mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an audio component configured to produce a first audio signal; a removable fader component configured with a first connection point for connectivity to the audio component and a second connection point for connectivity to an external audio component (501/503/505/507) that produces a second audio signal, wherein a hardware component, a software component, or a combination thereof for performing a mixing of the first audio signal and the second audio signal is contained within the removable fader component , characterized in that a receptacle integrated into the apparatus, wherein the receptacle is configured to hold the removable fader component to the apparatus, and the receptacle is movable relative to the audio component to enable to hold the removable fader component in more than one location relative to the audio component . an audio component configured to produce a first audio signal; a removable fader component configured with a first connection point for connectivity to the audio component and a second connection point for connectivity to an external audio component (501/503/505/507) that produces a second audio signal, wherein a hardware component, a software component, or a combination thereof for performing a mixing of the first audio signal and the second audio signal is contained within the removable fader component , characterized in that a receptacle integrated into the apparatus, wherein the receptacle is configured to hold the removable fader component to the apparatus, and the receptacle is movable relative to the audio component to enable to hold the removable fader component in more than one location relative to the audio component .
A power control system for a vehicle, the power control system characterized by comprising: a secondary battery ; a charging terminal capable of connecting to a power supply terminal of an alternating current power supply; a charging apparatus configured to be input alternating current power from the charging terminal , the charging apparatus being configured to convert the alternating current power to direct current power and charge this direct current power to the secondary battery ; a discharging terminal capable of connecting to a power receiving terminal of an alternating current load and the charging terminal ; a power supplying apparatus configured to convert the direct current power from the secondary battery to alternating current power of a predetermined frequency that differs from a standard frequency of a commercial power supply and output this alternating current power from the discharging terminal , the power supplying apparatus including a cut-off detecting portion ; and a control device configured to control the charging apparatus and the power supplying apparatus , wherein the control device is configured to stop charging to the secondary battery when a connecting terminal is connected to each of both the charging terminal and the discharging terminal ; the control device is configured to continue to stop the charging when a charging-stopped state is detected by the cut-off detecting portion , and the control device is configured to resume charging by cancelling the charging-stopped state when the charging-stopped state is not detected by the cut-off detecting portion . a secondary battery ; a charging terminal capable of connecting to a power supply terminal of an alternating current power supply; a charging apparatus configured to be input alternating current power from the charging terminal , the charging apparatus being configured to convert the alternating current power to direct current power and charge this direct current power to the secondary battery ; a discharging terminal capable of connecting to a power receiving terminal of an alternating current load and the charging terminal ; a power supplying apparatus configured to convert the direct current power from the secondary battery to alternating current power of a predetermined frequency that differs from a standard frequency of a commercial power supply and output this alternating current power from the discharging terminal , the power supplying apparatus including a cut-off detecting portion ; and a control device configured to control the charging apparatus and the power supplying apparatus , wherein the control device is configured to stop charging to the secondary battery when a connecting terminal is connected to each of both the charging terminal and the discharging terminal ; the control device is configured to continue to stop the charging when a charging-stopped state is detected by the cut-off detecting portion , and the control device is configured to resume charging by cancelling the charging-stopped state when the charging-stopped state is not detected by the cut-off detecting portion .
A free fibre or loose fibre structure for padding comprising a shell containing a plurality of free or loose fibres, said free or loose fibres having a length ranging between 2 and 28 mm, with a titre or count that ranges between 0.8 den and 4 den; said structure being characterized in that it is manufactured according to the method of claim 2.
A method for isomerizing a 1,4-cyclohexanediamine, comprising a step of: isomerizing the 1,4-cyclohexanediamine in the presence of an imine compound and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride, wherein the imine compound comprises a compound represented by following general formula and/or a compound represented by the following general formula : wherein R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted hydrocarbon group having 1 to 20 carbon atoms. isomerizing the 1,4-cyclohexanediamine in the presence of an imine compound and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride, wherein the imine compound comprises a compound represented by following general formula and/or a compound represented by the following general formula : wherein R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted hydrocarbon group having 1 to 20 carbon atoms.
A method of preparing a positive electrode active material, the method comprising: preparing a lithium transition metal oxide containing nickel in an amount of 60 mol% or more based on a total number of moles of metals excluding lithium; impregnating the lithium transition metal oxide with 300 ppm to 1,000 ppm of moisture based on 100 parts by weight of the lithium transition metal oxide; and performing a heat treatment on the lithium transition metal oxide impregnated with the moisture, wherein a lithium by-product present on a surface of the lithium transition metal oxide and the moisture react to form a passivation layer on the surface of the lithium transition metal oxide, characterized in that the heat treatment is performed in a temperature range of 500°C to 900°C for 3 hours to 15 hours. preparing a lithium transition metal oxide containing nickel in an amount of 60 mol% or more based on a total number of moles of metals excluding lithium; impregnating the lithium transition metal oxide with 300 ppm to 1,000 ppm of moisture based on 100 parts by weight of the lithium transition metal oxide; and performing a heat treatment on the lithium transition metal oxide impregnated with the moisture, wherein a lithium by-product present on a surface of the lithium transition metal oxide and the moisture react to form a passivation layer on the surface of the lithium transition metal oxide, characterized in that the heat treatment is performed in a temperature range of 500°C to 900°C for 3 hours to 15 hours.
Process comprising the following successive steps: (a) impregnating a soft mold provided with at least one cavity with a sol-gel layer coated on a first substrate, under conditions of a relative solvent pressure adjusted such that the layer swells by vapor absorption between 10 and 60%vol., so as to fill the mold under the action of capillary forces, (b) removing the first substrate, (c) if needed, equilibrating the gel within the mold cavities, under a relative solvent pressure between 0 and 95%, in order to allow it to swell and thus entirely fill said at least one cavity, (d) applying the swollen gel onto a second substrate to be patterned, (e) thermally treating this assembly so as to rigidify the gel, (f) removing the mold, and (g) curing the gel into a ceramic, thus forming a patterned substrate. (a) impregnating a soft mold provided with at least one cavity with a sol-gel layer coated on a first substrate, under conditions of a relative solvent pressure adjusted such that the layer swells by vapor absorption between 10 and 60%vol., so as to fill the mold under the action of capillary forces, (b) removing the first substrate, (c) if needed, equilibrating the gel within the mold cavities, under a relative solvent pressure between 0 and 95%, in order to allow it to swell and thus entirely fill said at least one cavity, (d) applying the swollen gel onto a second substrate to be patterned, (e) thermally treating this assembly so as to rigidify the gel, (f) removing the mold, and (g) curing the gel into a ceramic, thus forming a patterned substrate.
An exhaust gas recirculation pump for an internal combustion engine comprising: an electric motor assembly including an electric motor disposed within an electric motor housing ; characterised by a Roots device coupled to the electric motor by a transmission assembly , the Roots device including a housing defining an internal volume ; rotors disposed in the internal volume and connected to the electric motor; wherein the electric motor housing includes a coolant path formed therein, the coolant path including a coolant inlet extending to a coolant outlet , said coolant inlet and outlet couple in use to an engine coolant circulation system. an electric motor assembly including an electric motor disposed within an electric motor housing ; characterised by a Roots device coupled to the electric motor by a transmission assembly , the Roots device including a housing defining an internal volume ; rotors disposed in the internal volume and connected to the electric motor; wherein the electric motor housing includes a coolant path formed therein, the coolant path including a coolant inlet extending to a coolant outlet , said coolant inlet and outlet couple in use to an engine coolant circulation system.
An absorbent article comprising wing-like flaps (W) that are respectively disposed on both sides in a width direction of a main body in which an absorber is interposed between a liquid-permeable top sheet and a liquid-impermeable back sheet and that are configured to be fixed to an undergarment so as to wrap around a crotch portion of the undergarment when the article is worn, wherein the wing-like flaps (W) have a root, a straight front outline extending outward from the main body and a straight back outline extending outward from the main body, characterized in that the wing-like flaps (W) are designed such that an angle (β) formed by the width-direction line of the absorbent article and the straight back outline is larger than an angle (Θ) formed by the width-direction line of the absorbent article and the straight front outline and that the gravity center of the wing-like flap (W) is located further towards a front side of the absorbent article than the center of a bonding line of the root of the wing-like flap (W) and the main body, and the wing-like flaps (W) are designed such that when plural absorbent articles are alternately arranged normally and reversely adjacent to each other in a production line direction, the straight back outline of the wing-like flap (W) of a normally arranged absorbent article and the straight back outline of the wing-like flap (W) of a reversely arranged adjacent absorbent article coincide with each other under the condition that the absorbers of the normally and reversely arranged absorbent articles are aligned on the same straight line without displacement with respect to the production line direction. the wing-like flaps (W) have a root, a straight front outline extending outward from the main body and a straight back outline extending outward from the main body, characterized in that the wing-like flaps (W) are designed such that an angle (β) formed by the width-direction line of the absorbent article and the straight back outline is larger than an angle (Θ) formed by the width-direction line of the absorbent article and the straight front outline and that the gravity center of the wing-like flap (W) is located further towards a front side of the absorbent article than the center of a bonding line of the root of the wing-like flap (W) and the main body, and the wing-like flaps (W) are designed such that when plural absorbent articles are alternately arranged normally and reversely adjacent to each other in a production line direction, the straight back outline of the wing-like flap (W) of a normally arranged absorbent article and the straight back outline of the wing-like flap (W) of a reversely arranged adjacent absorbent article coincide with each other under the condition that the absorbers of the normally and reversely arranged absorbent articles are aligned on the same straight line without displacement with respect to the production line direction.
A network system comprising: a plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4); and a station-side apparatus for communicating with the plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4), wherein the station-side apparatus communicates with the plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4) using wavelengths, and wherein the station-side apparatus is configured to: acquire code rates to be used in error correction control performed in communications between the subscriber apparatuses (20-1-1, ..., 20-4-N4) and the station-side apparatus , calculate an effective transmission rates of the subscriber apparatuses (20-1-1, ..., 20-4-N4), the effective transmission rate being the rate at which the respective subscriber apparatus (201-1-1, ..., 20-4-N4) actually sends or receives data, preferably measured in Gbps, based on the acquired code rates, and determine the wavelength to be used by each of the subscriber apparatuses (20-1-1, ..., 20-4-N4) 25 based on the calculated effective transmission rates . a plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4); and a station-side apparatus for communicating with the plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4), wherein the station-side apparatus communicates with the plurality of subscriber apparatuses (20-1-1, ..., 20-4-N4) using wavelengths, and wherein the station-side apparatus is configured to: acquire code rates to be used in error correction control performed in communications between the subscriber apparatuses (20-1-1, ..., 20-4-N4) and the station-side apparatus , calculate an effective transmission rates of the subscriber apparatuses (20-1-1, ..., 20-4-N4), the effective transmission rate being the rate at which the respective subscriber apparatus (201-1-1, ..., 20-4-N4) actually sends or receives data, preferably measured in Gbps, based on the acquired code rates, and determine the wavelength to be used by each of the subscriber apparatuses (20-1-1, ..., 20-4-N4) 25 based on the calculated effective transmission rates . acquire code rates to be used in error correction control performed in communications between the subscriber apparatuses (20-1-1, ..., 20-4-N4) and the station-side apparatus , calculate an effective transmission rates of the subscriber apparatuses (20-1-1, ..., 20-4-N4), the effective transmission rate being the rate at which the respective subscriber apparatus (201-1-1, ..., 20-4-N4) actually sends or receives data, preferably measured in Gbps, based on the acquired code rates, and determine the wavelength to be used by each of the subscriber apparatuses (20-1-1, ..., 20-4-N4) 25 based on the calculated effective transmission rates .
A coated container device comprising: a metal substrate; and one or more coating layers associated with said metal substrate, and wherein said one or more coating layers are derived from the application of one or more aqueous dispersions to at least one surface of said metal substrate, and wherein said one or more aqueous dispersions comprise; one or more base polymers; one or more stabilizing agents; and water; wherein at least one of the one or more base polymers comprises a thermoplastic polar polyolefin polymer, having a polar group as either a comonomer or grafted monomer; wherein the thermoplastic polar polyolefin polymer is selected from the group consisting of maleic anhydride grafted polyethylene homopolymer or copolymer and maleic anhydride grafted polypropylene homopolymer or copolymer. a metal substrate; and one or more coating layers associated with said metal substrate, and wherein said one or more coating layers are derived from the application of one or more aqueous dispersions to at least one surface of said metal substrate, and wherein said one or more aqueous dispersions comprise; one or more base polymers; one or more stabilizing agents; and water; wherein at least one of the one or more base polymers comprises a thermoplastic polar polyolefin polymer, having a polar group as either a comonomer or grafted monomer; wherein the thermoplastic polar polyolefin polymer is selected from the group consisting of maleic anhydride grafted polyethylene homopolymer or copolymer and maleic anhydride grafted polypropylene homopolymer or copolymer. one or more base polymers; one or more stabilizing agents; and water;
Electronically controlled cleaning system for installation in a vehicle for cleaning at least one transparent element with a fluid cleaning agent, comprising: • at least one cleaning agent container for storing the cleaning agent ready for use, • at least one outlet opening for spraying the cleaning agent onto the transparent element , • at least one hydraulic line , which connects the cleaning agent container to the outlet opening , • at least one electrically controllable main pump for conveying the cleaning agent from the cleaning agent container into the hydraulic line , • at least one additive container for storing an additive provided to be mixed with the cleaning agent, • at least one electrically switchable metering device for controlled mixing of the additive with the cleaning agent, • at least one electronic control unit , which controls the electrically controllable components of the cleaning system adaptively, • at least one cleaning agent level sensor , which monitors the level of the cleaning agent in the cleaning agent container and transmits it to the electronic control unit , • at least one freezing point sensor , which monitors the mixture-dependent freezing point of the cleaning agent in the cleaning agent container and transmits it to the electronic control unit , • at least one ambient temperature sensor , which monitors the ambient temperature outside the vehicle and transmits it to the electronic control unit , characterized in that at least one electrically controllable pressure boost pump , which boosts a hydraulic pressure generated in the hydraulic line by the main pump in the direction of the outlet opening , is arranged in the hydraulic line between the main pump and the outlet opening . • at least one cleaning agent container for storing the cleaning agent ready for use, • at least one outlet opening for spraying the cleaning agent onto the transparent element , • at least one hydraulic line , which connects the cleaning agent container to the outlet opening , • at least one electrically controllable main pump for conveying the cleaning agent from the cleaning agent container into the hydraulic line , • at least one additive container for storing an additive provided to be mixed with the cleaning agent, • at least one electrically switchable metering device for controlled mixing of the additive with the cleaning agent, • at least one electronic control unit , which controls the electrically controllable components of the cleaning system adaptively, • at least one cleaning agent level sensor , which monitors the level of the cleaning agent in the cleaning agent container and transmits it to the electronic control unit , • at least one freezing point sensor , which monitors the mixture-dependent freezing point of the cleaning agent in the cleaning agent container and transmits it to the electronic control unit , • at least one ambient temperature sensor , which monitors the ambient temperature outside the vehicle and transmits it to the electronic control unit ,
A gas turbine engine comprising: a turbine section ; ; a main exhaust nozzle configured to direct a main exhaust from the turbine section a cowl disposed radially outward of the main exhaust nozzle , wherein an annular flow channel is defined between the cowl and a static structure , wherein the cowl comprises a static portion and a moveable portion , wherein the moveable portion is engaged to the static portion and is configured to rotate circumferentially and translate axially relative to the static portion , wherein movement of the moveable portion relative to the static portion changes a radial dimension of the annular flow channel , characterised in that the moveable portion is engaged to the static portion via helical threads and is thus configured to rotate circumferentially and translate axially relative to the static portion , wherein the static structure is a component of, or is disposed radially outward of the main exhaust nozzle . a turbine section ; ; a main exhaust nozzle configured to direct a main exhaust from the turbine section a cowl disposed radially outward of the main exhaust nozzle , wherein an annular flow channel is defined between the cowl and a static structure , wherein the cowl comprises a static portion and a moveable portion , wherein the moveable portion is engaged to the static portion and is configured to rotate circumferentially and translate axially relative to the static portion , wherein movement of the moveable portion relative to the static portion changes a radial dimension of the annular flow channel , characterised in that the moveable portion is engaged to the static portion via helical threads and is thus configured to rotate circumferentially and translate axially relative to the static portion , wherein the static structure is a component of, or is disposed radially outward of the main exhaust nozzle .