mhurhangee/ep-ind-claims huggingface dataset:
A screen locking method carried out in a mobile terminal, comprising: in response to a first input for lighting up a screen of the mobile terminal, lighting up the screen and displaying a first lock screen interface on the screen of the mobile terminal in a lock screen state, wherein the first lock screen interface uses a first picture as a lock screen background; and in response to a second input for lighting up the screen of the mobile terminal after the screen is turned off, lighting up the screen and displaying a second lock screen interface on the screen of the mobile terminal in a lock screen state, wherein the second lock screen interface uses a second picture as the lock screen background, and the second picture is a new picture; in response to a third input on the first or second lock screen interface, displaying a lock screen configuration interface on the screen of the mobile terminal with the mobile terminal remaining in the lock screen state, wherein content introduction information of the first or second picture is displayed on the lock screen configuration interface, and the lock screen configuration interface is provided with function options for configuring a current lock screen background. in response to a first input for lighting up a screen of the mobile terminal, lighting up the screen and displaying a first lock screen interface on the screen of the mobile terminal in a lock screen state, wherein the first lock screen interface uses a first picture as a lock screen background; and in response to a second input for lighting up the screen of the mobile terminal after the screen is turned off, lighting up the screen and displaying a second lock screen interface on the screen of the mobile terminal in a lock screen state, wherein the second lock screen interface uses a second picture as the lock screen background, and the second picture is a new picture; in response to a third input on the first or second lock screen interface, displaying a lock screen configuration interface on the screen of the mobile terminal with the mobile terminal remaining in the lock screen state, wherein content introduction information of the first or second picture is displayed on the lock screen configuration interface, and the lock screen configuration interface is provided with function options for configuring a current lock screen background.
A method of forming a conjugate between a granulocyte colony stimulating factor (G-CSF) peptide and a water-soluble polymer, wherein the water-soluble polymer is covalently attached to the peptide through an intact glycosyl linking group, the peptide comprising a glycosyl residue having the formula: wherein a, b, c and e are members independently selected from 0 and 1; d is 0; and R is a water-soluble polymer, said method comprising: (a) contacting the G-CSF peptide with a glycosyltransferase and a modified glycosyl donor, comprising a glycosyl moiety which is a substrate for the glycosyltransferase covalently bound to the water-soluble polymer, under conditions appropriate for the formation of the intact glycosyl linking group; wherein the water-soluble polymer is a poly(ether). a, b, c and e are members independently selected from 0 and 1; d is 0; and R is a water-soluble polymer, said method comprising: (a) contacting the G-CSF peptide with a glycosyltransferase and a modified glycosyl donor, comprising a glycosyl moiety which is a substrate for the glycosyltransferase covalently bound to the water-soluble polymer, under conditions appropriate for the formation of the intact glycosyl linking group; wherein the water-soluble polymer is a poly(ether). (a) contacting the G-CSF peptide with a glycosyltransferase and a modified glycosyl donor, comprising a glycosyl moiety which is a substrate for the glycosyltransferase covalently bound to the water-soluble polymer, under conditions appropriate for the formation of the intact glycosyl linking group; wherein the water-soluble polymer is a poly(ether).
Method for controlling a vehicle having an automated shift transmission which has a plurality of driving gears which are shiftable in an automated manner and which, on the input side, comprises a first friction clutch and, on the output side, an output, wherein, in a parking lock function, two gears are engaged simultaneously, namely a first gear and a second gear, wherein, upon a request for activation of the parking lock function, a vehicle brake is activated, at least in a first speed range of the vehicle, in order to bring the vehicle to a standstill, wherein, during the braking of the vehicle by means of the vehicle brake, the first gear is engaged and, when the vehicle is at or virtually at a standstill, the second gear is engaged, such that the parking lock function is activated, characterized in that, after, during or shortly before the engagement of the first gear, the braking by the vehicle brake is boosted.
An image forming apparatus that conveys a plurality of sheets along a conveyance path in a conveyance direction and forms images on the sheets, the image forming apparatus comprises a sheet feed section to be loaded with sheets; an image forming section configured to form an image on a sheet; a sheet feed roller configured to feed a sheet from the sheet feed section; a pair of registration rollers disposed downstream of the sheet feed roller in terms of the conveyance direction and configured to perform skew correction on the sheet; a pair of intermediate rollers disposed between the sheet feed roller and the pair of registration rollers; a first detection section configured to detect presence or absence of a sheet at a first detection point located downstream of the sheet feed roller and upstream of the pair of intermediate rollers in terms of the conveyance direction; a control section configured to adjust a sheet feed roller linear velocity (Vs) of the sheet feed roller and an intermediate roller pair linear velocity (Vm) of the pair of intermediate rollers to a first linear velocity or a second linear velocity greater than the first linear velocity; and a storage section configured to store therein an ideal sheet interval (Ta) that indicates an ideal value of an interval between a preceding sheet (Pa) and a succeeding sheet (Pb) that are conveyed successively, characterized in that the control section is capable of separately controlling the sheet feed roller linear velocity (Vs) and the intermediate roller pair linear velocity (Vm), the control section is configured to calculate a sheet interval between the preceding sheet and the succeeding sheet based on a detection result of the first detection section and to determine based on the sheet interval and the ideal sheet interval, a second-linear-velocity period in which each of the sheet feed roller linear velocity (Vs) and the intermediate roller pair linear velocity (Vm)are adjusted to the second linear velocity, and when the sheet interval is greater than the ideal sheet interval, the control section is configured to perform a first process to change the sheet feed roller linear velocity (Vs) from the first linear velocity to the second linear velocity in a state where the intermediate roller pair linear velocity (Vm) is maintained at the first linear velocity, a second process to change the intermediate roller pair linear velocity (Vm) from the first linear velocity to the second linear velocity in a state where the sheet feed roller linear velocity (Vs) is maintained at the second linear velocity, and a third process to change the sheet feed roller linear velocity (Vs) from the second linear velocity to 0 in a state where the intermediate roller pair linear velocity (Vm) is maintained at the second linear velocity in the following order: the first process; the second process; and the third process.
A control method suitable for carrying out a combustion test of a gas boiler with a combustion chamber and provided with an atmospheric burner comprising a valve for controlling the gas sent to said burner, flame detecting means for detecting the flame present in the latter and for generating a signal related to the combustion, and control means of functional components of the boiler such as the gas valve, a fan, provided with its own electric motor, a circulator or pump, a temperature probe, said control means being connected to the flame detecting means and co-operating with a memory wherein a plurality of working conditions of the boiler is tabulated as curves functions of features related to the flame, to the thermal working power of the boiler and to the combustion quality index or lambda, characterized in that the combustion chamber is an airtight combustion chamber and, in order to carry out said combustion test, in operating conditions with a predefined timing or at the occurrence of a particular working condition in the boiler, a working point of the boiler is determined on one of such curves; the ratio between combustion air and gas is modified starting from a current or actual operating value, in order to shift such working point along such curve; it is evaluated a difference in impedance rfA-rfcuRRENT where rfcuRRENT is the impedance of the instantaneous flame measured at the time t CURRENT during the test, and rf A is the average flame value detected before the start of the combustion test; it is verified if such variation of said ratio has the consequence that said difference in impedance arrives at a predefined value; in that case, the test is considered positive and the combustion at the working point mentioned above is considered correct i.e. the boiler has a non-polluting combustion and the previous operating air-gas ratio is reset, so as to allow the boiler to continue its normal operation as at the beginning of the test; in the opposite case, the gas flow rate is modified in order to return the boiler to a working point of a non-polluting combustion in which the execution of a following combustion test will have a positive outcome. rfcuRRENT is the impedance of the instantaneous flame measured at the time t CURRENT during the test, and rf A is the average flame value detected before the start of the combustion test;
A high voltage power system comprising: a high voltage pulsing power supply; a transformer electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 2 kHz; and a bias compensation circuit arranged across the output, characterized in that the bias compensation circuit comprises: a bias compensation diode; a DC power supply arranged in series with the bias compensation diode, wherein the bias compensation diode and the DC power supply in series are arranged in parallel across the output; a bias capacitor arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply; and a high voltage switch coupled across the bias compensation diode, wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing. a high voltage pulsing power supply; a transformer electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 2 kHz; and a bias compensation circuit arranged across the output, characterized in that the bias compensation circuit comprises: a bias compensation diode; a DC power supply arranged in series with the bias compensation diode, wherein the bias compensation diode and the DC power supply in series are arranged in parallel across the output; a bias capacitor arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply; and a high voltage switch coupled across the bias compensation diode, wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing. a bias compensation diode; a DC power supply arranged in series with the bias compensation diode, wherein the bias compensation diode and the DC power supply in series are arranged in parallel across the output; a bias capacitor arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply; and a high voltage switch coupled across the bias compensation diode, wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing.
Composition for use in the treatment of intrauterine growth restriction (IUGR) or in parenteral nutrition for extremely premature infant born in the 24th to 34th week of pregnancy, comprising a mixture of amino acids, consisting of isoleucine, leucine, lysine, methionine, phenylalanine, threonine, tryptophan, valine, arginine, histidine, ornithine, glycine, alanine, proline, aspartate, asparagine, glutamate, glutamine, serine, tyrosine, taurine, hydroxyproline, citrulline and cysteine, characterised in that the amino acids contained in the mixture are present in concentrations or concentration ratios corresponding to the physiological amino acid concentrations or concentration ratios in the blood plasma of a healthy foetus in utero in the 24th to 34th week of pregnancy and are present in the composition within the following concentration ranges, the total amount of amino acids contained in the mixture being 100 wt.%: isoleucine 1.35-7.00 wt.% leucine 2.43-8.00 wt.% lysine 7.51-15.32 wt.% methionine 0.69-1.42 wt.% cysteine 0.1-3.00 wt.% phenylalanine 1.63-3.33 wt.% threonine 3.00-11.62 wt.% tryptophan 1.00-2.93 wt.% valine 4.37-8.91 wt.% arginine 2.01-9.00 wt.% histidine 2.47-5.04 wt.% ornithine 1.98-5.50 wt.% glycine 3.77-7.69 wt.% alanine 5.86-11.95 wt.% proline 3.19-8.00 wt.% aspartate 0.85-3.00 wt.% asparagine 1.56-5.00 wt.% glutamate 3.32-8.50 wt.% glutamine 1.00-20.0 wt.% serine 2.66-5.44 wt.% tyrosine 1.00-3.40 wt.% taurine 0.26-6.14 wt.% hydroxyproline 0.10-1.25 wt.% citrulline 0.10-0.74 wt.%
A lubricant composition, comprising: a hydrocarbon base oil; a polar viscosity improver; and an esterified polyalkylene glycol: R 1 [O(R 2 O) n (R 3 O) m (C=O)R 4] p wherein R 1 is a linear alkyl having 1 to 18 carbon atoms, a branched alkyl having 4 to 18 carbon atoms or an aryl with 6 to 30 carbon atoms; R 2 O is an oxypropylene moiety derived from 1,2-propylene oxide; R 3 O is an oxybutylene moiety derived from butylene oxide, wherein R 2 O and R 3 O are in a block or a random distribution; R 4 is a linear alkyl with 1 to 18 carbon atoms, a branched alkyl with 4 to 18 carbon atoms or an aryl with 6 to 18 carbon atoms; n and m are each independently integers ranging from 0 to 20 wherein n + m is greater than 0, and p is an integer from 1 to 4; wherein the amount of viscosity improver is from 0.1% to 10% by weight of the lubricant composition and the esterified polyalkylene glycol is present in an amount of 5% to 30% by weight of the lubricant composition. a hydrocarbon base oil; a polar viscosity improver; and an esterified polyalkylene glycol: R 1 [O(R 2 O) n (R 3 O) m (C=O)R 4] p wherein R 1 is a linear alkyl having 1 to 18 carbon atoms, a branched alkyl having 4 to 18 carbon atoms or an aryl with 6 to 30 carbon atoms; R 2 O is an oxypropylene moiety derived from 1,2-propylene oxide; R 3 O is an oxybutylene moiety derived from butylene oxide, wherein R 2 O and R 3 O are in a block or a random distribution; R 4 is a linear alkyl with 1 to 18 carbon atoms, a branched alkyl with 4 to 18 carbon atoms or an aryl with 6 to 18 carbon atoms; n and m are each independently integers ranging from 0 to 20 wherein n + m is greater than 0, and p is an integer from 1 to 4; wherein the amount of viscosity improver is from 0.1% to 10% by weight of the lubricant composition and the esterified polyalkylene glycol is present in an amount of 5% to 30% by weight of the lubricant composition.
A method of making a vacuum insulating glass window unit, the method comprising: providing first and second substantially parallel spaced-apart glass substrates (2, 3) and a frit provided at least partially between the first and second glass substrates (2, 3) for sealing an edge of the vacuum insulating glass window unit; pre-heating the glass substrates (2, 3) and the frit to at least one temperature below a melting point of the first and second substrates (2, 3) and below a melting point of the frit; providing localized near infrared inclusive heat proximate to the edge to be sealed so as to at least partially melt the frit, wherein a concentrating-mechanism concentrates and/or a focusing-mechanism focusses infrared radiation from an infrared heat source (62, 64, 74) to the solder frit; and cooling the unit and allowing the frit to harden in making the vacuum insulating glass window unit, wherein the method further comprises during the cooling, providing first and second reduced temperatures in this order, the first reduced temperature being 150°C and being provided in a first exit zone chamber whereas the second reduced temperature being less than 100°C and being provided in a second exit zone chamber. providing first and second substantially parallel spaced-apart glass substrates (2, 3) and a frit provided at least partially between the first and second glass substrates (2, 3) for sealing an edge of the vacuum insulating glass window unit; pre-heating the glass substrates (2, 3) and the frit to at least one temperature below a melting point of the first and second substrates (2, 3) and below a melting point of the frit; providing localized near infrared inclusive heat proximate to the edge to be sealed so as to at least partially melt the frit, wherein a concentrating-mechanism concentrates and/or a focusing-mechanism focusses infrared radiation from an infrared heat source (62, 64, 74) to the solder frit; and cooling the unit and allowing the frit to harden in making the vacuum insulating glass window unit, wherein the method further comprises during the cooling, providing first and second reduced temperatures in this order, the first reduced temperature being 150°C and being provided in a first exit zone chamber whereas the second reduced temperature being less than 100°C and being provided in a second exit zone chamber.
Method of making a midsole, comprising the steps of: selecting a plurality of yarns, wherein at least two yarns of the plurality of yarns have different properties relative to one another; bundling the plurality of yarns to form a bundled yarn structure; performing an intertwining process with the bundled yarn structure to form an intertwined yarn structure; depositing the intertwined yarn structure into a first mold within an autoclave; applying a supercritical fluid to the intertwined yarn structure, wherein the supercritical fluid infiltrates and saturates the intertwined yarn structure; depressurizing the autoclave to cause a foaming process therein to convert the intertwined yarn structure into an anisotropic foam blank; and depositing the anisotropic foam blank within a second mold that is configured as a midsole for an article of footwear. selecting a plurality of yarns, wherein at least two yarns of the plurality of yarns have different properties relative to one another; bundling the plurality of yarns to form a bundled yarn structure; performing an intertwining process with the bundled yarn structure to form an intertwined yarn structure; depositing the intertwined yarn structure into a first mold within an autoclave; applying a supercritical fluid to the intertwined yarn structure, wherein the supercritical fluid infiltrates and saturates the intertwined yarn structure; depressurizing the autoclave to cause a foaming process therein to convert the intertwined yarn structure into an anisotropic foam blank; and depositing the anisotropic foam blank within a second mold that is configured as a midsole for an article of footwear.
A method for manipulating branch target buffer data, the method comprising: providing a lookup tag to a compressed branch target buffer and an uncompressed branch target buffer, wherein the uncompressed branch target buffer is configured to store entries that include data for more than one branch, and wherein the compressed branch target buffer is configured to store entries that each include data for only a single branch; identifying a branch target buffer entry from one or both of the compressed branch target buffer and the uncompressed branch target buffer based on the lookup tag; and outputting data corresponding to the branch target buffer entry to branch prediction logic for predicting a branch. providing a lookup tag to a compressed branch target buffer and an uncompressed branch target buffer, wherein the uncompressed branch target buffer is configured to store entries that include data for more than one branch, and wherein the compressed branch target buffer is configured to store entries that each include data for only a single branch; identifying a branch target buffer entry from one or both of the compressed branch target buffer and the uncompressed branch target buffer based on the lookup tag; and outputting data corresponding to the branch target buffer entry to branch prediction logic for predicting a branch.
A composition comprising: (a) a polyfunctional cyanate ester that is a novolac cyanate ester; (b) an asymmetric bisphenol-derived cyanate ester; and (c) a compound of formula: wherein R 1 and R 2 are the same or different and are selected from hydrogen and halogen; and R 3, R 4, R 5 and R 6 are hydrogen; and wherein the novolac cyanate ester is present in an amount of 75.0 wt% to 95.0 wt% based on the total dry weight of the composition, the asymmetric bisphenol-derived cyanate ester is present in an amount of 5.0 wt% to 15.0 wt% based on the total dry weight of the composition, and the compound of formula is present in an amount of 1.0 wt% to 10.0 wt% based on the total dry weight of the composition, provided that the total does not exceed 100 wt%, based on total dry weight of the composition. (a) a polyfunctional cyanate ester that is a novolac cyanate ester; (b) an asymmetric bisphenol-derived cyanate ester; and (c) a compound of formula: wherein R 1 and R 2 are the same or different and are selected from hydrogen and halogen; and R 3, R 4, R 5 and R 6 are hydrogen; and wherein the novolac cyanate ester is present in an amount of 75.0 wt% to 95.0 wt% based on the total dry weight of the composition, the asymmetric bisphenol-derived cyanate ester is present in an amount of 5.0 wt% to 15.0 wt% based on the total dry weight of the composition, and the compound of formula is present in an amount of 1.0 wt% to 10.0 wt% based on the total dry weight of the composition, provided that the total does not exceed 100 wt%, based on total dry weight of the composition.