mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic scanner (100, 200) for scanning a contoured workpiece (114, 250), the scanner comprising: a body (102, 202), a first ultrasound transducer (104, 212) having a first scanning vector (116, 213), a second ultrasound transducer (104, 212) having a second scanning vector (116, 213), and, a coupling component (106, 234), characterised in that the coupling component (106, 234) defines a coupling surface (118, 240); the coupling component is configured to ultrasonically couple the transducers (104, 212) to a contoured workpiece at the coupling surface; and, in that the transducers (104, 212) are mounted to the body (102, 202) such that: the first and second scanning vectors (116, 213) are substantially perpendicular to the coupling surface (118, 240); the scanning vectors each pass substantially through a single focal axis (F, 248), each scanning vector (116, 213) is perpendicular to the focal axis; the first and second scanning vectors (116, 213) are at a non-zero angle to each other viewed along the focal axis; and, the focal axis is positioned between the transducers (104, 212) and the coupling surface (118, 240). a body (102, 202), a first ultrasound transducer (104, 212) having a first scanning vector (116, 213), a second ultrasound transducer (104, 212) having a second scanning vector (116, 213), and, a coupling component (106, 234), characterised in that the coupling component (106, 234) defines a coupling surface (118, 240); the coupling component is configured to ultrasonically couple the transducers (104, 212) to a contoured workpiece at the coupling surface; and, in that the transducers (104, 212) are mounted to the body (102, 202) such that: the first and second scanning vectors (116, 213) are substantially perpendicular to the coupling surface (118, 240); the scanning vectors each pass substantially through a single focal axis (F, 248), each scanning vector (116, 213) is perpendicular to the focal axis; the first and second scanning vectors (116, 213) are at a non-zero angle to each other viewed along the focal axis; and, the focal axis is positioned between the transducers (104, 212) and the coupling surface (118, 240). the first and second scanning vectors (116, 213) are substantially perpendicular to the coupling surface (118, 240); the scanning vectors each pass substantially through a single focal axis (F, 248), each scanning vector (116, 213) is perpendicular to the focal axis; the first and second scanning vectors (116, 213) are at a non-zero angle to each other viewed along the focal axis; and, the focal axis is positioned between the transducers (104, 212) and the coupling surface (118, 240).
Manual bench-type fryer with elimination of frying fumes and vapours and air recirculation comprising a frying chamber, equipped with systems for the suction and evacuation of the fumes and vapours generated; at least one basin with the frying oil into which at least one basket is immersed; a heating device of the frying oil and a device for controlling and adjusting the temperature of the frying oil; wherein it has a second suction mouth for the fumes and vapours generated which is connected to a refrigeration unit, inside the fryer, for refrigerating the sucked air, eliminating the vapours, and also purifying from the fat particles in suspension; the so treated air being reintroduced into the frying chamber by means of a recirculation fan; moreover, downstream of a first suction mouth it has a remover of vapours and fumes sucked with the air in a path of airflow which is different from the air path flow through the refrigeration unit; the purified airflow being reintroduced into the working environment of the fryer.
A terminal, comprising: a terminal body; and a rotating body comprising a first end face; wherein a first camera is arranged on the first end face; the rotating body is rotatably coupled to one end of the terminal body, so that the first camera selectively faces multiple directions around the terminal body depending on the orientation of the rotating body; a first display screen is arranged on a front face of the terminal body; the rotating body further comprises a second end face opposite to the first end face; a second display screen is arranged on the second end face; when the rotating body is rotated such that the second end face faces the front face of the terminal body, the first display screen and the second display screen are located in a same plane; characterized in that a height of the rotating body is less than 10% of a height of the terminal body. a terminal body; and a rotating body comprising a first end face; wherein a first camera is arranged on the first end face; the rotating body is rotatably coupled to one end of the terminal body, so that the first camera selectively faces multiple directions around the terminal body depending on the orientation of the rotating body; a first display screen is arranged on a front face of the terminal body; the rotating body further comprises a second end face opposite to the first end face; a second display screen is arranged on the second end face; when the rotating body is rotated such that the second end face faces the front face of the terminal body, the first display screen and the second display screen are located in a same plane; characterized in that a height of the rotating body is less than 10% of a height of the terminal body.
A method for creating a flash memory structure on a substrate, the substrate comprising a flash memory cell area and a field effect transistor, FET, area, the method comprising: creating a first source and a first drain in the flash memory cell area; creating a second source and a second drain in the FET area; growing a floating-gate oxide layer in the flash memory cell area and in the FET area on the substrate; depositing a first metal layer onto the floating-gate oxide layer, forming a floating gate in the flash memory cell area and a gate in the FET area; growing a select-gate oxide layer (225b, 547) in the flash memory cell area on the first metal layer; fabricating interconnect vias by etching portions of the select-gate oxide layer, the first metal layer, and the floating-gate oxide layer in the flash memory cell area over the first source and the first drain in the flash memory cell area, and over the second source and the second drain in the FET area; and depositing a second metal layer on the select-gate oxide layer (225b, 547) and in the interconnect vias, the second metal layer forming a select gate in the flash memory cell area on the select-gate oxide layer (225b, 547), the second metal layer also forming metal interconnects (245, 255) disposed adjacent to the floating gate, the select-gate oxide layer (225b, 547), and the select gate in the flash memory cell area, and adjacent to the gate in the FET area in the interconnect vias; wherein an upper surface of the metal interconnects (245, 255) and an upper surface of the select gate extend on a same plane above the substrate. creating a first source and a first drain in the flash memory cell area; creating a second source and a second drain in the FET area; growing a floating-gate oxide layer in the flash memory cell area and in the FET area on the substrate; depositing a first metal layer onto the floating-gate oxide layer, forming a floating gate in the flash memory cell area and a gate in the FET area; growing a select-gate oxide layer (225b, 547) in the flash memory cell area on the first metal layer; fabricating interconnect vias by etching portions of the select-gate oxide layer, the first metal layer, and the floating-gate oxide layer in the flash memory cell area over the first source and the first drain in the flash memory cell area, and over the second source and the second drain in the FET area; and depositing a second metal layer on the select-gate oxide layer (225b, 547) and in the interconnect vias, the second metal layer forming a select gate in the flash memory cell area on the select-gate oxide layer (225b, 547), the second metal layer also forming metal interconnects (245, 255) disposed adjacent to the floating gate, the select-gate oxide layer (225b, 547), and the select gate in the flash memory cell area, and adjacent to the gate in the FET area in the interconnect vias; wherein an upper surface of the metal interconnects (245, 255) and an upper surface of the select gate extend on a same plane above the substrate.
Continuous process for the oxidative cleavage of esters of unsaturated carboxylic acids for the production of saturated carboxylic acids, characterized by comprising the steps of: a) feeding to a first continuous reactor at least an ester of an unsaturated carboxylic acid, an oxidizing compound and a catalyst capable of catalyzing the oxidation reaction of the olefinic double bond to obtain an intermediate compound containing vicinal diols; b) feeding to a second continuous reactor said intermediate compound, a compound containing oxygen and a catalyst capable of catalyzing the oxidation reaction of the vicinal diols to carboxylic groups, to obtain saturated monocarboxylic acids (i) and monoesters of saturated carboxylic acids with more than one acid function (ii); c) separating the saturated monocarboxylic acids (i) from the monoesters of carboxylic acids having more than one acid function (ii); d) hydrolyzing said monoesters of carboxylic acids having more than one acid function (ii) and obtaining alcohol and saturated carboxylic acids having more than one acid function; wherein in said steps a) and b the operations to feed reagents and to remove products take place simultaneously for the entire duration of the process, and in each of said step the process conditions remain substantially unchanged. a) feeding to a first continuous reactor at least an ester of an unsaturated carboxylic acid, an oxidizing compound and a catalyst capable of catalyzing the oxidation reaction of the olefinic double bond to obtain an intermediate compound containing vicinal diols; b) feeding to a second continuous reactor said intermediate compound, a compound containing oxygen and a catalyst capable of catalyzing the oxidation reaction of the vicinal diols to carboxylic groups, to obtain saturated monocarboxylic acids (i) and monoesters of saturated carboxylic acids with more than one acid function (ii); c) separating the saturated monocarboxylic acids (i) from the monoesters of carboxylic acids having more than one acid function (ii); d) hydrolyzing said monoesters of carboxylic acids having more than one acid function (ii) and obtaining alcohol and saturated carboxylic acids having more than one acid function;
A rectifying circuit adapted to rectify an RF signal supplied by an antenna receiving electromagnetic waves, the rectifying circuit comprising: a first NMOS transistor having a source terminal receiving a ground potential and a gate terminal receiving a biasing voltage; a second NMOS transistor having a gate terminal coupled to a drain terminal of the first NMOS transistor, a drain terminal coupled to the gate terminal of the first NMOS transistor, and a source terminal receiving the ground potential; an impedance matching network disposed between the antenna and the drain terminals of the first and second NMOS transistors, said impedance matching network comprising a first inductive element coupled between an output terminal of the rectifying circuit and the drain terminal of the first NMOS transistor, and a second inductive element coupled between the output terminal of the rectifying circuit and the drain terminal of the second NMOS transistor; an RF block circuit coupled between the drain terminals of the first and second NMOS transistors (210, 220) and the output terminal of the rectifying circuit, said RF block circuit adapted to block the RF signal from arriving at the output terminal of the rectifying circuit; a first capacitive element disposed between the gate terminal of the first NMOS transistor and the drain terminal of the second NMOS transistor; and a second capacitive element disposed between the gate terminal of the second NMOS transistor and the drain terminal of the first NMOS transistor. a first NMOS transistor having a source terminal receiving a ground potential and a gate terminal receiving a biasing voltage; a second NMOS transistor having a gate terminal coupled to a drain terminal of the first NMOS transistor, a drain terminal coupled to the gate terminal of the first NMOS transistor, and a source terminal receiving the ground potential; an impedance matching network disposed between the antenna and the drain terminals of the first and second NMOS transistors, said impedance matching network comprising a first inductive element coupled between an output terminal of the rectifying circuit and the drain terminal of the first NMOS transistor, and a second inductive element coupled between the output terminal of the rectifying circuit and the drain terminal of the second NMOS transistor; an RF block circuit coupled between the drain terminals of the first and second NMOS transistors (210, 220) and the output terminal of the rectifying circuit, said RF block circuit adapted to block the RF signal from arriving at the output terminal of the rectifying circuit; a first capacitive element disposed between the gate terminal of the first NMOS transistor and the drain terminal of the second NMOS transistor; and a second capacitive element disposed between the gate terminal of the second NMOS transistor and the drain terminal of the first NMOS transistor.
A method comprising: acquiring ultrasound channel data; generating a predictive error filter with an autoregressive moving average model; estimating, with the predictive error filter, noise in the ultrasound channel data; and subtracting the noise from the ultrasound channel data to obtain clean channel data, wherein the generating step, estimating step and subtracting step are performed in a time-space domain. acquiring ultrasound channel data; generating a predictive error filter with an autoregressive moving average model; estimating, with the predictive error filter, noise in the ultrasound channel data; and subtracting the noise from the ultrasound channel data to obtain clean channel data, wherein the generating step, estimating step and subtracting step are performed in a time-space domain.
A portable electronic device, comprising: a storage with personal information of a user of the portable electronic device stored thereon; a display enabling touch interaction, wherein the touch interaction enables the user to set a usage permission range of personal information through a touch input, wherein the usage permission range of personal information comprises a) at least one of one or more categories of personal information and b) one or more usage conditions on usage of the personal information; and a processor, wherein for a request from a service providing server through a blockchain network, the processor causes the personal information stored in the storage of the portable electronic device to be viewed within the portable device in accordance with the usage permission range set by the user and causes customized service information corresponding to the personal information to be displayed on the display, wherein the personal information stored in the storage of the portable electronic device is not exported out of the portable electronic device, wherein the processor is configured to, collect one or more personal information requests recorded in the blockchain network; and transmit to the blockchain network one or more approvals to be recorded in the blockchain network, the one or more approvals for use of the personal information in accordance with the usage permission range. a storage with personal information of a user of the portable electronic device stored thereon; a display enabling touch interaction, wherein the touch interaction enables the user to set a usage permission range of personal information through a touch input, wherein the usage permission range of personal information comprises a) at least one of one or more categories of personal information and b) one or more usage conditions on usage of the personal information; and a processor, wherein for a request from a service providing server through a blockchain network, the processor causes the personal information stored in the storage of the portable electronic device to be viewed within the portable device in accordance with the usage permission range set by the user and causes customized service information corresponding to the personal information to be displayed on the display, wherein the personal information stored in the storage of the portable electronic device is not exported out of the portable electronic device, wherein the processor is configured to, collect one or more personal information requests recorded in the blockchain network; and transmit to the blockchain network one or more approvals to be recorded in the blockchain network, the one or more approvals for use of the personal information in accordance with the usage permission range.
Climbers which include a support releasably fastenable to a footwear, which include a bottom part, a hook part fastened to the bottom part for pole climbing, an ankle protector fastened to the bottom part and a support part fastened to the ankle protector, the support part being arranged to extend at the point of the hollow of the knee or in its vicinity, the climbers including in the front part of the bottom part and in the top part of the support part fastening buckles (7, 8) for fastening the support part and the bottom part around the foot, characterised in that the ankle protector includes a flexible and rotatable joint part between the bottom part and the support part, and in that the support part has side parts extending on the sides of the foot at the point of the hollow of the knee or in its vicinity.
A device for supporting a comfort element intended to be installed in a body of a vehicle, the support device comprising: - an attachment rail intended to be attached to a side wall of the body, so as to extend longitudinally along this side wall, - at least one interface element, intended to be attached to the comfort equipment and to cooperate with the attachment rail, for securing this comfort equipment with this attachment rail, wherein: - the interface element has an upper surface and a lower surface, and extends laterally between a first end connected to the attachment rail and a second end attached to the comfort equipment, the interface element comprising, between the first and second ends, a central portion in which the upper surface has a hollow and the lower surface has a bump, - the support device comprises a set of panels (36, 42, 46) intended to conceal the attachment rail, the assembly comprising a first lower panel comprising a first upper end suitable for being housed between the bump of the central portion and the first end, and a second panel comprising a second lower end suitable for being housed in the hollow of the central portion, characterized in that the interface element comprises stiffening ribs, chosen from: - stiffening ribs on its lower surface, extending transversely between the central portion and the second end, - stiffening ribs on its lower surface, extending transversely between the central portion and the first end, and/or - stiffening ribs extending transversely in the hollow of the central portion. - an attachment rail intended to be attached to a side wall of the body, so as to extend longitudinally along this side wall, - at least one interface element, intended to be attached to the comfort equipment and to cooperate with the attachment rail, for securing this comfort equipment with this attachment rail, - the interface element has an upper surface and a lower surface, and extends laterally between a first end connected to the attachment rail and a second end attached to the comfort equipment, the interface element comprising, between the first and second ends, a central portion in which the upper surface has a hollow and the lower surface has a bump, - the support device comprises a set of panels (36, 42, 46) intended to conceal the attachment rail, the assembly comprising a first lower panel comprising a first upper end suitable for being housed between the bump of the central portion and the first end, and a second panel comprising a second lower end suitable for being housed in the hollow of the central portion, - stiffening ribs on its lower surface, extending transversely between the central portion and the second end, - stiffening ribs on its lower surface, extending transversely between the central portion and the first end, and/or - stiffening ribs extending transversely in the hollow of the central portion.
A method for handling a workpiece with the aid of a removal tool, comprising the method steps: B) generating at least one parameter for the removal tool; C) determining at least one characteristic from the at least one parameter and at least one item of workpiece information; D) creating a removal prediction taking into account the characteristic and at least one removal result from a removal result memory, wherein the removal prediction indicates the probability of a successful removal, and wherein the at least one characteristic, which was determined in method step C), is compared with a corresponding characteristic of the at least one removal result from the removal result memory; E) evaluating the removal prediction; F) removing the workpiece when the removal prediction is positive, wherein the removal tool is controlled by the at least one parameter; G) detecting the removal result; H) storing the removal result in the removal result memory, wherein the removal result is stored in the removal result memory together with the applied parameters for the removal tool and at least one item of workpiece information. B) generating at least one parameter for the removal tool; C) determining at least one characteristic from the at least one parameter and at least one item of workpiece information; D) creating a removal prediction taking into account the characteristic and at least one removal result from a removal result memory, wherein the removal prediction indicates the probability of a successful removal, and wherein the at least one characteristic, which was determined in method step C), is compared with a corresponding characteristic of the at least one removal result from the removal result memory; E) evaluating the removal prediction; F) removing the workpiece when the removal prediction is positive, wherein the removal tool is controlled by the at least one parameter; G) detecting the removal result; H) storing the removal result in the removal result memory, wherein the removal result is stored in the removal result memory together with the applied parameters for the removal tool and at least one item of workpiece information.