mhurhangee/ep-ind-claims huggingface dataset:
A fluid dispensing system, comprising: a parent dispenser comprising: (a) a parent body comprising a parent reservoir containing a fluid, a first magnetic coupling member, a passage, and a parent pump mechanism in fluid communication with the parent reservoir and the passage; (b) a parent actuator for actuating the parent pump mechanism, the parent actuator comprising an outlet, a second magnetic coupling member, and an actuator inlet tube in fluid communication with the outlet, wherein the actuator inlet tube is removably received within the passage and wherein the first magnetic coupling member and the second magnetic coupling member cooperate to removably couple the parent actuator and the parent body; a child dispenser comprising: (c) a child body comprising a child reservoir, a child dispensing mechanism, and a child inlet tube, wherein the child inlet tube is removably received within the passage when the child dispenser is coupled to the parent body; and wherein the parent pump mechanism is actuatable by the child dispenser when the child dispenser is coupled to the parent body to transfer at least some of the fluid from the parent reservoir to the child reservoir. (a) a parent body comprising a parent reservoir containing a fluid, a first magnetic coupling member, a passage, and a parent pump mechanism in fluid communication with the parent reservoir and the passage; (b) a parent actuator for actuating the parent pump mechanism, the parent actuator comprising an outlet, a second magnetic coupling member, and an actuator inlet tube in fluid communication with the outlet, wherein the actuator inlet tube is removably received within the passage and wherein the first magnetic coupling member and the second magnetic coupling member cooperate to removably couple the parent actuator and the parent body;
Polyphase electric motor comprising a stator that has at least three coils (33, 43, 36, 46, 37, 47) and consists of 12K radially extending teeth, and comprising a rotor having 5K pairs of magnetic poles, K being equal to 1 or 2, the rotor being composed of a core made of a ferromagnetic material, and having an alternation of 5K magnetized poles (110, 111, 112, 113, 114, 210, 211, 212, 213, 214), and 5K non-magnetized salient poles (120, 121, 122, 123, 124, 220, 221, 222, 223, 224), characterized in that the stator has teeth (3, 6, 7, 13, 16, 17, 20, 21, 22, 23, 24, 25) having a rectangular or trapezoidal cross section that converge toward the center of the motor, in a plane that is transverse relative to the axis of the motor.
A surgical tensioner instrument comprising: - a clip inserter including a cannulated main body extending from a proximal end to a distal tip, a collar configured to translate along the main body, and a threaded shaft configured to move the collar; and - a ratcheting tensioner including a fixed handle coupled to the clip inserter, a pivoting handle coupled to the fixed handle, - a ratchet assembly including a pair of rotary ratchets and a spool keyed to the ratchets and positioned between the ratchets, and an actuator assembly including an actuator configured to engage the first and second rotary ratchets, - wherein when the pivoting handle is squeezed toward the fixed handle, the actuator contacts the ratchets and forces the ratchets and spool to rotate. - a clip inserter including a cannulated main body extending from a proximal end to a distal tip, a collar configured to translate along the main body, and a threaded shaft configured to move the collar; and - a ratcheting tensioner including a fixed handle coupled to the clip inserter, a pivoting handle coupled to the fixed handle, - a ratchet assembly including a pair of rotary ratchets and a spool keyed to the ratchets and positioned between the ratchets, and an actuator assembly including an actuator configured to engage the first and second rotary ratchets, - wherein when the pivoting handle is squeezed toward the fixed handle, the actuator contacts the ratchets and forces the ratchets and spool to rotate.
A method for delivering a plurality of pillars onto a substrate, said substrate including a glass panel, to manufacture a glass panel unit, the method comprising: an irradiation step including setting, over a holder, a sheet for use to form pillars and irradiating the sheet with a laser beam to punch out the plurality of pillars; a holding step including having the plurality of pillars, which have been punched out of the sheet, held by the holder; and a mounting step including picking up some or all of the plurality of pillars from the holder and mounting the pillars onto the substrate. an irradiation step including setting, over a holder, a sheet for use to form pillars and irradiating the sheet with a laser beam to punch out the plurality of pillars; a holding step including having the plurality of pillars, which have been punched out of the sheet, held by the holder; and a mounting step including picking up some or all of the plurality of pillars from the holder and mounting the pillars onto the substrate.
A method, comprising: determining a data state of a memory cell (111-1, 111-N, 311); and determining whether a state (224-1, 224-2) of the memory cell (111-1, 111-N, 311) is in a valley between adjacent distributions (203-1, 203-2) of states associated with respective data states (337-1, 337-P, 347-1, 347-P); entropy coding the data state (337-1, 337-P, 347-1, 347-P) as a variable-length code having a shorter code length in response to the state (224-1, 224-2) not being in the valley and having a longer code length in response to the state (224-1, 224-2) being in the valley; characterised by: generating a high confidence log-likelihood ratio for error correction circuitry in response to the variable-length code having a shorter code length; and generating a low confidence log-likelihood ratio for the error correction circuitry in response to the variable-length code having a longer code length. determining a data state of a memory cell (111-1, 111-N, 311); and determining whether a state (224-1, 224-2) of the memory cell (111-1, 111-N, 311) is in a valley between adjacent distributions (203-1, 203-2) of states associated with respective data states (337-1, 337-P, 347-1, 347-P); entropy coding the data state (337-1, 337-P, 347-1, 347-P) as a variable-length code having a shorter code length in response to the state (224-1, 224-2) not being in the valley and having a longer code length in response to the state (224-1, 224-2) being in the valley; generating a high confidence log-likelihood ratio for error correction circuitry in response to the variable-length code having a shorter code length; and generating a low confidence log-likelihood ratio for the error correction circuitry in response to the variable-length code having a longer code length.
A centrally-positioned power output mechanism for a power-assisted bicycle, comprising: a housing; a crankshaft rotatably inserted through the housing; a large sprocket connected to an end of the crankshaft and having a transmission bushing extending into the housing; a motor disposed inside the housing, sleeved onto the crankshaft, and having a rotor rotatable relative to the crankshaft; and a transmission unit having a ring gear; wherein the transmission unit further has a sun gear, a planetary carrier, and at least two planetary gears, the sun gear being coaxially sleeved onto the crankshaft and the centrally-positioned power output mechanism is characterized in that the ring gear is fixed to the housing and disposed therein, and having a helical gear and a ratchet, the ratchet being fixed to the rotor of the motor and coaxially connected to the helical gear, the planetary carrier being rotatably sleeved onto the crankshaft and connected to the transmission bushing of the large sprocket, the planetary gears each being rotatably disposed at the planetary carrier and having a helical tooth portion and a planetary tooth portion, the helical tooth portion being engaged with the helical gear of the sun gear, and the planetary tooth portion being coaxially connected to a lateral side of the helical tooth portion and being engaged with the ring gear. a housing; a crankshaft rotatably inserted through the housing; a large sprocket connected to an end of the crankshaft and having a transmission bushing extending into the housing; a motor disposed inside the housing, sleeved onto the crankshaft, and having a rotor rotatable relative to the crankshaft; and a transmission unit having a ring gear; wherein the transmission unit further has a sun gear, a planetary carrier, and at least two planetary gears, the sun gear being coaxially sleeved onto the crankshaft and the centrally-positioned power output mechanism is characterized in that the ring gear is fixed to the housing and disposed therein, and having a helical gear and a ratchet, the ratchet being fixed to the rotor of the motor and coaxially connected to the helical gear, the planetary carrier being rotatably sleeved onto the crankshaft and connected to the transmission bushing of the large sprocket, the planetary gears each being rotatably disposed at the planetary carrier and having a helical tooth portion and a planetary tooth portion, the helical tooth portion being engaged with the helical gear of the sun gear, and the planetary tooth portion being coaxially connected to a lateral side of the helical tooth portion and being engaged with the ring gear.
A double-sided metallic laminate comprising (a) a metallic layer at one side, (b) a resin layer of a low expansion polyimide having a thermal expansion coefficient of 5x10 -6 to 2.5x10 -5 /°C, (c) a resin layer of a thermoplastic polyimide and (d) a metallic layer at the other side, wherein the thermoplastic polyimide has a glass transition temperature of 200 to 250 °C and is a copolymer including the following formula 2a, formula 2b, formula 2c and formula 2d; in which k≥1, l, m, n≥0, l+m+n≠0, k≥l, k + l > 1.5 (m+n) and k+m>1.5(l+n), X 2 is at least one selected from the group consisting of and Y 2 is -CO-, -S-, -SO 2 -, -C(CH 3) 2 - or -CONH- and Y 3 is -O-, -CO-, -S-, -SO 2 -, -C(CH 3) 2 - or -CONH-, X 3 is and Y 4 is -, -O- or -CO-. (a) a metallic layer at one side, (b) a resin layer of a low expansion polyimide having a thermal expansion coefficient of 5x10 -6 to 2.5x10 -5 /°C, (c) a resin layer of a thermoplastic polyimide and (d) a metallic layer at the other side,
A microprocessor having an interconnect system, the interconnect system comprising: a plurality of resources to store data to support the execution of multiple code sequences; a plurality of engines to implement the execution of the multiple code sequences; a plurality of resource consumers within each of the plurality of engines; and an interconnect structure to couple the plurality of resource consumers with the plurality of resources to access the data and to execute the multiple code sequences, the resource consumers to access the resources through a per cycle utilization of the interconnect structure; characterized by: an adder structure (301-303, 901-905) to sum requests for access, from orchestrators, to the plurality of resources and to assign a unique port of the resources for each accepted request in accordance with adder structure output sums; and a threshold limiter to limit the requests for access to the plurality of resources to a number of accepted requests according to the number of available ports. a plurality of resources to store data to support the execution of multiple code sequences; a plurality of engines to implement the execution of the multiple code sequences; a plurality of resource consumers within each of the plurality of engines; and an interconnect structure to couple the plurality of resource consumers with the plurality of resources to access the data and to execute the multiple code sequences, the resource consumers to access the resources through a per cycle utilization of the interconnect structure; characterized by: an adder structure (301-303, 901-905) to sum requests for access, from orchestrators, to the plurality of resources and to assign a unique port of the resources for each accepted request in accordance with adder structure output sums; and a threshold limiter to limit the requests for access to the plurality of resources to a number of accepted requests according to the number of available ports. an adder structure (301-303, 901-905) to sum requests for access, from orchestrators, to the plurality of resources and to assign a unique port of the resources for each accepted request in accordance with adder structure output sums; and a threshold limiter to limit the requests for access to the plurality of resources to a number of accepted requests according to the number of available ports.
System for managing logistics flows in an electrolysis plant comprising: - new anode assemblies and worn anode assemblies, - a storage area, for storing new anode assemblies, - a processing area, for processing worn anode assemblies, - a production area, comprising a plurality of electrolytic cells for the production of liquid metal by electrolysis, and - a fleet of transport vehicles for conveying new anode assemblies from the storage area to the production area and worn anode assemblies from the production area to the processing area, characterized in that the transport vehicles are designed to be able to carry only one anode assembly (3, 5) at a time. - new anode assemblies and worn anode assemblies, - a storage area, for storing new anode assemblies, - a processing area, for processing worn anode assemblies, - a production area, comprising a plurality of electrolytic cells for the production of liquid metal by electrolysis, and - a fleet of transport vehicles for conveying new anode assemblies from the storage area to the production area and worn anode assemblies from the production area to the processing area,
A method of controlling and removing biofilm on a surface in contact with an aqueous system comprising the step of adding a biofilm-disrupting agent and a biocide to the aqueous system, wherein the biofilm-disrupting agent is polyethyleneimine and the biocide is selected from monochloramine, dichloramine, or combinations thereof, wherein the concentration of PEI is from 1 mg/L to 200 mg/L based on the volume of water being treated; wherein the dosage of biocide is between 1 mg/L and 15 mg/L as Cl 2 based on mg of biocide per liter of water being treated; and wherein the weight ratio of biocide to PEI is from 1:1 to 1:80.
A rim locking device for a measuring device for measuring a tire, in particular a motor vehicle tire, and in particular with regard to geometry, uniformity and/or imbalance, with an upper locking unit for an upper rim half, which locking unit is fastened to a feeder which can be raised and lowered, and with a lower locking unit for a lower rim half, which locking unit is connected or can be coupled to a rotary drive, in particular to a torque motor, wherein the upper locking unit and the lower locking unit can be actuated independently of one another, wherein the upper locking unit has a locking tube which can be rotated with respect to a base tube, and wherein, when rotating the locking tube, a number of clamping elements can be moved from an unlocking position into a locking position or vice versa for locking or unlocking the associated rim half.
Non-woven fabric comprising: a master batch including a carrier polymer and a lipid ester comprising 10 - 40 wt. % of the master batch, and a matrix polymer; wherein the non-woven fabric has a contact angle ranging from 100° to 125° when measured according to test method ASTM D2578, thus making a hydrophobic non-woven fabric. a master batch including a carrier polymer and a lipid ester comprising 10 - 40 wt. % of the master batch, and a matrix polymer; wherein the non-woven fabric has a contact angle ranging from 100° to 125° when measured according to test method ASTM D2578, thus making a hydrophobic non-woven fabric.
A mineralocorticoid receptor antagonist of general formula: an N-oxide thereof; a diastereomer, racemate, or compound enriched in a diastereomer thereof; an atropisomer, equal mixture of atropisomers, or compound enriched of an atropisomer thereof; or a pharmaceutically acceptable salt of any of the foregoing, wherein, R 1 represents a C1-C3 alkyl group; R 2 represents a 2-hydroxy-C4-C6 alkyl group; R 3 represents a halogeno group, a C1-C3 alkyl group, a C1-C3 alkoxy group, a halogeno-C1-C3 alkyl group or a halogeno-C1-C3 alkoxy group; R 4 represents a hydrogen atom, a halogeno group or a C1-C3 alkyl group; R 5 represents a C1-C3 alkyl group; and R 6 represents a hydrogen atom, a halogeno group, a C1-C3 alkyl group or a C1-C3 alkoxy group]. R 1 represents a C1-C3 alkyl group; R 2 represents a 2-hydroxy-C4-C6 alkyl group; R 3 represents a halogeno group, a C1-C3 alkyl group, a C1-C3 alkoxy group, a halogeno-C1-C3 alkyl group or a halogeno-C1-C3 alkoxy group; R 4 represents a hydrogen atom, a halogeno group or a C1-C3 alkyl group; R 5 represents a C1-C3 alkyl group; and R 6 represents a hydrogen atom, a halogeno group, a C1-C3 alkyl group or a C1-C3 alkoxy group].
A subdivision system, in particular for drawers, having multiple wall elements (3, 5), which are aligned at angles in relation to one another and subdivide an interior into multiple chambers, characterized in that the subdivision system has a frame, which encloses the wall elements (3, 5) and is assembled from multiple frame elements (2, 4), wherein at least one of the frame elements (2, 4) is connectable to the adjacent frame elements (2, 4) in a manner foldable about an axis parallel to the longitudinal extension of the frame element (2, 4).
A method, comprising: heating a composite material into a viscous form, wherein the composite material comprises a thermoplastic and a plurality of reinforcement fibers, wherein the plurality of reinforcement fibers is randomly arranged within the thermoplastic; extruding a plurality of strands of the composite material, wherein extruding the plurality of strands causes the plurality of reinforcement fibers within each strand to align; and arranging the plurality of strands of the composite material to form a mold tool, wherein the mold tool is configured to mold a composite structure at a heated temperature, and wherein the mold tool comprises an anisotropic thermal expansion property, wherein the anisotropic thermal expansion property is based on an orientation of the plurality of reinforcement fibers within the mold tool; wherein: the mold tool comprises a bond mold for the composite structure, wherein the bond mold comprises an inner mold line tool and an outer mold line tool; a width dimension of the inner mold line tool comprises a larger coefficient of thermal expansion than a width dimension of the outer mold line tool. heating a composite material into a viscous form, wherein the composite material comprises a thermoplastic and a plurality of reinforcement fibers, wherein the plurality of reinforcement fibers is randomly arranged within the thermoplastic; extruding a plurality of strands of the composite material, wherein extruding the plurality of strands causes the plurality of reinforcement fibers within each strand to align; and arranging the plurality of strands of the composite material to form a mold tool, wherein the mold tool is configured to mold a composite structure at a heated temperature, and wherein the mold tool comprises an anisotropic thermal expansion property, wherein the anisotropic thermal expansion property is based on an orientation of the plurality of reinforcement fibers within the mold tool; wherein: the mold tool comprises a bond mold for the composite structure, wherein the bond mold comprises an inner mold line tool and an outer mold line tool; a width dimension of the inner mold line tool comprises a larger coefficient of thermal expansion than a width dimension of the outer mold line tool. the mold tool comprises a bond mold for the composite structure, wherein the bond mold comprises an inner mold line tool and an outer mold line tool; a width dimension of the inner mold line tool comprises a larger coefficient of thermal expansion than a width dimension of the outer mold line tool.
A double chain stitch sewing machine comprising: an upper shaft; a thread take-up lever interlocked with the upper shaft; and a thread take-up lever switching mechanism for changing an operation of the thread take-up lever, the thread take-up lever switching mechanism comprising: a cylindrical cam provided on the upper shaft, the cylindrical cam having a plurality of cam surfaces (10b, 10c); a contact portion provided on the thread take-up lever, the contact portion contacting a first surface of the plurality of cam surfaces (10b, 10c); and a switch for switching the contact portion from a first position of contacting the first surface of the plurality of cam surfaces (10b, 10c) to a second position of contacting a second surface of the plurality of cam surfaces (10b, 10c), wherein the thread take-up lever is configured to rock around a fulcrum portion for vertically moving a thread retainer, and wherein the fulcrum portion is located between the thread retainer and the contact portion, and the contact portion is located below the cylindrical cam. an upper shaft; a thread take-up lever interlocked with the upper shaft; and a thread take-up lever switching mechanism for changing an operation of the thread take-up lever, the thread take-up lever switching mechanism comprising: a cylindrical cam provided on the upper shaft, the cylindrical cam having a plurality of cam surfaces (10b, 10c); a contact portion provided on the thread take-up lever, the contact portion contacting a first surface of the plurality of cam surfaces (10b, 10c); and a switch for switching the contact portion from a first position of contacting the first surface of the plurality of cam surfaces (10b, 10c) to a second position of contacting a second surface of the plurality of cam surfaces (10b, 10c), wherein the thread take-up lever is configured to rock around a fulcrum portion for vertically moving a thread retainer, and wherein the fulcrum portion is located between the thread retainer and the contact portion, and the contact portion is located below the cylindrical cam. a cylindrical cam provided on the upper shaft, the cylindrical cam having a plurality of cam surfaces (10b, 10c); a contact portion provided on the thread take-up lever, the contact portion contacting a first surface of the plurality of cam surfaces (10b, 10c); and a switch for switching the contact portion from a first position of contacting the first surface of the plurality of cam surfaces (10b, 10c) to a second position of contacting a second surface of the plurality of cam surfaces (10b, 10c), wherein the thread take-up lever is configured to rock around a fulcrum portion for vertically moving a thread retainer, and wherein the fulcrum portion is located between the thread retainer and the contact portion, and the contact portion is located below the cylindrical cam.