mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid ejection head for ejecting a liquid while being scanned in a main scanning direction (X), comprising: an ejection element configured to generate a pressure for ejecting the liquid in a pressure chamber ; a supply channel through which the liquid is supplied to the pressure chamber ; a collection channel connected to the supply channel through the pressure chamber and through which the liquid is collected from the pressure chamber ; a circulation pump capable of supplying the liquid from the supply channel into the pressure chamber , and collecting the liquid in the pressure chamber through the collection channel and sending the liquid to the supply channel ; a first pressure adjustment unit disposed between an outlet channel of the circulation pump and the supply channel and configured to adjust a pressure in the supply channel ; and a second pressure adjustment unit disposed between an inlet channel of the circulation pump and the collection channel and configured to adjust a pressure in the collection channel . an ejection element configured to generate a pressure for ejecting the liquid in a pressure chamber ; a supply channel through which the liquid is supplied to the pressure chamber ; a collection channel connected to the supply channel through the pressure chamber and through which the liquid is collected from the pressure chamber ; a circulation pump capable of supplying the liquid from the supply channel into the pressure chamber , and collecting the liquid in the pressure chamber through the collection channel and sending the liquid to the supply channel ; a first pressure adjustment unit disposed between an outlet channel of the circulation pump and the supply channel and configured to adjust a pressure in the supply channel ; and a second pressure adjustment unit disposed between an inlet channel of the circulation pump and the collection channel and configured to adjust a pressure in the collection channel .
Waste delivery container comprising: - a body comprising at least one wall having at least one opening, and - a shutter located inside the body, the shutter being adapted to be in a configuration in which the opening is sealably closed by the shutter and in a configuration in which the opening is free, the shutter being held in open configuration by a fuse adapted to break at a temperature between 60 °C and 150 °C, the container further comprising means for pressing the shutter against the wall and being characterised in that the means for pressing the shutter are independent of the latter and are held away from the opening by the fuse , the pressing means having a shape allowing them to exert a pressure over the entire part of the shutter in contact with the wall. - a body comprising at least one wall having at least one opening, and - a shutter located inside the body, the shutter being adapted to be in a configuration in which the opening is sealably closed by the shutter and in a configuration in which the opening is free, the shutter being held in open configuration by a fuse adapted to break at a temperature between 60 °C and 150 °C,
A power generation device comprising: a container filled with water; a filter member arranged between a first space and a second space in the container ; a moving member that is moved upon receiving external pressing force to apply a pressure to the first space and to produce a first water flow from the first space toward the second space in the filter member ; and a biasing member that produces a second water flow from the second space toward the first space in the filter member when the pressing force is removed from the moving member , the filter member allowing hydrogen ions to pass through more easily than hydroxide ions, the power generation device generating electric power based on a potential difference between the first space and the second space when the first water flow or the second water flow is produced in the filter member . a container filled with water; a filter member arranged between a first space and a second space in the container ; a moving member that is moved upon receiving external pressing force to apply a pressure to the first space and to produce a first water flow from the first space toward the second space in the filter member ; and a biasing member that produces a second water flow from the second space toward the first space in the filter member when the pressing force is removed from the moving member , the filter member allowing hydrogen ions to pass through more easily than hydroxide ions, the power generation device generating electric power based on a potential difference between the first space and the second space when the first water flow or the second water flow is produced in the filter member .
A method of improving polyunsaturated fatty acid (PUFA) oil yield, wherein the method comprises performing at least two centrifugation steps on a fermentation broth, wherein the light phase product produced after the first centrifugation step is fed into the centrifuge of the second centrifugation step, and the heavy phase product produced after the first centrifugation step is discarded, and wherein the separation cut after the first centrifugation step is made into the heavy phase side, and wherein the light phase product produced after the second centrifugation step is retained and the heavy phase product produced after the second centrifugation step is recycled to a fermentation broth which will be processed in the next round of processing using said two centrifugation steps.
Lubricant composition comprising, based on the total mass of lubricant composition, - one or more base oils, - 0.1 to 10% by mass of at least one dimercaptothiadiazole derivative, - 1 to 20% by mass of at least one ethylene and alpha-olefin copolymer, and - 0.2 to 10% by mass of at least one amine thiophosphate of general formula (IVa). in which X 1 and X 2 are independently of each other a sulphur atom or an oxygen atom, at least one of them being a sulphur atom, R 1 and R 2 are either a hydrogen atom or alkyl groups having between 1 and 22 carbon atoms, preferably between 6 and 18, M is an ammonium formed from a primary, secondary or tertiary amine, of formula R 3 R 4 R 5 R 6 N, where R 3 , R 4 , Rs, R 6 are either a hydrogen atom or an alkyl group comprising from 1 to 18 carbon atoms, and then n = 1, the said dimercaptothiadiazole derivative being a compound that is a derivative of 4,5-dimercapto-1,2,3-thiadiazole, 3,5-dimercapto-1,2,4-thiadiazole, 3,4-dimercapto-1,2,5-thiadiazole, and 2,5-dimercapto-1,3,4-thiadiazole, used alone or in a mixture. - one or more base oils, - 0.1 to 10% by mass of at least one dimercaptothiadiazole derivative, - 1 to 20% by mass of at least one ethylene and alpha-olefin copolymer, and - 0.2 to 10% by mass of at least one amine thiophosphate of general formula (IVa). in which X 1 and X 2 are independently of each other a sulphur atom or an oxygen atom, at least one of them being a sulphur atom, R 1 and R 2 are either a hydrogen atom or alkyl groups having between 1 and 22 carbon atoms, preferably between 6 and 18, M is an ammonium formed from a primary, secondary or tertiary amine, of formula R 3 R 4 R 5 R 6 N, where R 3 , R 4 , Rs, R 6 are either a hydrogen atom or an alkyl group comprising from 1 to 18 carbon atoms, and then n = 1, the said dimercaptothiadiazole derivative being a compound that is a derivative of 4,5-dimercapto-1,2,3-thiadiazole, 3,5-dimercapto-1,2,4-thiadiazole, 3,4-dimercapto-1,2,5-thiadiazole, and 2,5-dimercapto-1,3,4-thiadiazole, used alone or in a mixture.
A method of removing volatile organic compounds from a sponge by subcritical fluid, characterized by comprising: placing a sponge block to be treated in an extraction kettle; feeding a critical fluid medium into the extraction kettle; performing extraction under a subcritical condition of the critical fluid medium; releasing the pressure to normal pressure (atmosphere pressure) after the extraction is finished; and separating the sponge and the medium to obtain a devolatilized sponge; wherein the subcritical condition is: 20 °C≤temperature<31.1 °C, 3 MPa≤ pressure<7.39 MPa. placing a sponge block to be treated in an extraction kettle; feeding a critical fluid medium into the extraction kettle; performing extraction under a subcritical condition of the critical fluid medium; releasing the pressure to normal pressure (atmosphere pressure) after the extraction is finished; and separating the sponge and the medium to obtain a devolatilized sponge; wherein the subcritical condition is: 20 °C≤temperature<31.1 °C, 3 MPa≤ pressure<7.39 MPa.
A computer-implemented method comprising: receiving an artefact; extracting features from the artefact and populating a vector; inputting the vector into a classification model to generate a score ; modifying the score using a step function to add noise to the score to obfuscate its actual value so that a classification of said modified score does not differ from a classification of said score generated by said classification model, wherein said classification is one of a numeric value, a classification type or cluster, or other alphanumeric output; and providing the modified score to a consuming application or process. receiving an artefact; extracting features from the artefact and populating a vector; inputting the vector into a classification model to generate a score ; modifying the score using a step function to add noise to the score to obfuscate its actual value so that a classification of said modified score does not differ from a classification of said score generated by said classification model, wherein said classification is one of a numeric value, a classification type or cluster, or other alphanumeric output; and providing the modified score to a consuming application or process.
A method of manufacturing a housing for the stator of an axial flux permanent magnet machine , the machine having a stator comprising a set of coils wound on respective stator pole pieces and disposed circumferentially at intervals about an axis of the machine , and a rotor (14a,b) bearing a set of permanent magnets (24a,b) and mounted for rotation about said axis , and wherein said rotor (14a,b) and stator are spaced apart along said axis to define a gap (26a,b) therebetween in which magnetic flux in the machine is generally in an axial direction, the method comprising: fabricating a radial wall for said stator housing to be located in said gap (26a,b) between said rotor (14a,b) and said stator by: placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane , the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece ; and manufacturing said housing using said radial wall . fabricating a radial wall for said stator housing to be located in said gap (26a,b) between said rotor (14a,b) and said stator by: placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane , the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece ; and placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane , the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece ; and manufacturing said housing using said radial wall .
A pipe, which is a refrigerant pipe comprising: - a pipe body including copper or a copper alloy; and - formed on an outer surface of the pipe body, an anticorrosive film including one or more anticorrosive agents selected from (A) 0.1-200.0 μg/cm 2 of an organic sulfonate compound, (B) 0.1-200.0 μg/cm 2 of a polyhydric alcohol-organic acid ester compound, and (C) 1.5-200.0 μg/cm 2 of an aliphatic C 8-24 -amine compound. wherein the compound (B) is a glycerol fatty acid ester of the formula R-COOCH 2 -CH(OH)-CH 2 OH (II) wherein R is a linear or branched aliphatic C 11-29 -hydrocarbon group, and cases where compound (C) is included in an amount ≥ the amount of compound (B) are excluded. - a pipe body including copper or a copper alloy; and - formed on an outer surface of the pipe body, an anticorrosive film including one or more anticorrosive agents selected from (A) 0.1-200.0 μg/cm 2 of an organic sulfonate compound, (B) 0.1-200.0 μg/cm 2 of a polyhydric alcohol-organic acid ester compound, and (C) 1.5-200.0 μg/cm 2 of an aliphatic C 8-24 -amine compound. (A) 0.1-200.0 μg/cm 2 of an organic sulfonate compound, (B) 0.1-200.0 μg/cm 2 of a polyhydric alcohol-organic acid ester compound, and (C) 1.5-200.0 μg/cm 2 of an aliphatic C 8-24 -amine compound. the compound (B) is a glycerol fatty acid ester of the formula R-COOCH 2 -CH(OH)-CH 2 OH (II) wherein R is a linear or branched aliphatic C 11-29 -hydrocarbon group, and cases where compound (C) is included in an amount ≥ the amount of compound (B) are excluded.
A conjugate of a camptothecin drug and a targeting moiety (TM) of the formula: TM-[L]-CPT, where TM is a cancer-targeting monoclonal antibody (MAb); CPT is camptothecin selected from the group consisting of CPT, 10-hydroxy camptothecin, SN-38, topotecan, lurtotecan, 9-aminocamptothecin and 9-nitrocamptothecin; and L is a linker system of the type X-Y-Z wherein X is a disease-targeting-moiety-coupling moiety comprising a PEG moiety, wherein the PEG moiety consists of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 monomeric units, Y is a lysosomally cleavable polypeptide, and Z is 4-aminobenzyloxy moiety, which is connected to the CPT drug, wherein Z is connected in the form of a carbonate or carbamate via an ester to the 20-hydroxy group of CPT and wherein X is thiol-reactive and selected from the group consisting of maleimide, vinylsulfone, bromoacetamide, and iodoacetamide, and reacts with a thiol group on said disease targeting moiety, or wherein X comprises a thiol group which reacts with a thiol-reactive residue on said disease-targeting moiety, and said thiol-reactive residue is selected from the group consisting of maleimide, vinylsulfone, bromoacetamide, and iodoacetamide. where TM is a cancer-targeting monoclonal antibody (MAb); CPT is camptothecin selected from the group consisting of CPT, 10-hydroxy camptothecin, SN-38, topotecan, lurtotecan, 9-aminocamptothecin and 9-nitrocamptothecin; and L is a linker system of the type X-Y-Z wherein X is a disease-targeting-moiety-coupling moiety comprising a PEG moiety, wherein the PEG moiety consists of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 monomeric units, Y is a lysosomally cleavable polypeptide, and Z is 4-aminobenzyloxy moiety, which is connected to the CPT drug, wherein Z is connected in the form of a carbonate or carbamate via an ester to the 20-hydroxy group of CPT and wherein X is thiol-reactive and selected from the group consisting of maleimide, vinylsulfone, bromoacetamide, and iodoacetamide, and reacts with a thiol group on said disease targeting moiety, or wherein X comprises a thiol group which reacts with a thiol-reactive residue on said disease-targeting moiety, and said thiol-reactive residue is selected from the group consisting of maleimide, vinylsulfone, bromoacetamide, and iodoacetamide.
Respiratory gas humidification system for conditioning respiratory gas when ventilating patients , comprising a fluid reservoir , specifically a water reservoir, for providing a fluid storage, an evaporator for evaporating a supplied fluid in conjunction with a respiratory gas supply leading to the patient , the respiratory gas being conditioned in respect of the temperature and the humidity by evaporating the supplied fluid , a pump for transporting a defined amount of fluid from the fluid reservoir to the evaporator , a first sensor system having at least one sensor, preferably a plurality of sensors, for determining the respiratory activity of the patient , a control unit for controlling the respiratory gas humidification system , wherein the evaporator comprises a heating element , and the pump feeds an amount of fluid dependent on the respiratory activity of the patient to the evaporator , the evaporator evaporates this amount, and the humidified respiratory gas is supplied to the patient, the first sensor system comprises a sensor for information regarding the spontaneous respiration of the patient , and the control unit receives the information regarding the spontaneous respiration of the patient or the control unit receives information regarding the ventilation activity of a ventilator , depending on the respective information, an amount of fluid is metered by the pump and evaporated by the evaporator , and the evaporator completely evaporates the fluid fed by the pump , with the result that no fluid remains in the evaporator anymore. a fluid reservoir , specifically a water reservoir, for providing a fluid storage, an evaporator for evaporating a supplied fluid in conjunction with a respiratory gas supply leading to the patient , the respiratory gas being conditioned in respect of the temperature and the humidity by evaporating the supplied fluid , a pump for transporting a defined amount of fluid from the fluid reservoir to the evaporator , a first sensor system having at least one sensor, preferably a plurality of sensors, for determining the respiratory activity of the patient , a control unit for controlling the respiratory gas humidification system , wherein the evaporator comprises a heating element , and the pump feeds an amount of fluid dependent on the respiratory activity of the patient to the evaporator , the evaporator evaporates this amount, and the humidified respiratory gas is supplied to the patient, the first sensor system comprises a sensor for information regarding the spontaneous respiration of the patient , and the control unit receives the information regarding the spontaneous respiration of the patient or the control unit receives information regarding the ventilation activity of a ventilator , depending on the respective information, an amount of fluid is metered by the pump and evaporated by the evaporator , and the evaporator completely evaporates the fluid fed by the pump , with the result that no fluid remains in the evaporator anymore.
Frame section made of wood, plastic and similar for use in a window frame/casement comprising at least two segments (1 to 3) which are connected firmly to one another by at least one mechanical connector to form the frame section with the front sides thereof abutting against one another, which connector applies a pressing force acting on the front sides of the segments (1 to 3), under which the segments (1 to 3) abut against one another with the front sides thereof, characterized in that the segments (1 to 3) are curved and form a circular arc and that the mechanical connector is accessible on one side of the frame section which is not visible from outside after installation of the frame section.
An electronic display comprising: a housing ; a display panel within the housing and having a display surface that is visible through the housing ; an electronic processor arranged to control functions of the display and operating conditions within the housing ; input sensors disposed within the housing at distributed locations and arranged to sense operating conditions within the housing ; output components disposed within the housing at distributed locations and arranged to respond to control signals, the output components including at least one variable speed fan ; characterised in that : the electronic display further comprises: a plurality of modules each providing a unique address identifier and at least one connection to one of said input sensors and output components ; and a bus connecting said modules and electronic processor for intercommunication: wherein, in use: processing of signals received from said input sensors and control signals passed to the output components is distributed amongst at least one microcontroller on each of said modules ; and the electronic processor uses the unique address identifier of at least one said module to: receive a temperature reading from at least one module connected to a temperature sensor ; process the temperature reading to determine at least one new fan speed setting ; and send data to a module to set at least one fan speed to the new setting via the bus. a housing ; a display panel within the housing and having a display surface that is visible through the housing ; an electronic processor arranged to control functions of the display and operating conditions within the housing ; input sensors disposed within the housing at distributed locations and arranged to sense operating conditions within the housing ; output components disposed within the housing at distributed locations and arranged to respond to control signals, the output components including at least one variable speed fan ; characterised in that : the electronic display further comprises: a plurality of modules each providing a unique address identifier and at least one connection to one of said input sensors and output components ; and a bus connecting said modules and electronic processor for intercommunication: wherein, in use: processing of signals received from said input sensors and control signals passed to the output components is distributed amongst at least one microcontroller on each of said modules ; and the electronic processor uses the unique address identifier of at least one said module to: receive a temperature reading from at least one module connected to a temperature sensor ; process the temperature reading to determine at least one new fan speed setting ; and send data to a module to set at least one fan speed to the new setting via the bus. receive a temperature reading from at least one module connected to a temperature sensor ; process the temperature reading to determine at least one new fan speed setting ; and send data to a module to set at least one fan speed to the new setting via the bus.