mhurhangee/ep-ind-claims huggingface dataset:
A terminal configured to control an operation according to a touch input, the terminal comprising: a mapping unit (110; 210) to scale map a touch recognition area on a first surface of the terminal to an active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) which is an area selected by the user on a touch recognition display screen on a second surface of the terminal, by comparing the size of the touch recognition area and the size of the active area; a determining unit (120; 220) to determine a location of the active area displayed on the display screen and the size of the active area; a control unit (130; 230) to control an operation of the terminal based on a touch input on the touch recognition area; an activation determining unit to determine whether to recognize the touch input on the touch recognition area based on whether an application supports a touch on the touch recognition area; wherein the terminal further comprises a setting unit to set, when a plurality of applications is executed using multitasking in the terminal, for each of the plurality of applications, whether said application is to be controlled in the response to a touch input on the touch recognition area or to be controlled in response to a touch input on the active area; and wherein the control unit (130; 230) is adapted to move the active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) corresponding to the touch input on the touch recognition area. a mapping unit (110; 210) to scale map a touch recognition area on a first surface of the terminal to an active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) which is an area selected by the user on a touch recognition display screen on a second surface of the terminal, by comparing the size of the touch recognition area and the size of the active area; a determining unit (120; 220) to determine a location of the active area displayed on the display screen and the size of the active area; a control unit (130; 230) to control an operation of the terminal based on a touch input on the touch recognition area; an activation determining unit to determine whether to recognize the touch input on the touch recognition area based on whether an application supports a touch on the touch recognition area; wherein the terminal further comprises a setting unit to set, when a plurality of applications is executed using multitasking in the terminal, for each of the plurality of applications, whether said application is to be controlled in the response to a touch input on the touch recognition area or to be controlled in response to a touch input on the active area; and wherein the control unit (130; 230) is adapted to move the active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) corresponding to the touch input on the touch recognition area.
Allergy test device for applying a liquid medium onto or into the skin, with a film with a flat part for laying on the skin and at least one part spaced apart from the skin during use with a container for receiving the liquid medium, wherein each container of each spaced part has at least one closable opening, characterised in that each spaced part is designed to be deformable in the direction of the flat part of the film and that a valve is slidably arranged in the at least one opening of each container, wherein the opening of the container is sealed in a closed position of the valve and on deformation of the spaced part, the valve is at least partly opened in a position deviating from the closed position.
A lidar system, comprising: a base; a sensor body; a motor having a stator and a rotor, the rotor having a shaft that the stator can drive in rotation, wherein the motor is affixed to the base and sensor body such that the motor can drive the sensor body in rotation with respect to the base; a printed circuit board on the base, the printed circuit board housing a control system that controls the operation of the motor; an illumination device mounted upon the sensor body and being configured to emit illumination; a sensor mounted upon the sensor body and directed to receive illumination emitted by the illumination device and reflected back toward the sensor, the sensor producing data based on the received illumination; and a data processing device mounted upon the sensor body, the data processing device being connected to the sensor and programmed to reduce data from the sensor to range information data, characterized in that: the shaft includes only two disk-shaped slip rings; the illumination device, the sensor and the data processing device receive an electrical power signal via the two slip rings; and the data processing device is configured to modulate the power signal to transmit the range information data to the control system via the two slip rings. a base; a sensor body; a motor having a stator and a rotor, the rotor having a shaft that the stator can drive in rotation, wherein the motor is affixed to the base and sensor body such that the motor can drive the sensor body in rotation with respect to the base; a printed circuit board on the base, the printed circuit board housing a control system that controls the operation of the motor; an illumination device mounted upon the sensor body and being configured to emit illumination; a sensor mounted upon the sensor body and directed to receive illumination emitted by the illumination device and reflected back toward the sensor, the sensor producing data based on the received illumination; and a data processing device mounted upon the sensor body, the data processing device being connected to the sensor and programmed to reduce data from the sensor to range information data, characterized in that: the shaft includes only two disk-shaped slip rings; the illumination device, the sensor and the data processing device receive an electrical power signal via the two slip rings; and the data processing device is configured to modulate the power signal to transmit the range information data to the control system via the two slip rings. the shaft includes only two disk-shaped slip rings; the illumination device, the sensor and the data processing device receive an electrical power signal via the two slip rings; and the data processing device is configured to modulate the power signal to transmit the range information data to the control system via the two slip rings.
A water-in-silicone emulsion cosmetic composition having a viscosity of less than 1.2 Pa.s at room temperature comprising: a volatile solvent; at least one silicone film-forming polymer selected from dimethicone silylate/isododecane and poly(dimethylsiloxane)-g-poly(isobutyl methacrylate) and mixtures thereof; at least one pigment; and at least one emulsifier selected from the group consisting of Cetyl PEG/PPG-10/ Dimethicone and a mixture of Cetyl Dimethicone Copolyol, Polyglyceryl 4-Isostearate and Hexyl Laurate, present in an amount ranging from 0.001 to 15% by weight and wherein the composition generally separates into visually distinct layers and is stabilized upon agitation. a volatile solvent; at least one silicone film-forming polymer selected from dimethicone silylate/isododecane and poly(dimethylsiloxane)-g-poly(isobutyl methacrylate) and mixtures thereof; at least one pigment; and at least one emulsifier selected from the group consisting of Cetyl PEG/PPG-10/ Dimethicone and a mixture of Cetyl Dimethicone Copolyol, Polyglyceryl 4-Isostearate and Hexyl Laurate, present in an amount ranging from 0.001 to 15% by weight and wherein the composition generally separates into visually distinct layers and is stabilized upon agitation.
An implantable sling (2a to 2f, 20a to 20f, 40, 60, 171, 173) comprising: (a) a first sling element (4a to 4f, 24a to 24f, 48, 63a, 174, 176, 108), the first sling element comprising a first sling body and two or more slender first projections (9a to 9f, 29a to 29f, 42, 62, 112) extending from the first sling body; (b) a second sling element (6a to 6f, 26a to 26f, 58, 63b, 110), the second sling element comprising a second sling body and two or more slender second projections (19a to 19f, 39a to 39f, 62, 114) extending from the second sling body; and (c) one or more detachable connections (12, 31, 32, 35, 46, 113, 178) connecting the first sling element and the second sling element, wherein the one or more detachable connections are between first elongated projections on the first sling element and second elongated projections of the second sling element. (a) a first sling element (4a to 4f, 24a to 24f, 48, 63a, 174, 176, 108), the first sling element comprising a first sling body and two or more slender first projections (9a to 9f, 29a to 29f, 42, 62, 112) extending from the first sling body; (b) a second sling element (6a to 6f, 26a to 26f, 58, 63b, 110), the second sling element comprising a second sling body and two or more slender second projections (19a to 19f, 39a to 39f, 62, 114) extending from the second sling body; and (c) one or more detachable connections (12, 31, 32, 35, 46, 113, 178) connecting the first sling element and the second sling element,
Image acquisition device (100; 400; 500) comprising: - a photocathode (120; 420; 520), configured to convert an incident flux of photons into a flux of electrons; - a sensor (130; 430; 530) composed of a matrix of elements named pixels; and - processing means (140; 440; 540); - a matrix (110; 410; 510) of elementary filters, each associated with at least one pixel of the sensor, said matrix being located upstream from the photocathode, such that an initial flux of photons passes through said matrix before reaching the photocathode, - the matrix comprising primary colour filters (R, G, B; Ye, Ma, Cy), a primary colour filter not transmitting a part of the visible spectrum complementary to said primary colour, and filters transmitting the entire visible spectrum, named panchromatic filters; characterized in that the processing means (140; 440; 540) are configured to: - calculate a quantity, termed a useful quantity, for determining whether at least one zone of the sensor is under conditions of weak or strong illumination, the useful quantity being representative of a mean surface flux of photons or electrons detected on a set of pixels named panchromatic pixels of the sensor, each panchromatic pixel being associated with a panchromatic filter; - forming, only if said zone is under conditions of strong illumination, a colour image of said zone on the basis of the pixels in this zone associated with primary colour pixels. - a photocathode (120; 420; 520), configured to convert an incident flux of photons into a flux of electrons; - a sensor (130; 430; 530) composed of a matrix of elements named pixels; and - processing means (140; 440; 540); - a matrix (110; 410; 510) of elementary filters, each associated with at least one pixel of the sensor, said matrix being located upstream from the photocathode, such that an initial flux of photons passes through said matrix before reaching the photocathode, - the matrix comprising primary colour filters (R, G, B; Ye, Ma, Cy), a primary colour filter not transmitting a part of the visible spectrum complementary to said primary colour, and filters transmitting the entire visible spectrum, named panchromatic filters; - calculate a quantity, termed a useful quantity, for determining whether at least one zone of the sensor is under conditions of weak or strong illumination, the useful quantity being representative of a mean surface flux of photons or electrons detected on a set of pixels named panchromatic pixels of the sensor, each panchromatic pixel being associated with a panchromatic filter; - forming, only if said zone is under conditions of strong illumination, a colour image of said zone on the basis of the pixels in this zone associated with primary colour pixels.
Tap for pressurised fluid, with or without a built-in pressure regulator, comprising a body housing a circuit of fluid that has an upstream end intended to be put into relation with a reserve of pressurised fluid and a downstream end intended to be put into relation with a receiving device, the circuit comprising a member for controlling the flow rate in the circuit, the member for controlling the flow rate being controlled by an actuating member that is mobile with respect to the body of the tap, the actuating member being movably mounted on the body of the tap between an idle position wherein the control member is arranged in a first state corresponding to a first flow rate value in the circuit and a second active position wherein the actuating member moves the control member in a second state corresponding to a second flow rate value in the circuit, the tap comprising at least one electronic functional member (10, 11) and a switch for controlling the at least one electronic functional member (10, 11), the switch being magnetic and able to be moved in at least two separate states, the actuating member being configured to move the switch from a first state to a second state during the movement thereof in at least one position from among: the idle position thereof, the active position thereof, or an intermediate position between these two positions, characterised in that the actuating member comprises a lever pivotably mounted on the body of the tap and in that the switch is separate and at a distance from the control member and in that this lever comprises a magnetic element such as a permanent magnet generating a magnetic field that moves the switch without contact via the magnetic field thereof according to the position of the lever on the body of the tap, said magnetic element being housed in a cavity of the lever.
A solar cell comprising: a semiconductor substrate including a front surface and a rear surface, the semiconductor substrate comprising first and second portion (10a, 10b), wherein a first portion comprises a first thickness and a second portion comprises a second thickness, wherein the first thickness of the first portion of the semiconductor substrate is smaller than the second thickness of the second portion of the semiconductor substrate thus forming a concave portion in the rear surface of the semiconductor substrate in correspondance with the portion, and wherein at least one through-hole is arranged in the first portion of the semiconductor substrate; an emitter portion arranged on the front surface of the semiconductor substrate and extending along the at least one through-hole, further extending along the rear surface of the first portion, wherein a conductive type of the emitter portion is opposite to that of the semiconductor substrate; a first electrode electrically connected to the emitter portion and arranged on the rear surface of the semiconductor substrate and filling the at least one through-hole; and a second electrode electrically connected to the semiconductor substrate and arranged on the rear surface of the semiconductor substrate. a semiconductor substrate including a front surface and a rear surface, the semiconductor substrate comprising first and second portion (10a, 10b), wherein a first portion comprises a first thickness and a second portion comprises a second thickness, wherein the first thickness of the first portion of the semiconductor substrate is smaller than the second thickness of the second portion of the semiconductor substrate thus forming a concave portion in the rear surface of the semiconductor substrate in correspondance with the portion, and wherein at least one through-hole is arranged in the first portion of the semiconductor substrate; an emitter portion arranged on the front surface of the semiconductor substrate and extending along the at least one through-hole, further extending along the rear surface of the first portion, wherein a conductive type of the emitter portion is opposite to that of the semiconductor substrate; a first electrode electrically connected to the emitter portion and arranged on the rear surface of the semiconductor substrate and filling the at least one through-hole; and a second electrode electrically connected to the semiconductor substrate and arranged on the rear surface of the semiconductor substrate.
A microchannel plate comprising a main body comprised of lead glass which exhibits electric insulation before a reduction treatment and exhibits electric conduction after the reduction treatment, the main body comprising: first cladding glasses each of which has a through hole extending along a predetermined direction and provided for defining a channel, said first cladding glasses having a predetermined acid resistance; and a second cladding glass which is located at least in part in spaces among outer peripheral surfaces of the first cladding glasses in a state in which the second cladding glass is in contact with the outer peripheral surfaces of the respective first cladding glasses, said second cladding glass having an acid resistance higher than the acid resistance of the first cladding glasses, wherein on an entrance end face side of the microchannel plate, an opening end of the through hole in each of the first cladding glasses is processed in a taper shape, characterized in that in a cross section of the microchannel plate perpendicular to the predetermined direction, outer peripheries of the first cladding glasses are deformed in a hexagonal shape whereby the second cladding glass constitutes a honeycomb structure, and the second cladding glass has a constant width. first cladding glasses each of which has a through hole extending along a predetermined direction and provided for defining a channel, said first cladding glasses having a predetermined acid resistance; and a second cladding glass which is located at least in part in spaces among outer peripheral surfaces of the first cladding glasses in a state in which the second cladding glass is in contact with the outer peripheral surfaces of the respective first cladding glasses, said second cladding glass having an acid resistance higher than the acid resistance of the first cladding glasses, wherein on an entrance end face side of the microchannel plate, an opening end of the through hole in each of the first cladding glasses is processed in a taper shape, characterized in that in a cross section of the microchannel plate perpendicular to the predetermined direction, outer peripheries of the first cladding glasses are deformed in a hexagonal shape whereby the second cladding glass constitutes a honeycomb structure, and the second cladding glass has a constant width.
A vacuum surface coating method of small sized Nd-Fe-B magnets, the method including the following process steps: a) providing a vacuum coating device comprising: - a vacuum furnace chamber; - a drum with mesh sidewalls being rotatable arranged on a rotary shaft inside the vacuum furnace chamber; - at least one target source (5, 6) for vacuum deposition being arranged within the vacuum furnace chamber; - a gas inlet for connecting an argon source; and - an outlet for connecting a vacuum system; b) putting small sized Nd-Fe-B magnet samples together with steel balls into a drum of the vacuum coating device and evacuating the drum until the pressure is 6 x 10 -3 Pa to 9 x 10 -3 Pa, wherein thickness, length and width of the Nd-Fe-B magnet samples are less than 15 mm and a three direction difference thereof is less than 10 mm, and wherein a diameter Φ of the steel balls is 2 mm to 6 mm and a weight is 0.25 to 1.5 times of the weight of the Nd-Fe-B magnet samples; b) starting rotation of the drum and mixing the Nd-Fe-B magnet samples and steel balls, the drum rotational speed is 5 to 20 r/min; c) injecting argon gas until the pressure is 3x 10 -1 Pa to 6 × 10 -1 Pa; and d) starting vacuum coating. a) providing a vacuum coating device comprising: - a vacuum furnace chamber; - a drum with mesh sidewalls being rotatable arranged on a rotary shaft inside the vacuum furnace chamber; - at least one target source (5, 6) for vacuum deposition being arranged within the vacuum furnace chamber; - a gas inlet for connecting an argon source; and - an outlet for connecting a vacuum system; - a vacuum furnace chamber; - a drum with mesh sidewalls being rotatable arranged on a rotary shaft inside the vacuum furnace chamber; - at least one target source (5, 6) for vacuum deposition being arranged within the vacuum furnace chamber; - a gas inlet for connecting an argon source; and - an outlet for connecting a vacuum system; b) putting small sized Nd-Fe-B magnet samples together with steel balls into a drum of the vacuum coating device and evacuating the drum until the pressure is 6 x 10 -3 Pa to 9 x 10 -3 Pa, wherein thickness, length and width of the Nd-Fe-B magnet samples are less than 15 mm and a three direction difference thereof is less than 10 mm, and wherein a diameter Φ of the steel balls is 2 mm to 6 mm and a weight is 0.25 to 1.5 times of the weight of the Nd-Fe-B magnet samples; b) starting rotation of the drum and mixing the Nd-Fe-B magnet samples and steel balls, the drum rotational speed is 5 to 20 r/min; c) injecting argon gas until the pressure is 3x 10 -1 Pa to 6 × 10 -1 Pa; and d) starting vacuum coating.
A method of culturing stem cells comprising: providing a cell culturing substrate comprising: a cell culture surface having a film attached thereto, wherein said film comprises one or more plasma polymerized monomers; and a coating on said film-coated surface, said coating deposited from a coating solution comprising one or more extracellular matrix proteins and an aqueous solvent, wherein the total extracellular matrix protein concentration in the coating solution is 1 ng/mL to 1mg/mL; applying a suspension of stem cells to said cell culturing substrate; incubating said suspension of stem cells on said cell culturing substrate at 5% CO 2 in humidified air at 37°C; and permitting said stem cells to attach to said cell culturing substrate of the cells, wherein the attached cells remain in a predominately undifferentiated state. providing a cell culturing substrate comprising: a cell culture surface having a film attached thereto, wherein said film comprises one or more plasma polymerized monomers; and a coating on said film-coated surface, said coating deposited from a coating solution comprising one or more extracellular matrix proteins and an aqueous solvent, wherein the total extracellular matrix protein concentration in the coating solution is 1 ng/mL to 1mg/mL; a cell culture surface having a film attached thereto, wherein said film comprises one or more plasma polymerized monomers; and a coating on said film-coated surface, said coating deposited from a coating solution comprising one or more extracellular matrix proteins and an aqueous solvent, wherein the total extracellular matrix protein concentration in the coating solution is 1 ng/mL to 1mg/mL; applying a suspension of stem cells to said cell culturing substrate; incubating said suspension of stem cells on said cell culturing substrate at 5% CO 2 in humidified air at 37°C; and permitting said stem cells to attach to said cell culturing substrate of the cells, wherein the attached cells remain in a predominately undifferentiated state.