the outer . characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material ; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer , and the inner gloves have a lesser cross-sectional thickness than the outer . wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material ; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer , and the inner gloves have a lesser cross-sectional thickness than the outer .
A method for scaling-up a fluid catalytic reactor, the method comprising: one or more of constructing, operating, observing, or obtaining data related to a template fluid catalytic reactor comprising a template riser , a template lower reactor portion , and a template transition portion connecting the template riser and the template lower reactor portion ; one or more of constructing or operating a scaled-up fluid catalytic reactor based on the template fluid catalytic reactor , the scaled-up fluid catalytic reactor comprising a scaled-up riser , a scaled-up lower reactor portion , and a scaled-up transition portion connecting the scaled-up riser and the scaled-up lower reactor portion , wherein: the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion . one or more of constructing, operating, observing, or obtaining data related to a template fluid catalytic reactor comprising a template riser , a template lower reactor portion , and a template transition portion connecting the template riser and the template lower reactor portion ; one or more of constructing or operating a scaled-up fluid catalytic reactor based on the template fluid catalytic reactor , the scaled-up fluid catalytic reactor comprising a scaled-up riser , a scaled-up lower reactor portion , and a scaled-up transition portion connecting the scaled-up riser and the scaled-up lower reactor portion , wherein: the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion . the ratio of the cross-sectional area of the scaled-up riser to the cross-sectional area of the template riser is from 80% to 120% of a scale-up factor; the ratio of the cross-sectional area of the scaled-up lower reactor portion to the cross-sectional area of the template lower reactor portion is from 80% to 120% of the scale-up factor; the scale-up factor is at least 1.3; and the height of the scaled-up transition portion is at least 70% of the width of the scaled-up riser and from 70% to 130% of the height of the template transition portion .
Wireless power transfer arrangement , particularly for wireless charging of a battery , including a primary side and a secondary side , the primary side including an input stage for converting an input power to an AC primary output and a primary resonator for receiving the AC primary output and inducing a magnetic field for wireless power transfer, the secondary side including a secondary resonator for converting the power received through the magnetic field to an AC secondary output and an output stage for converting the AC secondary output to a DC secondary output , wherein the wireless power transfer arrangement further includes a control arrangement adapted to control independently of each other a) a frequency of the AC primary output to be at a resonance frequency of the resonators , and b) the power transferred from the primary side to the secondary side by controlling the voltage or the current of the AC primary output characterised in that c) the controller is adapted to control the frequency of the AC primary output by controlling a phase angle between the voltage and the current of the AC primary output to be as small as possible but equal to or higher than a minimum phase angle d) wherein the minimum phase angle is equal to or greater than a charging angle φ c with φ c = ωt c , wherein ω is an angular frequency of the AC primary output and t c is a charging time of an internal capacity of the input stage . a) a frequency of the AC primary output to be at a resonance frequency of the resonators , and b) the power transferred from the primary side to the secondary side by controlling the voltage or the current of the AC primary output characterised in that c) the controller is adapted to control the frequency of the AC primary output by controlling a phase angle between the voltage and the current of the AC primary output to be as small as possible but equal to or higher than a minimum phase angle d) wherein the minimum phase angle is equal to or greater than a charging angle φ c with φ c = ωt c , wherein ω is an angular frequency of the AC primary output and t c is a charging time of an internal capacity of the input stage .
A reagent used for a glucose sensor for electrochemical, quantitative determination of glucose, comprising a flavin adenine dinucleotide glucose dehydrogenase, single-walled carbon nanotubes, and a dispersant, which can prevent bundling of the single-walled carbon nanotubes, the dispersant including at least one type of compound selected from an anionic compound, a cationic compound, and a nonionic compound.
An active viral-safe platelet extract derived from multiple donors comprising a mixture of biologically active platelet cell growth factors and/or trophic factors for use in therapy, the platelet extract comprising PDGF-AB, b-FGF, VEGF and TGFb1, wherein the ratio for PDGF-AB : VEGF is at least 74 and the ratio for PDGF-AB : TGFb1 is at least 0.56, wherein the extract is rendered viral-safe by two orthogonal viral inactivation steps, and wherein the viral inactivation steps comprise solvent detergent (S/D) viral inactivation treatment and pasteurisation.
An integrated circuit configured for memory sharing, the integrated circuit comprising: multiple components comprising one or more components and a processing component , the processing component including: computational circuitry ; and a memory coupled to the computational circuitry ; a multi-component cache controller coupled to the memory ; and logic circuitry coupled to the multi-component cache controller and the memory , the logic circuitry configured to selectively separate the memory into multiple memory partitions , characterized in that the multiple memory partitions include: a first memory partition (108-1) allocated to the computational circuitry and configured to provide storage to the computational circuitry ; and a second memory partition (108-2) allocated to the multi-component cache controller and configured to provide storage to the one or more components . multiple components comprising one or more components and a processing component , the processing component including: computational circuitry ; and a memory coupled to the computational circuitry ; computational circuitry ; and a memory coupled to the computational circuitry ; a multi-component cache controller coupled to the memory ; and logic circuitry coupled to the multi-component cache controller and the memory , the logic circuitry configured to selectively separate the memory into multiple memory partitions , characterized in that the multiple memory partitions include: a first memory partition (108-1) allocated to the computational circuitry and configured to provide storage to the computational circuitry ; and a second memory partition (108-2) allocated to the multi-component cache controller and configured to provide storage to the one or more components . a first memory partition (108-1) allocated to the computational circuitry and configured to provide storage to the computational circuitry ; and a second memory partition (108-2) allocated to the multi-component cache controller and configured to provide storage to the one or more components .