mhurhangee/ep-ind-claims huggingface dataset:
A power distribution unit, such as a fuse box for a vehicle, for providing a protected electrical connection between a power supply cable and a plurality of distribution cables, the unit comprising a housing having a base wall and, received in said housing: - a bus bar configured to be connected to the power supply cable the bus bar being a flat plate-like member which, in the mounted position, is substantially parallel to the housing base wall; - a plurality of fuses, each fuse comprising a body, a first end portion connected to the bus bar, and a second end portion configured to be connected to a distribution cable, the first and second end portions (11, 12) being plate shaped; characterized in that the unit comprises: - at least one retainer for maintaining the bus bar in position with respect to the housing; - at least one positioner (40, 41, 42) for positioning the fuse first end portion relative to the bus bar along directions (X,Y) substantially parallel to the bus bar; - a biasing member configured to urge the fuse first end portion towards the bus bar, to cause the fuse first end portion to remain in contact with the bus bar, the biasing member being part of the housing, wherein, in the mounted position, the fuse first end portion is sandwiched and maintained between the bus bar and the housing, and wherein the biasing member urges the fuse first end portion substantially along direction, orthogonally to and towards the bus bar. - a bus bar configured to be connected to the power supply cable the bus bar being a flat plate-like member which, in the mounted position, is substantially parallel to the housing base wall; - a plurality of fuses, each fuse comprising a body, a first end portion connected to the bus bar, and a second end portion configured to be connected to a distribution cable, the first and second end portions (11, 12) being plate shaped; characterized in that the unit comprises: - at least one retainer for maintaining the bus bar in position with respect to the housing; - at least one positioner (40, 41, 42) for positioning the fuse first end portion relative to the bus bar along directions (X,Y) substantially parallel to the bus bar; - a biasing member configured to urge the fuse first end portion towards the bus bar, to cause the fuse first end portion to remain in contact with the bus bar, the biasing member being part of the housing, - at least one retainer for maintaining the bus bar in position with respect to the housing; - at least one positioner (40, 41, 42) for positioning the fuse first end portion relative to the bus bar along directions (X,Y) substantially parallel to the bus bar; - a biasing member configured to urge the fuse first end portion towards the bus bar, to cause the fuse first end portion to remain in contact with the bus bar, the biasing member being part of the housing, wherein, in the mounted position, the fuse first end portion is sandwiched and maintained between the bus bar and the housing, and wherein the biasing member urges the fuse first end portion substantially along direction, orthogonally to and towards the bus bar.
A printer performing a printing operation on a roll sheet comprising: a roll sheet holder in which the roll sheet is stored; a roll sheet input port through which the roll sheet is input to the roll sheet holder; an opening/closing cover unit that opens and closes the roll sheet input port; and a link member that links the opening/closing cover unit with the roll sheet holder, wherein the opening/closing cover unit is movable among an open position, a closed position, and a support position between the open position and the closed position, wherein the link member moves the roll sheet holder to a takeout position at which the roll sheet is able to be taken out through the roll sheet input port when the opening/closing cover unit is moved to the open position, and the link member moves the roll sheet holder to a storage position which is deeper in the roll sheet input port than the takeout position when the opening/closing cover unit is moved to the closed position, characterized in that the printer further comprises: a frame in which a guide groove is formed; and a movable shaft that moves along the guide groove, wherein the movable shaft is disposed in a connecting portion of the roll sheet holder and the link member, the roll sheet holder is located at the takeout position when the movable shaft is located at a first position in the guide groove, and the roll sheet holder is located at the storage position when the movable shaft is located at a second position in the guide groove.. a roll sheet holder in which the roll sheet is stored; a roll sheet input port through which the roll sheet is input to the roll sheet holder; an opening/closing cover unit that opens and closes the roll sheet input port; and a link member that links the opening/closing cover unit with the roll sheet holder, wherein the opening/closing cover unit is movable among an open position, a closed position, and a support position between the open position and the closed position, wherein the link member moves the roll sheet holder to a takeout position at which the roll sheet is able to be taken out through the roll sheet input port when the opening/closing cover unit is moved to the open position, and the link member moves the roll sheet holder to a storage position which is deeper in the roll sheet input port than the takeout position when the opening/closing cover unit is moved to the closed position, characterized in that the printer further comprises: a frame in which a guide groove is formed; and a movable shaft that moves along the guide groove, a frame in which a guide groove is formed; and a movable shaft that moves along the guide groove, wherein the movable shaft is disposed in a connecting portion of the roll sheet holder and the link member, the roll sheet holder is located at the takeout position when the movable shaft is located at a first position in the guide groove, and the roll sheet holder is located at the storage position when the movable shaft is located at a second position in the guide groove..
Process for the recovery of ethylene oxide from fat absorbent which comprises producing EO by catalytic gas phase oxidation of ethylene with a molecular oxygen-containing gas in an EO reactor, providing an EO gaseous stream from the EO reactor and a lean absorbent stream to an EO Absorber withdrawing a stream of FA from the EO Absorber and heating the stream of FA to provide a stream of elevated temperature FA, providing the stream of elevated temperature FA to an EO Stripper, providing a stripping gas feed and contacting at elevated temperature with the elevated temperature FA feed, obtaining stripped lean absorbent and an EO-containing gas, and providing one or more external process stream feeds to the EO Stripper at a location above the elevated temperature FA feed and at a lower temperature with respect to the elevated temperature FA feed thereby condensing water going up the EO Stripper and concentrating EO in the EO-containing gas, wherein the one or more external process stream feeds comprise FA from an EO Absorber for forming FA by contacting EO-containing gas and vapors with aqueous liquid phase LA; or comprise FA from a residual gas absorber for forming FA by contacting residual EO-containing light ends with LA; or a combination thereof.
An actuator (301, 404, 501, 601, 704) for a prosthetic digit (120, 220, 300, 400, 700), the actuator comprising: a gearbox (512, 612) and a motor (305, 405, 505, 605, 715) in mechanical communication with the gearbox (512, 612); a shaft (307, 409, 507, 607, 709) extending axially and distally from the gearbox (512, 612); a leadscrew (314, 514, 614) coupled to the shaft (307, 409, 507, 607, 709), the leadscrew (314, 514, 614) having an external thread, wherein the motor (305, 405, 505, 605, 715) is configured to cause the leadscrew (314, 514, 614) to rotate in a first rotational direction; and a housing (311, 403, 459, 511, 611) or other member configured to couple with a prosthetic digit (120, 220, 300, 400, 700), the housing (311, 403, 459, 511, 611) or other member configured to engage the external thread of the leadscrew (314, 514, 614), characterized in that rotation of the leadscrew (314, 514, 614) causes the housing or other member to translate axially relative to the leadscrew (314, 514, 614) to thereby cause a proximal digit segment of the prosthetic digit (120, 220, 300, 400, 700) to rotate about a pivot and thus the prosthetic digit (120, 220, 300, 400, 700) to articulate. a gearbox (512, 612) and a motor (305, 405, 505, 605, 715) in mechanical communication with the gearbox (512, 612); a shaft (307, 409, 507, 607, 709) extending axially and distally from the gearbox (512, 612); a leadscrew (314, 514, 614) coupled to the shaft (307, 409, 507, 607, 709), the leadscrew (314, 514, 614) having an external thread, wherein the motor (305, 405, 505, 605, 715) is configured to cause the leadscrew (314, 514, 614) to rotate in a first rotational direction; and a housing (311, 403, 459, 511, 611) or other member configured to couple with a prosthetic digit (120, 220, 300, 400, 700), the housing (311, 403, 459, 511, 611) or other member configured to engage the external thread of the leadscrew (314, 514, 614), characterized in that rotation of the leadscrew (314, 514, 614) causes the housing or other member to translate axially relative to the leadscrew (314, 514, 614) to thereby cause a proximal digit segment of the prosthetic digit (120, 220, 300, 400, 700) to rotate about a pivot and thus the prosthetic digit (120, 220, 300, 400, 700) to articulate.
A method for producing ferrocoke by heating a molded product composed of a mixture of a carbon-containing material and an iron oxide-containing material to carbonize the molded product, wherein carbonization is performed at a heating rate of 5 - 20 °C/min in a temperature range where a surface temperature of the molded product ranges from 550°C to 650°C, and wherein the heating rate is an instantaneous heating rate, which is a temperature gradient (dT/dt) of the heating pattern.
Method for reducing the energy consumption of a delivery pump which delivers water from a well into a line or a line network, wherein the actual throughflow rate of the delivery pump is brought to a target throughflow rate by changing of the drive rotational speed of an electric drive motor of the delivery pump, wherein the target throughflow rate corresponds either to the throughflow rate, indicated hereinafter as "first throughflow rate", at the operating point of the delivery pump with the lowest specific power or energy requirement, a characteristic curve of the respective specific power or energy requirement of the delivery pump being calculated in dependence on a dynamic system characteristic curve for the purpose of determining said operating point, or to the throughflow rate, indicated hereinafter as "second throughflow rate", at the calculated point of intersection of a pump efficiency characteristic curve with high efficiency and the dynamic system characteristic curve, wherein the dynamic system characteristic curve is calculated from the geodetic height (H geod), the drop in the water level (H drop) in the well and line losses in the line or in the line network, and wherein the pump efficiency characteristic curve with high efficiency lies within a tolerance range of 5% of an efficiency characteristic curve for the maximum efficiency, wherein the first throughflow rate is compared with the second throughflow rate, wherein, if the first throughflow rate is greater than the second throughflow rate, the first throughflow rate is selected as the target throughflow rate, and wherein, if the first throughflow rate is less than the second throughflow rate, the actual throughflow rate of the delivery pump is brought to the first throughflow rate as long as the first throughflow rate is reached, and the actual throughflow rate of the delivery pump is brought to the second throughflow rate if the first throughflow rate is no longer reached.
A method for producing a component from an FRP part made of a fibre-reinforced plastic composite material and from a plastics part made of a first plastic, wherein in an FRP processing step the FRP part is produced from the fibre-reinforced plastic composite material, wherein at least one recess is introduced into a connection region of the FRP part, wherein the recess extends completely through the FRP part in a direction of the part, wherein the recess is completely surrounded by the fibre-reinforced plastic composite material along a perimeter of the recesses, wherein in a connecting step a connecting plastics piece made of a second plastic is arranged in the connection region such that contact portions of the connecting plastics piece abut on mutually opposite side surfaces of the FRP part, wherein the contact portions are connected together via at least one web portion extending through the at least one recess, and wherein in a plastics processing step following the connecting step the plastics part is arranged on at least one contact portion.
A system for use in a subsea well, comprising: a blowout preventer; a landing string received in the blowout preventer, the landing string comprising a plurality of valves (68, 70, 72, 74); a selective disconnect latch assembly; the latch assembly comprising a latch mandrel having a weakened region, the weakened region placed in a housing for protection against bending loads, the weakened region (2 6) configured to break when a predetermined tensile load is applied to the latch assembly; a landing string instrumentation module; and a controller working in cooperation with the landing string instrumentation module to autonomously disconnect the landing string at the latch assembly and to block fluid flow above and below the latch assembly via closure of the plurality of valves (68, 70, 72, 74) upon the occurrence of a predetermined condition detected by the landing string instrumentation module; wherein the controller is configured to autonomously disconnect the landing string at the latch assembly by automatically applying a tensile force to the landing string above the predetermined tensile load. a blowout preventer; a landing string received in the blowout preventer, the landing string comprising a plurality of valves (68, 70, 72, 74); a selective disconnect latch assembly; the latch assembly comprising a latch mandrel having a weakened region, the weakened region placed in a housing for protection against bending loads, the weakened region (2 6) configured to break when a predetermined tensile load is applied to the latch assembly; a landing string instrumentation module; and a controller working in cooperation with the landing string instrumentation module to autonomously disconnect the landing string at the latch assembly and to block fluid flow above and below the latch assembly via closure of the plurality of valves (68, 70, 72, 74) upon the occurrence of a predetermined condition detected by the landing string instrumentation module; wherein the controller is configured to autonomously disconnect the landing string at the latch assembly by automatically applying a tensile force to the landing string above the predetermined tensile load.
An insulin infusion set device comprising: a flexible tubing configured to receive an insulin formulation containing at least one phenolic excipient; a base coupled to the tubing and configured to receive the insulin formulation; a catheter coupled to the base and configured to deliver the insulin formulation to a patient; characterized by a tortuous fluid pathway positioned in the base and configured to transport the insulin formulation through the base, the tortuous fluid pathway including a plurality of bends; and at least one polymeric sorbent material positioned along the tortuous fluid pathway and in fluid communication with the insulin formulation, the at least one polymeric sorbent material being configured to collect the at least one phenolic excipient from the insulin formulation by sorption. a flexible tubing configured to receive an insulin formulation containing at least one phenolic excipient; a base coupled to the tubing and configured to receive the insulin formulation; a catheter coupled to the base and configured to deliver the insulin formulation to a patient; characterized by a tortuous fluid pathway positioned in the base and configured to transport the insulin formulation through the base, the tortuous fluid pathway including a plurality of bends; and at least one polymeric sorbent material positioned along the tortuous fluid pathway and in fluid communication with the insulin formulation, the at least one polymeric sorbent material being configured to collect the at least one phenolic excipient from the insulin formulation by sorption.
An ass's milk-derived food composition, characterized in that it comprises at least: 20-50 g of proteins, 0.1-25 g of lipids, 3.0-20 g of carbohydrates, 1.4-1.6 g of calcium, and 0.9-1.1 of phosphorous for 100 g of the composition.
Method for producing a honeycomb structure comprising at least one at least partially structured metal foil, wherein, in subregions of the honeycomb structure, the metal foil is arranged spaced apart from an adjacently arranged metal foil so as to be electrically insulated by an air gap, at least comprising the following steps: a. providing the at least one metal foil; b. providing a forming plate with a bearing surface and with at least one first web structure extending from the bearing surface in an axial direction, wherein the first web structure also extends in a plane parallel to the bearing surface and images the air gap to be produced in the honeycomb structure; c. arranging the at least one metal foil on the bearing surface in the first web structure. a. providing the at least one metal foil; b. providing a forming plate with a bearing surface and with at least one first web structure extending from the bearing surface in an axial direction, wherein the first web structure also extends in a plane parallel to the bearing surface and images the air gap to be produced in the honeycomb structure; c. arranging the at least one metal foil on the bearing surface in the first web structure.
An underwater image projection system submerged in a body of water for projecting an image within said body of water, the system comprising: an at least one enclosure mounted in a recess within a wall of the body of water; a lens assembly; at least one submerged projection element with an at least one projected light source projecting an image within said body of water from the projection element; at least one light source steering or modulating device; a system controller coupled to the at least one projected light source and the at least one projected light source steering or modulating device; a user input device configured to receive image data input by a user and direct the image data to the system controller, the system controller configured to interpret the image data into a set of image control variables and execute control of the at least one projected light source and the at least one light source steering or modulating device in coordination with each other and project the image through the projection element with the projected light source by controlling the at least one projected light source steering or modulating device to project from underwater a static or animated image on an underwater surface of the body of water; and at least one further image steering device configured to move the image around the body of water. an at least one enclosure mounted in a recess within a wall of the body of water; a lens assembly; at least one submerged projection element with an at least one projected light source projecting an image within said body of water from the projection element; at least one light source steering or modulating device; a system controller coupled to the at least one projected light source and the at least one projected light source steering or modulating device; a user input device configured to receive image data input by a user and direct the image data to the system controller, the system controller configured to interpret the image data into a set of image control variables and execute control of the at least one projected light source and the at least one light source steering or modulating device in coordination with each other and project the image through the projection element with the projected light source by controlling the at least one projected light source steering or modulating device to project from underwater a static or animated image on an underwater surface of the body of water; and at least one further image steering device configured to move the image around the body of water.
A method for extracting morphological characteristics from a sample of biological material, comprising an internal and an external print, using an optical coherence tomography acquiring system delivering a signal representative of the sample, the method comprising forming based at least on the signal representative of the sample an image containing intensity data and an image containing phase data corresponding to the time of flight of light, in order to extract morphological characteristics of the sample, wherein, in order to form the image containing phase data corresponding to the time of flight of the light, a position of a maximum reflectivity peak is determined based on the data to be extracted, the ones of the internal print or of the external print, of a profile of reflectivity of the light with depth established from the signal delivered by the acquiring system, said profile of reflectivity comprising several maximum reflectivity peaks, the first maximum reflectivity peak of the profile of reflectivity corresponding to the peak of interest for the external print, the second peak corresponding to the peak of interest for the internal print, method characterized in that an image containing intensity data, especially the intensity image I(x,y), and the image containing phase data, especially the phase image P(x,y), are fused to form a single image.