mhurhangee/ep-ind-claims huggingface dataset:
A head mounted device configured to be mounted on a head portion of a user when used, the head mounted device comprising: display means for displaying an image to the user; mount means for mounting the display means on the head portion of the user; and a holding member (260; 360; 440, 460, 470; 540, 560, 570; 640, 660, 670; 740, 760, 770) provided to the mount means and configured to hold the head portion of the user with respect to the mount means, the holding member including a forehead holding member (240; 340; 440; 540; 640; 740) and temporal portion holding members (260; 360; 460; 560; 660; 760), wherein the holding member includes an elastic member and a packaging member enclosing the elastic member, wherein the packaging member is substantially impermeable to air, characterized in that: an air escape hole (261; 361; 441, 461, 462, 471; 541, 561, 562, 571; 641, 661, 671; 741, 761, 771) is formed in the packaging member, wherein the escape hole is formed in the forehead holding member (640; 740) and in the temporal portion holding members (660; 760), and wherein an area of the escape hole (661; 761) formed in the respective temporal portion holding members (660; 760) is larger than an area of the escape hole (641; 741) formed in the forehead holding member (640; 740). display means for displaying an image to the user; mount means for mounting the display means on the head portion of the user; and a holding member (260; 360; 440, 460, 470; 540, 560, 570; 640, 660, 670; 740, 760, 770) provided to the mount means and configured to hold the head portion of the user with respect to the mount means, the holding member including a forehead holding member (240; 340; 440; 540; 640; 740) and temporal portion holding members (260; 360; 460; 560; 660; 760), wherein the holding member includes an elastic member and a packaging member enclosing the elastic member, wherein the packaging member is substantially impermeable to air, characterized in that: an air escape hole (261; 361; 441, 461, 462, 471; 541, 561, 562, 571; 641, 661, 671; 741, 761, 771) is formed in the packaging member, wherein the escape hole is formed in the forehead holding member (640; 740) and in the temporal portion holding members (660; 760), and wherein an area of the escape hole (661; 761) formed in the respective temporal portion holding members (660; 760) is larger than an area of the escape hole (641; 741) formed in the forehead holding member (640; 740). an air escape hole (261; 361; 441, 461, 462, 471; 541, 561, 562, 571; 641, 661, 671; 741, 761, 771) is formed in the packaging member, wherein the escape hole is formed in the forehead holding member (640; 740) and in the temporal portion holding members (660; 760), and wherein an area of the escape hole (661; 761) formed in the respective temporal portion holding members (660; 760) is larger than an area of the escape hole (641; 741) formed in the forehead holding member (640; 740).
A multi-core processing system comprising: a system memory; a first processor core of a first type to execute program code; a second processor core of a second type different from the first type; a code distribution module configured to define a predict performance function, including running n pieces of code, on both the first processor core and the second processor core and collecting their respective performance information and statistics, on the two cores, respectively, to predict the performance of execution of the program code on the second processor core with the predict performance function, while the first processor core executes the program code and switch execution of the program code from the first processor core to the second processor core in response to a prediction that the performance of execution of the second processor core is better than the performance of execution of the first processor core. a system memory; a first processor core of a first type to execute program code; a second processor core of a second type different from the first type; a code distribution module configured to define a predict performance function, including running n pieces of code, on both the first processor core and the second processor core and collecting their respective performance information and statistics, on the two cores, respectively, to predict the performance of execution of the program code on the second processor core with the predict performance function, while the first processor core executes the program code and switch execution of the program code from the first processor core to the second processor core in response to a prediction that the performance of execution of the second processor core is better than the performance of execution of the first processor core.
A method for measuring a length in a mobile terminal, the method comprising: selecting a virtual measuring tape function; setting a reference object, the reference object being a target; measuring a length of a subject based on a spaced distance of the reference object, the spaced distance being measured by a laser when the reference object, brought into contact with the mobile terminal and one end of the subject, is spaced apart therefrom; and outputting a final length of the subject when the reference object reaches another end of the subject. selecting a virtual measuring tape function; setting a reference object, the reference object being a target; measuring a length of a subject based on a spaced distance of the reference object, the spaced distance being measured by a laser when the reference object, brought into contact with the mobile terminal and one end of the subject, is spaced apart therefrom; and outputting a final length of the subject when the reference object reaches another end of the subject.
A process for purification of an exhaust gas comprising nitrogen oxides, carbon monoxide, hydrocarbons and particulate matters from an internal combustion engine comprising the step of contacting the exhaust gas with one or more catalysts on one or more cross corrugated wire mesh sheets being arranged between two or more gas impermeable cross corrugated sheets.
A method for diagnosing Alzheimer's disease in a symptomatic human subject comprising the steps of (a) culturing two otherwise identical populations of B lymphocytes from the subject under conditions that preserve B lymphocyte viability and/or permit the B lymphocytes to proliferate, the first population comprising a suitable concentration of amylospheroid of greater than 0 nM and less than 500 nM and the second population being free of amylospheroid; (b) separately measuring the amount of PKCε in the cultured B lymphocytes from the first and second populations; and (c) comparing the measurements of step (b), whereby the subject is afflicted with Alzheimer's disease if the amount of PKCε in the cultured B lymphocytes from the first population is greater than or equal to the amount of PKCε in the cultured B lymphocytes from the second population.
A wall system comprising at least one wall module and at least one linking element (31; 31'; 31"; 31′′′; 31ʺʺ), wherein said wall module comprises a substantially rectangular plate, said rectangular plate comprising two side edges (5a, 5b), one top edge and one bottom edge, said side edges (5a, 5b) each comprising a side edge bent configuration, wherein said side edge bent configuration comprises a first side bend, a second side bend and a third side bend, wherein all three side bends (13a,b,c) are substantially 180° or 160-200 ° and are provided along different bending lines being parallel with the side edges (5a, 5b) of the plate, whereby the side edge bent configuration comprises a first bent side part provided along the side edge (5a, 5b) of the plate between the first side bend and the second side bend, a second bent side part provided along the side edge of the plate between the second side bend and the third side bend and a third bent side part provided along the side edge of the plate between the third side bend and an open end side or possibly a fourth bent side part of the plate, wherein said first bent side part is provided between the plate and said second bent side part and wherein said third bent side part is provided in between said first and said second bent side parts (15a, 15b) and which third bent side part is smaller than both the first and the second bent side parts (15a, 15b), wherein said linking element (31; 31'; 31"; 31′′′; 31ʺʺ) comprises an elongated rectangular plate (33; 33') comprising two side parts (45a, 45b: 45a', 45b') along a length of said plate (33; 33') and a middle part (47; 47') along the length of said plate between said two side parts, wherein said two side parts (45a, 45b; 45a', 45b') comprise locking features (43a, 43b; 201; 43a', 43b'; 43a"; 43b"; 43a′′′; 43b′′′), wherein the radius of the second side bend of the wall module is provided such that a side part (45a, 45b; 45a', 45b') of the linking element (31; 31'; 31"; 31′′′; 31ʺʺ) can be provided into an opening between the first and third bent side parts (15a, 15c) of the wall module and during the connection will be passing the third bent side part which finally will lock a side part (45a, 45b; 45a', 45b') of the linking element (31; 31'; 31"; 31′′′; 31ʺʺ) within the side edge bent configuration of the wall module when a wall module and a linking element have been connected, whereby a width of the middle part (47; 47') corresponds substantially to a width of the third bent side part of the wall module times two.
A computer-implemented method for incorporating an uploaded image into a product design, the method comprising providing a product design for displaying to a user, the design displaying to the user an image area having a predetermined position and predetermined first and second dimensions in the design and intended to contain an image uploaded by the user, in response to a first request type to incorporate an uploaded image into the image area, creating a resized image by automatically resizing the uploaded image such that the resized image retains the aspect ratio of the uploaded image, one of the dimensions of the resized image is equal to the corresponding dimension of the area, and the other dimension of the resized image is equal to or smaller than the corresponding other dimension of the area, revising the product design by automatically incorporating the resized image into the product design such that the resized image appears within the area, in response to a second request type to incorporate an uploaded image into an image area in the design, resizing and cropping the uploaded image to create an image version that is the same size as the image area, and revising the product design by automatically incorporating the image version into the product design such that the image version appears within the area, providing the revised product design for displaying to the user, wherein the image or image area is one of a plurality of image types or image area types and wherein the requested type of incorporation is determined by the image type of the selected image or image area, respectively.
A system for reproducing aerodynamic boundary layer transition conditions in a wind tunnel test environment under ambient to cryogenic temperature conditions between about -250°F to about 100°F (about -160°C to about 38°C), the system comprising: a test component disposed in the wind tunnel test environment and defining an exterior surface; at least one trip dot, wherein the trip dot is an artificial boundary layer transition device in the form of a dot, mounted on the test component and having a first state, in which a distal surface of the at least one trip dot is at a first elevation relative to the exterior surface of the test component, wherein the first elevation is a first height above the exterior surface, and a second state, in which the distal surface of the at least one trip dot is at a second elevation relative to the exterior surface of the test component, wherein the second elevation is a second height above the exterior surface that is greater than the first height; an actuator (120, 120', 120", 120"') operably coupled to the at least one trip dot and configured to transition the at least one trip dot between first and second states; one or more sensors (122, 124, 134, 136) for providing data indicative of one or more conditions in the wind tunnel test environment; a controller in communication with the actuator (120, 120', 120", 120′′′) and configured to remotely cause the actuator (120, 120', 120", 120"') to transition the at least one trip dot between the first and second states. a test component disposed in the wind tunnel test environment and defining an exterior surface; at least one trip dot, wherein the trip dot is an artificial boundary layer transition device in the form of a dot, mounted on the test component and having a first state, in which a distal surface of the at least one trip dot is at a first elevation relative to the exterior surface of the test component, wherein the first elevation is a first height above the exterior surface, and a second state, in which the distal surface of the at least one trip dot is at a second elevation relative to the exterior surface of the test component, wherein the second elevation is a second height above the exterior surface that is greater than the first height; an actuator (120, 120', 120", 120"') operably coupled to the at least one trip dot and configured to transition the at least one trip dot between first and second states; one or more sensors (122, 124, 134, 136) for providing data indicative of one or more conditions in the wind tunnel test environment; a controller in communication with the actuator (120, 120', 120", 120′′′) and configured to remotely cause the actuator (120, 120', 120", 120"') to transition the at least one trip dot between the first and second states.
A wiper system for clearing a surface of a dome, the system comprising: a wiper blade assembly (110A,110B) including a wiper blade(112A,112B), the wiper blade assembly being configured to move around a circumference of the dome such that rotation of the wiper blade in a first direction around the circumference of the dome deploys the wiper blade into an actuated position and rotation of the wiper blade in a second direction opposite the first direction stows the wiper blades into a collapsed position; a bearing ring extending around the circumference of the dome being fixed relative to the dome; and a top plate configured to rotate about the bearing ring, the wiper blade assembly being coupled to the top plate, wherein the bearing ring further comprises a pivotable ramp thereon, the wiper blade assembly being configured to move along a top surface of the pivotable ramp when the wiper blade assembly rotates in the first direction, and the wiper blade assembly being configured to move along a bottom surface (158, 160) of the pivotable ramp when the wiper blade rotates in the second direction. a wiper blade assembly (110A,110B) including a wiper blade(112A,112B), the wiper blade assembly being configured to move around a circumference of the dome such that rotation of the wiper blade in a first direction around the circumference of the dome deploys the wiper blade into an actuated position and rotation of the wiper blade in a second direction opposite the first direction stows the wiper blades into a collapsed position; a bearing ring extending around the circumference of the dome being fixed relative to the dome; and a top plate configured to rotate about the bearing ring, the wiper blade assembly being coupled to the top plate, wherein the bearing ring further comprises a pivotable ramp thereon, the wiper blade assembly being configured to move along a top surface of the pivotable ramp when the wiper blade assembly rotates in the first direction, and the wiper blade assembly being configured to move along a bottom surface (158, 160) of the pivotable ramp when the wiper blade rotates in the second direction.
A method for assembling an electric motor comprising a casing delimiting a compartment containing an electromagnetic unit (5, 6) consisting of a stator unit and a rotary unit, the casing comprising a substantially cup-shaped part and a closing lid (4, 4a), the method comprising the steps of - inserting the stator unit in the cup-shaped part; - locking the stator unit relative to the cup-shaped part; - providing means for supporting the rotary unit in the casing; - inserting the rotary unit in the cup-shaped part substantially at the stator unit, the rotary unit being constrained to the supporting means; - associating power supply means, for supplying power to the motor, with the electromagnetic unit (5, 6); - providing sealing means (13, 30) between the lid (4, 4a) and the cup-shaped part; - associating the lid (4, 4a) with the cup-shaped part then the step of carrying out electrical tests, the method being characterised in that it comprises, at the end of the electrical tests, the step of - testing the motor tightness by exposing the containment compartment to a different pressure relative to the outside environment, the step of exposing comprising the step of putting the compartment in fluid communication with pneumatic means through an opening in the casing, the opening being the opening present for connection of the power supply means housed in the casing to an external cable, - detecting any passage of a fluid between the outside environment and the compartment after application of said different pressure. - inserting the stator unit in the cup-shaped part; - locking the stator unit relative to the cup-shaped part; - providing means for supporting the rotary unit in the casing; - inserting the rotary unit in the cup-shaped part substantially at the stator unit, the rotary unit being constrained to the supporting means; - associating power supply means, for supplying power to the motor, with the electromagnetic unit (5, 6); - providing sealing means (13, 30) between the lid (4, 4a) and the cup-shaped part; - associating the lid (4, 4a) with the cup-shaped part then the step of carrying out electrical tests, the method being characterised in that it comprises, at the end of the electrical tests, the step of - testing the motor tightness by exposing the containment compartment to a different pressure relative to the outside environment, the step of exposing comprising the step of putting the compartment in fluid communication with pneumatic means through an opening in the casing, the opening being the opening present for connection of the power supply means housed in the casing to an external cable, - detecting any passage of a fluid between the outside environment and the compartment after application of said different pressure.
A stent for treating a diseased section of a blood vessel, comprising a polymeric scaffolding comprising poly(L-lactide) and between 0.05 to 0.5 wt% L-lactide monomer mixed, dispersed, or dissolved within the poly(L-lactide), wherein the crystallinity of the poly(L-lactide) is between 20-50%, and wherein the number average molecular weight of the poly(L-lactide) is between 60,000 and 300,000, relative to polystyrene standards.
Process for recovering and purifying polyhydroxyalkanoates from a cell culture, which comprises: (a) acidifying the cell culture by adding an aqueous solution of an inorganic or organic acid selected from: sulphuric acid, hydrochloric acid, phosphoric acid, nitric acid, acetic acid, citric acid, or mixtures thereof, so as to obtain a pH value equal to or lower than 6, and submitting said cell culture to a cell fractionation treatment by means of high pressure homogenization at a temperature from 10°C to 80°C, so as to obtain a PHA suspension; (b) basifying the PHA suspension thus obtained so as to obtain a pH value equal to or higher than 8; (c) diluting the PHA suspension and submitting it to tangential filtration so as to obtain a concentrated PHA suspension as retentate and an aqueous phase as permeate; (d) submitting the concentrated PHA suspension to a bleaching step; (e) diluting the PHA suspension after the bleaching step and submitting it to tangential filtration so as to obtain a concentrated bleached PHA suspension as retentate and an aqueous phase as permeate; (f) submitting the concentrated bleached PHA suspension to drying. (a) acidifying the cell culture by adding an aqueous solution of an inorganic or organic acid selected from: sulphuric acid, hydrochloric acid, phosphoric acid, nitric acid, acetic acid, citric acid, or mixtures thereof, so as to obtain a pH value equal to or lower than 6, and submitting said cell culture to a cell fractionation treatment by means of high pressure homogenization at a temperature from 10°C to 80°C, so as to obtain a PHA suspension; (b) basifying the PHA suspension thus obtained so as to obtain a pH value equal to or higher than 8; (c) diluting the PHA suspension and submitting it to tangential filtration so as to obtain a concentrated PHA suspension as retentate and an aqueous phase as permeate; (d) submitting the concentrated PHA suspension to a bleaching step; (e) diluting the PHA suspension after the bleaching step and submitting it to tangential filtration so as to obtain a concentrated bleached PHA suspension as retentate and an aqueous phase as permeate; (f) submitting the concentrated bleached PHA suspension to drying.
Method for operating a combustion machine operated with natural gas, having an exhaust-gas purification system which comprises a catalytic converter, comprising: providing a three-cylinder engine with one first and two second cylinders (3; 4, 5), setting a lambda split with setting of a first and of a second lambda value (λ K1, λ K2) of a cylinder-specific supplied air-fuel mixture through dosing of the fuel supply, operating the three-cylinder engine in symmetrical lambda-split operation, and in so doing operating the first cylinder with a lean air-fuel mixture, such that a first exhaust-gas flow with a superstoichiometric first exhaust-gas lambda value (λ 1) is discharged, operating the two second cylinders (4, 5) with a rich air-fuel mixture, such that, in each case, a second exhaust-gas flow with a substoichiometric exhaust-gas lambda value (λ 2) is discharged, such that in an overall exhaust-gas flow, atmospheric oxygen from the first cylinder and unburned fuel from the second cylinders (4, 5) in a substantially stoichiometric ratio are available, which react exothermically with one another in the catalytic converter, wherein the method furthermore has: rolling operation of in each case one of the cylinders (3, 4, 5) with a lean air-fuel mixture and of two cylinders (3, 4; 3, 5; 4, 5) with a rich air-fuel mixture. providing a three-cylinder engine with one first and two second cylinders (3; 4, 5), setting a lambda split with setting of a first and of a second lambda value (λ K1, λ K2) of a cylinder-specific supplied air-fuel mixture through dosing of the fuel supply, operating the three-cylinder engine in symmetrical lambda-split operation, and in so doing operating the first cylinder with a lean air-fuel mixture, such that a first exhaust-gas flow with a superstoichiometric first exhaust-gas lambda value (λ 1) is discharged, operating the two second cylinders (4, 5) with a rich air-fuel mixture, such that, in each case, a second exhaust-gas flow with a substoichiometric exhaust-gas lambda value (λ 2) is discharged, such that in an overall exhaust-gas flow, atmospheric oxygen from the first cylinder and unburned fuel from the second cylinders (4, 5) in a substantially stoichiometric ratio are available, which react exothermically with one another in the catalytic converter, wherein the method furthermore has: rolling operation of in each case one of the cylinders (3, 4, 5) with a lean air-fuel mixture and of two cylinders (3, 4; 3, 5; 4, 5) with a rich air-fuel mixture.