mhurhangee/patent-ind-claim-en huggingface dataset:
A process for making paper, paperboard or the like comprising - providing a cellulosic fibre suspension; - optionally diluting the fibre suspension; - delivering the fibre suspension to a headbox, draining the fibre suspension on a screen to form a wet web of paper, paperboard, or an individual ply thereof, optionally combining the individual ply with other plies being formed simultaneously, pressing and drying the wet web to obtain the paper or paperboard; wherein the cellulosic fibre suspension comprises at least 40 % on dry weight basis, based on the paper, paperboard or the individual ply thereof, of recycled fibre material, and has a conductivity of at least 1.5 mS/cm as measured at the headbox of the paper, paperboard or the individual ply thereof; and wherein a glyoxalated copolymer of acrylamide and cationic monomers having a weight-average molecular weight of at least 1 000 000 g/mol and a charge density over 0.2 meq/g (dry basis) as measured by Mutek charge titration at pH 4.0, and inorganic siliceous microparticles comprising silica sol having a degree of aggregation characterized by S-value less than 40 % are added to the fibre suspension sequentially or simultaneously. - providing a cellulosic fibre suspension; - optionally diluting the fibre suspension; - delivering the fibre suspension to a headbox, draining the fibre suspension on a screen to form a wet web of paper, paperboard, or an individual ply thereof, optionally combining the individual ply with other plies being formed simultaneously, pressing and drying the wet web to obtain the paper or paperboard;
A cleaning process for cleaning at least one part of a hydraulic circuit of a continuous inkjet printer, said hydraulic circuit comprising a solvent tank (80 2 , 314) and an ink tank (80, 80 1 ) and hydraulic connection means for sending ink and/or solvent to a print head, said cleaning process comprising: - removing a cartridge from a cartridge connection and pumping gas from said cartridge connection or mounting a device in the circuit for introducing a gas, for example compressed gas, into said circuit; - circulating said gas, through at least one part of said hydraulic circuit and recovering ink from said at least one part of said hydraulic circuit in a recovery cartridge or in said ink tank (80, 80 1 ) or in a tank . - removing a cartridge from a cartridge connection and pumping gas from said cartridge connection or mounting a device in the circuit for introducing a gas, for example compressed gas, into said circuit; - circulating said gas, through at least one part of said hydraulic circuit and recovering ink from said at least one part of said hydraulic circuit in a recovery cartridge or in said ink tank (80, 80 1 ) or in a tank .
A bathing tablet manufacturing method comprising compression molding an organic acid in the presence of polyethylene glycol, an anhydride, and a bicarbonate to achieve the bathing tablet, wherein the organic acid is citric acid and optionally at least one selected from the group consisting of succinic acid, fumaric acid and malic acid, the anhydride is at least one selected from the group consisting of anhydrous sodium carbonate and anhydrous potassium carbonate, and the bicarbonate is at least one selected from the group consisting of sodium hydrogen carbonate and potassium hydrogen carbonate, wherein the ratio of the organic acid to the bicarbonate is in the range of 1:10 to 1:3, the ratio of the anhydride to the bicarbonate is in the range of 1:100 to 1:10, and the ratio of the polyethylene glycol to the bicarbonate is in the range of 1:100 to 1:5, wherein an aqueous solution immediately after dissolution of the bathing tablet has a pH of 5.5 to 8.5, and wherein the bathing tablet has a hardness of 25 kg or more, a diameter of 7mm or more, and a thickness of 7mm or more.
A method for resolving references in electronic documents , wherein the method is performed by a page rendering device to generate a hardcopy document from the electronic document, comprising following steps: (a) obtaining an electronic document comprising a reference to an item within the electronic document; (b) generating, based on the electronic document, an intermediate document for input into a layout engine ; (c) identifying, within a data structure external to the intermediate document, an entry comprising an initial value for the reference; (d) calculating, by the layout engine and during a first rendering of the electronic document, a first page comprising the item, based on the intermediate document and the initial value substituted for the reference; (e) populating the entry with a first page number corresponding to the first page; characterized in that the method further comprises: (f) calculating, by the layout engine and during a second rendering of the electronic document, a second page comprising the item, based on the intermediate document and the first page number substituted for the reference; (g) populating the entry with a second page number corresponding to the second page; (h) comparing if said first page number equals said second page number; and (i) if said first page number equals said second page number, generating, using the layout engine a rendered document of a hardcopy document, based on the intermediate document and the second page number substituted for the reference. (a) obtaining an electronic document comprising a reference to an item within the electronic document; (b) generating, based on the electronic document, an intermediate document for input into a layout engine ; (c) identifying, within a data structure external to the intermediate document, an entry comprising an initial value for the reference; (d) calculating, by the layout engine and during a first rendering of the electronic document, a first page comprising the item, based on the intermediate document and the initial value substituted for the reference; (e) populating the entry with a first page number corresponding to the first page; (f) calculating, by the layout engine and during a second rendering of the electronic document, a second page comprising the item, based on the intermediate document and the first page number substituted for the reference; (g) populating the entry with a second page number corresponding to the second page; (h) comparing if said first page number equals said second page number; and (i) if said first page number equals said second page number, generating, using the layout engine a rendered document of a hardcopy document, based on the intermediate document and the second page number substituted for the reference.
A device comprising: means for presenting a plurality of exposure mode programming options supported by an implantable medical device for enabling and disabling an exposure operating mode of the implantable medical device; means for receiving input from the user to select one of the plurality of exposure mode programming options; and means for transmitting a communication to the implantable medical device that identifies the selected one of the plurality of exposure mode programming options. means for presenting a plurality of exposure mode programming options supported by an implantable medical device for enabling and disabling an exposure operating mode of the implantable medical device; means for receiving input from the user to select one of the plurality of exposure mode programming options; and means for transmitting a communication to the implantable medical device that identifies the selected one of the plurality of exposure mode programming options.
A composite oxide comprising lithium, niobium, and tantalum, a mass ratio of tantalum with respect to niobium being in a range of from 0.01% to 1.0%, and wherein the composite oxide is represented by the general formula Li 1-x K x Nb 1-y-z Ta y Fe z O 3 , where subscript x is within a range of 0 ≤ x ≤ 2.4 × 10 -2 , and subscript y is within a range of 5.1 × 10 -5 ≤ y ≤ 5.1 × 10 -3 , and subscript z is within a range of 0 ≤ z ≤ 8.2 × 10 -3 .
A transmitter configured to be attached to a tire valve and transmit a data signal to a receiver , the transmitter comprising: a trigger receiving unit configured to receive a trigger signal transmitted from an ID registration device , the trigger signal containing a command to the transmitter ; a specification storage unit configured to store multiple types of specifications; an ID storing unit configured such that an ID code contained in the trigger signal received by the trigger receiving unit is written into the ID storing unit ; characterized in that the transmitter comprises: a linking information storing unit configured to store linking information that links each of the specifications and ID codes to each other; and a controlling unit configured to cause, based on the linking information, the transmitter to operate in accordance with the specification which is linked to the ID code stored in the ID storing unit . a trigger receiving unit configured to receive a trigger signal transmitted from an ID registration device , the trigger signal containing a command to the transmitter ; a specification storage unit configured to store multiple types of specifications; an ID storing unit configured such that an ID code contained in the trigger signal received by the trigger receiving unit is written into the ID storing unit ; characterized in that the transmitter comprises: a linking information storing unit configured to store linking information that links each of the specifications and ID codes to each other; and a controlling unit configured to cause, based on the linking information, the transmitter to operate in accordance with the specification which is linked to the ID code stored in the ID storing unit . a linking information storing unit configured to store linking information that links each of the specifications and ID codes to each other; and a controlling unit configured to cause, based on the linking information, the transmitter to operate in accordance with the specification which is linked to the ID code stored in the ID storing unit .
An authentication method for a quantum key distribution, QKD, process implemented in both a quantum communication device of a sender and a quantum communication device of a receiver involved in the QKD process, the method comprising: selecting, by a sender, a basis for preparing authentication information according to an algorithm in a preset algorithms library; sending, by the sender, quantum states of control information and of data information according to a preset information format over different wavelengths to a receiver respectively, the data information comprising authentication information and randomly generated key information; (102-1) filtering, by the receiver, the quantum states according to the plurality of wavelengths and the preset information format; (102-1) employing, by the receiver, a basis of measurement corresponding to the algorithm; (102-2) measuring a quantum state of the authentication information with the basis of measurement; obtaining a reverse authentication information based on the measured quantum state of the authentication information; sending the reverse authentication information to the sender to authenticate the receiver when the quantum state of the authentication information corresponds to the algorithm; generating, by the sender, local authentication information according to the received reverse authentication information; determining whether the local authentication information corresponds with the reverse authentication information; and terminating the method when the local authentication information does not correspond with the reverse authentication information. selecting, by a sender, a basis for preparing authentication information according to an algorithm in a preset algorithms library; sending, by the sender, quantum states of control information and of data information according to a preset information format over different wavelengths to a receiver respectively, the data information comprising authentication information and randomly generated key information; (102-1) filtering, by the receiver, the quantum states according to the plurality of wavelengths and the preset information format; (102-1) employing, by the receiver, a basis of measurement corresponding to the algorithm; (102-2) measuring a quantum state of the authentication information with the basis of measurement; obtaining a reverse authentication information based on the measured quantum state of the authentication information; sending the reverse authentication information to the sender to authenticate the receiver when the quantum state of the authentication information corresponds to the algorithm; generating, by the sender, local authentication information according to the received reverse authentication information; determining whether the local authentication information corresponds with the reverse authentication information; and terminating the method when the local authentication information does not correspond with the reverse authentication information.
A modified resin for a molded article obtained by modifying an ethylene/unsaturated carboxylic acid copolymer with at least one guanidine compound selected from guanidine derivatives and salts thereof, wherein a melt flow rate of the ethylene/unsaturated carboxylic acid copolymer, measured according to the Japanese Industrial Standard: JIS K7210 at a temperature of 190 °C and a loaded weight of 2160 g, is 20 (g/10 minutes) or more and 600 (g/10 minutes) or less.
Method of controlling load sharing operation of an engine of a generator set in an assembly of at least two generator sets coupled parallel to an electric grid , wherein method, - actual engine speed is determined or measured, and fuel feeding into the engine is controlled making use of the actual engine speed and a speed reference value, characterized in that - actual engine load is determined or measured, - a load reference value is determined based on the actual engine loads of the engines of the generator sets coupled to the electric grid , and - the speed reference value is determined such that the speed reference value is a sum of: ∘ a first part of the speed reference value obtained as a function of the actual engine load and the load reference value, and ∘ a second part of the speed reference value obtained by ▪ identifying transient state of the load reference value by defining a time derivative of the load reference value and ▪ amplifying the time derivative with a load gain. - actual engine speed is determined or measured, and fuel feeding into the engine is controlled making use of the actual engine speed and a speed reference value, characterized in that - actual engine load is determined or measured, - a load reference value is determined based on the actual engine loads of the engines of the generator sets coupled to the electric grid , and - the speed reference value is determined such that the speed reference value is a sum of: ∘ a first part of the speed reference value obtained as a function of the actual engine load and the load reference value, and ∘ a second part of the speed reference value obtained by ▪ identifying transient state of the load reference value by defining a time derivative of the load reference value and ▪ amplifying the time derivative with a load gain. ∘ a first part of the speed reference value obtained as a function of the actual engine load and the load reference value, and ∘ a second part of the speed reference value obtained by ▪ identifying transient state of the load reference value by defining a time derivative of the load reference value and ▪ amplifying the time derivative with a load gain. ▪ identifying transient state of the load reference value by defining a time derivative of the load reference value and ▪ amplifying the time derivative with a load gain.
A standalone landing pad comprising: (a) a storage compartment ; (b) a trapdoor in a normally closed position which when open exposes the interior of said storage compartment; (c) a receiver capable of recognizing a signal transmitted by an aerial vehicle , wherein the trapdoor is configured to open upon receipt of said signal by said receiver, and (d) a transponder capable of emitting a unique ID corresponding to said standalone landing pad. (a) a storage compartment ; (b) a trapdoor in a normally closed position which when open exposes the interior of said storage compartment; (c) a receiver capable of recognizing a signal transmitted by an aerial vehicle , wherein the trapdoor is configured to open upon receipt of said signal by said receiver, and (d) a transponder capable of emitting a unique ID corresponding to said standalone landing pad.
A data processing method, applied for a terminal, comprising: 1.1. obtaining , a downlink reference for uplink transmission in a first cell of a first base station, 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining , information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.2. obtaining, uplink grant information send by the first base station in the first cell, wherein the uplink grant information comprises information about an uplink time-frequency resource on the uplink carrier of the first cell; and 1.3. sending , uplink data to the first base station on the uplink time-frequency resource by using the downlink reference. 1.1. obtaining , a downlink reference for uplink transmission in a first cell of a first base station, 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining , information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining , information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.2. obtaining, uplink grant information send by the first base station in the first cell, wherein the uplink grant information comprises information about an uplink time-frequency resource on the uplink carrier of the first cell; and 1.3. sending , uplink data to the first base station on the uplink time-frequency resource by using the downlink reference.
An organic light-emitting diode (OLED) comprising an emission layer and an electron transport layer stack of at least two electron transport layers ( (161/162), wherein a first electron transport layer and a second electron transport layer comprises at least one matrix compound characterized in that , - the first electron transport layer comprises a first lithium halide or a first lithium organic complex; and - the second electron transport layer comprises a second lithium halide or a second lithium organic complex, wherein the first lithium organic complex is not the same as the second lithium organic complex and wherein the first lithium halide is not the same as the second lithium halide, wherein the matrix compound of the first electron transport layer and the second electron transport layer is a phosphine oxide based compound and/or a substituted phenanthroline compound. - the first electron transport layer comprises a first lithium halide or a first lithium organic complex; and - the second electron transport layer comprises a second lithium halide or a second lithium organic complex, wherein the first lithium organic complex is not the same as the second lithium organic complex and wherein the first lithium halide is not the same as the second lithium halide, wherein the matrix compound of the first electron transport layer and the second electron transport layer is a phosphine oxide based compound and/or a substituted phenanthroline compound.
An apparatus, comprising: an ink tank; a cap assembly attached to the ink tank with a preloaded hinge configured to rotate the cap assembly from a closed position to an open position when the cap assembly is unlatched, the cap assembly comprising a bung to seal the ink tank during a partial rotation of the cap assembly when the cap assembly is unlatched; a spring-loaded linkage connected to a valve in the ink tank, wherein the valve provides a secondary seal in the ink tank body ; an effector extending from the cap assembly configured to engage and actuate the spring-loaded linkage when the cap assembly is latched and configured to disengage from the spring-loaded linkage after the cap assembly is unlatched, wherein the spring-loaded linkage is configured to open the valve when engaged with the effector , and close the valve when disengaged from the effector , and wherein the bung is configured to maintain a tank seal during rotation of the cap assembly from the closed position to the open position until the valve is closed to effect the secondary seal. an ink tank; a cap assembly attached to the ink tank with a preloaded hinge configured to rotate the cap assembly from a closed position to an open position when the cap assembly is unlatched, the cap assembly comprising a bung to seal the ink tank during a partial rotation of the cap assembly when the cap assembly is unlatched; a spring-loaded linkage connected to a valve in the ink tank, wherein the valve provides a secondary seal in the ink tank body ; an effector extending from the cap assembly configured to engage and actuate the spring-loaded linkage when the cap assembly is latched and configured to disengage from the spring-loaded linkage after the cap assembly is unlatched, wherein the spring-loaded linkage is configured to open the valve when engaged with the effector , and close the valve when disengaged from the effector , and wherein the bung is configured to maintain a tank seal during rotation of the cap assembly from the closed position to the open position until the valve is closed to effect the secondary seal.
An air-jet loom with a weft-insertion control apparatus , wherein the air-jet loom is configured to insert a weft yarn (Y) through a weft yarn passage by injecting air from a main nozzle and a sub-nozzle (160, 160A to 160F), wherein the weft-insertion control apparatus is configured to control weft insertion of the air-jet loom, characterized in that the weft-insertion control apparatus includes: an inlet sensor configured to detect inlet arrival timing (Tin) of a leading end of the weft yarn (Y) to arrive at an inlet of the weft yarn passage , wherein a detection range of the inlet sensor includes the inlet of the weft yarn passage ; and a control device configured to control a weft-insertion condition for inserting the weft yarn (Y) based on the inlet arrival timing (Tin). an inlet sensor configured to detect inlet arrival timing (Tin) of a leading end of the weft yarn (Y) to arrive at an inlet of the weft yarn passage , wherein a detection range of the inlet sensor includes the inlet of the weft yarn passage ; and a control device configured to control a weft-insertion condition for inserting the weft yarn (Y) based on the inlet arrival timing (Tin).