mhurhangee/ep-ind-claims huggingface dataset:
A multi-junction detector device, comprising: at least one housing (14, 16); at least one mount system body (40, 60) configured to be positioned within the housing (14, 16); at least one beam dump region formed in the mount system body; a first photodiode detector having a first wavelength responsivity range and positioned on the mount system body, the first photodiode detector is configured to absorb a portion of an incident optical signal within the first wavelength responsivity range and to reflect a portion of the incident optical signal within at least the second wavelength responsivity; and at least a second photodiode detector positioned on the mount system body in optical communication with the first photodiode detector, the second photodiode detector configured to absorb a portion of the optical signal reflected from said first photodiode detector within the second wavelength responsivity range and reflect at least a portion of the optical signal to the beam dump region, wherein the first wavelength responsivity range and the second wavelength responsivity range are different. at least one housing (14, 16); at least one mount system body (40, 60) configured to be positioned within the housing (14, 16); at least one beam dump region formed in the mount system body; a first photodiode detector having a first wavelength responsivity range and positioned on the mount system body, the first photodiode detector is configured to absorb a portion of an incident optical signal within the first wavelength responsivity range and to reflect a portion of the incident optical signal within at least the second wavelength responsivity; and at least a second photodiode detector positioned on the mount system body in optical communication with the first photodiode detector, the second photodiode detector configured to absorb a portion of the optical signal reflected from said first photodiode detector within the second wavelength responsivity range and reflect at least a portion of the optical signal to the beam dump region, wherein the first wavelength responsivity range and the second wavelength responsivity range are different.
A station for assembling a cartridge of an electronic cigarette, the cartridge comprises: a base, provided with a longitudinal axis; and a lateral wall, a first side, a second side, opposed to the first side; the first side comprises a peripheral channel and a protrusion that is substantially central with respect to the channel; and a through housing in communication with the channel; the cartridge also comprises a connection element which comprises a body designed to be inserted in the housing and an end portion which is arranged at the channel when the body is in the housing; the station comprises a support device that supports the base at the relative side wall; and assembling means (3, 4) arranged to face the base and movable closer towards the base to allow the assembling of a component (E, T, I) to the base; characterized in that the assembling means (3, 4) comprise: an abutment element, arranged to face the first side of the base and defining: a peripheral edge shaped to be inserted in the channel of the base; a central cavity that is delimited by a bottom and by the peripheral edge and shaped to receive the protrusion of the base; the abutment element is movable between an inoperative position in which it is spaced from the base, and an operative position in which: the cavity receives in abutment the protrusion of the base; the edge is inserted in the channel of the base and contacts the end portion of the connection element so that the end portion is maintained at a predetermined distance from the axis of the base during the assembling operations. an abutment element, arranged to face the first side of the base and defining: a peripheral edge shaped to be inserted in the channel of the base; a central cavity that is delimited by a bottom and by the peripheral edge and shaped to receive the protrusion of the base; the abutment element is movable between an inoperative position in which it is spaced from the base, and an operative position in which: the cavity receives in abutment the protrusion of the base; the edge is inserted in the channel of the base and contacts the end portion of the connection element so that the end portion is maintained at a predetermined distance from the axis of the base during the assembling operations.
A power connector for interconnecting a drawout circuit breaker cluster connection to a conductive bus bar, the power connector comprising: a unitary body having a first end and a second end opposite the first end, the first end having a circuit breaker terminal configured to connect to the drawout circuit breaker, the second end having a bus bar terminal configured to connect to the conductive bus bar, wherein the circuit breaker terminal has a U-shape profile, wherein the bus bar terminal includes a pair of extending arms having a space therebetween configured to receive the conductive bus bar and has a U-shape profile, wherein each of the pair of extending arms includes one or more holes on a side of the arm configured to fasten through said holes a portion of the bus bar arranged between the extending arms using a fastener, and wherein the unitary body further includes extending side portions having mounting holes for connecting the unitary body to a backmold of a cradle of a drawout circuit breaker. a unitary body having a first end and a second end opposite the first end, the first end having a circuit breaker terminal configured to connect to the drawout circuit breaker, the second end having a bus bar terminal configured to connect to the conductive bus bar, wherein the circuit breaker terminal has a U-shape profile, wherein the bus bar terminal includes a pair of extending arms having a space therebetween configured to receive the conductive bus bar and has a U-shape profile, wherein each of the pair of extending arms includes one or more holes on a side of the arm configured to fasten through said holes a portion of the bus bar arranged between the extending arms using a fastener, and wherein the unitary body further includes extending side portions having mounting holes for connecting the unitary body to a backmold of a cradle of a drawout circuit breaker.
Storage battery comprising several storage cells disposed in several modules linked together in series, characterized in that a module comprises at least one brick comprising a lower terminal and an upper terminal, between which are arranged two storage cells and at least three switches, the switches being connected to the storage cells so as to be able to dispose the two storage cells in series or in parallel between the two terminals and in that the battery comprises a control circuit for the switches of the said at least one brick.
A soldering device, comprising: a first processing section that immerses a workpiece member having a copper electrode in organic fatty acid-containing solution, and horizontally move the workpiece member in the organic fatty acid-containing solution; a second processing section having an ejection unit to spray a jet stream of a molten solder to the workpiece member while pulling out the workpiece member processed in the first processing section to a space section that has a pressurized steam atmosphere and is provided above the organic fatty acid-containing solution; a third processing section having an ejection unit to spray the organic fatty acid-containing solution to excess molten solder on the workpiece member for removal while pulling down the workpiece member processed in the second processing section after horizontally moving in the space section; a fourth processing section that picks up the workpiece member processed in the third processing section by pulling out from the organic fatty acid-containing solution after horizontally moving in the organic fatty acid-containing solution; a conveying unit move the workpiece member from the first processing section to the fourth processing section; a feeding portion into which the workpiece member is fed to the first processing section; and a discharge portion from which the workpiece member is discharged from the fourth section, wherein the first processing section to the fourth processing section are sealed except for the feeding portion and the discharge portion. a first processing section that immerses a workpiece member having a copper electrode in organic fatty acid-containing solution, and horizontally move the workpiece member in the organic fatty acid-containing solution; a second processing section having an ejection unit to spray a jet stream of a molten solder to the workpiece member while pulling out the workpiece member processed in the first processing section to a space section that has a pressurized steam atmosphere and is provided above the organic fatty acid-containing solution; a third processing section having an ejection unit to spray the organic fatty acid-containing solution to excess molten solder on the workpiece member for removal while pulling down the workpiece member processed in the second processing section after horizontally moving in the space section; a fourth processing section that picks up the workpiece member processed in the third processing section by pulling out from the organic fatty acid-containing solution after horizontally moving in the organic fatty acid-containing solution; a conveying unit move the workpiece member from the first processing section to the fourth processing section; a feeding portion into which the workpiece member is fed to the first processing section; and a discharge portion from which the workpiece member is discharged from the fourth section, wherein the first processing section to the fourth processing section are sealed except for the feeding portion and the discharge portion.
A method of improving the transfer of slurry in a Bayer process comprising: a. adding an effective amount of one or more chemical species to a slurry of said Bayer process, or to a liquid component added to said slurry and/or solid component added to said slurry, or a combination thereof, wherein said chemical species is selected from the group consisting of: non-ionic surfactants, polyglycols, polyglycol ethers, and a combination thereof; and b. optionally providing one or more apparatuses capable of transferring said bauxite containing slurry from one location to another in said Bayer process. a. adding an effective amount of one or more chemical species to a slurry of said Bayer process, or to a liquid component added to said slurry and/or solid component added to said slurry, or a combination thereof, wherein said chemical species is selected from the group consisting of: non-ionic surfactants, polyglycols, polyglycol ethers, and a combination thereof; and b. optionally providing one or more apparatuses capable of transferring said bauxite containing slurry from one location to another in said Bayer process.
A method for printing an image, the method comprising: preparing an image mask based on the image wherein preparing comprises: obtaining halftone image data of a first nominal resolution corresponding to the image; increasing the resolution of the halftone image data in at least one pixel dimension; applying a fixed pattern to substantially all image feature sizes of the halftone data; processing the image mask based on the processed halftone data; affixing the image mask to a relief medium precursor; exposing the relief medium precursor to radiation through the image mask; producing the relief medium from the relief medium precursor; and printing the image using relief features of the relief medium; wherein applying the pattern is designed to provide a constant reduction in transparency in corresponding image areas of the image mask; wherein producing the relief medium comprises producing a relief medium that resolves the pattern in corresponding relief features; wherein printing the image comprises printing solid image features with an increased ink density when solid relief features resolve the pattern; and wherein applying the pattern to substantially all image feature sizes of the halftone data comprises applying the pattern to a halftone image feature with a size at least as large as 30 μm in diameter. preparing an image mask based on the image wherein preparing comprises: obtaining halftone image data of a first nominal resolution corresponding to the image; increasing the resolution of the halftone image data in at least one pixel dimension; applying a fixed pattern to substantially all image feature sizes of the halftone data; processing the image mask based on the processed halftone data; affixing the image mask to a relief medium precursor; exposing the relief medium precursor to radiation through the image mask; producing the relief medium from the relief medium precursor; and printing the image using relief features of the relief medium; obtaining halftone image data of a first nominal resolution corresponding to the image; increasing the resolution of the halftone image data in at least one pixel dimension; applying a fixed pattern to substantially all image feature sizes of the halftone data; processing the image mask based on the processed halftone data; affixing the image mask to a relief medium precursor; exposing the relief medium precursor to radiation through the image mask; producing the relief medium from the relief medium precursor; and printing the image using relief features of the relief medium; wherein applying the pattern is designed to provide a constant reduction in transparency in corresponding image areas of the image mask; wherein producing the relief medium comprises producing a relief medium that resolves the pattern in corresponding relief features; wherein printing the image comprises printing solid image features with an increased ink density when solid relief features resolve the pattern; and wherein applying the pattern to substantially all image feature sizes of the halftone data comprises applying the pattern to a halftone image feature with a size at least as large as 30 μm in diameter.
A hydrogen generator comprising: a hydro-desulfurizer configured to remove a sulfur compound in a raw material and including a tubular first wall; a reformer configured to generate a hydrogen-containing gas by using the raw material supplied from the hydro-desulfurizer; a tubular second wall provided coaxially with the first wall so as to be opposed to the first wall; an electric heater annularly provided in a gap between the first wall and the second wall so as to extend in an axial direction of the first wall and turn back in the axial direction of the first wall; and a reactor which needs to be heated, wherein: the second wall is a wall of the reactor; the electric heater is constituted by a first portion contacting the first wall, a second portion contacting the second wall, and an intervening portion that has elasticity and that connects the first portion and the second portion of the electric heater. a hydro-desulfurizer configured to remove a sulfur compound in a raw material and including a tubular first wall; a reformer configured to generate a hydrogen-containing gas by using the raw material supplied from the hydro-desulfurizer; a tubular second wall provided coaxially with the first wall so as to be opposed to the first wall; an electric heater annularly provided in a gap between the first wall and the second wall so as to extend in an axial direction of the first wall and turn back in the axial direction of the first wall; and a reactor which needs to be heated, wherein: the second wall is a wall of the reactor; the electric heater is constituted by a first portion contacting the first wall, a second portion contacting the second wall, and an intervening portion that has elasticity and that connects the first portion and the second portion of the electric heater. the second wall is a wall of the reactor; the electric heater is constituted by a first portion contacting the first wall, a second portion contacting the second wall, and an intervening portion that has elasticity and that connects the first portion and the second portion of the electric heater.
A welding system, comprising: a power supply configured to output a welding current to an electrode to create an arc between the electrode and a workpiece; at least one welding torch for performing a welding operation on the workpiece to create a weld joint, the welding torch includes the electrode; a temperature sensor configured to detect a temperature of the workpiece along a path adjacent to the weld joint during the welding operation; and a feedback device; and characterised by: controller configured to communicate an indication to the feedback device when the temperature of the workpiece exceeds a tolerance associated with a material of the workpiece, and the controller is configured to calibrate the tolerance based at least one of the material of the workpiece, a distance from the arc, or a welding process. a power supply configured to output a welding current to an electrode to create an arc between the electrode and a workpiece; at least one welding torch for performing a welding operation on the workpiece to create a weld joint, the welding torch includes the electrode; a temperature sensor configured to detect a temperature of the workpiece along a path adjacent to the weld joint during the welding operation; and a feedback device; and characterised by: controller configured to communicate an indication to the feedback device when the temperature of the workpiece exceeds a tolerance associated with a material of the workpiece, and the controller is configured to calibrate the tolerance based at least one of the material of the workpiece, a distance from the arc, or a welding process. controller configured to communicate an indication to the feedback device when the temperature of the workpiece exceeds a tolerance associated with a material of the workpiece, and the controller is configured to calibrate the tolerance based at least one of the material of the workpiece, a distance from the arc, or a welding process.
An active material comprising a silicon clathrate II type crystal phase, and having a composition represented by Na x Si 136, wherein 2.30 ≤ x < 2.54.
An injection molding machine comprising: a double toggle mechanism including a pair of link groups including a first Link and a second link which are bendably/stretchably connected, to each other; a plurality of tie bars which extend in mold opening and closing directions according to a mold clamping force generated by operating the double toggle mechanism; and a tie bar balance measurer which is configured to measure a balance of the plurality of tie bars, wherein the tie bar balance measurer includes a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit, a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit. a double toggle mechanism including a pair of link groups including a first Link and a second link which are bendably/stretchably connected, to each other; a plurality of tie bars which extend in mold opening and closing directions according to a mold clamping force generated by operating the double toggle mechanism; and a tie bar balance measurer which is configured to measure a balance of the plurality of tie bars, wherein the tie bar balance measurer includes a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit, a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit. a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit, a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit.
A transmitter comprising: a pressure resistant housing; a transmitter assembly positioned within said pressure resistant housing, said transmitter assembly comprising a ferromagnetic tube and an electromagnetic coil wrapped around said ferromagnetic tube; said pressure resistant housing having an access opening for removably inserting one or more batteries (8/10) for said transmitter assembly such that said batteries are received within said ferromagnetic tube; and said pressure resistant housing comprises an outer tube and said access opening is located at a longitudinal end of said outer tube; said pressure resistant housing including a closure (34/30) for closing said access opening such that said transmitter assembly and said one or more batteries are sealingly enclosed within said pressure resistant housing; and a battery contacting member extending from said closure a sufficient distance to make electrical contact with one of said one or more batteries within said ferromagnetic tube such that, to close an electrical circuit between electronics of said transmitter assembly and said battery contacting member, an electrical current is conducted by the closure and a wall of said outer tube. a pressure resistant housing; a transmitter assembly positioned within said pressure resistant housing, said transmitter assembly comprising a ferromagnetic tube and an electromagnetic coil wrapped around said ferromagnetic tube; said pressure resistant housing having an access opening for removably inserting one or more batteries (8/10) for said transmitter assembly such that said batteries are received within said ferromagnetic tube; and said pressure resistant housing comprises an outer tube and said access opening is located at a longitudinal end of said outer tube; said pressure resistant housing including a closure (34/30) for closing said access opening such that said transmitter assembly and said one or more batteries are sealingly enclosed within said pressure resistant housing; and a battery contacting member extending from said closure a sufficient distance to make electrical contact with one of said one or more batteries within said ferromagnetic tube such that, to close an electrical circuit between electronics of said transmitter assembly and said battery contacting member, an electrical current is conducted by the closure and a wall of said outer tube.