mhurhangee/ep-ind-claims huggingface dataset:
A pultrusion apparatus for manufacturing a pultruded product, said pultrusion apparatus comprising a fibre supply for supplying fibre bundles comprising a plurality of fibres, a resin supply (2a, 2b), an injection box (4, 20), a pultrusion die, a pulling mechanism (6a, 6b) being arranged for pulling the fibre bundles from the fibre supply and through the injection box (4, 20) and the pultrusion die, and where the fibre bundles, during operation of said pultrusion apparatus, are being impregnated by the resin in the injection box (4, 20) and thereafter are being pulled through the pultrusion die for curing the resin, wherein the movement of the fibre bundles through said pultrusion apparatus during operation of said pultrusion apparatus defines a production direction, said pultrusion apparatus comprises a controller configured to collect data related to the amount of resin within said injection box, said pultrusion apparatus comprises at least one pump capable of adjusting the amount of resin supplied to said injection box, wherein said pump is configured to be controlled on the basis of said data from said controller, thereby adjusting the supply of resin to said injection box accordingly, characterized in that said injection box further comprises at least one upper opening for facilitating an excess amount of resin to escape the interior of said injection box, and through which the resin in the injection box is visible from the outside of said injection box.
An image reading apparatus comprising: a light source (210; 310) configured to emit at least light in a first wavelength range and light in a second wavelength range different from the first wavelength range; a background member (240; 270) having different light reflectances in the first wavelength range and the second wavelength range; an imaging device (220; 320) configured to: receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and a foreign substance detection unit (411; 412) configured to: detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320). a light source (210; 310) configured to emit at least light in a first wavelength range and light in a second wavelength range different from the first wavelength range; a background member (240; 270) having different light reflectances in the first wavelength range and the second wavelength range; an imaging device (220; 320) configured to: receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and a foreign substance detection unit (411; 412) configured to: detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320). detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320).
A method for reducing Factor XI and/or Factor XIa (FXIa) content in a plasma-derived immunoglobulin composition, the method comprising the steps of: (a) contacting a plasma-derived immunoglobulin composition that comprises IgG immunoglobulins and FXI and/ or FXIa with a cation exchange resin disposed in a chromatography column under a first solution condition comprising a pH of no more than 6.0 and a conductivity of no more than 11 mS/cm to bind the IgG immunoglobulins and at least a fraction of the FXI and/or FXIa to the cation exchange resin; (b) eluting the immunoglobulins from the cation exchange resin by contacting the cation exchange resin with an elution buffer comprising a pH of at least 7.5 and a conductivity of at least 15 mS/cm to form an eluate comprising a leading portion and a lagging portion; and (c) collecting the leading portion of the eluate separately from the lagging portion of the eluate, wherein the leading portion of the eluate comprises an IgG immunoglobulin composition having a reduced amount of amidolytic activity as compared to the starting composition and the lagging portion of the eluate contains a higher concentration of amidolytic activity as compared to the leading portion of the eluate. (a) contacting a plasma-derived immunoglobulin composition that comprises IgG immunoglobulins and FXI and/ or FXIa with a cation exchange resin disposed in a chromatography column under a first solution condition comprising a pH of no more than 6.0 and a conductivity of no more than 11 mS/cm to bind the IgG immunoglobulins and at least a fraction of the FXI and/or FXIa to the cation exchange resin; (b) eluting the immunoglobulins from the cation exchange resin by contacting the cation exchange resin with an elution buffer comprising a pH of at least 7.5 and a conductivity of at least 15 mS/cm to form an eluate comprising a leading portion and a lagging portion; and (c) collecting the leading portion of the eluate separately from the lagging portion of the eluate,
Explosion-proof lighting system adapted for use in explosion-risk areas, comprising: - a power supply body (4, 4.1) equipped with a heat sink having a substantially cylindrical shape; - a lamp body (5, 5.1), in which a lighting system (64, 10, 13.4, 13.8) based on LED technology is inserted, the lighting system being housed on a support plate adapted to act as a heat sink; - a power mains connection body (3, 3.1); said power supply body, lamp body (5, 5.1) and power mains connection body (3, 3.1) having an essentially cylindrical shape and each being distinct, aligned, and joined axially through mechanic and electric interconnections, said power mains connection body being located on the power supply body side. - a power supply body (4, 4.1) equipped with a heat sink having a substantially cylindrical shape; - a lamp body (5, 5.1), in which a lighting system (64, 10, 13.4, 13.8) based on LED technology is inserted, the lighting system being housed on a support plate adapted to act as a heat sink; - a power mains connection body (3, 3.1);
A quantum system comprising: a microwave transmitter configured to provide a continuous microwave tone; a qubit configured such that a portion of an energy spectrum of the qubit is responsive to an applied flux, the qubit having an inductive element responsive to the continuous microwave tone to produce a Rabi oscillation within the qubit; a flux source configured to apply a flux to the qubit; and a system control characterized in being configured to: control the flux source as to selectively apply flux to the qubit, such that a qubit resonance frequency associated with the energy spectrum of the qubit is selectively tuned to a frequency of the Rabi oscillation; and tune the qubit resonance frequency to the frequency of the Rabi oscillation for a predetermined period of time equal to a ratio of a desired angle of the X rotation to the frequency of the Rabi oscillation, such that an X rotation of the qubit state is achieved. a microwave transmitter configured to provide a continuous microwave tone; a qubit configured such that a portion of an energy spectrum of the qubit is responsive to an applied flux, the qubit having an inductive element responsive to the continuous microwave tone to produce a Rabi oscillation within the qubit; a flux source configured to apply a flux to the qubit; and a system control characterized in being configured to: control the flux source as to selectively apply flux to the qubit, such that a qubit resonance frequency associated with the energy spectrum of the qubit is selectively tuned to a frequency of the Rabi oscillation; and tune the qubit resonance frequency to the frequency of the Rabi oscillation for a predetermined period of time equal to a ratio of a desired angle of the X rotation to the frequency of the Rabi oscillation, such that an X rotation of the qubit state is achieved. control the flux source as to selectively apply flux to the qubit, such that a qubit resonance frequency associated with the energy spectrum of the qubit is selectively tuned to a frequency of the Rabi oscillation; and tune the qubit resonance frequency to the frequency of the Rabi oscillation for a predetermined period of time equal to a ratio of a desired angle of the X rotation to the frequency of the Rabi oscillation, such that an X rotation of the qubit state is achieved.
An air dehydration membrane module comprising a plurality of hollow polymeric fibers disposed within a pressure vessel, the fibers being formed of a material selected to have a permeability for water vapor which is different from its permeability for air, the module having an inlet end, the inlet end having an inlet port for allowing air to flow into the module, wherein air which permeates the fibers comprises a permeate stream, and wherein air which does not permeate the fibers comprises a retentate stream, the module having an outlet end, opposite to the inlet end, the outlet end having an outlet port for allowing the retentate stream to flow out of the module, the module includes a filter pad positioned at the outlet port and within the pressure vessel, characterized in that, the filter pad being made of activated carbon cloth, and wherein the dehydration membrane module is the sole membrane module within the pressure vessel.
A resource allocation method, comprising: sending, by a base station to a terminal, a resource allocation parameter via a downlink control information, DCI, wherein the resource allocation parameter comprises a starting narrowband index, a bandwidth indication information, and a resource position, wherein the bandwidth indication information and the starting narrowband index are jointly encoded, wherein the resource position is independently encoded, wherein the starting narrowband index is used for indicating a narrowband resource for establishing a physical shared channel, wherein the bandwidth indication information is used for indicating bandwidth information of the resource position; and sending, by the base station to the terminal, data on the physical shared channel according to the resource allocation parameter. sending, by a base station to a terminal, a resource allocation parameter via a downlink control information, DCI, wherein the resource allocation parameter comprises a starting narrowband index, a bandwidth indication information, and a resource position, wherein the bandwidth indication information and the starting narrowband index are jointly encoded, wherein the resource position is independently encoded, wherein the starting narrowband index is used for indicating a narrowband resource for establishing a physical shared channel, wherein the bandwidth indication information is used for indicating bandwidth information of the resource position; and sending, by the base station to the terminal, data on the physical shared channel according to the resource allocation parameter.
A combustor assembly, comprising: a combustion chamber; a first plenum; a second plenum; and one or more elongate air/fuel premixing injection tubes, characterised in that each of the one or more elongate air/fuel premixing injection tubes comprising: a first length at least partially disposed within the first plenum and configured to receive a first fuel from the first plenum; and a second length disposed downstream of the first length and at least partially disposed within the second plenum, wherein the second length is formed of a porous wall configured to allow a second fuel from the second plenum to enter the second length and create a boundary layer about the porous wall. a combustion chamber; a first plenum; a second plenum; and one or more elongate air/fuel premixing injection tubes, characterised in that each of the one or more elongate air/fuel premixing injection tubes comprising: a first length at least partially disposed within the first plenum and configured to receive a first fuel from the first plenum; and a second length disposed downstream of the first length and at least partially disposed within the second plenum, wherein the second length is formed of a porous wall configured to allow a second fuel from the second plenum to enter the second length and create a boundary layer about the porous wall. a first length at least partially disposed within the first plenum and configured to receive a first fuel from the first plenum; and a second length disposed downstream of the first length and at least partially disposed within the second plenum, wherein the second length is formed of a porous wall configured to allow a second fuel from the second plenum to enter the second length and create a boundary layer about the porous wall.
Heat exchanger for a forced ventilation system for introducing fresh air from outside into an interior, the heat exchanger being a shell and tube type heat exchanger for exchanging heat between a first air flow and a second air flow, wherein the heat exchanger comprises; - a number of tubes for channelling the first air flow, - an outer shell configured to channel the second air flow, the outer shell enclosing the number of tubes and defining an interspace within said outer shell and outside of the number of tubes, - an interspace flow-through opening for the second air flow such that the interspace carries the second air flow along the number of tubes such that heat is exchanged between the first flow through the number of tubes and the second air flow in the interspace, characterised by - a bypass tube having at least one bypass flow-through opening (10, 11) in fluid connection with the interspace, the bypass tube being adjustable to position selectively allow flow through the at least one bypass flow-through opening, and - a valve system operationally coupled with the least one bypass flow-through opening (10, 11) to at least partially open or close the at least one bypass flow-through opening depending on the position (fig. 1, fig. 2) of a hollow tube member of the valve system for influencing the degree of heat exchange between the first air flow and the second air flow. - a number of tubes for channelling the first air flow, - an outer shell configured to channel the second air flow, the outer shell enclosing the number of tubes and defining an interspace within said outer shell and outside of the number of tubes, - an interspace flow-through opening for the second air flow such that the interspace carries the second air flow along the number of tubes such that heat is exchanged between the first flow through the number of tubes and the second air flow in the interspace, characterised by - a bypass tube having at least one bypass flow-through opening (10, 11) in fluid connection with the interspace, the bypass tube being adjustable to position selectively allow flow through the at least one bypass flow-through opening, and - a valve system operationally coupled with the least one bypass flow-through opening (10, 11) to at least partially open or close the at least one bypass flow-through opening depending on the position (fig. 1, fig. 2) of a hollow tube member of the valve system for influencing the degree of heat exchange between the first air flow and the second air flow.
Method for the production of a panel, in particular for the production of a floor panel having a decorative surface and a highly abrasion-resistant layer comprising the steps: a) providing a panel, that is made of wood or a derived timber product, having a decorative surface, b) application of a basecoat, that is preferably hardenable by radiation, c) depositing of abrasion-resistant particles onto the basecoat, d) application of a basecoat, that is preferably hardenable by radiation, onto the abrasion-resistant particles, e) hardening of both applied coats (2, 8), preferably by means of radiation. a) providing a panel, that is made of wood or a derived timber product, having a decorative surface, b) application of a basecoat, that is preferably hardenable by radiation, c) depositing of abrasion-resistant particles onto the basecoat, d) application of a basecoat, that is preferably hardenable by radiation, onto the abrasion-resistant particles, e) hardening of both applied coats (2, 8), preferably by means of radiation.
A robotic system for forming features in an orthodontic aligner having a thin polymeric shell, said robotic system comprising: a control system including a virtual model of the aligner; a platen controlled by the control system that provides three-dimensional positioning of the aligner; a heating station (15, 16) comprising a hot air source and controlled by the control system selectively heating a small region of the aligner on the platen using a localized flow of heated air; and a thermoforming station controlled by the control system, in which the heated region of the aligner on the platen can be manipulated by the thermoforming station to form a desired feature in the aligner. a control system including a virtual model of the aligner; a platen controlled by the control system that provides three-dimensional positioning of the aligner; a heating station (15, 16) comprising a hot air source and controlled by the control system selectively heating a small region of the aligner on the platen using a localized flow of heated air; and a thermoforming station controlled by the control system, in which the heated region of the aligner on the platen can be manipulated by the thermoforming station to form a desired feature in the aligner.
A solar-tracking photovoltaic system, comprising: a plurality of driven support assemblies including a first motor drive and a second motor drive mounted on respective drive piles; a torque tube extending along a longitudinal axis between a first end and a second end, wherein the first end is coupled to the first motor drive and the second end is coupled to the second motor drive; a plurality of PV modules mounted on the torque tube; and a controller electrically connected to the first motor drive and the second motor drive, characterised in that the controller is configured to control the motor drives independently to input different torques to the first end and the second end about the longitudinal axis to rotate the torque tube such that the plurality of PV modules track a solar source. a plurality of driven support assemblies including a first motor drive and a second motor drive mounted on respective drive piles; a torque tube extending along a longitudinal axis between a first end and a second end, wherein the first end is coupled to the first motor drive and the second end is coupled to the second motor drive; a plurality of PV modules mounted on the torque tube; and a controller electrically connected to the first motor drive and the second motor drive, characterised in that the controller is configured to control the motor drives independently to input different torques to the first end and the second end about the longitudinal axis to rotate the torque tube such that the plurality of PV modules track a solar source.
An LED light-emitting flame lamp assembly, comprising a lamp shade and a light source disposed inside the lamp shade, wherein the light source comprises a lamp shell and a base provided at one end of the lamp shell, a lamp cap is provided on the base, a lamp board holder which is one rectangular frame or two or more rectangular frames is provided inside the lamp shell, the lamp board holder is wrapped with a cylindrical or polyhedral shaped LED circuit board, a plurality of LED bulbs are arranged on the LED circuit board, the LED circuit board, a control circuit board, a power supply and the lamp cap are consecutively electrically connected, the control circuit board comprises a controller, the controller is connected to a filter module and a voltage regulator stabilizer which are both connected to the power supply, and a PWM driving circuit which is connected to the LED circuit board, the controller sends timing signals to the PWM driving circuit, the PWM driving circuit outputs PWM signals according to the timing signals received, to control the on/off and blinking of the LED bulbs, in order to achieve a flame-like effect.
An apparatus, comprising: a ventricular assist device comprising: a frame comprising struts that define a plurality of cells, the frame being configured such that, in a non-radially-constrained configuration of the frame, the frame comprises a generally cylindrical central portion; a pump-outlet tube that defines one or more blood outlet openings, a portion of the pump-outlet tube being disposed outside the frame and coupled to the generally cylindrical central portion of the frame, such that the portion of the pump-outlet tube conforms with a structure of struts of the frame; an inner lining coupled to an inside of the generally cylindrical central portion of the frame, such as to provide the generally cylindrical portion of the frame with a smooth inner surface; an impeller disposed at least partially inside the generally cylindrical central portion of the frame and configured to pump blood through the tube and out of the one of more blood outlet openings; and a protective braid disposed over a distal portion of the frame and configured to block structures from the subject's left ventricle from entering into the frame, a proximal end of the protective braid being embedded between the pump-outlet tube and the inner lining, such that, during crimping of the frame, the protective braid becomes crimped with the pump-outlet tube and the inner lining, thereby preventing the protective braid from moving with respect to pump-outlet tube or the inner lining. a frame comprising struts that define a plurality of cells, the frame being configured such that, in a non-radially-constrained configuration of the frame, the frame comprises a generally cylindrical central portion; a pump-outlet tube that defines one or more blood outlet openings, a portion of the pump-outlet tube being disposed outside the frame and coupled to the generally cylindrical central portion of the frame, such that the portion of the pump-outlet tube conforms with a structure of struts of the frame; an inner lining coupled to an inside of the generally cylindrical central portion of the frame, such as to provide the generally cylindrical portion of the frame with a smooth inner surface; an impeller disposed at least partially inside the generally cylindrical central portion of the frame and configured to pump blood through the tube and out of the one of more blood outlet openings; and a protective braid disposed over a distal portion of the frame and configured to block structures from the subject's left ventricle from entering into the frame, a proximal end of the protective braid being embedded between the pump-outlet tube and the inner lining, such that, during crimping of the frame, the protective braid becomes crimped with the pump-outlet tube and the inner lining, thereby preventing the protective braid from moving with respect to pump-outlet tube or the inner lining.