mhurhangee/ep-ind-claims huggingface dataset:
A method for determining hydrogen embrittlement in a plated sample, said method comprising a calibration phase and a testing phase, wherein the calibration phase comprises: positioning an unplated sample between a first holding member and a second holding member; moving the second holding member towards the first holding member to bend the unplated sample until the unplated sample fractures; repeating the steps of positioning and moving on further unplated samples to determine the average distance between the first holding member and the second holding member that fractures unplated samples; and wherein the testing phase comprises: positioning the plated sample between the first holding member and the second holding member; moving the second holding member towards the first holding member to bend the plated sample; and applying a static load to the plated sample for a predetermined duration of time; wherein applying a static load comprises maintaining the second holding member at a predetermined distance from the first holding member for the predetermined duration; wherein the predetermined distance is determined by the equation L - %OBD ( L - FBD), wherein L is a length of the samples, %OBD is a predetermined percentage, and FBD is the average distance that fractures unplated samples. positioning an unplated sample between a first holding member and a second holding member; moving the second holding member towards the first holding member to bend the unplated sample until the unplated sample fractures; repeating the steps of positioning and moving on further unplated samples to determine the average distance between the first holding member and the second holding member that fractures unplated samples; positioning the plated sample between the first holding member and the second holding member; moving the second holding member towards the first holding member to bend the plated sample; and applying a static load to the plated sample for a predetermined duration of time; wherein applying a static load comprises maintaining the second holding member at a predetermined distance from the first holding member for the predetermined duration; wherein the predetermined distance is determined by the equation L - %OBD ( L - FBD), wherein L is a length of the samples, %OBD is a predetermined percentage, and FBD is the average distance that fractures unplated samples.
A gas carburetton comprising (a) an air inlet and air passage, a gas inlet and a gas passage, (b) a common section, a throat 7 and a mixing zone and (c) an adjustable flapper; the improvement comprising the provision of: i. Additional means for controlling the air and gas area in the mixing zone for meeting the air and gas ratio to preset levels wherein the throat velocities are maintained in the range of 30-80 m/s; ii. A zero pressure regulator being used on the gas line for providing gas and air to the common section at regulated pressure; characterised by iii. A bypass line upstream of the zero pressure regulator for gas flow during the start up; and iv. A valve being provided on the bypass line for opening and closing during start up. (a) an air inlet and air passage, a gas inlet and a gas passage, (b) a common section, a throat 7 and a mixing zone and (c) an adjustable flapper; the improvement comprising the provision of: i. Additional means for controlling the air and gas area in the mixing zone for meeting the air and gas ratio to preset levels wherein the throat velocities are maintained in the range of 30-80 m/s; ii. A zero pressure regulator being used on the gas line for providing gas and air to the common section at regulated pressure; characterised by iii. A bypass line upstream of the zero pressure regulator for gas flow during the start up; and iv. A valve being provided on the bypass line for opening and closing during start up. i. Additional means for controlling the air and gas area in the mixing zone for meeting the air and gas ratio to preset levels wherein the throat velocities are maintained in the range of 30-80 m/s; ii. A zero pressure regulator being used on the gas line for providing gas and air to the common section at regulated pressure; characterised by iii. A bypass line upstream of the zero pressure regulator for gas flow during the start up; and iv. A valve being provided on the bypass line for opening and closing during start up.
A timepiece mobile for a semi-instantaneous jump mechanism, said mobile including a stop member, an elastic return means, and a drive wheel which includes, around a pivot axis, a hub for guiding said stop member, which stop member is movable with respect to said drive wheel and includes at least one disengageable stop finger movable between a wound position wherein the radial extension of said stop finger is maximum with respect to said axis, and an unwound position wherein the radial extension of said stop finger is minimal with respect to said axis, said stop finger being subjected to the action of said elastic return means which tends to move it away from said axis, characterised in that said stop member includes a first housing the walls of which are arranged to bearingly cooperate, during the winding of said elastic return means, with a contact surface that said elastic return means includes, to limit the value of said winding and to limit the deformation of said elastic return means to its elastic range only.
An array substrate, comprising: a substrate; a plurality of pixel units provided on the substrate, each of the pixel units comprising a plurality of functional layers; and a light shielding assembly arranged between adjacent pixel units, wherein the light shielding assembly comprises: a light shielding layer made from a material, which is not transparent; a light absorption layer overlaid on the light shielding layer; and an antireflection layer overlaid on the light absorption layer, wherein the antireflection layer is made from at least one of indium tin oxide, indium zinc oxide, and aluminum zinc oxide, wherein the light absorption layer is in contact with the light shielding layer and the antireflection layer, and each of the light shielding layer, the light absorption layer and the antireflection layer are single layers; and wherein the light shielding assembly is configured in such a way that external ambient light is first incident onto the antireflection layer, passes through the antireflection layer into the light absorption layer, is absorbed by the light absorption layer, and then reaches the light shielding layer. a substrate; a plurality of pixel units provided on the substrate, each of the pixel units comprising a plurality of functional layers; and a light shielding assembly arranged between adjacent pixel units, wherein the light shielding assembly comprises: a light shielding layer made from a material, which is not transparent; a light absorption layer overlaid on the light shielding layer; and an antireflection layer overlaid on the light absorption layer, wherein the antireflection layer is made from at least one of indium tin oxide, indium zinc oxide, and aluminum zinc oxide, a light shielding layer made from a material, which is not transparent; a light absorption layer overlaid on the light shielding layer; and an antireflection layer overlaid on the light absorption layer, wherein the antireflection layer is made from at least one of indium tin oxide, indium zinc oxide, and aluminum zinc oxide, wherein the light absorption layer is in contact with the light shielding layer and the antireflection layer, and each of the light shielding layer, the light absorption layer and the antireflection layer are single layers; and wherein the light shielding assembly is configured in such a way that external ambient light is first incident onto the antireflection layer, passes through the antireflection layer into the light absorption layer, is absorbed by the light absorption layer, and then reaches the light shielding layer.
A mobile terminal device comprising: a communication processor that is configured to conduct wireless communication processing; an operation unit that is configured to receive an instruction input from a user for selecting a communication contact; a displacement detector that is configured to detect a displacement in orientation of the mobile terminal device; a proximity sensor that is configured to detect the proximity of an object; and a controller configured to cause the communication processor to conduct the wireless communication with the selected communication contact according to the detected displacement and the detected proximity of the object. a communication processor that is configured to conduct wireless communication processing; an operation unit that is configured to receive an instruction input from a user for selecting a communication contact; a displacement detector that is configured to detect a displacement in orientation of the mobile terminal device; a proximity sensor that is configured to detect the proximity of an object; and a controller configured to cause the communication processor to conduct the wireless communication with the selected communication contact according to the detected displacement and the detected proximity of the object.
Material for a polishing pad comprising - a backing layer (201, 401, 501, 601) and a polishing layer (202, 602), characterized in that - the polishing layer (202, 602) is made of sheep wool fibres fixed on a surface of the backing layer, - wherein the polishing layer (202, 602) comprises loops (301, 302, 303, 402, 502) made of sheep wool fibres, - wherein the sheep wool fibre loops (301, 302, 303, 402, 502) are knitted, weft-knitted or woven into the backing layer (201, 401, 501, 601), and - wherein the polishing layer (202, 602) comprises surface weight of at least 500 g/m 2. - a backing layer (201, 401, 501, 601) and a polishing layer (202, 602), characterized in that - the polishing layer (202, 602) is made of sheep wool fibres fixed on a surface of the backing layer, - wherein the polishing layer (202, 602) comprises loops (301, 302, 303, 402, 502) made of sheep wool fibres, - wherein the sheep wool fibre loops (301, 302, 303, 402, 502) are knitted, weft-knitted or woven into the backing layer (201, 401, 501, 601), and - wherein the polishing layer (202, 602) comprises surface weight of at least 500 g/m 2.
A viewing control device for a vehicle, comprising: a changing portion that, interlockingly with turning of a vehicle, changes a viewing range of a periphery of the vehicle with respect to a vehicle occupant; and a control section that controls the changing portion so as to return the viewing range to an original viewing range by a time of an end of turning, characterized in that the control section respectively estimates a first time period, which is until the viewing range is returned from a current viewing range to the original viewing range, and a second time period, which is from a current point in time until turning ends, and controls the changing portion so as to start returning of the viewing range to the original viewing range at a time when the first time period becomes greater than or equal to the second time period. a changing portion that, interlockingly with turning of a vehicle, changes a viewing range of a periphery of the vehicle with respect to a vehicle occupant; and a control section that controls the changing portion so as to return the viewing range to an original viewing range by a time of an end of turning, characterized in that the control section respectively estimates a first time period, which is until the viewing range is returned from a current viewing range to the original viewing range, and a second time period, which is from a current point in time until turning ends, and controls the changing portion so as to start returning of the viewing range to the original viewing range at a time when the first time period becomes greater than or equal to the second time period.
A key generation device, wherein the device comprises a key generator, a modulator, a light source generator, a first beam splitter, a data obtainer, an attenuator, and a memory, wherein the key generator is configured to generate a first key; the light source generator is configured to generate a first light source signal; the modulator is configured to modulate the first key to the first light source signal, to obtain a modulated optical signal; the first beam splitter is configured to split the modulated optical signal, to obtain a first sub modulated optical signal and a second sub modulated optical signal; the attenuator is configured to: attenuate the first sub modulated optical signal, so that a quantity of photons comprised in each period of the attenuated first sub modulated optical signal is less than a preset value; and send the attenuated first sub modulated optical signal to a receive-end device; and the data obtainer is configured to: receive the second sub modulated optical signal from the first beam splitter, obtain a second key carried in the second sub modulated optical signal, and store the second key in the memory, wherein the second key is a key obtained after a bit error occurs when the first key is modulated to the first light source signal, and the second key is a key to be used during communication with the receive-end device. the key generator is configured to generate a first key; the light source generator is configured to generate a first light source signal; the modulator is configured to modulate the first key to the first light source signal, to obtain a modulated optical signal; the first beam splitter is configured to split the modulated optical signal, to obtain a first sub modulated optical signal and a second sub modulated optical signal; the attenuator is configured to: attenuate the first sub modulated optical signal, so that a quantity of photons comprised in each period of the attenuated first sub modulated optical signal is less than a preset value; and send the attenuated first sub modulated optical signal to a receive-end device; and the data obtainer is configured to: receive the second sub modulated optical signal from the first beam splitter, obtain a second key carried in the second sub modulated optical signal, and store the second key in the memory, wherein the second key is a key obtained after a bit error occurs when the first key is modulated to the first light source signal, and the second key is a key to be used during communication with the receive-end device.
A method of making a part, the method comprising: stacking a plurality of uncured composite sheets to form an uncured composite stack; interposing a resistor wire between an adjacent two of the uncured composite sheets of the uncured composite stack; applying heat to the uncured composite stack externally of the uncured composite stack to at least partially cure the plurality of uncured composite sheets; and transmitting an electric current through the resistor wire to generate heat, from the resistor wire, internally within the uncured composite stack to at least partially cure the plurality of uncured composite sheets; wherein applying heat to the uncured composite stack externally of the uncured composite stack and generating heat internally within the uncured composite stack converts the plurality of uncured composite sheets into a plurality of cured composite sheets and converts the uncured composite stack into a cured composite stack, and wherein the method further comprises severing the resistor wire, in place between the adjacent two of the cured composite sheets of the cured composite stack, at a first location to define a first end of an antenna portion of the resistor wire, wherein the antenna portion has a first length less than an entire length of the resistor wire, wherein severing the resistor wire at the first location comprises drilling a first hole into the cured composite stack and through the resistor wire at the first location. stacking a plurality of uncured composite sheets to form an uncured composite stack; interposing a resistor wire between an adjacent two of the uncured composite sheets of the uncured composite stack; applying heat to the uncured composite stack externally of the uncured composite stack to at least partially cure the plurality of uncured composite sheets; and transmitting an electric current through the resistor wire to generate heat, from the resistor wire, internally within the uncured composite stack to at least partially cure the plurality of uncured composite sheets; wherein applying heat to the uncured composite stack externally of the uncured composite stack and generating heat internally within the uncured composite stack converts the plurality of uncured composite sheets into a plurality of cured composite sheets and converts the uncured composite stack into a cured composite stack, and wherein the method further comprises severing the resistor wire, in place between the adjacent two of the cured composite sheets of the cured composite stack, at a first location to define a first end of an antenna portion of the resistor wire, wherein the antenna portion has a first length less than an entire length of the resistor wire, wherein severing the resistor wire at the first location comprises drilling a first hole into the cured composite stack and through the resistor wire at the first location.
An elevator apparatus comprising: a car that is raised/lowered within a hoistway; suspension means having a suspension body including a plurality of steel wires, and a resinous coating body coating an outer peripheral portion of the suspension body, for suspending the car; and a coating abnormality detecting device disposed in close proximity to the suspension means, for detecting damage to the coating body, characterized in that the coating abnormality detecting device has a magnet facing the suspension means, and a displacement detecting portion (17, 24) for detecting displacement of the magnet in a longitudinal direction of the suspension means, and wherein, as the coating body is abraded, the suction force acting between the suspension body and the magnet increases, so the magnet is attracted in a moving direction of the suspension body. a car that is raised/lowered within a hoistway; suspension means having a suspension body including a plurality of steel wires, and a resinous coating body coating an outer peripheral portion of the suspension body, for suspending the car; and a coating abnormality detecting device disposed in close proximity to the suspension means, for detecting damage to the coating body, characterized in that the coating abnormality detecting device has a magnet facing the suspension means, and a displacement detecting portion (17, 24) for detecting displacement of the magnet in a longitudinal direction of the suspension means, and wherein, as the coating body is abraded, the suction force acting between the suspension body and the magnet increases, so the magnet is attracted in a moving direction of the suspension body.
A method for optimizing the downstream processing of a protein-rich biomass of microalgae of the Chlorella genus which has been prepared beforehand by fermentation in heterotrophic conditions and in the absence of light, comprising: 1) providing a biomass comprising more than 50% proteins by dry weight of biomass; then, at a temperature lower than 8°C, preferably lower than 4°C: 2) recovering the biomass at the end of fermentation, 3) washing and concentrating the biomass, 4) optionally lyzing the biomass, then, with no temperature constraints lower than 8°C: 5) optionally concentrating the biomass suspension, 6) applying a heat treatment, 7) drying the resulting biomass, to obtain the product, a step of adjusting the pH to 7 being applied before or after step 6) of heat treatment. 1) providing a biomass comprising more than 50% proteins by dry weight of biomass; 2) recovering the biomass at the end of fermentation, 3) washing and concentrating the biomass, 4) optionally lyzing the biomass, 5) optionally concentrating the biomass suspension, 6) applying a heat treatment, 7) drying the resulting biomass, to obtain the product,
Imaging device comprising: - at least one generator of structured light, - a first emission image guide (5, 5') for uplinking the structured light from the generator to an object to be observed, - a second return image guide (5', 5) for downlinking the light reflected by said object to be observed to a system for capturing said reflected light, the device being characterised in that each (5, 5') of the two image guides is able to uplink the structured light and downlink the reflected light, and in that the device comprises an optical switch that can be configured into: - a first operating mode in which it selectively directs the structured light originating from the generator towards the first image guide, by uplink, and at the same time selectively directs the light reflected by the object from the second image guide, by downlink, to the capture system, - a second operating mode in which it selectively directs the structured light originating from the generator towards the second image guide, by uplink, and at the same time selectively directs the light reflected by the object from the first image guide, by downlink, to the capture system, and - a third operating mode in which it simultaneously directs light originating from the two image guides (5, 5'), by downlink, to the capture system. - at least one generator of structured light, - a first emission image guide (5, 5') for uplinking the structured light from the generator to an object to be observed, - a second return image guide (5', 5) for downlinking the light reflected by said object to be observed to a system for capturing said reflected light, - a first operating mode in which it selectively directs the structured light originating from the generator towards the first image guide, by uplink, and at the same time selectively directs the light reflected by the object from the second image guide, by downlink, to the capture system, - a second operating mode in which it selectively directs the structured light originating from the generator towards the second image guide, by uplink, and at the same time selectively directs the light reflected by the object from the first image guide, by downlink, to the capture system, and - a third operating mode in which it simultaneously directs light originating from the two image guides (5, 5'), by downlink, to the capture system.