mhurhangee/ep-ind-claims huggingface dataset:
A drain fitting for a flush tank having a housing, in which a movable valve plate of a drain valve is arranged such that by lifting the valve plate, a valve aperture of the drain valve is opened and flush water in the flush tank can flow out of the flush tank, via a flow path (I, II, II), through at least one passage window formed in the housing and through the open valve aperture, wherein the housing has a support flange on the bottom, to which an outlet connects downward in a fitting vertical direction (z), and wherein the drain fitting has an adjustable deflector element for setting the volume of flush water flowing out of the flush tank per unit of time, characterized in that the deflector element is separated from the passage window at a radial distance, forming an annular gap, and that by moving the deflector element, the flow path (I, II, II) to the housing-side passage window can be lengthened or shortened, that the support flange projects, in a radial direction (y), with an overhang (Δy) beyond a deflector wall of the deflector element, that the deflector wall is stroke-displaceable between an upper open position (h auf), which is delimited by an upper axial stop, and a lower closed position (h zu), which is delimited by a lower, housing-side axial stop, and that the lower, housing-side axial stop is the housing-side support flange.
An optical coupling apparatus, comprising: an optical fiber component, comprising a plurality of optical fibers and an optical fiber fixing block, wherein the plurality of optical fibers are fixed to the optical fiber fixing block, a first end face is disposed on the optical fiber fixing block, some of the optical fibers comprise plug ends, and the plug ends protrude from the first end face; and an optical write waveguide block, comprising a main body and a plurality of waveguides corresponding to fiber cores of the plurality of optical fibers, wherein the plurality of waveguides are disposed in the main body, a second end face is disposed on the main body, and coupling holes on recessed ends of some of the waveguides that are in a one-to-one correspondence with the plug ends are disposed on the second end face in a recessed manner; wherein the second end face and the first end face are connectable to each other so that the plug ends of the some of the optical fibers are inserted into the coupling holes in a one-to-one correspondence manner; characterized in that ends of optical fibers in the plurality of optical fibers other than the optical fibers disposed with the plug ends are flush with the first end face, and ends of waveguides in the plurality of waveguides other than waveguides disposed with a coupling hole are flush with the second end face. an optical fiber component, comprising a plurality of optical fibers and an optical fiber fixing block, wherein the plurality of optical fibers are fixed to the optical fiber fixing block, a first end face is disposed on the optical fiber fixing block, some of the optical fibers comprise plug ends, and the plug ends protrude from the first end face; and an optical write waveguide block, comprising a main body and a plurality of waveguides corresponding to fiber cores of the plurality of optical fibers, wherein the plurality of waveguides are disposed in the main body, a second end face is disposed on the main body, and coupling holes on recessed ends of some of the waveguides that are in a one-to-one correspondence with the plug ends are disposed on the second end face in a recessed manner; wherein the second end face and the first end face are connectable to each other so that the plug ends of the some of the optical fibers are inserted into the coupling holes in a one-to-one correspondence manner; characterized in that ends of optical fibers in the plurality of optical fibers other than the optical fibers disposed with the plug ends are flush with the first end face, and ends of waveguides in the plurality of waveguides other than waveguides disposed with a coupling hole are flush with the second end face.
A method for controlling an extracorporeal blood processing system comprising an extracorporeal blood circuit, in response to fluid pressure changes in a fluid flow in the extracorporeal blood circuit, the method comprising the steps of: - sensing a fluid pressure in the extracorporeal blood circuit; and - comparing the fluid pressure to a threshold value, the method being characterized in that it further comprises the steps of - stopping fluid flow, when the fluid pressure is below the threshold value; and - resuming fluid flow, when the fluid pressure rises above the threshold value within a selected period of time or a discrete set point within a selected period of time. - sensing a fluid pressure in the extracorporeal blood circuit; and - comparing the fluid pressure to a threshold value, the method being characterized in that it further comprises the steps of - stopping fluid flow, when the fluid pressure is below the threshold value; and - resuming fluid flow, when the fluid pressure rises above the threshold value within a selected period of time or a discrete set point within a selected period of time.
An indoor unit for an air conditioning apparatus, adapted for room-ceiling mounting, which is provided with an air discharge outlet for discharge of conditioned air therefrom, wherein said air discharge outlet comprises: line air discharge outlets extending, respectively, along four sides of a casing bottom part having four side parts and four corner parts wherein said parts (11a, 11b) are formed in contiguous relationship to one another, and corner air discharge outlets formed, respectively, in said four corner parts, each said corner air discharge outlet establishing connection between adjacent ones of said line air discharge outlets, wherein each said line air discharge outlet is provided with a swing vane swingable about a longitudinal axis of each said line air discharge outlet, wherein each said corner air discharge outlet is provided with guide means by means of which conditioned air is discharged in a fixed direction, ends of the four swing vanes adjacent to each other are connected together by three coupling shafts, and one of the three coupling shafts that is centrally positioned is connected to a motor. line air discharge outlets extending, respectively, along four sides of a casing bottom part having four side parts and four corner parts wherein said parts (11a, 11b) are formed in contiguous relationship to one another, and corner air discharge outlets formed, respectively, in said four corner parts, each said corner air discharge outlet establishing connection between adjacent ones of said line air discharge outlets, wherein each said line air discharge outlet is provided with a swing vane swingable about a longitudinal axis of each said line air discharge outlet, wherein each said corner air discharge outlet is provided with guide means by means of which conditioned air is discharged in a fixed direction, ends of the four swing vanes adjacent to each other are connected together by three coupling shafts, and one of the three coupling shafts that is centrally positioned is connected to a motor.
A one-pack polymer modifier for polyvinyl chloride and polyvinyl chloride alloys comprised of: a) at least one process aid, including at least one functionalized process aid functionalized with at least one reactive functional group selected from the group consisting of epoxy functional groups, and carboxylic acid functional groups; and b) at least one impact modifier; wherein the one-pack polymer modifier is in the form of a plurality of individual particles and at least a portion of the individual particles contain both the at least one process aid and the at least one impact modifier, wherein the at least one functionalized process aid is functionalized with 0.5 wt. % to 35 wt.% of the at least one functional group containing monomer based on the total weight of the process aid(s) and the at least one functionalized process aid has a weight average molecular weight (M w) that is 50,000 g/mol or higher measured according to the method given in the description. a) at least one process aid, including at least one functionalized process aid functionalized with at least one reactive functional group selected from the group consisting of epoxy functional groups, and carboxylic acid functional groups; and b) at least one impact modifier; wherein the one-pack polymer modifier is in the form of a plurality of individual particles and at least a portion of the individual particles contain both the at least one process aid and the at least one impact modifier, wherein the at least one functionalized process aid is functionalized with 0.5 wt. % to 35 wt.% of the at least one functional group containing monomer based on the total weight of the process aid(s) and the at least one functionalized process aid has a weight average molecular weight (M w) that is 50,000 g/mol or higher measured according to the method given in the description.
An x-ray generating device comprising: at least one electron emitter(s) (22, 22_1, 22_2, 22_3) comprising an electrically conductive substrate, wherein the electrically conductive substrate comprises a coating of nanostructures; a heating element attachable to each electrically conductive substrate of the at least one electron emitter(s); an electron receiving component configured to receiving electrons emitted from the at least one electron emitter(s); and an evacuated enclosure configured to house the at least one electron emitter(s), the heating element and the electron receiving component; wherein the at least one electron emitter(s) is configured for Schottky emission when the heating element is in an on-state and the at least one electron emitter(s) is negatively biased, the x-ray generating device further comprising an electrical power source configured to control an operational state of the heating element, wherein the electrical power source is further configured to supply a potential difference between the at least one electron generating component(s) (22, 22_1, 22_2, 22_3) and the electron receiving component in three bias modes, (-,0),(-,+) and (0,+). at least one electron emitter(s) (22, 22_1, 22_2, 22_3) comprising an electrically conductive substrate, wherein the electrically conductive substrate comprises a coating of nanostructures; a heating element attachable to each electrically conductive substrate of the at least one electron emitter(s); an electron receiving component configured to receiving electrons emitted from the at least one electron emitter(s); and an evacuated enclosure configured to house the at least one electron emitter(s), the heating element and the electron receiving component; wherein the at least one electron emitter(s) is configured for Schottky emission when the heating element is in an on-state and the at least one electron emitter(s) is negatively biased, the x-ray generating device further comprising an electrical power source configured to control an operational state of the heating element, wherein the electrical power source is further configured to supply a potential difference between the at least one electron generating component(s) (22, 22_1, 22_2, 22_3) and the electron receiving component in three bias modes, (-,0),(-,+) and (0,+).
Method for assembling at least one flexible electromagnetic coil for a ball, the method comprising: forming at least one linearly extending electric conductor in at least one electrically conductive layer of a flexible printed circuit board, the flexible printed circuit board comprising at least one electrically isolating layer and the at least one electrically conductive layer, wherein the at least one linearly extending electric conductor corresponds to at least one winding of the at least one electromagnetic coil, wherein forming the at least one linearly extending electric conductor comprises forming a plurality of linearly extending electric conductors on the flexible printed circuit board, wherein at least a first linearly extending electric conductor corresponds to a first coil, at least a second linearly extending electric conductor corresponds to a second coil, and at least a third linearly extending electric conductor corresponds to a third coil, wherein the first, second, and third coil (602-1; 602-2; 602-3) are formed on the flexible printed circuit board such that three mutually perpendicular arranged coils (602-1; 602-2; 602-3) are obtained when the flexible printed circuit board is arranged around a spherical surface within the ball; and arranging the flexible printed circuit board comprising the three electromagnetic coils (602-1; 602-2; 602-3) around said spherical surface. forming at least one linearly extending electric conductor in at least one electrically conductive layer of a flexible printed circuit board, the flexible printed circuit board comprising at least one electrically isolating layer and the at least one electrically conductive layer, wherein the at least one linearly extending electric conductor corresponds to at least one winding of the at least one electromagnetic coil, wherein forming the at least one linearly extending electric conductor comprises forming a plurality of linearly extending electric conductors on the flexible printed circuit board, wherein at least a first linearly extending electric conductor corresponds to a first coil, at least a second linearly extending electric conductor corresponds to a second coil, and at least a third linearly extending electric conductor corresponds to a third coil, wherein the first, second, and third coil (602-1; 602-2; 602-3) are formed on the flexible printed circuit board such that three mutually perpendicular arranged coils (602-1; 602-2; 602-3) are obtained when the flexible printed circuit board is arranged around a spherical surface within the ball; and arranging the flexible printed circuit board comprising the three electromagnetic coils (602-1; 602-2; 602-3) around said spherical surface.
A method for forming a low-sulfur, high-octane naphtha suitable for gasoline blending, the process comprising (a) separating a catalytically cracked naphtha into at least a light fraction having a boiling range of 18°C to 73°C (65°F to 165°F) and a heavy fraction having a boiling range of 73°C to 221°C (165°F to 430°F), the heavy fraction having an olefin portion containing C 5 olefins, C 6 olefins, and olefins having a molecular weight greater than C 6; (b) non-hydro treating the light fraction to remove sulfur at a hydrogen partial pressure of less than 3.45 10 5 Pa (50 psig) H 2 to form a treated light fraction having a sulfur content less than 150 ppm; and then (c) treating the heavy fraction in the presence of a hydrogen-containing gas and a catalytically effective amount of a hydroprocessing catalyst under catalytic conversion conditions in order to form a treated heavy fraction having a sulfur content less than 150 ppm and wherein the hydrotreated heavy fraction contains at least 10 % of the C 6 + olefins in the heavy fraction. (a) separating a catalytically cracked naphtha into at least a light fraction having a boiling range of 18°C to 73°C (65°F to 165°F) and a heavy fraction having a boiling range of 73°C to 221°C (165°F to 430°F), the heavy fraction having an olefin portion containing C 5 olefins, C 6 olefins, and olefins having a molecular weight greater than C 6; (b) non-hydro treating the light fraction to remove sulfur at a hydrogen partial pressure of less than 3.45 10 5 Pa (50 psig) H 2 to form a treated light fraction having a sulfur content less than 150 ppm; and then (c) treating the heavy fraction in the presence of a hydrogen-containing gas and a catalytically effective amount of a hydroprocessing catalyst under catalytic conversion conditions in order to form a treated heavy fraction having a sulfur content less than 150 ppm and wherein the hydrotreated heavy fraction contains at least 10 % of the C 6 + olefins in the heavy fraction.
A process for energy recovery in a process for the preparation of 1,3,5-trioxane comprising the steps a) reacting formaldehyde in the presence of water and at least one acidic catalyst in a first reactor to obtain a first product mixture, which comprises water and 1,3,5-trioxane, wherein the first product mixture is transferred as stream from the first reactor to a distillation tower, b) contacting the first product mixture with at least one extractant in the distillation tower to obtain an overhead product, and a side cut, wherein the overhead product comprises the at least one extractant and water, and wherein the side cut comprises the at least one extractant and 1,3,5-trioxane, wherein the overhead product is transferred as stream from the distillation tower to a mechanical compressor, wherein the stream has a first temperature and a first pressure, c) mechanical compression of the stream in the mechanical compressor to obtain a compressed stream, which has a second temperature and a second pressure, wherein the second temperature of the compressed stream is higher than the first temperature of the stream and wherein the second pressure of the compressed stream is higher than the first pressure of the stream, d) transferring heat from the compressed stream to the first reactor. a) reacting formaldehyde in the presence of water and at least one acidic catalyst in a first reactor to obtain a first product mixture, which comprises water and 1,3,5-trioxane, wherein the first product mixture is transferred as stream from the first reactor to a distillation tower, b) contacting the first product mixture with at least one extractant in the distillation tower to obtain an overhead product, and a side cut, wherein the overhead product comprises the at least one extractant and water, and wherein the side cut comprises the at least one extractant and 1,3,5-trioxane, wherein the overhead product is transferred as stream from the distillation tower to a mechanical compressor, wherein the stream has a first temperature and a first pressure, c) mechanical compression of the stream in the mechanical compressor to obtain a compressed stream, which has a second temperature and a second pressure, wherein the second temperature of the compressed stream is higher than the first temperature of the stream and wherein the second pressure of the compressed stream is higher than the first pressure of the stream, d) transferring heat from the compressed stream to the first reactor.
A method for making loss circulation material from scrap tires, the method comprising: obtaining an automobile tire, wherein the automobile tires are used; forming a plurality of tire chips from the obtained automobile tire; mixing the plurality of tire chips with a quantity of wellbore carrier fluid to form a mixture; and using the mixture as loss circulation material during a wellbore drilling operation, wherein the mixture comprises between 0.005 mg/l to 0.05 mg/l of loss circulation material. obtaining an automobile tire, wherein the automobile tires are used; forming a plurality of tire chips from the obtained automobile tire; mixing the plurality of tire chips with a quantity of wellbore carrier fluid to form a mixture; and using the mixture as loss circulation material during a wellbore drilling operation, wherein the mixture comprises between 0.005 mg/l to 0.05 mg/l of loss circulation material.
Method for manufacturing a resistive device, comprising the following steps: - depositing a first electrically conductive layer on a substrate; - forming an etching mask on the first conductive layer; - etching the first conductive layer through the mask, such as to obtain a plurality of electrically conductive pillars separated from one another; and - forming storage elements of variable electrical resistance at the tops of the conductive pillars, such that each storage element is supported by one of the conductive pillars, characterized by the step of forming the storage elements comprising the following operations: ∘ depositing a first layer (121, 124) by non-collimated cathode sputtering at normal incidence relative to the substrate; and ∘ depositing a second layer (122, 125, 127, 128) on the first layer by cathode sputtering, the second layer comprising a first chemical species sputtered at an oblique incidence. - depositing a first electrically conductive layer on a substrate; - forming an etching mask on the first conductive layer; - etching the first conductive layer through the mask, such as to obtain a plurality of electrically conductive pillars separated from one another; and - forming storage elements of variable electrical resistance at the tops of the conductive pillars, such that each storage element is supported by one of the conductive pillars, characterized by the step of forming the storage elements comprising the following operations: ∘ depositing a first layer (121, 124) by non-collimated cathode sputtering at normal incidence relative to the substrate; and ∘ depositing a second layer (122, 125, 127, 128) on the first layer by cathode sputtering, the second layer comprising a first chemical species sputtered at an oblique incidence. ∘ depositing a first layer (121, 124) by non-collimated cathode sputtering at normal incidence relative to the substrate; and ∘ depositing a second layer (122, 125, 127, 128) on the first layer by cathode sputtering, the second layer comprising a first chemical species sputtered at an oblique incidence.
A method of transferring cremation ashes into a long term ashes storage container, comprising:- a. providing ashes from a cremation, b. providing a long term ashes storage container having an inlet and providing a crematorium ashes transfer container that is made of paper and/or cardboard and comprises a nozzle capable of sealing engagement with the inlet on the long term storage container, c. transferring the ashes into the crematorium ashes transfer container via the nozzle, d. sealing the crematorium ashes transfer container with the ashes inside, e. opening the nozzle, f. connecting the nozzle with the inlet of the long term storage container so as to be in sealing engagement therewith, and g. transferring the ashes into the long term storage container. a. providing ashes from a cremation, b. providing a long term ashes storage container having an inlet and providing a crematorium ashes transfer container that is made of paper and/or cardboard and comprises a nozzle capable of sealing engagement with the inlet on the long term storage container, c. transferring the ashes into the crematorium ashes transfer container via the nozzle, d. sealing the crematorium ashes transfer container with the ashes inside, e. opening the nozzle, f. connecting the nozzle with the inlet of the long term storage container so as to be in sealing engagement therewith, and g. transferring the ashes into the long term storage container.