mhurhangee/ep-ind-claims huggingface dataset:
An optical article comprising (a) a polycarbonate substrate, (b) an intermediate coating which, when applied onto a substrate consisting of a polymer of diethylene glycol bis(allyl carbonate), known as CR-39, to form a coated substrate and then subjected to a tintability test, provides for a transmittance value of at least 60%, wherein the tintability test consists in dipping the coated substrate in a black dye solution at 96°C under atmospheric pressure for a time sufficient to obtain a transmittance value of 20% with a sample of same uncoated substrate under the same conditions, and (c) a transparent self-healing outer coating obtained by drying and curing a composition comprising at least one polycarbonate polyol, at least one polyisocyanate, at least one solvent and at least one surfactant. (a) a polycarbonate substrate, (b) an intermediate coating which, when applied onto a substrate consisting of a polymer of diethylene glycol bis(allyl carbonate), known as CR-39, to form a coated substrate and then subjected to a tintability test, provides for a transmittance value of at least 60%, wherein the tintability test consists in dipping the coated substrate in a black dye solution at 96°C under atmospheric pressure for a time sufficient to obtain a transmittance value of 20% with a sample of same uncoated substrate under the same conditions, and (c) a transparent self-healing outer coating obtained by drying and curing a composition comprising at least one polycarbonate polyol, at least one polyisocyanate, at least one solvent and at least one surfactant.
A component mounter for picking up a component supplied to a component supply position by a component supply device and mounting the component on a mounting target object, the component mounter comprising: a rotary head having a rotary body configured to hold multiple pickup members configured to pick up a component in a circumferential direction and configured not only to revolve the multiple pickup members in the circumferential direction as the rotary body rotates but also to allow the pickup members to rotate about their own axes while being interlocked with each other; a lifting and lowering device (70, 75) configured to raise and lower at least one pickup member of the multiple pickup members which is positioned at a predetermined revolving angle; and a control device configured to control, when a component supplied from the component supply device can be picked up at multiple different rotating angles, the rotary head and the lifting and lowering device (70, 75) so that the pickup member moves to the predetermined revolving angle to be lowered and picks up the component at a rotating angle of the multiple rotating angles which involves a smaller moving amount, wherein the control device is configured to acquire information on the shape of the pickup member to determine based on the acquired shape information whether the pickup member can pick up the component at the multiple different rotating angles of the pickup member. a rotary head having a rotary body configured to hold multiple pickup members configured to pick up a component in a circumferential direction and configured not only to revolve the multiple pickup members in the circumferential direction as the rotary body rotates but also to allow the pickup members to rotate about their own axes while being interlocked with each other; a lifting and lowering device (70, 75) configured to raise and lower at least one pickup member of the multiple pickup members which is positioned at a predetermined revolving angle; and a control device configured to control, when a component supplied from the component supply device can be picked up at multiple different rotating angles, the rotary head and the lifting and lowering device (70, 75) so that the pickup member moves to the predetermined revolving angle to be lowered and picks up the component at a rotating angle of the multiple rotating angles which involves a smaller moving amount, wherein the control device is configured to acquire information on the shape of the pickup member to determine based on the acquired shape information whether the pickup member can pick up the component at the multiple different rotating angles of the pickup member.
A system for performing rhythm discrimination within the body of a patient, comprising: an electrode configured to sense electrical activity of the heart, wherein the electrode is configured to transmit an electrical activity signal; a blood pressure sensor implanted in or adjacent to the heart, the blood pressure sensor configured to sense both atrial mechanical activity and ventricular mechanical activity within the heart, the blood pressure sensor configured to transmit a mechanical activity signal including one or more blood pressure measurements associated with the sensed atrial and ventricular mechanical activity; and an implantable medical device in communication with the blood pressure sensor and the electrode, the implantable medical device including a control unit configured to receive the electrical activity signal and to analyze the electrical activity signal to detect an arrhythmia event and provide an appropriate therapy to the patient based at least in part on the mechanical activity signal received from the blood pressure sensor and the electrical activity signal received from the electrode, wherein the control unit is configured to analyze the mechanical activity signal to confirm the presence of the arrhythmia event, wherein the control unit is configured to determine a right atrial contraction rate and a right ventricular contraction rate from the one or more blood pressure measurements, and wherein the control unit is configured to determine the type of arrhythmia event by comparing the right atrial contraction rate to the right ventricular contraction rate. an electrode configured to sense electrical activity of the heart, wherein the electrode is configured to transmit an electrical activity signal; a blood pressure sensor implanted in or adjacent to the heart, the blood pressure sensor configured to sense both atrial mechanical activity and ventricular mechanical activity within the heart, the blood pressure sensor configured to transmit a mechanical activity signal including one or more blood pressure measurements associated with the sensed atrial and ventricular mechanical activity; and an implantable medical device in communication with the blood pressure sensor and the electrode, the implantable medical device including a control unit configured to receive the electrical activity signal and to analyze the electrical activity signal to detect an arrhythmia event and provide an appropriate therapy to the patient based at least in part on the mechanical activity signal received from the blood pressure sensor and the electrical activity signal received from the electrode, wherein the control unit is configured to analyze the mechanical activity signal to confirm the presence of the arrhythmia event, wherein the control unit is configured to determine a right atrial contraction rate and a right ventricular contraction rate from the one or more blood pressure measurements, and wherein the control unit is configured to determine the type of arrhythmia event by comparing the right atrial contraction rate to the right ventricular contraction rate.
A tachometer device comprising: a rotor including a plurality of Wiegand wires (102, 104, 105, 106) and at least one special Wiegand wire (100, 103); wherein the plurality of Wiegand wires (102, 104, 105, 106) are uniformly arranged along a circumference of the rotor, a first measurement channel and a second measurement channel arranged to face each other on both sides of the rotor and configured to measure pulses generated from the plurality of Wiegand wires (102, 104, 105 106) and the at least one special Wiegand wire (100, 103), wherein the at least one special Wiegand wire (100, 103) is installed to have a different interval from the plurality of Wiegand wires (102, 104, 105, 106). a rotor including a plurality of Wiegand wires (102, 104, 105, 106) and at least one special Wiegand wire (100, 103); wherein the plurality of Wiegand wires (102, 104, 105, 106) are uniformly arranged along a circumference of the rotor, a first measurement channel and a second measurement channel arranged to face each other on both sides of the rotor and configured to measure pulses generated from the plurality of Wiegand wires (102, 104, 105 106) and the at least one special Wiegand wire (100, 103), wherein the at least one special Wiegand wire (100, 103) is installed to have a different interval from the plurality of Wiegand wires (102, 104, 105, 106).
A light emitting device comprising: one or more first solid state light emitting elements emitting a first light having a first peak wavelength; one or more second solid state light emitting elements emitting a second light having a second peak wavelength shorter than the first peak wavelength; and a wavelength converter including phosphors that convert wavelengths of the first and the second solid state light emitting elements (2a, 2b), wherein the wavelength converter is disposed to cover the first and the second solid state light emitting elements (2a, 2b), wherein the phosphors include two or more of a first phosphor, a second phosphor, and a third phosphor, the first phosphor being excited only by the first light, the second phosphor being excited only by the second light, and the third phosphor being excited by the first and the second light, wherein the first phosphor, the second phosphor or the third phosphor includes a plurality of fluorescent substances that have a same excitation wavelength and plural emission peak wavelengths different from each other, wherein the wavelength converter includes a first layer made of a sealing resin containing the first phosphor and/or the third phosphor and a second layer made of a sealing resin containing the second phosphor and/or the third phosphor, the first and the second layer (22A, 22B) being devoid of the second and the first phosphor (92, 91), respectively, and wherein the first layer is disposed to cover the first and the second solid state light emitting elements (2a, 2b) and the second layer is disposed on the first layer. one or more first solid state light emitting elements emitting a first light having a first peak wavelength; one or more second solid state light emitting elements emitting a second light having a second peak wavelength shorter than the first peak wavelength; and a wavelength converter including phosphors that convert wavelengths of the first and the second solid state light emitting elements (2a, 2b), wherein the wavelength converter is disposed to cover the first and the second solid state light emitting elements (2a, 2b), wherein the phosphors include two or more of a first phosphor, a second phosphor, and a third phosphor, the first phosphor being excited only by the first light, the second phosphor being excited only by the second light, and the third phosphor being excited by the first and the second light, wherein the first phosphor, the second phosphor or the third phosphor includes a plurality of fluorescent substances that have a same excitation wavelength and plural emission peak wavelengths different from each other, wherein the wavelength converter includes a first layer made of a sealing resin containing the first phosphor and/or the third phosphor and a second layer made of a sealing resin containing the second phosphor and/or the third phosphor, the first and the second layer (22A, 22B) being devoid of the second and the first phosphor (92, 91), respectively, and wherein the first layer is disposed to cover the first and the second solid state light emitting elements (2a, 2b) and the second layer is disposed on the first layer.
A garment comprising a grip coating located on inner and outer surfaces of a garment section so as to generate in use friction between a wearer's skin and the garment and friction between the garment and an external contact surface, the grip coating including a first array of grip elements located on the inner surface of the garment section and a second array of grip elements located on the outer surface of the garment section, the garment being characterised in that the first and second arrays are arranged relative to each other so that: the grip elements (14,16) of the first and second arrays are offset relative to each other and do not overlie or overlap each other; and the grip elements (14,16) of each of the arrays are interposed between grip elements (14,16) of the other of the arrays. the grip elements (14,16) of the first and second arrays are offset relative to each other and do not overlie or overlap each other; and the grip elements (14,16) of each of the arrays are interposed between grip elements (14,16) of the other of the arrays.
An image display device, comprising: a body configured to be wearable on a specific portion of a human body; a camera coupled to the body and configured to continuously capture a video; a display unit coupled to the body and configured to display a preview screen captured at a viewing angle of the camera; and a controller; characterized in that said controller is configured to: receive a first input for setting a first region on the preview screen when the preview screen is displayed on the display unit, wherein the first region denotes a specific object within the preview screen; recognize and extract the specific object; display a first graphic object indicating the set first region on the preview screen, continuously capture a video of the first region according to a capture signal, and when the viewing angle of the preview screen including the set first region deviates more than a predetermined reference range, pause the continuous capturing the video of the first region and display a second graphic object indicating an extent of the deviation. a body configured to be wearable on a specific portion of a human body; a camera coupled to the body and configured to continuously capture a video; a display unit coupled to the body and configured to display a preview screen captured at a viewing angle of the camera; and a controller; characterized in that said controller is configured to: receive a first input for setting a first region on the preview screen when the preview screen is displayed on the display unit, wherein the first region denotes a specific object within the preview screen; recognize and extract the specific object; display a first graphic object indicating the set first region on the preview screen, continuously capture a video of the first region according to a capture signal, and when the viewing angle of the preview screen including the set first region deviates more than a predetermined reference range, pause the continuous capturing the video of the first region and display a second graphic object indicating an extent of the deviation. receive a first input for setting a first region on the preview screen when the preview screen is displayed on the display unit, wherein the first region denotes a specific object within the preview screen; recognize and extract the specific object; display a first graphic object indicating the set first region on the preview screen, continuously capture a video of the first region according to a capture signal, and when the viewing angle of the preview screen including the set first region deviates more than a predetermined reference range, pause the continuous capturing the video of the first region and display a second graphic object indicating an extent of the deviation.
A method of controlling a process flow in a controlled environment comprising: plumbing a process control valve within the controlled environment; providing a solenoid coil mated to the process control valve and configured to operate the process control valve, the solenoid coil located within the controlled environment; using a valve coil to receive power and transfer that power to the solenoid coil, thereby operating the process control valve, the valve coil located within the controlled environment; and using a controller coil to transmit the power to the valve coil by selectively inducing alternating current flow in the latter, the controller coil being wired to a controller located in a second environment outside of the controlled environment, wherein the second environment is separated from the controlled environment by a vapor tight barrier; and using one or more sensors (42, 44, 46) to indicate the position, the temperature and/or the flow rate of the process control valve, and using a microprocessor to monitor the sensors and generate a data signal indicative of the input from the sensors and transmit that data signal back to a controller driver through the valve coil and controller coil, wherein the microprocessor generates the data signal as a high frequency series of pulses and overlays the data signal on the alternating current of the valve coil, and in so doing inductively couples the data signal onto the controller coil, where the data signal is communicated to the controller. plumbing a process control valve within the controlled environment; providing a solenoid coil mated to the process control valve and configured to operate the process control valve, the solenoid coil located within the controlled environment; using a valve coil to receive power and transfer that power to the solenoid coil, thereby operating the process control valve, the valve coil located within the controlled environment; and using a controller coil to transmit the power to the valve coil by selectively inducing alternating current flow in the latter, the controller coil being wired to a controller located in a second environment outside of the controlled environment, wherein the second environment is separated from the controlled environment by a vapor tight barrier; and using one or more sensors (42, 44, 46) to indicate the position, the temperature and/or the flow rate of the process control valve, and using a microprocessor to monitor the sensors and generate a data signal indicative of the input from the sensors and transmit that data signal back to a controller driver through the valve coil and controller coil, wherein the microprocessor generates the data signal as a high frequency series of pulses and overlays the data signal on the alternating current of the valve coil, and in so doing inductively couples the data signal onto the controller coil, where the data signal is communicated to the controller.
A substrate treatment product comprising a package comprising at least one layer of fibrous or pulp material and at least one layer of a polymeric material selected from polylactic acid, polyhydroxyalkanoate, a polyester, polyvinyl alcohol, polybutylenadipate terephthalate, a cellulose based material, a starch based material, a sugar cane based material and mixtures thereof, and the packaging containing a plurality of water-soluble capsules, each water-soluble capsule comprising a substrate treatment composition within a sealed compartment which is filled to at least 60% of the volume of the compartment, the package comprising (i) a receptacle containing 10 or more of said water soluble capsules and a closure; (ii) a child resistent closure mechanism; wherein the substrate treatment composition has a viscosity in the range 200 mPa.s - 2000 mPa.s at 25°C at a shear rate of 21 sec -1, wherein the water soluble capsule comprises a water soluble film comprising polyvinyl alcohol, a modified polyvinyl alcohol, polyvinyl acetate, carboxymethylcellulose or hydroxypropyl methyl cellulose and wherein the water content of the substrate treatment composition is in the range 0.01 - 15%wt. based on the total weight of the composition.
A connector comprising: an electric wire, a terminal fitting that includes, at one end, a screwing plate portion to be screwed to a mating terminal stage and includes, at the other end, a wire connection portion to which the electric wire is connected; a connector housing made of a resin molded member which is molded integrally on the terminal fitting and the electric wire; and a shield shell disposed outside the connector housing, wherein the connector housing comprises a plate portion fixing portion with which a space around the screwing plate portion is filled to fix an outer surface of the screwing plate portion, the connector being characterised in that the connector housing is formed with a terminal escape space which is only positioned on the same side of the terminal fitting as the mating terminal stage adjacent to the screwing plate portion, the terminal escape space permitting a bending displacement of the screwing plate portion in the fastening direction. an electric wire, a terminal fitting that includes, at one end, a screwing plate portion to be screwed to a mating terminal stage and includes, at the other end, a wire connection portion to which the electric wire is connected; a connector housing made of a resin molded member which is molded integrally on the terminal fitting and the electric wire; and a shield shell disposed outside the connector housing, wherein the connector housing comprises a plate portion fixing portion with which a space around the screwing plate portion is filled to fix an outer surface of the screwing plate portion, the connector being characterised in that the connector housing is formed with a terminal escape space which is only positioned on the same side of the terminal fitting as the mating terminal stage adjacent to the screwing plate portion, the terminal escape space permitting a bending displacement of the screwing plate portion in the fastening direction.
Use of pre-oxidized ilmenite particles for reaching a predetermined concentration of ilmenite particles in the bed material of a fluidized bed boiler during startup of the fluidized bed boiler, wherein said pre-oxidized ilmenite particles i) were produced inside a furnace, by carrying out the steps of: a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace; c) continuously feeding fresh ilmenite particles to the furnace; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace; and/or ii) are pre-oxidized in said boiler from fresh ilmenite particles provided to said boiler. i) were produced inside a furnace, by carrying out the steps of: a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace; c) continuously feeding fresh ilmenite particles to the furnace; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace; and/or a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace; c) continuously feeding fresh ilmenite particles to the furnace; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace; and/or ii) are pre-oxidized in said boiler from fresh ilmenite particles provided to said boiler.