mhurhangee/ep-ind-claims huggingface dataset:
Test station for a fan, comprising: - a duct having a longitudinal axis, the duct comprising an air inlet portion, an air outlet portion, and a middle portion between the air inlet portion and the air outlet portion; and - a damper provided at the inlet end of the air inlet portion of the duct, the damper selectively blocking the inlet of the duct for increasing or decreasing the resistance to an air flow through said duct; where the air outlet portion of the duct is configured for the connection of the fan to be tested, the test station further comprising: - an auxiliary fan provided at the air inlet portion of the duct downstream the damper, the auxiliary fan being controlled by a regenerative Variable Frequency Drive whose rated power is at least 20% larger than the rated power of the auxiliary fan, such that the auxiliary fan can be operated to stop essentially instantaneously from a predetermined speed to full stop; and - a valve provided at the middle portion of the duct between the auxiliary fan and the fan to be tested, the valve being configured to alternate between an open position where a lumen of the duct is not blocked, a first partially closed position where the lumen of the duct is partially blocked, and a second partially closed position where the lumen of the duct is partially blocked further, such that the movement between the open position and the first partially closed position and the movement between the first partially closed position and the second partially closed position take place essentially instantaneously for causing a sudden decrease or increase of the pressure at the axial fan to be tested. - a duct having a longitudinal axis, the duct comprising an air inlet portion, an air outlet portion, and a middle portion between the air inlet portion and the air outlet portion; and - a damper provided at the inlet end of the air inlet portion of the duct, the damper selectively blocking the inlet of the duct for increasing or decreasing the resistance to an air flow through said duct; - an auxiliary fan provided at the air inlet portion of the duct downstream the damper, the auxiliary fan being controlled by a regenerative Variable Frequency Drive whose rated power is at least 20% larger than the rated power of the auxiliary fan, such that the auxiliary fan can be operated to stop essentially instantaneously from a predetermined speed to full stop; and - a valve provided at the middle portion of the duct between the auxiliary fan and the fan to be tested, the valve being configured to alternate between an open position where a lumen of the duct is not blocked, a first partially closed position where the lumen of the duct is partially blocked, and a second partially closed position where the lumen of the duct is partially blocked further, such that the movement between the open position and the first partially closed position and the movement between the first partially closed position and the second partially closed position take place essentially instantaneously for causing a sudden decrease or increase of the pressure at the axial fan to be tested.
A flow-rate adjustable valve for adjusting a flow rate of liquid flowing through a flow path, the flow-rate adjustable valve comprising: a rotatable member; a lifter linearly movable by a rotation of the rotatable member; a valve body linearly movable by a linear movement of the lifter; a stopper configured to restrict a movable range of the lifter in a fixed state of the stopper in which a position of the stopper is not able to be changed; and a stopper-holding member (91, 92) configured to hold the stopper selectively in the fixed state or in a provisional fixed state in which the position of the stopper is able to be changed, characterized in that: the rotatable member has a coupling member configured to engage with the lifter in a rotational direction thereof and to transmit the rotation thereof to the lifter, the coupling member has a stopper-restricting part that projects outward, and the stopper has a pillar-like shape which has a substantially C-shaped section, encloses at least a part of an outer periphery of the coupling member, and restricts a movable range of the stopper-restricting part of the coupling member so as to restrict the movable range of the lifter. a rotatable member; a lifter linearly movable by a rotation of the rotatable member; a valve body linearly movable by a linear movement of the lifter; a stopper configured to restrict a movable range of the lifter in a fixed state of the stopper in which a position of the stopper is not able to be changed; and a stopper-holding member (91, 92) configured to hold the stopper selectively in the fixed state or in a provisional fixed state in which the position of the stopper is able to be changed, characterized in that: the rotatable member has a coupling member configured to engage with the lifter in a rotational direction thereof and to transmit the rotation thereof to the lifter, the coupling member has a stopper-restricting part that projects outward, and the stopper has a pillar-like shape which has a substantially C-shaped section, encloses at least a part of an outer periphery of the coupling member, and restricts a movable range of the stopper-restricting part of the coupling member so as to restrict the movable range of the lifter. the rotatable member has a coupling member configured to engage with the lifter in a rotational direction thereof and to transmit the rotation thereof to the lifter, the coupling member has a stopper-restricting part that projects outward, and the stopper has a pillar-like shape which has a substantially C-shaped section, encloses at least a part of an outer periphery of the coupling member, and restricts a movable range of the stopper-restricting part of the coupling member so as to restrict the movable range of the lifter.
A biopsy device, comprising: (a) a needle; (b) a cutter configured for translation relative to the needle; (c) a first rotating member (88, 120); (d) a second rotating member (86, 100); (e) coupling means configured to couple the cutter with one of the first or second rotating member (86, 100, 88, 120); and (f) a drive assembly operable to simultaneously rotate the first and second rotating members (88, 120, 86, 100) at different rotational speeds, characterised in that: the difference in rotational speeds of the first and second rotating members (88, 120, 86, 100) provides translation of the cutter relative to the needle; and the coupling means comprises a lead screw disposed about the cutter. (a) a needle; (b) a cutter configured for translation relative to the needle; (c) a first rotating member (88, 120); (d) a second rotating member (86, 100); (e) coupling means configured to couple the cutter with one of the first or second rotating member (86, 100, 88, 120); and (f) a drive assembly operable to simultaneously rotate the first and second rotating members (88, 120, 86, 100) at different rotational speeds, the difference in rotational speeds of the first and second rotating members (88, 120, 86, 100) provides translation of the cutter relative to the needle; and the coupling means comprises a lead screw disposed about the cutter.
Cooking oven with at least one cooking chamber having a thermal heating element, with an adjoining switch area for thermally highly-stressed or heat-sensitive power components used for controlling operation of the cooking oven, with at least one cooling air blower disposed in the switch area used for taking the heated air out of the switch area and with a temperature-dependent switching element, characterised in that the switching element has its own directly assigned heater, wherein the self-heated switching element or its temperature sensor is disposed in the flow area of the cooling air blower and at a pre-specified critical difference between the temperature acting on the switching element as a result of its own heater and the temperature obtaining in the switch area, switching off the at least one thermal heating element, the power components or oven operation has the effect that, on failure of the cooling air blower the cooling of the self-heated switching element no longer takes place and said element is brought from active self heating to the critical switch-off temperature, where ideally the operation of the oven as a whole is interrupted, wherein the switching element or its temperature sensor are arranged on the suction side of the cooling air blower connected to the fresh air, wherein the own heater is assigned to the switching element in a heat-conducting connection and wherein the switching element and the own heater are attached to a metallic carrier.
A fuel additive concentrate comprising: N-methyl-p-toluidine and at least one metal-containing compound in the form of a solid, selected from the group consisting of cyclopentadienyl manganese tricarbonyl, and compounds derived from platinum, cerium, copper, cobalt, tungsten, molybdenum, lanthanum, iron, palladium, and barium; or wherein the metal-containing compound is a liquid manganese-containing organometallic compound.
A method of imaging an organ of a patient, the method comprising: obtaining a plurality of two-dimensional tomosynthesis projection images of the organ by rotating an x-ray emitter to a plurality of orientations relative to the organ and emitting a first level of x-ray energization from the emitter for each projection image of the plurality of projection images; obtaining a full field digital mammography x-ray image (FFDM) of the organ with a second level of x-ray energization higher than said first level of x-ray energization; reconstructing a three-dimensional volume of the organ from the plurality of tomosynthesis projection images and FFDM x-ray image; and generating a synthetic 2D image of the organ from the plurality of tomosynthesis projection images and FFDM x-ray image. obtaining a plurality of two-dimensional tomosynthesis projection images of the organ by rotating an x-ray emitter to a plurality of orientations relative to the organ and emitting a first level of x-ray energization from the emitter for each projection image of the plurality of projection images; obtaining a full field digital mammography x-ray image (FFDM) of the organ with a second level of x-ray energization higher than said first level of x-ray energization; reconstructing a three-dimensional volume of the organ from the plurality of tomosynthesis projection images and FFDM x-ray image; and generating a synthetic 2D image of the organ from the plurality of tomosynthesis projection images and FFDM x-ray image.
A vial processing system comprising: an input platform adapted to receive a vial; a staging platform adapted to receive a vial; a vial handler positioned to transfer a vial between the input platform and staging platform; a cap handler positioned to engage and remove a cap of a vial in the staging platform; a vial gripper to restrict movement of the vial during removal of the cap; a transfer pipette assembly comprising a pipette arm and tip head assembly, the tip head assembly being mounted to the pipette arm and adapted to receive a pipette tip, the pipette arm being positioned to translate the tip head assembly between an open vial and a destination area; and a mixing basket adapted to receive a vial and wherein the vial handler is further positioned to transfer a vial between the input platform, staging platform and mixing basket. an input platform adapted to receive a vial; a staging platform adapted to receive a vial; a vial handler positioned to transfer a vial between the input platform and staging platform; a cap handler positioned to engage and remove a cap of a vial in the staging platform; a vial gripper to restrict movement of the vial during removal of the cap; a transfer pipette assembly comprising a pipette arm and tip head assembly, the tip head assembly being mounted to the pipette arm and adapted to receive a pipette tip, the pipette arm being positioned to translate the tip head assembly between an open vial and a destination area; and a mixing basket adapted to receive a vial and wherein the vial handler is further positioned to transfer a vial between the input platform, staging platform and mixing basket.
A method for manufacturing ceramic tiles that comprises the steps of providing a green tile formed by a mixture of ceramic raw materials, firing said green tile in a kiln to obtain a ceramic tile, said kiln being configured to fire the green tile according to a firing cycle defined by one or more firing parameter (HR, MFT, UICR, UIICR, UIIICR, LICR, LIICR, LIIICR), wherein it comprises the steps of measuring a shape and/or dimension parameter of the obtained ceramic tile, characterized by the step of adjusting a cooling rate (UICR, UIICR, UIIICR, LICR, LIICR, LIIICR) in the kiln between 50°C above or 50°C below the glass transition temperature of a glassy phase of the tile on the basis of said measurement, preferably while one parameter is adjustable the remaining parameters are to be kept constant.
A clothes treating apparatus having a drying function, the clothes treating apparatus comprising: a cabinet; a drum provided within the cabinet; a heat exchanger heat-exchanged with air exhausted from the drum; a lint filter disposed on an upstream side of the heat exchanger with respect to flow of air exhausted from the drum to collect lint in the air, wherein the lint filter includes a frame having at least one opening, and a mesh part provided in the opening and allowing passage of air and restraining passage of lint; a spray tube for spraying water to the lint filter (21 0b) or to the heat exchanger such that lint collected in the lint filter is separated from the lint filter or lint collected in the heat exchanger is separated from the heat exchanger; and a lint collecting part provided below the lint filter or below the heat-exchanger to collect the separated lint, characterized in that the lint filter is disposed to be sloped with respect to a vertical direction of the cabinet, wherein water is sprayable to a rear surface of the lint filter, or sprayable to the heat exchanger, and wherein the lint collecting part comprises a bottom part, and a side wall part extending upward from the edges of the bottom part, wherein the bottom part is arranged for the water and the separated lint to drop thereon such that the bottom part allows passage of the water and restrains passage of the lint to collect the lint thereon, wherein the bottom part and the side wall part include a frame forming an opening and a mesh part disposed to block each opening of the frame. a cabinet; a drum provided within the cabinet; a heat exchanger heat-exchanged with air exhausted from the drum; a lint filter disposed on an upstream side of the heat exchanger with respect to flow of air exhausted from the drum to collect lint in the air, wherein the lint filter includes a frame having at least one opening, and a mesh part provided in the opening and allowing passage of air and restraining passage of lint; a spray tube for spraying water to the lint filter (21 0b) or to the heat exchanger such that lint collected in the lint filter is separated from the lint filter or lint collected in the heat exchanger is separated from the heat exchanger; and a lint collecting part provided below the lint filter or below the heat-exchanger to collect the separated lint, characterized in that the lint filter is disposed to be sloped with respect to a vertical direction of the cabinet, wherein water is sprayable to a rear surface of the lint filter, or sprayable to the heat exchanger, and wherein the lint collecting part comprises a bottom part, and a side wall part extending upward from the edges of the bottom part, wherein the bottom part is arranged for the water and the separated lint to drop thereon such that the bottom part allows passage of the water and restrains passage of the lint to collect the lint thereon, wherein the bottom part and the side wall part include a frame forming an opening and a mesh part disposed to block each opening of the frame.
A method of coating a stent, the method comprising: performing at least two process cycles, characterized in that each process cycle including spraying a coating substance onto or into a stent while simultaneously rotating the stent, the rotating of the stent during at least one of the process cycles is in a rotation direction that is opposite of a rotation direction of at least one other of the process cycles. performing at least two process cycles, characterized in that each process cycle including spraying a coating substance onto or into a stent while simultaneously rotating the stent, the rotating of the stent during at least one of the process cycles is in a rotation direction that is opposite of a rotation direction of at least one other of the process cycles.
A vehicle mirror comprising: a mirror on which a thin film is provided on a flexible tempered glass; a housing which holds the mirror; a curvature changing device provided inside the housing and with which the mirror is bent and deformed and a radius of curvature of the mirror is variable; and a driving portion provided in the curvature changing device and configured to push and pull at least a portion of the mirror, characterized in that a back plate connected to the driving portion is provided on a back surface of the mirror, and only an outer peripheral portion of the mirror and an outer peripheral portion of the back plate are adhered to each other. a mirror on which a thin film is provided on a flexible tempered glass; a housing which holds the mirror; a curvature changing device provided inside the housing and with which the mirror is bent and deformed and a radius of curvature of the mirror is variable; and a driving portion provided in the curvature changing device and configured to push and pull at least a portion of the mirror, characterized in that a back plate connected to the driving portion is provided on a back surface of the mirror, and only an outer peripheral portion of the mirror and an outer peripheral portion of the back plate are adhered to each other.
An uplink transmission apparatus, comprising: a receiving unit configured to receive indication information, the indication information scheduling uplink, UL, transmission on an uplink bandwidth part, UL BWP, comprising at least two resource block, RB, sets; and a transmitting unit configured to transmit the uplink transmission on a default RB set in the UL BWP, wherein the indication information does not include an indication field used for indicating RB set allocated for the UL transmission. a receiving unit configured to receive indication information, the indication information scheduling uplink, UL, transmission on an uplink bandwidth part, UL BWP, comprising at least two resource block, RB, sets; and a transmitting unit configured to transmit the uplink transmission on a default RB set in the UL BWP, wherein the indication information does not include an indication field used for indicating RB set allocated for the UL transmission.
A quenched and tempered steel for spring-use, wherein the chemical composition of said steel consists of (by mass%): C: 0.4 to 0.9%, Si: 1.7 to 3.0%, Mn: 0.1 to 2.0%, restricting N: 0.007% or less, optionally, by mass%, one or more selected from the group of Cr: 0.5 to 2.5%, V: 0.02 to 0.1%, Nb: 0.001 to less than 0.05%, Ti: 0.001 to less than 0.05%, W: 0.05 to 0.5%, Mo: 0.05 to 0.5%, Ta: 0.001 to 0.5%, Ni: 0.05 to 3.0%, Cu: 0.05 to 0.5%, Co: 0.05 to 3.0%, B: 0.0005 to 0.006%, Te: 0.0002 to 0.01%, Sb: 0.0002 to 0.01%, Mg: 0.0001 to 0.0005%, Zr: 0.0001 to 0.0005%, Ca: 0.0002 to 0.01%, and Hf: 0.0002 to 0.01%, and optionally restricting Al: 0.005% or less, and a balance of Fe and unavoidable impurities, said steel has a suppressed amount of coarse cementite precipitates, the amount being represented in terms of an analyzed value of the extracted residue resulting from electrolysis: [amount of Fe in residue on 0.2 μm filter] / [steel electrolysis amount] x 100 ≤ 1.1, said steel has a prior austenite grain size number of #10 or more, and a residual austenite in an amount of 15 mass% or less, wherein the temperature of the tempering is lower than 450°C. C: 0.4 to 0.9%, Si: 1.7 to 3.0%, Mn: 0.1 to 2.0%, restricting N: 0.007% or less, Cr: 0.5 to 2.5%, V: 0.02 to 0.1%, Nb: 0.001 to less than 0.05%, Ti: 0.001 to less than 0.05%, W: 0.05 to 0.5%, Mo: 0.05 to 0.5%, Ta: 0.001 to 0.5%, Ni: 0.05 to 3.0%, Cu: 0.05 to 0.5%, Co: 0.05 to 3.0%, B: 0.0005 to 0.006%, Te: 0.0002 to 0.01%, Sb: 0.0002 to 0.01%, Mg: 0.0001 to 0.0005%, Zr: 0.0001 to 0.0005%, Ca: 0.0002 to 0.01%, and Hf: 0.0002 to 0.01%,
A boron concentration monitor for measuring, in real time, the boron concentration of coolant within a piping servicing a primary loop of a nuclear reactor comprising: an acoustic transmitter acoustically coupled to or through the piping operable to transmit an acoustic signal through an interior of the piping; an acoustic receiver supported at a location around a circumference of the piping that is spaced from the acoustic transmitter, for receiving the acoustic signal; a temperature sensor configured for determining a coolant temperature of coolant flowing in the piping at the location of the acoustic transmitter and acoustic receiver; a communication mechanism (60, 62) in electrical communication with the acoustic transmitter, the acoustic receiver and the temperature sensor, and configured to convey the transmitted acoustic signal, the received acoustic signal and a signal representative of the coolant temperature to a remote location; and an analyzer is structured to be in communication with the remote location and is configured to receive the received acoustic signal, the transmitted acoustic signal, and the signal representative of the coolant temperature from the communication mechanism (60, 62) and compare the received acoustic signal and the transmitted acoustic signal and from the comparison and the signal representative of the coolant temperature, determine a temperature corrected boron concentration within the piping. an acoustic transmitter acoustically coupled to or through the piping operable to transmit an acoustic signal through an interior of the piping; an acoustic receiver supported at a location around a circumference of the piping that is spaced from the acoustic transmitter, for receiving the acoustic signal; a temperature sensor configured for determining a coolant temperature of coolant flowing in the piping at the location of the acoustic transmitter and acoustic receiver; a communication mechanism (60, 62) in electrical communication with the acoustic transmitter, the acoustic receiver and the temperature sensor, and configured to convey the transmitted acoustic signal, the received acoustic signal and a signal representative of the coolant temperature to a remote location; and an analyzer is structured to be in communication with the remote location and is configured to receive the received acoustic signal, the transmitted acoustic signal, and the signal representative of the coolant temperature from the communication mechanism (60, 62) and compare the received acoustic signal and the transmitted acoustic signal and from the comparison and the signal representative of the coolant temperature, determine a temperature corrected boron concentration within the piping.