mhurhangee/ep-ind-claims huggingface dataset:
An active energy ray-curable inkjet ink composition satisfying all of requirements to below: a polyfunctional amine-modified oligomer is contained by 0.2 to 14.0% by mass in a total quantity of all polymerizable components; monofunctional monomers are contained by 50.0% by mass or more in the total quantity of all polymerizable components; a monofunctional monomer with a glass transition temperature of 20°C or higher is contained by 30.0% by mass or more in the total quantity of all polymerizable components; a monofunctional monomer with a glass transition temperature of 10°C or lower is contained by 20.0% by mass or more in the total quantity of all polymerizable components; a polyfunctional monomer with a glass transition temperature of 10°C or lower is contained by 3.0 to 12.0% by mass in the total quantity of all polymerizable components; and a nitrogen-containing monofunctional monomer is contained by 30.0 to 50.0% by mass in the total quantity of all polymerizable components, excluding a photocurable inkjet printing ink composition satisfying all of requirements A to E: A. 3,3,5-trimethylcyclohexyl acrylate is contained by 5 to 50% by mass in all photopolymerizable compounds; B. a polyfunctional monomer and/or polyfunctional oligomer with a glass transition temperature of 10°C or lower are/is contained by 1 to 15% by mass in all photopolymerizable compounds; C. monofunctional monomers are contained by a total of 40% by mass or more in all photopolymerizable compounds; D. an amino group and/or amide group-containing monomer and/or oligomer are/is contained; and E. a viscosity of the ink composition is 10 mPa•s or lower at 25°C. a polyfunctional amine-modified oligomer is contained by 0.2 to 14.0% by mass in a total quantity of all polymerizable components; monofunctional monomers are contained by 50.0% by mass or more in the total quantity of all polymerizable components; a monofunctional monomer with a glass transition temperature of 20°C or higher is contained by 30.0% by mass or more in the total quantity of all polymerizable components; a monofunctional monomer with a glass transition temperature of 10°C or lower is contained by 20.0% by mass or more in the total quantity of all polymerizable components; a polyfunctional monomer with a glass transition temperature of 10°C or lower is contained by 3.0 to 12.0% by mass in the total quantity of all polymerizable components; and a nitrogen-containing monofunctional monomer is contained by 30.0 to 50.0% by mass in the total quantity of all polymerizable components, A. 3,3,5-trimethylcyclohexyl acrylate is contained by 5 to 50% by mass in all photopolymerizable compounds; B. a polyfunctional monomer and/or polyfunctional oligomer with a glass transition temperature of 10°C or lower are/is contained by 1 to 15% by mass in all photopolymerizable compounds; C. monofunctional monomers are contained by a total of 40% by mass or more in all photopolymerizable compounds; D. an amino group and/or amide group-containing monomer and/or oligomer are/is contained; and E. a viscosity of the ink composition is 10 mPa•s or lower at 25°C.
A method for processing a substrate, the method comprising: positioning a first major surface of a substrate on a chuck, the substrate having a plurality of structures formed on the first major surface, wherein each of the plurality of structures are positioned in a respective cavity of a plurality of cavities (510A-510C) formed in a chucking surface of the chuck; applying a first pressure to the first major surface through a plurality of ports formed in the chucking surface while applying a second pressure in pairs of the cavities (510A-510C), the first pressure being different than the second pressure; and forming a plurality of structures on a second major surface of the substrate. positioning a first major surface of a substrate on a chuck, the substrate having a plurality of structures formed on the first major surface, wherein each of the plurality of structures are positioned in a respective cavity of a plurality of cavities (510A-510C) formed in a chucking surface of the chuck; applying a first pressure to the first major surface through a plurality of ports formed in the chucking surface while applying a second pressure in pairs of the cavities (510A-510C), the first pressure being different than the second pressure; and forming a plurality of structures on a second major surface of the substrate.
A method for controlling optical power, comprising: monitoring output optical power of an optical source, and judging whether a preset test control signal is received; when the preset test control signal is not received, outputting light of the optical source, and adjusting a bias current of the optical source according to an output optical power monitoring result of the optical source to implement automatic power control, wherein the output light of the optical source does not comprises a test signal, but comprise a data signal; when the preset test control signal is received, starting a test and outputting light of the optical source, wherein the output light of the optical source comprises a test signal and a data signal, wherein the output optical power monitoring result of the optical source is ignored during the test period to maintain the bias current of the optical source at a preset target value; and wherein the preset control signal is a valid optical time domain reflectometer, OTDR, test control signal. monitoring output optical power of an optical source, and judging whether a preset test control signal is received; when the preset test control signal is not received, outputting light of the optical source, and adjusting a bias current of the optical source according to an output optical power monitoring result of the optical source to implement automatic power control, wherein the output light of the optical source does not comprises a test signal, but comprise a data signal; when the preset test control signal is received, starting a test and outputting light of the optical source, wherein the output light of the optical source comprises a test signal and a data signal, wherein the output optical power monitoring result of the optical source is ignored during the test period to maintain the bias current of the optical source at a preset target value; and wherein the preset control signal is a valid optical time domain reflectometer, OTDR, test control signal.
A method, performed by a Memory Merging Function, for merging memory pages, wherein the memory pages are comprised in a set of memory blades (105, 105, 107), wherein a hardware system comprises the set of memory blades (105, 105, 107) and a set of computing pools (102, 103, 104), wherein the set of memory blades (105, 105, 107) and the set of computing pools (102, 103, 104) are interconnected with each other, wherein the set of computing pools (102, 103, 104) comprises computing units, wherein at least one instance of an operating system executes on the hardware system, wherein the Memory Merging Function is independent of the operating system, wherein the method comprises: finding, among the memory pages, a first and a second memory page (131, 132), wherein the first and second memory pages (131, 132) include an identical information, wherein the first and second memory pages are associated with at least one computing unit of the computing units; obtaining a respective memory blade parameter relating to memory blade of the first and second memory pages (131, 132); obtaining a respective latency parameter relating to latency for accessing, by the at least one computing unit, the first and second memory pages (131, 132); and releasing at least one of the first and second memory pages (131, 132) based on the respective memory blade parameter of the first and second memory pages (131, 132) and the respective latency parameter of the first and second memory pages (131, 132). finding, among the memory pages, a first and a second memory page (131, 132), wherein the first and second memory pages (131, 132) include an identical information, wherein the first and second memory pages are associated with at least one computing unit of the computing units; obtaining a respective memory blade parameter relating to memory blade of the first and second memory pages (131, 132); obtaining a respective latency parameter relating to latency for accessing, by the at least one computing unit, the first and second memory pages (131, 132); and releasing at least one of the first and second memory pages (131, 132) based on the respective memory blade parameter of the first and second memory pages (131, 132) and the respective latency parameter of the first and second memory pages (131, 132).
An apparatus for sending vehicle broadcast information, in an Internet of Vehicles, IoV, network, comprising: a sending module, configured to broadcast a message of a first vehicle information at a first resource location of each cycle, wherein the message of the first vehicle information comprises at least driving information of a vehicle that carries a first user equipment, UE; and wherein a resource location represent an available physical layer transmission resource of each cycle; a receiving module, configured to detect, at a second resource location of each cycle, a message of a second vehicle information sent by a second UE, wherein the message of the second vehicle information comprises at least driving information and a first collision identifier that are of a vehicle that carries the second UE; and the first collision identifier is used to indicate that colliding interference exists at the first resource location of the first UE in each cycle, wherein the colliding interference is caused between the broadcast message of the first UE and a broadcast message of another UE except the first UE and the second UE; and a processing module, configured to select an idle resource location at the second resource location, and use the selected idle resource location as the first resource location of the first UE in each cycle. a sending module, configured to broadcast a message of a first vehicle information at a first resource location of each cycle, wherein the message of the first vehicle information comprises at least driving information of a vehicle that carries a first user equipment, UE; and wherein a resource location represent an available physical layer transmission resource of each cycle; a receiving module, configured to detect, at a second resource location of each cycle, a message of a second vehicle information sent by a second UE, wherein the message of the second vehicle information comprises at least driving information and a first collision identifier that are of a vehicle that carries the second UE; and the first collision identifier is used to indicate that colliding interference exists at the first resource location of the first UE in each cycle, wherein the colliding interference is caused between the broadcast message of the first UE and a broadcast message of another UE except the first UE and the second UE; and a processing module, configured to select an idle resource location at the second resource location, and use the selected idle resource location as the first resource location of the first UE in each cycle.
A device for controlling an image acquisition of a multi-slice computed tomography system comprising a rotatable gantry, a multi-row detector, an X-ray source and an automated examination couch moving in a longitudinal direction, the device comprising: an input for receiving projection image data from the multi-row detector of said multi-slice computed tomography system, an output for controlling operation of said multi-slice computed tomography system, and a processor, wherein said processor is adapted for controlling a first operation of the multi-slice computed tomography system via the output so that a large volume computed tomography localizer radiograph of a subject to be imaged is acquired, wherein said processor is adapted for receiving the computed tomography localizer radiograph via the input, and for defining an organ region in the CT localizer radiograph that substantially delimits an organ of interest in the subject; wherein said processor is adapted for controlling a second operation of the computed tomography system via the output so that a large volume overview is acquired by means of a helical computed tomography scan of the subject, in which the subject is translated by the automated examination couch through an examination volume, in which controlling said second operation comprises increasing an X-ray cone angle of the computed tomography system in the longitudinal direction when said translation of the subject by the automated examination couch causes the organ region to enter into the examination volume and decreasing the X-ray cone angle when said translation of the subject causes the organ region to leave the examination volume. an input for receiving projection image data from the multi-row detector of said multi-slice computed tomography system, an output for controlling operation of said multi-slice computed tomography system, and a processor, wherein said processor is adapted for controlling a first operation of the multi-slice computed tomography system via the output so that a large volume computed tomography localizer radiograph of a subject to be imaged is acquired, wherein said processor is adapted for receiving the computed tomography localizer radiograph via the input, and for defining an organ region in the CT localizer radiograph that substantially delimits an organ of interest in the subject; wherein said processor is adapted for controlling a second operation of the computed tomography system via the output so that a large volume overview is acquired by means of a helical computed tomography scan of the subject, in which the subject is translated by the automated examination couch through an examination volume, in which controlling said second operation comprises increasing an X-ray cone angle of the computed tomography system in the longitudinal direction when said translation of the subject by the automated examination couch causes the organ region to enter into the examination volume and decreasing the X-ray cone angle when said translation of the subject causes the organ region to leave the examination volume.
Multi-channel optical transmitter for transmitting a multi-channel signal in the optical domain, wherein the multi-channel optical transmitter stores a first sequence of mappings ( U t) successive in time, wherein, for any time slot, the mapping ( U t) of the first sequence is the inverse of a corresponding mapping ( U t -1) of a second sequence of mappings ( U t -1) stored at a multi-channel optical receiver, wherein each one of the first and second sequences of mappings includes at least two distinct mappings, the multi-channel optical transmitter comprising: a plurality of symbol generators, each symbol generator being configured for generating a symbol stream at a common symbol rate based on a sub-stream of the data stream to be transmitted, each symbol stream including one symbol per time slot, wherein the symbols of the symbol streams at a given time slot constitute a symbol vector ( V t), a digital mapping module for performing the first sequence of mappings ( U t) on each symbol vector ( V t) in order to obtain a mapped symbol vector ( U t V t), an emission unit configured for emitting a multi-channel signal multiplexing a plurality of transmission channels, wherein each transmission channel is modulated with a symbol of the mapped symbol vector ( U t V t). a plurality of symbol generators, each symbol generator being configured for generating a symbol stream at a common symbol rate based on a sub-stream of the data stream to be transmitted, each symbol stream including one symbol per time slot, wherein the symbols of the symbol streams at a given time slot constitute a symbol vector ( V t), a digital mapping module for performing the first sequence of mappings ( U t) on each symbol vector ( V t) in order to obtain a mapped symbol vector ( U t V t), an emission unit configured for emitting a multi-channel signal multiplexing a plurality of transmission channels, wherein each transmission channel is modulated with a symbol of the mapped symbol vector ( U t V t).
An apparatus, preferably opto-mechanical, comprising: an optically transparent substrate comprising: a first surface; and a second surface opposite the first surface; a piezoelectric membrane disposed at the first surface of the optically transparent substrate; at least one reflective facet (40, 400A, 400B) disposed at the piezoelectric membrane or in a same plane by a side of the piezoelectric membrane, and facing the optically transparent substrate; and an optical element comprising: an input end configured to receive a light beam; an output end coupled to the second surface of the optically transparent substrate; a light focusing lens having a focal point for the light beam at the piezoelectric membrane; and a light collimating lens oriented to collimate the light beam onto the at least one reflective facet (40, 400A, 400B) for reflection of the light beam back to the input end. an optically transparent substrate comprising: a first surface; and a second surface opposite the first surface; a first surface; and a second surface opposite the first surface; a piezoelectric membrane disposed at the first surface of the optically transparent substrate; at least one reflective facet (40, 400A, 400B) disposed at the piezoelectric membrane or in a same plane by a side of the piezoelectric membrane, and facing the optically transparent substrate; and an optical element comprising: an input end configured to receive a light beam; an output end coupled to the second surface of the optically transparent substrate; a light focusing lens having a focal point for the light beam at the piezoelectric membrane; and a light collimating lens oriented to collimate the light beam onto the at least one reflective facet (40, 400A, 400B) for reflection of the light beam back to the input end. an input end configured to receive a light beam; an output end coupled to the second surface of the optically transparent substrate; a light focusing lens having a focal point for the light beam at the piezoelectric membrane; and a light collimating lens oriented to collimate the light beam onto the at least one reflective facet (40, 400A, 400B) for reflection of the light beam back to the input end.
A print tape comprising: a base film; a laminate film provided on a first side of the base film as a printing surface; a first-sided adhesive layer which is applied to the first side of the base film, being formed with a first-sided adhesive; a release paper which is adhered to a second side of the base film; and a second-sided adhesive layer which is applied between the base film and the release paper being formed with a second-sided adhesive, characterized in that the second-sided adhesive forming the second-sided adhesive layer is acid-free. a base film; a laminate film provided on a first side of the base film as a printing surface; a first-sided adhesive layer which is applied to the first side of the base film, being formed with a first-sided adhesive; a release paper which is adhered to a second side of the base film; and a second-sided adhesive layer which is applied between the base film and the release paper being formed with a second-sided adhesive, characterized in that the second-sided adhesive forming the second-sided adhesive layer is acid-free.
A method for cleaning a distributor plate in a fluidized bed polymerization reactor system, the method comprising: in a first mode, operating with about a baseline value of superficial gas velocity in a fluidized bed polymerization reactor system having a reactor vessel, a recycle line, and a distributor plate in the reactor vessel near an inlet of the reactor vessel; in a second mode, increasing the superficial gas velocity above the baseline value of the first mode to a level sufficient to raise the temperature of the cycle gas at the inlet above an average temperature of the cycle gas at the inlet in the first mode, and to a level sufficient to dislodge foulant from holes in the distributor plate; and adding an additive to the reactor system in an amount effective to reduce entrainment of solids from the reactor vessel into the cycle stream at the increased cycle gas velocity. in a first mode, operating with about a baseline value of superficial gas velocity in a fluidized bed polymerization reactor system having a reactor vessel, a recycle line, and a distributor plate in the reactor vessel near an inlet of the reactor vessel; in a second mode, increasing the superficial gas velocity above the baseline value of the first mode to a level sufficient to raise the temperature of the cycle gas at the inlet above an average temperature of the cycle gas at the inlet in the first mode, and to a level sufficient to dislodge foulant from holes in the distributor plate; and adding an additive to the reactor system in an amount effective to reduce entrainment of solids from the reactor vessel into the cycle stream at the increased cycle gas velocity.
An electronic module including a protective casing defining an internal volume and an electronic circuit board placed in the internal volume, the electronic module including: - means (30, 31) for detecting a predetermined environmental condition of the internal volume; - means for generating a cold zone inside the internal volume such that the cold zone is separated from the electronic circuit board; - a control unit that is connected to the means (30, 31) for detecting an environmental condition and to the means for generating a cold zone, and characterized in that the control unit is adapted to trigger the means for generating a cold zone when the means for detecting a predetermined environmental condition in the internal volume detect an environmental condition that is liable to result in the moisture in the air contained in the internal volume condensing on the electronic circuit board. - means (30, 31) for detecting a predetermined environmental condition of the internal volume; - means for generating a cold zone inside the internal volume such that the cold zone is separated from the electronic circuit board; - a control unit that is connected to the means (30, 31) for detecting an environmental condition and to the means for generating a cold zone, and characterized in that