mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: manufacturing a mineral wool insulation panel for a household appliance or electrical appliance, the mineral wool insulation panel comprising needled mineral wool fibres consisting of glass wool fibres and/or stone wool fibres and graphite particles dispersed between the mineral wool fibres, the method of manufacturing comprising: a) applying a needling aid to mineral wool fibres ; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel ; wherein the mineral wool insulating panel comprises a quantity of binder of less than 1%wt as determined by LOI, wherein the needling aid comprises graphite. manufacturing a mineral wool insulation panel for a household appliance or electrical appliance, the mineral wool insulation panel comprising needled mineral wool fibres consisting of glass wool fibres and/or stone wool fibres and graphite particles dispersed between the mineral wool fibres, the method of manufacturing comprising: a) applying a needling aid to mineral wool fibres ; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel ; a) applying a needling aid to mineral wool fibres ; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel ; wherein the mineral wool insulating panel comprises a quantity of binder of less than 1%wt as determined by LOI, wherein the needling aid comprises graphite.
A method for producing a neutral liquid protein beverage having a pH of 6 to 8 and a protein content of 1 to 15% by weight, characterized in that a powdered plant-based protein material that satisfies the following requirements A) to E) is dispersed in a raw material solution, and then the raw material solution is heat-sterilized to dissolve the powdered plant-based protein material, A) protein content in a solid content is 80% by weight or more, B) pH of 10% by weight aqueous solution is pH 5.5 to 8, C) nitrogen solubility index (NSI) is 30 or less, D) 0.22 M trichloroacetic acid solubility rate in the powdered plant-based protein material is 4.5% or less, and E) bulk density is 0.5 g/cm 3 or more. A) protein content in a solid content is 80% by weight or more, B) pH of 10% by weight aqueous solution is pH 5.5 to 8, C) nitrogen solubility index (NSI) is 30 or less, D) 0.22 M trichloroacetic acid solubility rate in the powdered plant-based protein material is 4.5% or less, and E) bulk density is 0.5 g/cm 3 or more.
A method of starting up an integrated hydrogen or syngas plant including a reactor having a catalyst therein, comprising: providing a catalyst reduction fluid, and introducing the catalyst reduction fluid into a steam stream through liquid spray quench nozzles; introducing the mixture of catalyst reduction fluid and steam stream and reducing a catalyst disposed within the reactor; and thereafter admitting the reactor feedstock and steam stream into the reactor where the reforming is carried out and wherein liquid water is introduced through the liquid spray quench nozzles as a means of controlling the temperature of the combined reactant feedstock and steam stream. providing a catalyst reduction fluid, and introducing the catalyst reduction fluid into a steam stream through liquid spray quench nozzles; introducing the mixture of catalyst reduction fluid and steam stream and reducing a catalyst disposed within the reactor; and thereafter admitting the reactor feedstock and steam stream into the reactor where the reforming is carried out and wherein liquid water is introduced through the liquid spray quench nozzles as a means of controlling the temperature of the combined reactant feedstock and steam stream.
A method comprising: responsive to detection by a bus driver of a computing device that a device has been communicatively coupled to a bus of the computing device , obtaining a device identifier and, based on said device identifier, querying a database by the computing device to determine whether one or more flags have been set for the device ; responsive to a determination made as a result of the querying that the one or more flags have been set for the device identifier, communicating information associated with the one or more flags to the bus driver ; and configure the bus driver to support the device based on the flags, said flags including at least a definition that a particular power command is not to be given to the device by the bus driver . responsive to detection by a bus driver of a computing device that a device has been communicatively coupled to a bus of the computing device , obtaining a device identifier and, based on said device identifier, querying a database by the computing device to determine whether one or more flags have been set for the device ; responsive to a determination made as a result of the querying that the one or more flags have been set for the device identifier, communicating information associated with the one or more flags to the bus driver ; and configure the bus driver to support the device based on the flags, said flags including at least a definition that a particular power command is not to be given to the device by the bus driver .
A process of oxidizing an ethoxylated alcohol of formula (II) for the production of its corresponding carbonyl compounds R 1 (OCH 2 CHR 2 ) n OCH 2 CH 2 OH (II) wherein : R 1 represents an alkyl radical having 1 to 22 carbon atoms or a monounsaturated or polyunsaturated linear or branched alkenyl radical having 2 to 22 carbon atoms, optionally comprising at least a substituent and/or a heteroatom; R 2 represents a hydrogen atom or a methyl group or a mixture thereof in the individual molecule; and n has an average number between 2 and 20, wherein the oxidation is performed with oxygen or gases containing oxygen, in the presence of a catalyst comprising at least a gold compound and a copper compound.
A system for controlling a dental or medical treatment apparatus , comprising: (a) a footswitch device containing a first switch and second switch and having a foot-depressable member, the member being depressed to a first position for activating the first switch and the member being depressed to a second position for activating the second switch, the device further including a communication element for transmitting a first operational signal in a hardwired manner in response to the member being depressed to the first position and a second operational signal in a hard-wired manner in response to the member being depressed to the second position; and (b) a dental or medical treatment apparatus including a communication element for receiving the first and second operational signals from the footswitch, the first signal causing the apparatus to operate in a first mode and the second signal causing the apparatus to operate in a second mode, characterized in that the footswitch is adapted to transmit operational signals in a wireless manner to the dental or medical treatment apparatus , until the apparatus transmits a REQUEST SLEEP signal to the footswitch and the footswitch responds by entering a sleep mode, the wireless operational signals being ignored by the apparatus . (a) a footswitch device containing a first switch and second switch and having a foot-depressable member, the member being depressed to a first position for activating the first switch and the member being depressed to a second position for activating the second switch, the device further including a communication element for transmitting a first operational signal in a hardwired manner in response to the member being depressed to the first position and a second operational signal in a hard-wired manner in response to the member being depressed to the second position; and (b) a dental or medical treatment apparatus including a communication element for receiving the first and second operational signals from the footswitch, the first signal causing the apparatus to operate in a first mode and the second signal causing the apparatus to operate in a second mode,
Land maintenance system, in particular for turfgrasses or gardens or agricultural land, said system comprising: - at least one docking station, - at least one mobile device comprising at least one payload and configured to carry out maintenance operations within a working area , said mobile device being electrically powered, in particular when in operation, by at least one rechargeable on-board battery, said on-board battery being configured to be recharged by said docking station, - at least one control unit operatively connected to said mobile device , said control unit being configured for: · receiving or setting at least one charging time slot; · enabling, in particular carrying out by means of said docking station, a recharging operation of the on-board battery of the mobile device at said at least one charging time slot; characterized by the fact that the control unit is configured to set a start time of the charging operation as a function of a default or estimated time duration required for a full recharge, in such a way that said recharging operation takes place entirely or at least predominantly within the at least one charging time slot. - at least one docking station, - at least one mobile device comprising at least one payload and configured to carry out maintenance operations within a working area , said mobile device being electrically powered, in particular when in operation, by at least one rechargeable on-board battery, said on-board battery being configured to be recharged by said docking station, - at least one control unit operatively connected to said mobile device , said control unit being configured for: · receiving or setting at least one charging time slot; · enabling, in particular carrying out by means of said docking station, a recharging operation of the on-board battery of the mobile device at said at least one charging time slot; · receiving or setting at least one charging time slot; · enabling, in particular carrying out by means of said docking station, a recharging operation of the on-board battery of the mobile device at said at least one charging time slot;
A liquefied hydrogen carrier comprising: a hull ; a tank installed in the hull , the tank including a tank body and a thermal insulation layer , the tank body storing liquefied hydrogen, the thermal insulation layer encompassing the tank body ; a tank cover forming a holding space together with the hull , the holding space accommodating the tank ; nitrogen supplying equipment that supplies nitrogen into the holding space ; seawater supplying equipment that supplies seawater into the holding space ; a thermometer that measures a temperature of a surface of the thermal insulation layer or a temperature inside the thermal insulation layer , or a temperature of a part of the hull , the part of the hull being positioned below the tank ; and a controller that controls the seawater supplying equipment such that a seawater layer is formed on a bottom of the holding space when the temperature measured by the thermometer has become lower than a setting value. a hull ; a tank installed in the hull , the tank including a tank body and a thermal insulation layer , the tank body storing liquefied hydrogen, the thermal insulation layer encompassing the tank body ; a tank cover forming a holding space together with the hull , the holding space accommodating the tank ; nitrogen supplying equipment that supplies nitrogen into the holding space ; seawater supplying equipment that supplies seawater into the holding space ; a thermometer that measures a temperature of a surface of the thermal insulation layer or a temperature inside the thermal insulation layer , or a temperature of a part of the hull , the part of the hull being positioned below the tank ; and a controller that controls the seawater supplying equipment such that a seawater layer is formed on a bottom of the holding space when the temperature measured by the thermometer has become lower than a setting value.
A method of assigning a spectrum and selecting a route for a connection between a source node and a destination node within an optical network , wherein a plurality of optical links (401-406) connect the source node with the destination node , the method comprising: determining a spectrum demand for the connection; for each optical link (401-406), identifying , by a Path Computation Element, one or more potential spectrum allocations, for the connection, that satisfy the spectrum demand, wherein each of the one or more potential spectrum allocations has a width of the spectrum demand and starts with either a starting frequency (T START ) or an end of a previously allocated spectrum; for each potential spectrum allocation, determining , by the Path Computation Element, a corresponding set of available optical links to obtain a residual graph that represents a residual capacity on each of the set of available optical links; generating , based on at least one residual graph, an auxiliary graph for identifying one or more feasible routes that connect the source node and the destination node , wherein the auxiliary graph comprises one or more layers, each layer corresponding to a respective residual graph; and selecting the route for the connection between the source node and the destination node , from the one or more feasible routes, based on the auxiliary graph. determining a spectrum demand for the connection; for each optical link (401-406), identifying , by a Path Computation Element, one or more potential spectrum allocations, for the connection, that satisfy the spectrum demand, wherein each of the one or more potential spectrum allocations has a width of the spectrum demand and starts with either a starting frequency (T START ) or an end of a previously allocated spectrum; for each potential spectrum allocation, determining , by the Path Computation Element, a corresponding set of available optical links to obtain a residual graph that represents a residual capacity on each of the set of available optical links; generating , based on at least one residual graph, an auxiliary graph for identifying one or more feasible routes that connect the source node and the destination node , wherein the auxiliary graph comprises one or more layers, each layer corresponding to a respective residual graph; and selecting the route for the connection between the source node and the destination node , from the one or more feasible routes, based on the auxiliary graph.
Carrier sheet for multiple information media that can be fastened to the top of the carrier sheet , which media can be marked by means of a marking device, in particular a marking laser, characterized in that the carrier sheet has multiple fields , which in each case are used in the positioning of an information medium on the top of the carrier sheet , whereby the individual fields can be separated from the rest of the carrier sheet .
Method for producing a component made of fibre composite material having a first region with a relatively thin material thickness and a second region with a relatively thick material thickness, comprising the steps of: a) forming the component using heat, b) cooling the component , and c) measuring a deformation of the component and/or a mechanical stress on the component and locally influencing the temperature in the interior of the second region , in dependence on the deformation of the component and/or the mechanical stress on the component , during the cooling by locally heating a first sub-region of the second region , said first sub-region being closer to a surface than a second sub-region of the second region , wherein step a) comprises the embedding of a heating element in the first sub-region of the second region , said first sub-region being closer to a surface than a second sub-region of the second region . a) forming the component using heat, b) cooling the component , and c) measuring a deformation of the component and/or a mechanical stress on the component and locally influencing the temperature in the interior of the second region , in dependence on the deformation of the component and/or the mechanical stress on the component , during the cooling by locally heating a first sub-region of the second region , said first sub-region being closer to a surface than a second sub-region of the second region , wherein step a) comprises the embedding of a heating element in the first sub-region of the second region , said first sub-region being closer to a surface than a second sub-region of the second region .
An assembly (28; 34) for an aircraft propulsion system , comprising a drain mast configured with an elongated cross-sectional geometry when viewed in a reference plane, the elongated cross-sectional geometry having a major axis and a minor axis , and the drain mast extending along the major axis between a first major axis side and a second major axis side , characterised in that the assembly (28; 34) further comprises: a first seal wedge abutted against an exterior surface of the drain mast at the first major axis side , the first seal wedge comprising a first wedge-shaped cross-sectional geometry when viewed in the reference plane; and a second seal wedge abutted against the exterior surface of the drain mast at the second major axis side , the second seal wedge comprising a second wedge-shaped cross-sectional geometry when viewed in the reference plane. a drain mast configured with an elongated cross-sectional geometry when viewed in a reference plane, the elongated cross-sectional geometry having a major axis and a minor axis , and the drain mast extending along the major axis between a first major axis side and a second major axis side , characterised in that the assembly (28; 34) further comprises: a first seal wedge abutted against an exterior surface of the drain mast at the first major axis side , the first seal wedge comprising a first wedge-shaped cross-sectional geometry when viewed in the reference plane; and a second seal wedge abutted against the exterior surface of the drain mast at the second major axis side , the second seal wedge comprising a second wedge-shaped cross-sectional geometry when viewed in the reference plane. a first seal wedge abutted against an exterior surface of the drain mast at the first major axis side , the first seal wedge comprising a first wedge-shaped cross-sectional geometry when viewed in the reference plane; and a second seal wedge abutted against the exterior surface of the drain mast at the second major axis side , the second seal wedge comprising a second wedge-shaped cross-sectional geometry when viewed in the reference plane.
A method for facilitating signal transmissions spanning licensed and unlicensed bands, the method comprising: identifying, by a scheduler , a traffic flow being transported over a unified air interface which refers to an air interface sharing a common physical and medium access control connection, wherein the traffic flow is transported over portions of both a primary band licensed for cellular communication and a complementary band reserved for unlicensed communication; and prompting, by the scheduler , a transmit point to dynamically vary rates in which the traffic flow is transmitted over respective portions of the primary band and the complementary band by allocating additional scheduled resources of the primary band to the traffic flow when an effective transmission rate over the complementary band falls below a lower threshold, and by allocating fewer scheduled resources of the primary band to the traffic flow when a transmission rate over the complementary band exceeds an upper threshold, such that an overall quality of service, QoS, requirement of the traffic flow over the unified air interface is satisfied. identifying, by a scheduler , a traffic flow being transported over a unified air interface which refers to an air interface sharing a common physical and medium access control connection, wherein the traffic flow is transported over portions of both a primary band licensed for cellular communication and a complementary band reserved for unlicensed communication; and prompting, by the scheduler , a transmit point to dynamically vary rates in which the traffic flow is transmitted over respective portions of the primary band and the complementary band by allocating additional scheduled resources of the primary band to the traffic flow when an effective transmission rate over the complementary band falls below a lower threshold, and by allocating fewer scheduled resources of the primary band to the traffic flow when a transmission rate over the complementary band exceeds an upper threshold, such that an overall quality of service, QoS, requirement of the traffic flow over the unified air interface is satisfied.
A shock-proof mechanical magnetic lock, comprising: an iron plate located on one side of the magnetic lock, a pull plug vertically protruding from the iron plate , a magnet located on the other side of the magnetic lock, a sleeve located inside the magnet and having a top opening for inserting the pull plug , and a stop ring sleeved outside the sleeve ; the pull plug has a flange in the end, a mechanism is provided on the sleeve and the stop ring , and the components of the mechanism cooperate with each other to adjust the aperture of internal cavity of the sleeve ; the stop ring is fixed to the magnet ; the bottom of sleeve is mounted to a substrate by means of a bottom connecting piece , the substrate is positioned below the magnet ; the magnet and the stop ring can axially move relative to the sleeve , characterized in that a spring is arranged between the sleeve and the stop ring .
A piezoelectric transducer comprising - a piezoelectric foil with a piezoelectric material (M) exhibiting a shear piezoelectric effect ( d 14 ), wherein the piezoelectric material (M) is polarized (P) in a polarization direction in plane (A) with the foil to generate an electric field (E) in a field direction normal to the plane (A) of the foil between a top surface (At) and a bottom surface (Ab) of the foil when the foil is sheared in plane (A) of the foil in a shearing direction about the field direction ; and - an actuating structure configured to actuate the foil with actuation forces (Fu,Fd) applied at respective actuation points (Au,Ad) in respective actuation directions (U,D) to bend the foil , characterised in that the actuating structure is configured to actuate the foil according to a saddle shape deformation, wherein the foil is bent in two opposing bending directions (S1,S2), wherein the two bending directions (S1,S2) are orthogonal to each other and both diagonal to the polarization direction . - a piezoelectric foil with a piezoelectric material (M) exhibiting a shear piezoelectric effect ( d 14 ), wherein the piezoelectric material (M) is polarized (P) in a polarization direction in plane (A) with the foil to generate an electric field (E) in a field direction normal to the plane (A) of the foil between a top surface (At) and a bottom surface (Ab) of the foil when the foil is sheared in plane (A) of the foil in a shearing direction about the field direction ; and - an actuating structure configured to actuate the foil with actuation forces (Fu,Fd) applied at respective actuation points (Au,Ad) in respective actuation directions (U,D) to bend the foil ,