mhurhangee/ep-ind-claims huggingface dataset:
Optical protection equipment (10, 20) comprising an adaptive screen (100, 200) and a holder (153, 253) arranged to hold the adaptive screen (100, 200) in front of the eyes of an individual wearing said optical protection equipment (10, 20), the adaptive screen (100, 200) comprising at least one liquid crystal shutter, at least one of the shutters comprising at least two active zones (121-123, 221-223) adapted to be addressed by a control signal enabling the at least one corresponding shutter to be switched between a passing configuration in which a transmittance is equal to a maximum value, and a blocking configuration in which the transmittance is equal to a minimum value, and in which one of the at least two active zones (121-123, 221-223) said main active zone covers a surface of the adaptive screen (100, 200) less than or equal to 60% of the surface of said adaptive screen (100, 200), is located in a central area of the adaptive screen (100, 200) and characterized in that said main active zone extends laterally from one edge to the other of the adaptive screen (100, 200), and is defined by two electrodes located on either side of the liquid crystal shutter.
An in vitro or ex vivo method for culturing cells, which comprises the steps of: causing cells to adhere to the surface of a cell array substrate having a cell adhesiveness variation pattern that comprises regions having good cell adhesiveness and regions having inhibited cell adhesiveness patterned on a substrate; transferring the adhered cells to a cell culture substrate in such patterned state; and culturing the transferred cells, wherein the regions having good cell adhesiveness in the cell adhesiveness variation pattern have water contact angles between 10° and 40°.
A light controlling film comprising a light reflecting film and a light controlling layer that are laminated, the light reflecting film comprising at least two light reflecting layers that are laminated, the at least two light reflecting layers including at least one of light reflecting layers among a light reflecting layer PRL-1, a light reflecting layer PRL-2 and a light reflecting layer PRL-3, the light reflecting layer PRL-1 having a central reflection wavelength of greater than or equal to 400 nm but less than 500 nm and a reflectance to ordinary light at the central reflection wavelength of greater than or equal to 5% but less than or equal to 25%, the light reflecting layer PRL-2 having a central reflection wavelength of greater than or equal to 500 nm but less than 600 nm and a reflectance to ordinary light at the central reflection wavelength of greater than or equal to 5% but less than or equal to 25%, the light reflecting layer PRL-3 having a central reflection wavelength of greater than or equal to 600 nm but less than 700 nm and a reflectance to ordinary light at the central reflection wavelength of greater than or equal to 5% but less than or equal to 25%, the at least two light reflecting layers having central reflection wavelengths that are different from each other, all of the at least two light reflecting layers that are laminated having a property of reflecting polarized light that has the same orientation, the light controlling layer comprising two quarter wave plates, the light reflecting film is laminated so as to be interposed between the two quarter wave plates.
A method for detecting a noise induced by a first signal transmitted along an electric line over a second signal transmitted along a twisted pair cable, said first signal being a powerline signal, said method comprising: a) acquiring a spectrum of a parameter (QLN, SNR) indicative of an overall noise over said twisted pair cable, said spectrum comprising a spectrum (QLN(f)) of a quiet line noise over said twisted pair cable and/or a spectrum (SNR(f)) of a signal to noise ratio over said twisted pair cable; b) checking whether said spectrum (QLN(f), SNR(f)) comprises at least one spectral feature (N1', N2', P1, P2) at a frequency corresponding to that at which a power spectral density of said first signal presents a notch (N1, N2), said at least one spectral feature (N1', N2', P1, P2) comprising at least one notch in said spectrum (QLN(f)) of said quiet line noise over said twisted pair cable and/or at least one peak in said spectrum (SNR(f)) of said signal to noise ratio over said twisted pair cable; and c) in the affirmative, establishing that said second signal is affected by said noise induced by said first signal. a) acquiring a spectrum of a parameter (QLN, SNR) indicative of an overall noise over said twisted pair cable, said spectrum comprising a spectrum (QLN(f)) of a quiet line noise over said twisted pair cable and/or a spectrum (SNR(f)) of a signal to noise ratio over said twisted pair cable; b) checking whether said spectrum (QLN(f), SNR(f)) comprises at least one spectral feature (N1', N2', P1, P2) at a frequency corresponding to that at which a power spectral density of said first signal presents a notch (N1, N2), said at least one spectral feature (N1', N2', P1, P2) comprising at least one notch in said spectrum (QLN(f)) of said quiet line noise over said twisted pair cable and/or at least one peak in said spectrum (SNR(f)) of said signal to noise ratio over said twisted pair cable; and c) in the affirmative, establishing that said second signal is affected by said noise induced by said first signal.
A method for measuring a shaft, the method comprising: a step of attaching, above/below a car of an elevator, a measurement apparatus to a car-guide rail in the shaft, wherein the measurement apparatus is constituted by a sensor configured to three-dimensionally detect a distance to a measurement object in a noncontatct manner; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail, and acquiring first dimensional data including dimensional data on an upper/lower part of the shaft; a step of detaching the measurement apparatus from the car-guide rail after the first dimensional data is acquired, and moving the car upward/downward and then stopping the car; a step of attaching the measurement apparatus to the car-guide rail below/above the car after the car is stopped; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail, and acquiring second dimensional data including dimensional data on a lower/upper part of the shaft; and a step of integrating the acquired first dimensional data and the acquired second dimensional data, and creating dimensional data on the entire shaft, wherein the first dimensional data includes data indicating a lower surface of a top jamb in a specific hall and data indicating an upper surface of a sill in the specific hall, and wherein the second dimensional data includes data indicating the lower surface of the top jamb in the specific hall and data indicating the upper surface of the sill in the specific hall. a step of attaching, above/below a car of an elevator, a measurement apparatus to a car-guide rail in the shaft, wherein the measurement apparatus is constituted by a sensor configured to three-dimensionally detect a distance to a measurement object in a noncontatct manner; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail, and acquiring first dimensional data including dimensional data on an upper/lower part of the shaft; a step of detaching the measurement apparatus from the car-guide rail after the first dimensional data is acquired, and moving the car upward/downward and then stopping the car; a step of attaching the measurement apparatus to the car-guide rail below/above the car after the car is stopped; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail, and acquiring second dimensional data including dimensional data on a lower/upper part of the shaft; and a step of integrating the acquired first dimensional data and the acquired second dimensional data, and creating dimensional data on the entire shaft, wherein the first dimensional data includes data indicating a lower surface of a top jamb in a specific hall and data indicating an upper surface of a sill in the specific hall, and wherein the second dimensional data includes data indicating the lower surface of the top jamb in the specific hall and data indicating the upper surface of the sill in the specific hall.
An organic light emitting display device comprising: a substrate; a thin film transistor on the substrate; a planarization layer on the thin film transistor; and a contact hole passing through the planarization layer to expose a source or drain electrode (223, 224) of the thin film transistor; a plurality of emissive areas each having a first electrode, a light emitting layer on the first electrode, and a second electrode on the light emitting layer; a hole between a first emissive area and a second emissive area of the plurality of emissive areas to provide an interruption between the light emitting layer of the first emissive area and the light emitting layer of the second emissive area; and a pixel defining layer on a portion of one first electrode and in the hole, wherein the first and second emissive areas are divided by the pixel defining layer, wherein a width of the hole is wider than a distance between one first electrode of the first emissive area and one first electrode of the second emissive area. a substrate; a thin film transistor on the substrate; a planarization layer on the thin film transistor; and a contact hole passing through the planarization layer to expose a source or drain electrode (223, 224) of the thin film transistor; a plurality of emissive areas each having a first electrode, a light emitting layer on the first electrode, and a second electrode on the light emitting layer; a hole between a first emissive area and a second emissive area of the plurality of emissive areas to provide an interruption between the light emitting layer of the first emissive area and the light emitting layer of the second emissive area; and a pixel defining layer on a portion of one first electrode and in the hole, wherein the first and second emissive areas are divided by the pixel defining layer, wherein a width of the hole is wider than a distance between one first electrode of the first emissive area and one first electrode of the second emissive area.
A method of deploying a selected UAV, the method comprising: receiving a command to deploy a UAV having a particular capability; selecting a UAV from a plurality of UAVs having the particular capability; and deploying the selected UAV, wherein the step of selecting a UAV comprises: positioning a carousel containing the plurality of UAVs to a position for the selected UAV; extending the UAV on a cradle; and, deploying the UAV with a grappling device. receiving a command to deploy a UAV having a particular capability; selecting a UAV from a plurality of UAVs having the particular capability; and deploying the selected UAV, wherein the step of selecting a UAV comprises: positioning a carousel containing the plurality of UAVs to a position for the selected UAV; extending the UAV on a cradle; and, deploying the UAV with a grappling device. positioning a carousel containing the plurality of UAVs to a position for the selected UAV; extending the UAV on a cradle; and, deploying the UAV with a grappling device.
An apparatus for industrial process control comprising: a plurality of replicated processing modules (24a, 24b, 24c) for receiving replicated sensor input data and for producing output data in which each of said plurality of replicated processing modules (24a, 24b, 24c) is connected to another one of said plurality of replicated processing modules (24a, 24b, 24c) via a dedicated high speed connection in which the processing modules (24a, 24b, 24c) slot into a backplane, and in which the backplane comprises a respective processor (82a, 82b) for each of said plurality of replicated processing modules (24a, 24b, 24c), each respective processor (82a, 82b) having a store storing network specific information for at least one of said plurality of replicated processing modules (24a, 24b, 24c). a plurality of replicated processing modules (24a, 24b, 24c) for receiving replicated sensor input data and for producing output data in which each of said plurality of replicated processing modules (24a, 24b, 24c) is connected to another one of said plurality of replicated processing modules (24a, 24b, 24c) via a dedicated high speed connection in which the processing modules (24a, 24b, 24c) slot into a backplane, and in which the backplane comprises a respective processor (82a, 82b) for each of said plurality of replicated processing modules (24a, 24b, 24c), each respective processor (82a, 82b) having a store storing network specific information for at least one of said plurality of replicated processing modules (24a, 24b, 24c).
A method of treating a fruit, vegetable, or herb seedling to improve at least one of stress resistance and crop yield, comprising exposing the fruit, vegetable, or herb seedling prior to a subsequent growth phase to specific wavelengths in a first single waveband and a second single waveband, wherein the first single waveband comprises ultraviolet-B (UV-B) light between 280 nm and 305 nm and the second single waveband comprises red visible light in a range from 655 to 680 nm, the first single waveband is administered to the fruit, vegetable, or herb seedling for a period of 2 to 15 days, and the treatment is performed indoors and the temperature is maintained between 12°C to 35°C during the treatment.
Brake device (1, 1*) for a vehicle comprising: at least one brake disc comprising two opposed radial surfaces with respect to a rotational axis of the at least one brake disc, at least two brake pads (20a, 20b) each of which facing one of the opposed radial surfaces of the at least one brake disc, at least one brake caliper (30, 30*) configured to provide a relative movement of the at least two brake pads (20a, 20b) towards and away from each other in a braking direction to apply or release a braking torque on or from the at least one brake disc, wherein the at least one brake caliper is configured to provide the relative movement between the at least two brake pads (20a, 20b) in a primary braking mode and in a secondary braking mode, and a carrier (40, 40*) to support the at least one brake caliper (30, 30*), wherein the at least one brake caliper (30, 30*) is supported relatively moveable on the carrier (40, 40*) in the braking direction, the brake device (1, 1*) characterized in that it comprises a holding mechanism (32, 90*, 90a*, 90b*) configured to prevent the relative movement of the at least one brake caliper (30, 30*) with respect to the carrier (40, 40*) at least in the primary braking mode and to allow the relative movement of the at least one brake caliper (30, 30*) with respect to the carrier (40, 40*) at least in the secondary braking mode. at least one brake disc comprising two opposed radial surfaces with respect to a rotational axis of the at least one brake disc, at least two brake pads (20a, 20b) each of which facing one of the opposed radial surfaces of the at least one brake disc, at least one brake caliper (30, 30*) configured to provide a relative movement of the at least two brake pads (20a, 20b) towards and away from each other in a braking direction to apply or release a braking torque on or from the at least one brake disc, wherein the at least one brake caliper is configured to provide the relative movement between the at least two brake pads (20a, 20b) in a primary braking mode and in a secondary braking mode, and a carrier (40, 40*) to support the at least one brake caliper (30, 30*), wherein the at least one brake caliper (30, 30*) is supported relatively moveable on the carrier (40, 40*) in the braking direction, the brake device (1, 1*) characterized in that it comprises a holding mechanism (32, 90*, 90a*, 90b*) configured to prevent the relative movement of the at least one brake caliper (30, 30*) with respect to the carrier (40, 40*) at least in the primary braking mode and to allow the relative movement of the at least one brake caliper (30, 30*) with respect to the carrier (40, 40*) at least in the secondary braking mode.
A method of tremor reduction in a handheld device, comprising: measuring a tremor motion and a tilt motion with a motion tracking module, "MTM", disposed in a housing of the handheld device; in response to measuring the tremor motion, moving an attachment arm with at least one motion generating mechanism to reduce the tremor motion in the attachment arm; and in response to measuring the tilt motion, moving the attachment arm with the at least one motion generating mechanism to resist the attachment arm hitting a hard stop in the handheld device; wherein measuring the tremor motion and the tilt motion includes separating high frequency motion corresponding to the tremor motion from low frequency motion corresponding to the tilt motion, and in response to measuring the low frequency motion corresponding to the tilt motion, resisting the attachment arm hitting the hard stop, wherein the hard stop is a maximum movement distance of the attachment arm in one direction. measuring a tremor motion and a tilt motion with a motion tracking module, "MTM", disposed in a housing of the handheld device; in response to measuring the tremor motion, moving an attachment arm with at least one motion generating mechanism to reduce the tremor motion in the attachment arm; and in response to measuring the tilt motion, moving the attachment arm with the at least one motion generating mechanism to resist the attachment arm hitting a hard stop in the handheld device; wherein measuring the tremor motion and the tilt motion includes separating high frequency motion corresponding to the tremor motion from low frequency motion corresponding to the tilt motion, and in response to measuring the low frequency motion corresponding to the tilt motion, resisting the attachment arm hitting the hard stop, wherein the hard stop is a maximum movement distance of the attachment arm in one direction.
A method comprising: detecting a first data stream; detecting a second data stream and determining two results of detection of the second data stream, a first result for a case when interference cancellation is to be carried out and a second result for a case when no interference cancellation is to be carried out, parallel to the detection of the first data stream; storing the two results of detection of the second data stream; channel decoding the detected first data stream; and determining a symbol estimate for the second data stream by using one of the stored two results of detection of the second data stream, and based on the success of the channel decoding of the first data stream. detecting a first data stream; detecting a second data stream and determining two results of detection of the second data stream, a first result for a case when interference cancellation is to be carried out and a second result for a case when no interference cancellation is to be carried out, parallel to the detection of the first data stream; storing the two results of detection of the second data stream; channel decoding the detected first data stream; and determining a symbol estimate for the second data stream by using one of the stored two results of detection of the second data stream, and based on the success of the channel decoding of the first data stream.
A non-combustion type flavor inhaler comprising: an atomizer atomizing an aerosol source without burning; and a controller controlling a power output to the atomizer, whereby the controller is configured to start supply of a power output to the atomizer before start of a user's puffing action, characterized in that the controller is further configured to stop supply of a power output to the atomizer in response to a user's puffing action. an atomizer atomizing an aerosol source without burning; and a controller controlling a power output to the atomizer, whereby the controller is configured to start supply of a power output to the atomizer before start of a user's puffing action,
An intravaginal ring for the controlled release of at least one bioactive agent, the ring comprising a) a polymeric matrix, b) an absorbable polymeric, not ion-exchanging microparticulate effective to modulate release of the bioactive agent from the ring, and c) a circular mesh, wherein the polymeric matrix surrounds the perimeter of the mesh, where the matrix becomes microporous as the microparticulate degrades when exposed to bodily fluid. a) a polymeric matrix, b) an absorbable polymeric, not ion-exchanging microparticulate effective to modulate release of the bioactive agent from the ring, and c) a circular mesh, wherein the polymeric matrix surrounds the perimeter of the mesh,
A composition for use in the management, treatment or prevention of hypertension, the composition comprising Lactobacillus plantarum ECGC 13110402 and galactooligosaccharides, wherein the GOS is produced by the Lactobacillus plantarum strain.
An emulsifier-free water-in-oil composition comprising:- (i) an amino-functional siloxane polymer; (ii) an ionic salt in an amount of up to 5% by weight of the composition; and (iii) water in an amount of at least 50% by weight of the composition; wherein the composition is in the form of a cream. (i) an amino-functional siloxane polymer; (ii) an ionic salt in an amount of up to 5% by weight of the composition; and (iii) water in an amount of at least 50% by weight of the composition;