mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus (16,160) comprising: a receiver (17, 170) for receiving a captured image generated by imaging an area behind a vehicle; a synthesizer for superimposing an indicator on the captured image; a detector (20, 200) for detecting the color in the vicinity of the position where the indicator is to be superimposed in the captured image; and a color determinator (21, 210) for determining a first color of the indicator when the head lamps of the vehicle are off; wherein the color determinator (21,210) configured to change color of the indicator from the first color when color of the captured image is similar to the first color and the head lamps of the vehicle are on, wherein the color determinator (21,210) configured to determine that the color of the captured image is similar to the first color based on braking information indicating a braking state, under which the first color light is emitted from brake lamps and wherein the color determinator (21, 210) configured to change the color of the indicator such that at least one of hue, brightness, and intensity of the color of the indicator differs from those of the detected color of the captured image if the brake lamps are on. a receiver (17, 170) for receiving a captured image generated by imaging an area behind a vehicle; a synthesizer for superimposing an indicator on the captured image; a detector (20, 200) for detecting the color in the vicinity of the position where the indicator is to be superimposed in the captured image; and a color determinator (21, 210) for determining a first color of the indicator when the head lamps of the vehicle are off; wherein the color determinator (21,210) configured to change color of the indicator from the first color when color of the captured image is similar to the first color and the head lamps of the vehicle are on, wherein the color determinator (21,210) configured to determine that the color of the captured image is similar to the first color based on braking information indicating a braking state, under which the first color light is emitted from brake lamps and wherein the color determinator (21, 210) configured to change the color of the indicator such that at least one of hue, brightness, and intensity of the color of the indicator differs from those of the detected color of the captured image if the brake lamps are on.
A composition for use in the treatment or prevention of a bacterial infection in a subject, the composition comprising; i) a first material being hydroxyapatite, ii) a second material being calcium sulphate, iii) two or more pharmaceutical compounds, wherein the at least two pharmaceutical compounds are selected from a combination of vancomycin and rifampicin, or a combination of gentamicin and rifampicin, to thereby prevent or reduce or eliminate the occurrence of bacterial resistance against said the pharmaceutical compounds. i) a first material being hydroxyapatite, ii) a second material being calcium sulphate, iii) two or more pharmaceutical compounds, wherein the at least two pharmaceutical compounds are selected from a combination of vancomycin and rifampicin, or a combination of gentamicin and rifampicin,
An assembly forming a casting core for the manufacture of a blade of a turbomachine having an offset tip section cooled by circulation of fluid in inner cavities (19a-19e), including a first core element of elongated shape for the formation of different inner cavities (19a-19e) and a second core element for the formation of a bathtub cavity, the second core element being designed to be disposed in the extension of the first core element, wherein the first core element comprises an inner leading edge cavity core, at least one inner central cavity core (31b-31d) and an inner trailing edge cavity core designed to form respectively, from upstream to downstream in the direction of a gas flow in the turbine, a leading edge cavity, at least one central cavity (19b-19d) and a trailing edge cavity of the blade, characterized in that the at least one inner central cavity core adjacent to the inner trailing edge core has, in the immediate neighbourhood of the second core element, a bulge which extends in the direction of the leading edge cavity core.
A device for imaging and processing a workpiece having nanometric features through the use of at least one charged particle beam, by both fully automated procedures and manual assistance procedures, comprising: a. a user interface, including a schedule input entry device; b. a procedure scheduler, accepting a schedule of procedures, including fully automated procedures and manual assistance procedures, from said schedule input entry device; and c. a procedure sequencer; characterized in that the device further comprises a human operator ready input that can be placed in first or a second state, and in that the procedure sequencer: when said human operator ready input is in said first state, sequences through manual assistance procedures until said human operator ready input is placed into said second state, at which time said sequencer begins sequencing said fully automated procedures; and when said human operator ready input is in said second state, sequences through fully automated procedures until said human operator ready input is placed into said first state, at which time said sequencer begins sequencing said manual assistance procedures, after reaching a safe termination point for said fully automated procedures being performed. a. a user interface, including a schedule input entry device; b. a procedure scheduler, accepting a schedule of procedures, including fully automated procedures and manual assistance procedures, from said schedule input entry device; and c. a procedure sequencer; characterized in that the device further comprises a human operator ready input that can be placed in first or a second state, and in that the procedure sequencer: when said human operator ready input is in said first state, sequences through manual assistance procedures until said human operator ready input is placed into said second state, at which time said sequencer begins sequencing said fully automated procedures; and when said human operator ready input is in said second state, sequences through fully automated procedures until said human operator ready input is placed into said first state, at which time said sequencer begins sequencing said manual assistance procedures, after reaching a safe termination point for said fully automated procedures being performed. when said human operator ready input is in said first state, sequences through manual assistance procedures until said human operator ready input is placed into said second state, at which time said sequencer begins sequencing said fully automated procedures; and when said human operator ready input is in said second state, sequences through fully automated procedures until said human operator ready input is placed into said first state, at which time said sequencer begins sequencing said manual assistance procedures, after reaching a safe termination point for said fully automated procedures being performed.
An electrical mechanism, which comprises an axial axis (1 Y) in which is arranged: - a rocking lever configured to adopt a first position (P 1) and a second position (P 2) of electrical connection or disconnection; - a striker disengaged from the rocking lever in a resting position, and configured to engage with the rocking lever in the first position (P 1) and in the second position (P 2); - an actuating means configured to transmit an actuation force to the striker so that said striker engages with the rocking lever and changes the position (P 1, P 2) thereof; and - a spring configured to disengage the striker from the rocking lever once the actuation force is released and return it to the resting position; said mechanism characterized in that two contact points (C 1, C 2) for transmitting the actuation force are established between the striker and the actuating means in an initial working position, once the actuation force is applied. - a rocking lever configured to adopt a first position (P 1) and a second position (P 2) of electrical connection or disconnection; - a striker disengaged from the rocking lever in a resting position, and configured to engage with the rocking lever in the first position (P 1) and in the second position (P 2); - an actuating means configured to transmit an actuation force to the striker so that said striker engages with the rocking lever and changes the position (P 1, P 2) thereof; and - a spring configured to disengage the striker from the rocking lever once the actuation force is released and return it to the resting position; said mechanism characterized in that two contact points (C 1, C 2) for transmitting the actuation force are established between the striker and the actuating means in an initial working position, once the actuation force is applied.
A hazard monitoring system (25; 125; 225) for an outdoor lift station (11; 211) of an outdoor lift, in particular a ropeway-lift, configured to detect objects in a driving lane of a lift carriage, comprising, - at least one detection unit (30; 130), provided in the driving lane of the lift carriage, while said at least one detection unit (30; 130) com prises a detection grating (35a; 135), a detection net and/or a detection plate, - at least one weight sensor system (36; 136), on which the at least one detection unit (30; 130) is mounted, and which is configured to provide a load signal, in particular a weight-load signal, dependent on a weight or force being applied to the at least one detection unit (30; 130) - an evaluation system configured to provide a warning signal based on a level of the load signal. - at least one detection unit (30; 130), provided in the driving lane of the lift carriage, while said at least one detection unit (30; 130) com prises a detection grating (35a; 135), a detection net and/or a detection plate, - at least one weight sensor system (36; 136), on which the at least one detection unit (30; 130) is mounted, and which is configured to provide a load signal, in particular a weight-load signal, dependent on a weight or force being applied to the at least one detection unit (30; 130) - an evaluation system configured to provide a warning signal based on a level of the load signal.
A light emitting diode comprising: a conductive support substrate; an adhesive layer on the conductive support substrate; a reflection layer on the adhesive layer, an ohmic contact layer on the reflection layer, a light emitting structure layer disposed on the ohmic contact layer, a current blocking layer between the light emitting structure layer and the ohmic contact layer, and an electrode on the light emitting structure layer, at least a part of the electrode being vertically overlapped with the current blocking layer; characterised by a first current guide layer disposed on a top surface of the adhesive layer, wherein the first current guide layer is disposed between a bottom surface of the reflection layer and the top surface of the adhesion layer, at least a part of the first current guide layer being vertically overlapped with the current blocking layer, wherein the first current guide layer is spaced apart from the current blocking layer, and wherein the first current guide layer is spaced apart from the light emitting structure layer, and wherein the width of the first current guide layer is greater than the width of the current blocking layer. a conductive support substrate; an adhesive layer on the conductive support substrate; a reflection layer on the adhesive layer, an ohmic contact layer on the reflection layer, a light emitting structure layer disposed on the ohmic contact layer, a current blocking layer between the light emitting structure layer and the ohmic contact layer, and an electrode on the light emitting structure layer, at least a part of the electrode being vertically overlapped with the current blocking layer; characterised by a first current guide layer disposed on a top surface of the adhesive layer, wherein the first current guide layer is disposed between a bottom surface of the reflection layer and the top surface of the adhesion layer, at least a part of the first current guide layer being vertically overlapped with the current blocking layer, wherein the first current guide layer is spaced apart from the current blocking layer, and wherein the first current guide layer is spaced apart from the light emitting structure layer, and wherein the width of the first current guide layer is greater than the width of the current blocking layer.
A catheter, comprising: a catheter shaft having a fluid channel; an ultrasound transducer; and a compliant balloon having an expansion range of 3.5 to 9 mm, the balloon being mounted on the catheter shaft and having an interior in fluid communication with the fluid channel and containing the ultrasound transducer, wherein the compliant balloon includes a balloon wall having a working section radially surrounding the ultrasound transducer, and wherein the working section has a predetermined straightness when the working section has a first diameter of at least 3.5 mm at a first inflation pressure, and a second diameter of 9 mm or less at a second inflation pressure that is higher than the first inflation pressure, where the second diameter is at least 2 mm greater than the first diameter. a catheter shaft having a fluid channel; an ultrasound transducer; and a compliant balloon having an expansion range of 3.5 to 9 mm, the balloon being mounted on the catheter shaft and having an interior in fluid communication with the fluid channel and containing the ultrasound transducer, wherein the compliant balloon includes a balloon wall having a working section radially surrounding the ultrasound transducer, and wherein the working section has a predetermined straightness when the working section has a first diameter of at least 3.5 mm at a first inflation pressure, and a second diameter of 9 mm or less at a second inflation pressure that is higher than the first inflation pressure, where the second diameter is at least 2 mm greater than the first diameter.
A position controller that performs position control by outputting a drive signal to a control valve of a hydraulic actuator that changes an operating position of a transmission element so as to change a transmission ratio of a continuously variable transmission, the position controller comprising: an oil temperature acquisition unit that acquires information of an oil temperature of the hydraulic actuator; an actual transmission ratio acquisition unit that acquires an actual value of the transmission ratio; a position acquisition unit that acquires an actual value of an operation position of the transmission element; a target position calculation unit that calculate a target value of the operating position of the transmission element by first closed-loop control so as to reduce a deviation between a command value of the transmission ratio and the actual value of the transmission ratio; a position control unit that calculates an operation command value for the control valve by second closed-loop control so as to reduce a deviation between the target value of the operation position of the transmission element and the actual value of the operation position of the transmission element; and characterised by further comprising a gain setting unit that changes a gain (G 1) of the first closed-loop control so that sensitivity of the first closed-loop control decreases as the oil temperature decreases. an oil temperature acquisition unit that acquires information of an oil temperature of the hydraulic actuator; an actual transmission ratio acquisition unit that acquires an actual value of the transmission ratio; a position acquisition unit that acquires an actual value of an operation position of the transmission element; a target position calculation unit that calculate a target value of the operating position of the transmission element by first closed-loop control so as to reduce a deviation between a command value of the transmission ratio and the actual value of the transmission ratio; a position control unit that calculates an operation command value for the control valve by second closed-loop control so as to reduce a deviation between the target value of the operation position of the transmission element and the actual value of the operation position of the transmission element; and characterised by further comprising a gain setting unit that changes a gain (G 1) of the first closed-loop control so that sensitivity of the first closed-loop control decreases as the oil temperature decreases.
Rotary-type conveying device for preforms made of thermoplastic material, comprising at least a body and a neck, said conveying device comprises at least support means (130, 132, 136) configured to engage with a collar of the neck of the preform, which support means (130, 132, 136) comprise movable means intended to be rotated about an axis of rotation in order to convey said preforms from an inlet to an outlet of said device, wherein the support means hold said preform axially during conveying, in that it comprises immobilizing means which are distinct from the support means (130, 132, 136) and are configured to selectively apply an immobilizing force to a part of the body of said preform, characterized in that the immobilizing force is obtained by a reduction in pressure in order to immobilize said preform in position relative to the movable means.
A collagenase composition for use in a method of treating a defect or injury in meniscal cartilage, wherein the treatment comprises applying the collagenase composition to a defect or injury in the meniscus in a patient, thereby promoting healing of the defect or injury.
A motor control device that converts a DC voltage into an AC voltage to drive and control a motor comprising: an inverter control circuit that includes: a plurality of upper-arm switching elements (15, 16, 17) that is connected to a positive terminal of a DC power supply; a plurality of first drive circuits (11, 12, 13) that operates with an accumulated charge of a bootstrap capacitor (8, 9, 10) as a power supply to drive each of the upper-arm switching elements (15, 16, 17); a plurality of lower-arm switching elements (18, 19, 20) that is respectively connected in series with the upper-arm switching elements (15, 16, 17); and a computing device that computes a control signal for controlling each of the first drive circuits (11, 12, 13), characterized by a second drive circuit configured to drive each of the lower-arm switching elements (18, 19, 20), and a switch element configured to shut down only a power supply for charging the bootstrap capacitor (8, 9, 10) when an operation to stop an output of the control circuit is performed; wherein the computing device configured to compute a control signal for controlling of the second drive circuit. an inverter control circuit that includes: a plurality of upper-arm switching elements (15, 16, 17) that is connected to a positive terminal of a DC power supply; a plurality of first drive circuits (11, 12, 13) that operates with an accumulated charge of a bootstrap capacitor (8, 9, 10) as a power supply to drive each of the upper-arm switching elements (15, 16, 17); a plurality of lower-arm switching elements (18, 19, 20) that is respectively connected in series with the upper-arm switching elements (15, 16, 17); and a computing device that computes a control signal for controlling each of the first drive circuits (11, 12, 13), characterized by a second drive circuit configured to drive each of the lower-arm switching elements (18, 19, 20), and a plurality of upper-arm switching elements (15, 16, 17) that is connected to a positive terminal of a DC power supply; a plurality of first drive circuits (11, 12, 13) that operates with an accumulated charge of a bootstrap capacitor (8, 9, 10) as a power supply to drive each of the upper-arm switching elements (15, 16, 17); a plurality of lower-arm switching elements (18, 19, 20) that is respectively connected in series with the upper-arm switching elements (15, 16, 17); and a computing device that computes a control signal for controlling each of the first drive circuits (11, 12, 13), characterized by a second drive circuit configured to drive each of the lower-arm switching elements (18, 19, 20), and a switch element configured to shut down only a power supply for charging the bootstrap capacitor (8, 9, 10) when an operation to stop an output of the control circuit is performed; wherein the computing device configured to compute a control signal for controlling of the second drive circuit.
A method for obtaining and inserting in real time a virtual object within a virtual scene from a physical object, comprising performing dynamically the following actions: - capturing from a physical camera an image of a physical object against a background; - extracting a silhouette of said physical object from the captured image and mapping the captured image over a three dimensional geometry obtaining a virtual object; - incorporating said virtual object as one more element in the virtual scene; and - orienting said virtual object with regard to a virtual camera in order to avoid said virtual object being rendered edgewise, characterized in that the method further comprises: - obtaining and using intrinsic and extrinsic parameters of said physical camera and said captured image of the physical object to calculate a position of said physical object, and determining a position of said virtual object by calculating at least the coordinates of the lowest point of said captured image of said physical object against said background; - placing the virtual object in said calculated position of said physical object within the virtual scene and selecting an axis of rotation to orient the virtual object with regard to the virtual camera based on said calculated position of the physical object; and - projecting back said captured image over the three dimensional geometry using said physical camera intrinsic and extrinsic parameters. - capturing from a physical camera an image of a physical object against a background; - extracting a silhouette of said physical object from the captured image and mapping the captured image over a three dimensional geometry obtaining a virtual object; - incorporating said virtual object as one more element in the virtual scene; and - orienting said virtual object with regard to a virtual camera in order to avoid said virtual object being rendered edgewise, - obtaining and using intrinsic and extrinsic parameters of said physical camera and said captured image of the physical object to calculate a position of said physical object, and determining a position of said virtual object by calculating at least the coordinates of the lowest point of said captured image of said physical object against said background; - placing the virtual object in said calculated position of said physical object within the virtual scene and selecting an axis of rotation to orient the virtual object with regard to the virtual camera based on said calculated position of the physical object; and - projecting back said captured image over the three dimensional geometry using said physical camera intrinsic and extrinsic parameters.