mhurhangee/ep-ind-claims huggingface dataset:
A camera module, comprising: a housing including a first housing and a second housing disposed under the first housing; a lens barrel disposed in the housing; an elastic member disposed in the housing and connecting the lens barrel to the housing; and a driving unit including a first driving unit and a second driving unit, the first driving unit including a coil and the second driving unit including a magnetic material, the first driving unit including a horizontal driving unit and a vertical driving unit, characterised in that the second housing is coupled to a lower portion of the first housing, wherein the second driving unit faces the horizontal driving unit in a direction perpendicular to an optical axis of the lens barrel and the second driving unit faces the vertical driving unit in a direction parallel with the optical axis, wherein the vertical driving unit is formed by winding a coil about an axis parallel with the optical axis, and wherein the driving unit moves the lens barrel with reference to the housing in three axis directions perpendicular to each other. a housing including a first housing and a second housing disposed under the first housing; a lens barrel disposed in the housing; an elastic member disposed in the housing and connecting the lens barrel to the housing; and a driving unit including a first driving unit and a second driving unit, the first driving unit including a coil and the second driving unit including a magnetic material, the first driving unit including a horizontal driving unit and a vertical driving unit, characterised in that the second housing is coupled to a lower portion of the first housing, wherein the second driving unit faces the horizontal driving unit in a direction perpendicular to an optical axis of the lens barrel and the second driving unit faces the vertical driving unit in a direction parallel with the optical axis, wherein the vertical driving unit is formed by winding a coil about an axis parallel with the optical axis, and wherein the driving unit moves the lens barrel with reference to the housing in three axis directions perpendicular to each other.
A high voltage electromagnetic induction device comprising: a lead-through device-receiving structure having an opening for receiving a lead-through device, a lead-through device extending through the opening, the lead-through device thereby having an external portion extending outside the lead-through device-receiving structure, and an internal portion extending within the lead-through device-receiving structure, wherein the internal portion is tapering in a direction along the central axis of the lead-through device away from the opening, and an electrical insulation barrier which is arranged in the lead-through device-receiving structure, which electrical insulation barrier is arranged around and distanced from the internal portion, and which electrical insulation barrier is tapering in said direction, whereby a duct is formed between the internal surface of the electrical insulation barrier and the external surface of the internal portion of the lead-through device, characterised in that the electrical insulation barrier is tapering relative to the lead-through device such that the distance between the internal surface of the electrical insulation barrier and the external surface of the lead-through device increases in said direction. a lead-through device-receiving structure having an opening for receiving a lead-through device, a lead-through device extending through the opening, the lead-through device thereby having an external portion extending outside the lead-through device-receiving structure, and an internal portion extending within the lead-through device-receiving structure, wherein the internal portion is tapering in a direction along the central axis of the lead-through device away from the opening, and an electrical insulation barrier which is arranged in the lead-through device-receiving structure, which electrical insulation barrier is arranged around and distanced from the internal portion, and which electrical insulation barrier is tapering in said direction, whereby a duct is formed between the internal surface of the electrical insulation barrier and the external surface of the internal portion of the lead-through device, characterised in that the electrical insulation barrier is tapering relative to the lead-through device such that the distance between the internal surface of the electrical insulation barrier and the external surface of the lead-through device increases in said direction.
A method for allocating resource units in a wireless LAN, comprising: generating, by an access point, AP, a PHY layer protocol data unit, PPDU (1700 to 1770), that is to be transmitted to a plurality of stations, STAs; and transmitting, by the AP, the PPDU (1700 to 1770) to the plurality of STAs through at least one container that is allocated within an available frequency bandwidth, wherein the PPDU (1700 to 1770) includes resource allocation information, wherein the resource allocation information includes first information on a number of STAs being allocated to each of the at least one container, wherein each of the at least one container includes one first resource unit or a plurality of second resource units, wherein a number of tones related to the first resource unit is greater than a number of tones related to the plurality of the second resource units, and wherein when a container of the at least one container includes only the first resource unit and multiple user multiple input multiple output, MU MIMO, is performed for the first resource unit, the resource allocation information further includes second information on a number of STAs performing the MU MIMO. generating, by an access point, AP, a PHY layer protocol data unit, PPDU (1700 to 1770), that is to be transmitted to a plurality of stations, STAs; and transmitting, by the AP, the PPDU (1700 to 1770) to the plurality of STAs through at least one container that is allocated within an available frequency bandwidth, wherein the PPDU (1700 to 1770) includes resource allocation information, wherein the resource allocation information includes first information on a number of STAs being allocated to each of the at least one container, wherein each of the at least one container includes one first resource unit or a plurality of second resource units, wherein a number of tones related to the first resource unit is greater than a number of tones related to the plurality of the second resource units, and wherein when a container of the at least one container includes only the first resource unit and multiple user multiple input multiple output, MU MIMO, is performed for the first resource unit, the resource allocation information further includes second information on a number of STAs performing the MU MIMO.
A method of fabricating a synthetic bone prosthesis comprising: mixing a bioactive glass fiber with a pore former and a liquid to provide a plastically formable batch; kneading the formable batch to distribute the bioactive glass fiber with the pore former, to provide a formable batch of a homogeneous mass of intertangled and overlapping bioactive glass fiber; forming the formable batch into a desired shape to provide a shaped form; drying the shaped form to remove the liquid; and heating the shaped form to a bond formation temperature using an exothermic reaction of the pore former to form bonds between the intertangled and overlapping bioactive glass fiber. mixing a bioactive glass fiber with a pore former and a liquid to provide a plastically formable batch; kneading the formable batch to distribute the bioactive glass fiber with the pore former, to provide a formable batch of a homogeneous mass of intertangled and overlapping bioactive glass fiber; forming the formable batch into a desired shape to provide a shaped form; drying the shaped form to remove the liquid; and heating the shaped form to a bond formation temperature using an exothermic reaction of the pore former to form bonds between the intertangled and overlapping bioactive glass fiber.
An autonomous cleaning robot, comprising: a chassis; at least one motorized drive wheel (120a, 120b) mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers (310a, 310b) mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other (310a, 310b), the cleaning rollers (310a, 310b) drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers (310a, 310b); and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the side brush axis (Zc) is disposed forward of a roller rotation axis of a first cleaning roller of the pair of cleaning rollers, with respect to a forward drive direction of the cleaning robot and laterally beyond an end of a second cleaning roller of the pair of cleaning rollers. a chassis; at least one motorized drive wheel (120a, 120b) mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers (310a, 310b) mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other (310a, 310b), the cleaning rollers (310a, 310b) drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers (310a, 310b); and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the side brush axis (Zc) is disposed forward of a roller rotation axis of a first cleaning roller of the pair of cleaning rollers, with respect to a forward drive direction of the cleaning robot and laterally beyond an end of a second cleaning roller of the pair of cleaning rollers.
A method for the preparation of an asymmetric membrane comprising a less porous top-layer as compared to the underlying membrane structure, wherein said method comprises the steps of: a) casting a solution of a first polymer wherein said first polymer can be cross-linked by a first reactive monomer; b) contacting the upper layer of said cast first polymer solution with a liquid or vapour phase comprising said first reactive monomer, wherein said first reactive monomer reacts with the first polymer thus crosslinking said first polymer within said upper layer of the cast polymer solution and forming said less porous top layer prior to the solidification of the first polymer solution, wherein the solvent used for preparing said liquid phase is not a non-solvent for said first polymer; c) inducing phase inversion of the cast first polymer solution in order to obtain an asymmetric solidified membrane comprising a less porous top-layer. a) casting a solution of a first polymer wherein said first polymer can be cross-linked by a first reactive monomer; b) contacting the upper layer of said cast first polymer solution with a liquid or vapour phase comprising said first reactive monomer, wherein said first reactive monomer reacts with the first polymer thus crosslinking said first polymer within said upper layer of the cast polymer solution and forming said less porous top layer prior to the solidification of the first polymer solution, wherein the solvent used for preparing said liquid phase is not a non-solvent for said first polymer; c) inducing phase inversion of the cast first polymer solution in order to obtain an asymmetric solidified membrane comprising a less porous top-layer.
A compound of formula I: wherein: R 1 and R 2, at each occurrence, independently are selected from a C 1-12 alkyl group, a C 1-12 haloalkyl group, and a phenyl group optionally substituted with 1-4 groups independently selected from halogen, a C 1-6 alkyl group, and a C 1-6 haloalkyl group; R 3, R 4, R 5, and R 6 independently are H or an electron-withdrawing group selected from Br and -CN, wherein either (i) each of R 3 and R 4 is Br or -CN, while each of R 5 and R 6 is H, or (ii) each of R 3 and R 6 is Br or -CN, while each of R 4 and R 5 is H. R 1 and R 2, at each occurrence, independently are selected from a C 1-12 alkyl group, a C 1-12 haloalkyl group, and a phenyl group optionally substituted with 1-4 groups independently selected from halogen, a C 1-6 alkyl group, and a C 1-6 haloalkyl group; R 3, R 4, R 5, and R 6 independently are H or an electron-withdrawing group selected from Br and -CN, wherein either (i) each of R 3 and R 4 is Br or -CN, while each of R 5 and R 6 is H, or (ii) each of R 3 and R 6 is Br or -CN, while each of R 4 and R 5 is H.
A fuel pipe comprising a base steel pipe covered by a multi-layered plated layer including a first ZnNi alloy plated layer, a second ZnNi plated layer and a chromate film characterized in that: the first ZnNi alloy plated layer, has a Ni content of 5% to 9% and a layer thickness of 3 μm to 9 μm, formed as a first layer on an outer circumferential surface of the base steel pipe; the second ZnNi alloy plated layer, has a Ni content of 10% to 15% and a layer thickness of 1 μm to 3 μm, deposited as a second layer on the first ZnNi alloy plated layer; and the chromate film, is formed on the second ZnNi alloy plated layer; and wherein said multi layered plated layer provides heat resistance, corrosion resistance and excellent workability of the pipe. the first ZnNi alloy plated layer, has a Ni content of 5% to 9% and a layer thickness of 3 μm to 9 μm, formed as a first layer on an outer circumferential surface of the base steel pipe; the second ZnNi alloy plated layer, has a Ni content of 10% to 15% and a layer thickness of 1 μm to 3 μm, deposited as a second layer on the first ZnNi alloy plated layer; and the chromate film, is formed on the second ZnNi alloy plated layer; and wherein said multi layered plated layer provides heat resistance, corrosion resistance and excellent workability of the pipe.
A device for determining dynamically a respiratory feature in a spontaneously breathing patient receiving mechanical ventilatory assist, comprising a ventilator for applying mechanical ventilatory assist to the patient, and a controller of the ventilator for modifying a level of mechanical ventilatory assist to the patient; an airway pressure detector for measuring an airway pressure (P aw) in the ventilator or in the patient's airway and for detecting a change of gradient of the measured airway pressure (P aw); and - characterised in that the device further comprises a calculator, connected to the airway pressure detector, for determining the respiratory feature based on the airway pressure (P aw) measured upon detecting the change of gradient of the measured airway pressure (P aw). - characterised in that the device further comprises a calculator, connected to the airway pressure detector, for determining the respiratory feature based on the airway pressure (P aw) measured upon detecting the change of gradient of the measured airway pressure (P aw).
A rubber composition comprising a natural rubber and/or a synthetic rubber, wherein carbon black contained in the rubber has ΔD 80 and ΔD 10 satisfying 0.01 μm ≤ particle size distribution ΔD 80 ≤ 0.06 μm and 0.2 μm ≤ particle size distribution ΔD 10 ≤ 0.6 μm, and the composition contains at least one compound selected from carbon black coupling agents consisting of bismaleimide, alkylidene hydrazide, disulfane and carboxylic hydrazide; (wherein ΔD 80 and ΔD 10 each represent widths of distribution at 80 % and 10 % of a maximum point in terms of a height of a frequency in an aggregate mass distribution curve obtained by centrifugal settling particle size distribution measurement according to JIS K6217-6).
A process for the isolation of a native potato protein fraction from potato juice, comprising the steps of a) adjusting the pH of the potato juice to 4.0-6.5; b) contacting the potato juice with a functionalised support carrier having pores wherein at least 90 % of the pores have a pore diameter between 10 and 200 nm, and wherein the carrier is functionalised with a hydrophobic, mixed-mode ligand having a pKa of 2.5 - 5 which ligand is coupled to the carrier through an S- or O-atom; c) desorbing the potato protein fraction from the functionalised support carrier by elution; and d) optionally concentrating and/or drying the potato protein fraction. a) adjusting the pH of the potato juice to 4.0-6.5; b) contacting the potato juice with a functionalised support carrier having pores wherein at least 90 % of the pores have a pore diameter between 10 and 200 nm, and wherein the carrier is functionalised with a hydrophobic, mixed-mode ligand having a pKa of 2.5 - 5 which ligand is coupled to the carrier through an S- or O-atom; c) desorbing the potato protein fraction from the functionalised support carrier by elution; and d) optionally concentrating and/or drying the potato protein fraction.
- Use of compounds having a triterpenoid structure with two methyl functions in position 4 and at least one hydroxyl function in positions 3 and 7, said compounds comprising ganoderic acids chosen from the species B, C 2, G, alone or in combination, as a cosmetic agent having anti-aging effects.
A protection device for the ischial, perineal and urogenital area of a user, characterized in that it comprises: - a folding main body, which is shaped substantially like a parallelogram and the internal surface of which is stably associated with multiple paddings (9a, 9b, 9c, 9d, 9e, 9f, 9g, 9h, 9i, 91) which are separated by a plurality of dividing segments (10a, 10b, 10c, 10d, 10e), - two elastically extendable straps (11a, 11b), which are stably associated at a first end thereof (12a, 12b) with said main body, - at least one means (14a, 14b) for temporary interconnection, which is associated detachably with a second end (15a, 15b) of one of said straps (11a, 11b). - a folding main body, which is shaped substantially like a parallelogram and the internal surface of which is stably associated with multiple paddings (9a, 9b, 9c, 9d, 9e, 9f, 9g, 9h, 9i, 91) which are separated by a plurality of dividing segments (10a, 10b, 10c, 10d, 10e), - two elastically extendable straps (11a, 11b), which are stably associated at a first end thereof (12a, 12b) with said main body, - at least one means (14a, 14b) for temporary interconnection, which is associated detachably with a second end (15a, 15b) of one of said straps (11a, 11b).
A composition suitable as a surface treatment composition, which comprises an organosilicon compound of formula: F-(CF 2) q -(OC 3 F 6) m -(OC 2 F 4) n -(OCF 2) o -(CH 2) p -X-(CH 2) r -C 3 H 6 -Si(X') 3- a (R 1) a wherein X is O or a bivalent organic group; R 1 is a linear or branched C 1-22 -hydrocarbon group not having an unsaturated aliphatic bond; X' is hydrolysable group, a is an integer of 0-2; m is an integer of 0-200; n is an integer of 0-200; o is an integer of 0-200; p is 1 or 2; q is an integer of 1-3; r is an integer of 0-17; and which contains, based on the composition, < 25 mol% of fluorine-containing compounds of formulae and: F-(CF 2) q -(OC 3 F 6) m -(OC 2 F 4) n -(OCF 2) o -F F-(CF 2) q -(OC 3 F 6) m -(OC 2 F 4) n -(OCF 2) o -(CH 2) p -X-(CH 2) r -CH=CHCH 3 wherein m, n, o, p, q, r and X are as described above. X is O or a bivalent organic group; R 1 is a linear or branched C 1-22 -hydrocarbon group not having an unsaturated aliphatic bond; X' is hydrolysable group, a is an integer of 0-2; m is an integer of 0-200; n is an integer of 0-200; o is an integer of 0-200; p is 1 or 2; q is an integer of 1-3; r is an integer of 0-17;
A method of liquid electroprinting, LEP, an electronic component, comprising steps of: electrostatically printing a polymer through an electric field onto a substrate, at least a portion of said printing occurring while the polymer is in a first conductive state; and altering the polymer to a second conductive state that is more conductive than the first conductive state, thereby forming the electronic component, characterized in that altering the polymer comprises oxidation by contacting or treating the polymer with a developer or electrochemical oxidation. electrostatically printing a polymer through an electric field onto a substrate, at least a portion of said printing occurring while the polymer is in a first conductive state; and altering the polymer to a second conductive state that is more conductive than the first conductive state, thereby forming the electronic component, characterized in that altering the polymer comprises oxidation by contacting or treating the polymer with a developer or electrochemical oxidation.
Iterative method for controlling a production process of at least one of a compound material and a product formed out of the compound material, the method comprising the 5 following steps: providing a closed loop production control unit; providing at least one nominal parameter to the closed loop production control unit; providing at least one indicating parameter to the closed loop production control unit in a first production cycle; deciding by the closed loop production control unit taking into consideration both process parameters and material recipe parameters whether a setting of at least one correcting parameter for a subsequent process cycle is necessary (S4a); wherein the decision is based on the indicating parameter and the nominal parameter; wherein the indicating parameter and the nominal parameter are selected from the group comprising process parameters, material recipe parameters and product property parameters; wherein the correcting parameter is selected from the group comprising process parameters and material recipe parameters. providing a closed loop production control unit; providing at least one nominal parameter to the closed loop production control unit; providing at least one indicating parameter to the closed loop production control unit in a first production cycle; deciding by the closed loop production control unit taking into consideration both process parameters and material recipe parameters whether a setting of at least one correcting parameter for a subsequent process cycle is necessary (S4a); wherein the decision is based on the indicating parameter and the nominal parameter; wherein the indicating parameter and the nominal parameter are selected from the group comprising process parameters, material recipe parameters and product property parameters; wherein the correcting parameter is selected from the group comprising process parameters and material recipe parameters.