mhurhangee/patent-ind-claim-en huggingface dataset:
Method for cleaning items to be cleaned, wherein a cleaning device having at least one cleaning chamber and at least one application device for applying at least one cleaning fluid to the items to be cleaned in the cleaning chamber is used, wherein the method comprises the following steps: a. prespecifying a desired hygiene value which is to be achieved with the cleaning; b. time-resolved recording of at least two influencing variables which have an influence on a hygienization of the items to be cleaned; c. determining hygiene value shares from the influencing variables using a prespecified relationship between each influencing variable and the respective hygiene value share of said influencing variable; d. ascertaining an expected actual hygiene value at the end of the cleaning from the hygiene value shares ; e. comparing the expected actual hygiene value with the desired hygiene value ; and f. influencing at least one influencing variable depending on the result of the comparison. a. prespecifying a desired hygiene value which is to be achieved with the cleaning; b. time-resolved recording of at least two influencing variables which have an influence on a hygienization of the items to be cleaned; c. determining hygiene value shares from the influencing variables using a prespecified relationship between each influencing variable and the respective hygiene value share of said influencing variable; d. ascertaining an expected actual hygiene value at the end of the cleaning from the hygiene value shares ; e. comparing the expected actual hygiene value with the desired hygiene value ; and f. influencing at least one influencing variable depending on the result of the comparison.
A method for notifying a Network Function, NF, service consumer from a Unified Data Repository, UDR, of a policy data modification, wherein the method is carried out by the UDR and comprises: receiving (S-100, S-300, S-310), from the NF service consumer hosted on a network node, a subscription request to notification of policy data modification for at least one of: operator specific data ; and Public Land Mobile Network, PLMN, user equipment, UE, Policy Set ; and transmitting (S-200, S-400, S-410, S-500, S-600, S-610), towards the NF service consumer hosted on the network node, a notification notifying of a policy data modification for the at least one of: the operator specific data ; and the PLMN UE Policy Set , along with a PLMN identifier . receiving (S-100, S-300, S-310), from the NF service consumer hosted on a network node, a subscription request to notification of policy data modification for at least one of: operator specific data ; and Public Land Mobile Network, PLMN, user equipment, UE, Policy Set ; and operator specific data ; and Public Land Mobile Network, PLMN, user equipment, UE, Policy Set ; and transmitting (S-200, S-400, S-410, S-500, S-600, S-610), towards the NF service consumer hosted on the network node, a notification notifying of a policy data modification for the at least one of: the operator specific data ; and the PLMN UE Policy Set , along with a PLMN identifier . the operator specific data ; and the PLMN UE Policy Set , along with a PLMN identifier .
A process for degrading and/or modifying cellulose in lignocellulosic biomass substrate, wherein said process comprises the step of contacting said substrate with a lytic polysaccharide monooxygenase (LPMO) and a polyphenoloxidase, wherein the polyphenoloxidase comprises or consists of an amino acid sequence that is at least 70% identical to SEQ ID NO:45 and wherein the polyphenoloxidase comprises or consists of a central tyrosinase domain, and wherein the polyphenoloxidase is capable of demethylating an R-substituted mono- or di-methoxyphenol represented by formula , or : wherein R can be any single atom or chemical moiety.
A laser system , comprising: a first cavity configured to output a laser light along a first path; a first mirror configured to receive the laser light from the first cavity , and redirect the laser light along a second path that is different than the first path; a beam splitter removably located at a first position on the second path; a beam combiner removably located at a second position on the second path; and an alignment device having first and second alignment features, wherein the first and second alignment features are configured to occupy the first position and the second position, respectively, on the second path, when the beam splitter and the beam combiner are removed from the first position and the second position; wherein: the first cavity includes a further mirror ; and the laser system further includes an alignment laser source , and a fiber configured to deliver an alignment laser light from the alignment laser source , through the first alignment feature and the second alignment feature, toward the further mirror . a first cavity configured to output a laser light along a first path; a first mirror configured to receive the laser light from the first cavity , and redirect the laser light along a second path that is different than the first path; a beam splitter removably located at a first position on the second path; a beam combiner removably located at a second position on the second path; and an alignment device having first and second alignment features, wherein the first and second alignment features are configured to occupy the first position and the second position, respectively, on the second path, when the beam splitter and the beam combiner are removed from the first position and the second position; wherein: the first cavity includes a further mirror ; and the laser system further includes an alignment laser source , and a fiber configured to deliver an alignment laser light from the alignment laser source , through the first alignment feature and the second alignment feature, toward the further mirror . the first cavity includes a further mirror ; and the laser system further includes an alignment laser source , and a fiber configured to deliver an alignment laser light from the alignment laser source , through the first alignment feature and the second alignment feature, toward the further mirror .
A pin assembly comprising a pin which, in a first end portion, is provided with a pin head and, in a second end portion, is provided with a threaded portion arranged to receive a nut , the pin head and the nut being provided with conical circumferential surfaces falling towards respective first, outward-facing end faces of the pin head and the nut ; internally conical, radially expandable bearing sleeves which are axially displaceable on the conical circumferential surfaces of the pin head and the nut , respectively, and are provided with cylindrical, external sleeve surfaces ; wherein: at least one of the pin head and the nut is provided with a set of first threaded holes extending through the pin head and the nut , respectively, substantially parallel to centre axes through the pin head and the nut , respectively, and a set of second threaded holes extending into the pin head and the nut , respectively, from the respective first, outward-facing end faces of the pin head and the nut , substantially parallel to the centre axes through the pin head and the nut , respectively; a set of first clamping bolts are arranged in the first threaded holes ; clamping plates are arranged to rest against an end face on each of the bearing sleeves , as sets of second clamping bolts extend through bolt holes in the clamping plates and into the sets of second threaded holes of the pin head and the nut , respectively. a pin which, in a first end portion, is provided with a pin head and, in a second end portion, is provided with a threaded portion arranged to receive a nut , the pin head and the nut being provided with conical circumferential surfaces falling towards respective first, outward-facing end faces of the pin head and the nut ; internally conical, radially expandable bearing sleeves which are axially displaceable on the conical circumferential surfaces of the pin head and the nut , respectively, and are provided with cylindrical, external sleeve surfaces ; at least one of the pin head and the nut is provided with a set of first threaded holes extending through the pin head and the nut , respectively, substantially parallel to centre axes through the pin head and the nut , respectively, and a set of second threaded holes extending into the pin head and the nut , respectively, from the respective first, outward-facing end faces of the pin head and the nut , substantially parallel to the centre axes through the pin head and the nut , respectively; a set of first clamping bolts are arranged in the first threaded holes ; clamping plates are arranged to rest against an end face on each of the bearing sleeves , as sets of second clamping bolts extend through bolt holes in the clamping plates and into the sets of second threaded holes of the pin head and the nut , respectively.
Damper device to be used in a device for pivotably holding a wing flap, the device comprising a flat four-bar linkage , which has two pivotably mounted pivoting arms and two tension arms fastened in an articulated manner parallel to each other to the pivoting arms , and wherein a fastening element for attaching the wing flap is attached to the tension arms , the device further comprising a linkage frame , on which the four-bar linkage is mounted movably, as well as resilient means for damping of the pivoting movement, said resilient means acting on the four-bar linkage , characterized in that the damper device comprises a linear pressure damper and a first and a second transmission element , wherein the pressure damper is actuable on a first side of the pressure damper in a first direction via the first transmission element , such that in its mounted state the pressure damper interacts on a first side of the pressure damper via the first transmission element with a first pivoting arm in the region of a first end position, and wherein the pressure damper is actuable on a second side of the pressure damper in a second direction opposed to the first direction via the second transmission element , such that in its mounted state the pressure damper interacts on the second side of the pressure damper via the second transmission element with a second pivoting arm in the region of a second end position, wherein the transmission elements are movable in a translatory manner relative to each other.
A method for shifting gears of a transmission in a vehicle , comprising: determining that the rpm level of the vehicle engine lies within an rpm range for engaging a new gear, predicting , by simulating the shift of gears, what the lowest rpm would be after shifting to the new gear, were the shift of gears to be performed, and calculating a threshold rpm at which the vehicle engine will generate a propulsive force corresponding to the running resistance of the vehicle, characterized by : increasing the gear-shifting performance so that the predicted lowest rpm will equal or exceed the threshold rpm so that the shift can be performed if the predicted 402) lowest rpm is below the calculated threshold rpm . determining that the rpm level of the vehicle engine lies within an rpm range for engaging a new gear, predicting , by simulating the shift of gears, what the lowest rpm would be after shifting to the new gear, were the shift of gears to be performed, and calculating a threshold rpm at which the vehicle engine will generate a propulsive force corresponding to the running resistance of the vehicle,
A roll of cleaning fabric for cleaning printing cylinders of a printing system, said cleaning fabric being impregnated with a cleaning composition, wherein said cleaning composition comprises an organic solvent being an ester and a cellulose solubilizer being a glycol ether, and wherein the roll is inserted in a removable sealing bag configured to seal around said roll of cleaning fabric in order to prevent said cleaning composition from evaporating before use, the sealing bag being tubular and built up by a multi-layer plastic film, wherein the glycol ethers is selected from the group consisting of ethylene glycol monomethyl ether, ethylene glycol monoethyl ether, ethylene glycol monoisopropyl ether, ethylene glycol monobutyl ether, ethylene glycol monophenyl ether, ethylene glycol monobenzyl ether, propylene glycol methyl ether, diethylene glycol monomethyl ether, diethylene glycol monoethyl ether, diethylene glycol mono-nbutyl ether, dipropyleneglycol methyl ether, phenoxyethanol, and pentaethylene glycol monododecyl ether, wherein said cleaning composition comprises less than 2 wt% of water, wherein the content of the cellulose solubilizer is between 0.1 and 5 wt%, and wherein the content of the organic solvent is between 95 and 99.9 wt%. wherein the roll is inserted in a removable sealing bag configured to seal around said roll of cleaning fabric in order to prevent said cleaning composition from evaporating before use, the sealing bag being tubular and built up by a multi-layer plastic film, wherein the glycol ethers is selected from the group consisting of ethylene glycol monomethyl ether, ethylene glycol monoethyl ether, ethylene glycol monoisopropyl ether, ethylene glycol monobutyl ether, ethylene glycol monophenyl ether, ethylene glycol monobenzyl ether, propylene glycol methyl ether, diethylene glycol monomethyl ether, diethylene glycol monoethyl ether, diethylene glycol mono-nbutyl ether, dipropyleneglycol methyl ether, phenoxyethanol, and pentaethylene glycol monododecyl ether, wherein said cleaning composition comprises less than 2 wt% of water, wherein the content of the cellulose solubilizer is between 0.1 and 5 wt%, and wherein the content of the organic solvent is between 95 and 99.9 wt%.
A shuttle valve comprising: a valve body defining a first longitudinal bore therein, wherein the valve body comprises a first inlet , a second inlet , and an outlet ; a cage disposed in the first longitudinal bore coaxial with the valve body , wherein the cage defines a second longitudinal bore therein, wherein the outlet is fluidly coupled to an annular area formed between an exterior peripheral surface of the cage and an interior peripheral surface of the valve body ; a spool shiftably mounted within the second longitudinal bore and configured to move axially therein to shift between: (i) a first position adjacent to the first inlet , wherein at the first position the spool blocks the first inlet while allowing pressurized fluid to flow from the second inlet to the annular area and the outlet , and (ii) a second position adjacent to the second inlet , wherein at the second position the spool blocks the second inlet while allowing pressurized fluid to flow from the first inlet to the annular area and the outlet , characterised in that the shuttle valve further comprises : a pin mounted and extending longitudinally within the second longitudinal bore at an end of the cage adjacent to the first inlet ; wherein the spool includes a blind hole formed at an end thereof facing the pin and coaxial therewith, such that as the spool shifts from the second position to the first position, a portion of the pin is received within the blind hole of the spool . a valve body defining a first longitudinal bore therein, wherein the valve body comprises a first inlet , a second inlet , and an outlet ; a cage disposed in the first longitudinal bore coaxial with the valve body , wherein the cage defines a second longitudinal bore therein, wherein the outlet is fluidly coupled to an annular area formed between an exterior peripheral surface of the cage and an interior peripheral surface of the valve body ; a spool shiftably mounted within the second longitudinal bore and configured to move axially therein to shift between: (i) a first position adjacent to the first inlet , wherein at the first position the spool blocks the first inlet while allowing pressurized fluid to flow from the second inlet to the annular area and the outlet , and (ii) a second position adjacent to the second inlet , wherein at the second position the spool blocks the second inlet while allowing pressurized fluid to flow from the first inlet to the annular area and the outlet , characterised in that the shuttle valve further comprises : a pin mounted and extending longitudinally within the second longitudinal bore at an end of the cage adjacent to the first inlet ; wherein the spool includes a blind hole formed at an end thereof facing the pin and coaxial therewith, such that as the spool shifts from the second position to the first position, a portion of the pin is received within the blind hole of the spool .
A hypotonic formulation for use in treating, preventing or diagnosing an eye disease comprising administering to a mucosal or epithelial surface of the eye a formulation comprising a therapeutic, prophylactic, nutraceutical or diagnostic agent for the treatment of an eye disease, a gel-forming polymer for application to the eye, formulated so that it is at a concentration below the critical gel concentration (CGC) of the polymer under isotonic conditions and a temperature between 25 to 37°C at the time of administration, and increases in concentration as water is absorbed from the formulation to or above said CGC, thereby forming a gel on the mucosal or epithelial surface, and excipients to form a pharmaceutically acceptable hypotonic formulation of the polymer suitable for delivery to the eye of an individual in need thereof, wherein the formulation retains an effective concentration of said agent at the mucosal or epithelial surface of the eye, wherein the gel-forming polymer is (i) between greater than 12 and less than 24% poloxamer 288 (Pluronic ® F98) in an aqueous excipient, or (ii) is between 10 and 18% poloxamer 407 (Pluronic ® F127). a therapeutic, prophylactic, nutraceutical or diagnostic agent for the treatment of an eye disease, a gel-forming polymer for application to the eye, formulated so that it is at a concentration below the critical gel concentration (CGC) of the polymer under isotonic conditions and a temperature between 25 to 37°C at the time of administration, and increases in concentration as water is absorbed from the formulation to or above said CGC, thereby forming a gel on the mucosal or epithelial surface, and excipients to form a pharmaceutically acceptable hypotonic formulation of the polymer suitable for delivery to the eye of an individual in need thereof, wherein the formulation retains an effective concentration of said agent at the mucosal or epithelial surface of the eye, wherein the gel-forming polymer is (i) between greater than 12 and less than 24% poloxamer 288 (Pluronic ® F98) in an aqueous excipient, or (ii) is between 10 and 18% poloxamer 407 (Pluronic ® F127).
A MIMO antenna device comprising: a first conductor layer having a first opening portion ; and a first feed line (7a∼207a, 16a) and a second feed line (7b∼207b, 16b), each of which crossing the first opening portion and having a connection point with a first opening edge of the first opening portion , for feeding power to the first conductor layer at the connection points, wherein the first conductor layer comprises a first split portion (6a∼206a, 18a) and a second split portion at the first opening edge , the first split portion (6a∼206a, 18a) and the second split portion (6b∼206b, 18b) cutting up to a conductor edge of the first conductor layer , and wherein the MIMO antenna device is further characterized in that it comprises: a bridge line inside the first opening portion connecting the first feed line (7a∼207a, 16a) and the second feed line (7b∼207b, 16b). a first conductor layer having a first opening portion ; and a first feed line (7a∼207a, 16a) and a second feed line (7b∼207b, 16b), each of which crossing the first opening portion and having a connection point with a first opening edge of the first opening portion , for feeding power to the first conductor layer at the connection points, wherein the first conductor layer comprises a first split portion (6a∼206a, 18a) and a second split portion at the first opening edge , the first split portion (6a∼206a, 18a) and the second split portion (6b∼206b, 18b) cutting up to a conductor edge of the first conductor layer , and wherein the MIMO antenna device is further characterized in that it comprises: a bridge line inside the first opening portion connecting the first feed line (7a∼207a, 16a) and the second feed line (7b∼207b, 16b).
A method for dephosphorizing hot metal, wherein, when performing dephosphorization treatment of the hot metal by adding (a) a refining agent as a lime source and (b) an oxygen source to the hot metal accommodated in a hot metal holding container, a refining agent having an Ig-loss value of from 4.0% by mass to 35.0% by mass and including 60% by mass or more of quick lime is used as the refining agent, wherein the Ig-loss value is measured by heating a 0.1 mg sample of the reining agent for 1 hour in a platinum crucible or a magnetic crucible in an electric furnace controlled at 1050 ± 50°C, allowing the sample to cool and measuring the mass of the sample, the Ig-loss value being calculated according to Formula below: Ig . loss = m 1 m 0 × 100 in which Ig. loss represents the Ig-loss value in % by mass, m 0 represents the mass of the sample of refining agent in g before heating, and m 1 represents the sample weight loss in g, wherein when adding the refining agent, the refining agent is injected together with a carrier gas through an injection lance immersed under a bath surface of the hot metal under conditions satisfying Formulas to : [Math. 1] 300 ≤ ε g + ε P ≤ 1000 ε g = 6.183 × Q × T 1 W × ln 1 + h 1.02 × 10 − 4 × P + 1 − T g T l ε P = 2.25 × 10 − 5 × m × Q 2 d 0 4 × W in which ε g represents a carrier gas stirring power [W/t]; ε p represents a lime source energy; Q represents a carrier gas flow rate [N m 3 /min]; W represents a hot metal amount [t]; T l represents a hot metal temperature [°C]; T g represents a carrier gas temperature [°C]; h represents an injection lance immersion depth [m]; P represents an atmospheric pressure [Pa]; m represents a lime source injecting rate [g/s]; and d 0 represents an injection lance nozzle diameter [cm]. wherein the Ig-loss value is measured by heating a 0.1 mg sample of the reining agent for 1 hour in a platinum crucible or a magnetic crucible in an electric furnace controlled at 1050 ± 50°C, allowing the sample to cool and measuring the mass of the sample, the Ig-loss value being calculated according to Formula below: Ig . loss = m 1 m 0 × 100 in which Ig. loss represents the Ig-loss value in % by mass, m 0 represents the mass of the sample of refining agent in g before heating, and m 1 represents the sample weight loss in g, wherein when adding the refining agent, the refining agent is injected together with a carrier gas through an injection lance immersed under a bath surface of the hot metal under conditions satisfying Formulas to : [Math. 1] 300 ≤ ε g + ε P ≤ 1000 ε g = 6.183 × Q × T 1 W × ln 1 + h 1.02 × 10 − 4 × P + 1 − T g T l ε P = 2.25 × 10 − 5 × m × Q 2 d 0 4 × W in which ε g represents a carrier gas stirring power [W/t]; ε p represents a lime source energy; Q represents a carrier gas flow rate [N m 3 /min]; W represents a hot metal amount [t]; T l represents a hot metal temperature [°C]; T g represents a carrier gas temperature [°C]; h represents an injection lance immersion depth [m]; P represents an atmospheric pressure [Pa]; m represents a lime source injecting rate [g/s]; and d 0 represents an injection lance nozzle diameter [cm].
A piezoelectric / electrostrictive ceramic composition comprising a complex perovskite oxide, wherein the complex perovskite oxide contains Pb, Sb, Nb, Mn, Ti, Zr, Cu, and W as main components, wherein Cu is contained at less than 0.3 mass% in terms of CuO and the atomicity ratio of the atoms in the mixed raw materials for making the piezoelectric / electrostrictive ceramic composition satisfies the following formulae: 0.99 ≤ Pb / Sb + Nb + Mn + Ti + Zr + Cu + W ≤ 1.05 0.97 ≤ Cu / W ≤ 1.60 and wherein the atomicity ratio of the atoms further satisfies the following formulae: 0.95 ≤ Ti / Zr ≤ 1.10 0.75 ≤ Sb / Nb ≤ 1.15 .