mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing a printing layer, comprising: a printing layer removing step of treating a printed matter with neutral water at 30°C or more to remove the water-soluble printing layer, Wherein the printed matter comprises a water-soluble printing layer containing a water-soluble resin for printing, comprising: a monomer unit A having a sulfonate group; and a monomer unit B having no hydrophilic group, wherein a percentage of the monomer unit A based on a total of all monomer units is 5 to 35 mol%. a printing layer removing step of treating a printed matter with neutral water at 30°C or more to remove the water-soluble printing layer, Wherein the printed matter comprises a water-soluble printing layer containing a water-soluble resin for printing, comprising: a monomer unit A having a sulfonate group; and a monomer unit B having no hydrophilic group, wherein a percentage of the monomer unit A based on a total of all monomer units is 5 to 35 mol%. a monomer unit A having a sulfonate group; and a monomer unit B having no hydrophilic group, wherein a percentage of the monomer unit A based on a total of all monomer units is 5 to 35 mol%.
A method testing computer software after modification of one or more portions of code of the computer software, the method comprising: performing by a computer system (108, 201-202, 216, 606, 700) programmed with code stored in a memory and executable by a processor of the computer system for: determining which of the one or more portions of code of the computer software were modified; accessing data correlating one or more test cases to respective portions of the code , wherein each test case that is correlated to a portion of code tests the correlated portion of code during a test of the computer software ; identifying one or more correlated test cases , wherein the correlated test cases are the one or more test cases that correlate with the one or more portions of code that were modified; iterating through multiple test cases to determine which one or more test cases are prerequisites to the identified one or more correlated test cases; continue iterating through the multiple test cases to determine which of the multiple tests cases are prerequisites to the one or more determined prerequisite test cases; repeating the continue iterating element until all prerequisite test cases are determined; and testing the computer software using the determined one or more prerequisite test cases and the one or more identified correlated test cases. determining which of the one or more portions of code of the computer software were modified; accessing data correlating one or more test cases to respective portions of the code , wherein each test case that is correlated to a portion of code tests the correlated portion of code during a test of the computer software ; identifying one or more correlated test cases , wherein the correlated test cases are the one or more test cases that correlate with the one or more portions of code that were modified; iterating through multiple test cases to determine which one or more test cases are prerequisites to the identified one or more correlated test cases; continue iterating through the multiple test cases to determine which of the multiple tests cases are prerequisites to the one or more determined prerequisite test cases; repeating the continue iterating element until all prerequisite test cases are determined; and testing the computer software using the determined one or more prerequisite test cases and the one or more identified correlated test cases.
A method for producing a contact device - wherein a contact housing and a sealing element are provided, - wherein a bar is arranged at the contact housing , - wherein the sealing element is slid over the bar onto a sealing bearing surface of the contact housing , characterised in that - a warm-caulking device comprising a pressing tool and a heating unit is further provided, - to form a retaining means , the bar is hot-caulked in such a way that by means of the heating unit at least a section of the bar is heated, - wherein the pressing tool is pressed onto the section and the pressing tool moulds the retaining means from the heated section of the bar , - wherein the heated section of the bar is cooled, - wherein the retaining means secures a position of the sealing element at the contact housing . - wherein a contact housing and a sealing element are provided, - wherein a bar is arranged at the contact housing , - wherein the sealing element is slid over the bar onto a sealing bearing surface of the contact housing , characterised in that - a warm-caulking device comprising a pressing tool and a heating unit is further provided, - to form a retaining means , the bar is hot-caulked in such a way that by means of the heating unit at least a section of the bar is heated, - wherein the pressing tool is pressed onto the section and the pressing tool moulds the retaining means from the heated section of the bar , - wherein the heated section of the bar is cooled, - wherein the retaining means secures a position of the sealing element at the contact housing .
An imager module for a vehicle comprising: an imager including an imager lens , the imager being configured to collect image data from at least one of inside and outside the vehicle ; a cover disposed proximate the imager lens , the cover configured to allow the imager to capture image data through the cover , wherein the cover includes an electro-optic element that is operable between: a clear state in which the imager is generally visible through the cover ; and a dimmed state in which the imager is generally concealed from view by the cover ; a light sensor subsystem for sensing an ambient light level; and a controller configured to receive an output from the light sensor subsystem representing the ambient light level and to control the electro-optic element by selecting the clear state when a vehicle ignition is on or when the ambient light level is below a first threshold level regardless of the state of the ignition, and by selecting the dimmed state when the ambient light level is above a second threshold level and the vehicle ignition is off. an imager including an imager lens , the imager being configured to collect image data from at least one of inside and outside the vehicle ; a cover disposed proximate the imager lens , the cover configured to allow the imager to capture image data through the cover , wherein the cover includes an electro-optic element that is operable between: a clear state in which the imager is generally visible through the cover ; and a dimmed state in which the imager is generally concealed from view by the cover ; a clear state in which the imager is generally visible through the cover ; and a dimmed state in which the imager is generally concealed from view by the cover ; a light sensor subsystem for sensing an ambient light level; and a controller configured to receive an output from the light sensor subsystem representing the ambient light level and to control the electro-optic element by selecting the clear state when a vehicle ignition is on or when the ambient light level is below a first threshold level regardless of the state of the ignition, and by selecting the dimmed state when the ambient light level is above a second threshold level and the vehicle ignition is off.
A tunable notch filter comprising: a first inductor coupled between an input node and an output node; a resonator structure including a layer stack comprising a first piezoelectric layer (Piezo 1), a second piezoelectric layer (Piezo 2), a third piezoelectric layer (Piezo 3), a fourth piezoelectric layer (Piezo 4), an acoustical coupling layer (Coupling 1) acoustically coupling the second piezoelectric layer (Piezo 2) and the third piezoelectric layer (Piezo 3), wherein an electrode below the third piezoelectric layer (Piezo 3) is electrically coupled to the output node and an electrode above the second piezoelectric layer (Piezo 2) is electrically coupled to the input node ; a second inductor coupled with a first node to an electrode above the third piezoelectric layer (Piezo 3) and an electrode below the second piezoelectric layer (Piezo 2) and with a second node to ground, wherein the resonator structure further comprises a first tuning circuit connected to an electrode above the first piezoelectric layer (Piezo 1) and an electrode below the first piezoelectric layer (Piezo 1) and a second tuning circuit connected to an electrode above the fourth piezoelectric layer (Piezo 4) and an electrode below the fourth piezoelectric layer, wherein each tuning circuit comprises a varactor coupled to an inductor. a first inductor coupled between an input node and an output node; a resonator structure including a layer stack comprising a first piezoelectric layer (Piezo 1), a second piezoelectric layer (Piezo 2), a third piezoelectric layer (Piezo 3), a fourth piezoelectric layer (Piezo 4), an acoustical coupling layer (Coupling 1) acoustically coupling the second piezoelectric layer (Piezo 2) and the third piezoelectric layer (Piezo 3), a first piezoelectric layer (Piezo 1), a second piezoelectric layer (Piezo 2), a third piezoelectric layer (Piezo 3), a fourth piezoelectric layer (Piezo 4), an acoustical coupling layer (Coupling 1) acoustically coupling the second piezoelectric layer (Piezo 2) and the third piezoelectric layer (Piezo 3), wherein an electrode below the third piezoelectric layer (Piezo 3) is electrically coupled to the output node and an electrode above the second piezoelectric layer (Piezo 2) is electrically coupled to the input node ; a second inductor coupled with a first node to an electrode above the third piezoelectric layer (Piezo 3) and an electrode below the second piezoelectric layer (Piezo 2) and with a second node to ground, wherein the resonator structure further comprises a first tuning circuit connected to an electrode above the first piezoelectric layer (Piezo 1) and an electrode below the first piezoelectric layer (Piezo 1) and a second tuning circuit connected to an electrode above the fourth piezoelectric layer (Piezo 4) and an electrode below the fourth piezoelectric layer, wherein each tuning circuit comprises a varactor coupled to an inductor.
A composition comprising (i) a refrigerant containing at least one fluorine-containing organic compound selected from 1,3,3,3-tetrafluoropropene (HFO 1234ze) and 2,3,3,3-tetrafluoropropene (HFO 1234yf), or a combination of the fluorine-containing organic compound and a saturated fluorinated hydrocarbon compound, (ii) a lubricating oil composition comprising a base oil and a sulfur-containing aromatic compound, wherein said sulfur-containing aromatic compound is at least one selected from the group consisting of diphenyl sulfide, dioctyldiphenyl sulfide, benzothiophene and dibenzothiophene. (i) a refrigerant containing at least one fluorine-containing organic compound selected from 1,3,3,3-tetrafluoropropene (HFO 1234ze) and 2,3,3,3-tetrafluoropropene (HFO 1234yf), or a combination of the fluorine-containing organic compound and a saturated fluorinated hydrocarbon compound, (ii) a lubricating oil composition comprising a base oil and a sulfur-containing aromatic compound,
A vinyl chloride-based polymer comprising: vinyl chloride-based monomer derived units, wherein vinyl chloride-based monomer means pure vinyl chloride monomer or a mixture of vinyl chloride as a main material with vinyl-based monomer which is copolymerizable with the vinyl chloride monomer, and wherein vinyl chloride-based monomer derived units mean a structure or a component induced from a vinyl chloride-based monomer; and silicate compound derived units, wherein silicate compound derived units mean a structure or a component induced from a silicate compound, wherein the amount of the silicate compound derived units is from 0.1 parts by weight to 0.5 parts by weight on the basis of 100 parts by weight of the vinyl chloride-based monomer derived units. vinyl chloride-based monomer derived units, wherein vinyl chloride-based monomer means pure vinyl chloride monomer or a mixture of vinyl chloride as a main material with vinyl-based monomer which is copolymerizable with the vinyl chloride monomer, and wherein vinyl chloride-based monomer derived units mean a structure or a component induced from a vinyl chloride-based monomer; and silicate compound derived units, wherein silicate compound derived units mean a structure or a component induced from a silicate compound, wherein the amount of the silicate compound derived units is from 0.1 parts by weight to 0.5 parts by weight on the basis of 100 parts by weight of the vinyl chloride-based monomer derived units.
A process of direct reduction of oxidic iron-bearing particles to a reduction product in a fluidized bed through which a reduction gas containing 30-100 mol% of hydrogen H 2 flows in crosscurrent, characterized in that the oxidic iron-bearing particles introduced into the fluidized bed have a grain size of not more than 200 micrometers to an extent of at least 90% by mass, and in that the superficial velocity U of the reduction gas flowing through the fluidized bed is set between 0.05 m/s and 1 m/s such that it is above the theoretical fluidization velocity U t and not more than U max for the grain size d = d 30 of the oxidic iron-bearing particles introduced into the fluidized bed , wherein the theoretically predicted value U t for a grain size d is found from: U t = √ 4 3 ∗ ρ p − ρg ρg ∗ d ∗ g Cw with C W = 24 Re + 4 Re + 0.4 and with Re = ρg ∗ U t ∗ d μ and U max is calculated from the actual correlation found between particle size and fluidization velocity for a particle size d = d 30 : U max = 40000 * d ∧ 2,78 . characterized in that the oxidic iron-bearing particles introduced into the fluidized bed have a grain size of not more than 200 micrometers to an extent of at least 90% by mass, and in that the superficial velocity U of the reduction gas flowing through the fluidized bed is set between 0.05 m/s and 1 m/s such that it is above the theoretical fluidization velocity U t and not more than U max for the grain size d = d 30 of the oxidic iron-bearing particles introduced into the fluidized bed , wherein the theoretically predicted value U t for a grain size d is found from: U t = √ 4 3 ∗ ρ p − ρg ρg ∗ d ∗ g Cw with C W = 24 Re + 4 Re + 0.4 and with Re = ρg ∗ U t ∗ d μ and U max is calculated from the actual correlation found between particle size and fluidization velocity for a particle size d = d 30 : U max = 40000 * d ∧ 2,78 .
A double spiro structure compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R 1 is represented by any one of Chemical Formula B or Chemical Formula C, wherein, in Chemical Formula B and Chemical Formula C, X 1 to X 3 are the same as or different from each other, and each independently CH or N; at least one of X 1 to X 3 is N; X 4 is O, S or NAr 5 ; L 2 and L 3 are the same as or different from each other, and each independently a direct bond; a substituted or unsubstituted monocyclic or multicyclic arylene group having 6 to 30 carbon atoms; or a substituted or unsubstituted heteroarylene group having 2 to 30 carbon atoms; Ar 3 to Ar 5 are the same as or different from each other, and each independently selected from the group consisting of a substituted or unsubstituted arylamine group; a substituted or unsubstituted monocyclic or multicyclic aryl group having 6 to 30 carbon atoms; and a substituted or unsubstituted heteroaryl group having 2 to 30 carbon atoms; and Cy1 is a substituted or unsubstituted monocyclic or multicyclic hydrocarbon ring having 3 to 30 carbon atoms; or a substituted or unsubstituted monocyclic or multicyclic heteroring having 2 to 30 carbon atoms, and with the proviso that the compound is none of the following: X 1 to X 3 are the same as or different from each other, and each independently CH or N; at least one of X 1 to X 3 is N; X 4 is O, S or NAr 5 ; L 2 and L 3 are the same as or different from each other, and each independently a direct bond; a substituted or unsubstituted monocyclic or multicyclic arylene group having 6 to 30 carbon atoms; or a substituted or unsubstituted heteroarylene group having 2 to 30 carbon atoms; Ar 3 to Ar 5 are the same as or different from each other, and each independently selected from the group consisting of a substituted or unsubstituted arylamine group; a substituted or unsubstituted monocyclic or multicyclic aryl group having 6 to 30 carbon atoms; and a substituted or unsubstituted heteroaryl group having 2 to 30 carbon atoms; and Cy1 is a substituted or unsubstituted monocyclic or multicyclic hydrocarbon ring having 3 to 30 carbon atoms; or a substituted or unsubstituted monocyclic or multicyclic heteroring having 2 to 30 carbon atoms,
A method of enhancing chemiluminescence from a chemiluminescent label, comprising contacting a chemiluminescent label having an acridinium dimethylphenyl ester or an acridinium sulfonamide with an acid and hydrogen peroxide in the presence of a degradable cationic surfactant, wherein said surfactant is compound 1 or 2 or a mixture thereof:
A wireless communication device comprising: a transceiver , wherein the transceiver comprises a transmitter and a receiver ; an antenna connected to the transceiver through a transmission path ; and a compensation circuit operative to compensate for a passive intermodulation, PIM interference on the transmission path , characterized in that the compensation circuit generates a PIM estimate signal based on a transmit signal and a PIM error signal, wherein the compensation circuit comprises: a PIM estimator configured to generate the PIM estimate signal, the PIM estimator having as inputs the transmit signal and the PIM error signal, wherein the PIM estimate signal is adjusted based on the PIM error signal; a modulator connected to the PIM estimator and configured to generate a modulated PIM estimate signal by modulating the PIM estimate signal to frequencies corresponding to the PIM interference; a Radio Frequency, RF coupler , connected to the modulator and configured to compensate for the PIM interference on the transmission path by coupling the modulated PIM estimate signal to a RF signal from the transmission path; and the receiver of the transceiver configured to determine the PIM error signal from a RF signal received at the receiver . a transceiver , wherein the transceiver comprises a transmitter and a receiver ; an antenna connected to the transceiver through a transmission path ; and a compensation circuit operative to compensate for a passive intermodulation, PIM interference on the transmission path , characterized in that the compensation circuit generates a PIM estimate signal based on a transmit signal and a PIM error signal, a PIM estimator configured to generate the PIM estimate signal, the PIM estimator having as inputs the transmit signal and the PIM error signal, wherein the PIM estimate signal is adjusted based on the PIM error signal; a modulator connected to the PIM estimator and configured to generate a modulated PIM estimate signal by modulating the PIM estimate signal to frequencies corresponding to the PIM interference; a Radio Frequency, RF coupler , connected to the modulator and configured to compensate for the PIM interference on the transmission path by coupling the modulated PIM estimate signal to a RF signal from the transmission path; and the receiver of the transceiver configured to determine the PIM error signal from a RF signal received at the receiver .
A method for manufacturing a rolled wrapping net (R) formed by winding a net cloth (N) consisting of warp yarn that constitutes chain knitting structures (C) arranged at regular intervals in a lateral direction of a warp knitted fabric and insertion yarn that is stretched in an oblique direction or in the lateral direction so as to connect adjacent chain knitting structures (C) each other, wherein; the net cloth (N) is wound around a roll core (P) while swinging it in a width direction in a fixed range within the limit of space between the chain knitting structures (C) while keeping a space between the chain knitting structures (C) at the time of immediately after knitting process in winding process of the net cloth (N), and characterised in that cotton yarn is used for each warp yarn and insertion yarn in the knitting process of the net cloth (N), the net cloth (N) is moved by swinging a guide roller (A) or a guide bar (E) to the left and right while each chain knitting structure (C) is inserted into a recessed part (D), by using the guide roller (A) or the guide bar (E) formed with a plurality of recessed parts (D) at prescribed intervals in a lengthwise direction and is wound so that same wound chain knitting structures (C) are in a state of being arranged in parallel in the width direction and a radial direction of a roll without overlapping with adjacent different chain knitting structures (C), and is wound so that the gap between different chain knitting structures (C) on the same layer of the roll becomes smaller than the width of one chain knitting structure (C) . the net cloth (N) is wound around a roll core (P) while swinging it in a width direction in a fixed range within the limit of space between the chain knitting structures (C) while keeping a space between the chain knitting structures (C) at the time of immediately after knitting process in winding process of the net cloth (N), and characterised in that cotton yarn is used for each warp yarn and insertion yarn in the knitting process of the net cloth (N), the net cloth (N) is moved by swinging a guide roller (A) or a guide bar (E) to the left and right while each chain knitting structure (C) is inserted into a recessed part (D), by using the guide roller (A) or the guide bar (E) formed with a plurality of recessed parts (D) at prescribed intervals in a lengthwise direction and is wound so that same wound chain knitting structures (C) are in a state of being arranged in parallel in the width direction and a radial direction of a roll without overlapping with adjacent different chain knitting structures (C), and is wound so that the gap between different chain knitting structures (C) on the same layer of the roll becomes smaller than the width of one chain knitting structure (C) .