mhurhangee/patent-ind-claim-en huggingface dataset:
A domestic extracting machine that is designed to extract herbs contained inside a capsule , comprising: a capsule-compartment that is designed to receive the capsule, a condensation-compartment , an air blower , a heating mechanism , a stirring mechanism , a stirring activator , and a control mechanism ; wherein said capsule-compartment includes a hot-air hole through which hot air can flow from the air blower into the capsule-compartment and into the capsule through perforations in the capsule, wherein the capsule-compartment also includes an outlet-opening through which vapors can flow from the capsule into the condensation-compartment ; wherein the stirring activator is designed to rotate the stirring mechanism that in turns can rotate a stirring arm that is positioned inside the capsule and by that to whirl the herbs inside the capsule ; wherein the air blower is designed to blow air that can be heated by the heating mechanism, wherein the hot air can flow through the capsule and heat and vaporize the herbs wherein the vapors include active ingredients that can flow into the condensation-compartment ; wherein the condensation-compartment includes condensation mechanism that is designed to thicken the vapors and turn them into a liquid state such as drops or wax; wherein said control mechanism is designed to control the operation of the domestic extracting machine and its components; and wherein the condensation-compartment further includes a drainage and sweeper mechanisms that is designed to collect and drainage dirt from the vapors, and further includes an air filter for filtering the air that flows outside through air outlet opening . wherein said capsule-compartment includes a hot-air hole through which hot air can flow from the air blower into the capsule-compartment and into the capsule through perforations in the capsule, wherein the capsule-compartment also includes an outlet-opening through which vapors can flow from the capsule into the condensation-compartment ; wherein the stirring activator is designed to rotate the stirring mechanism that in turns can rotate a stirring arm that is positioned inside the capsule and by that to whirl the herbs inside the capsule ; wherein the air blower is designed to blow air that can be heated by the heating mechanism, wherein the hot air can flow through the capsule and heat and vaporize the herbs wherein the vapors include active ingredients that can flow into the condensation-compartment ; wherein the condensation-compartment includes condensation mechanism that is designed to thicken the vapors and turn them into a liquid state such as drops or wax; wherein said control mechanism is designed to control the operation of the domestic extracting machine and its components; and wherein the condensation-compartment further includes a drainage and sweeper mechanisms that is designed to collect and drainage dirt from the vapors, and further includes an air filter for filtering the air that flows outside through air outlet opening .
A method for recycling a mixture of textiles comprising natural cellulose fibers and man-made cellulose fibers, said method comprising the sequential steps: a. providing at least one textile material, wherein the at least one textile material comprises natural cellulose fibers and man-made cellulose fibers, b.mechanically disintegrating the material, c. treating the material to swell the cellulose fibers in an aqueous solution during a time in the interval 5 minutes to 24 hours, preferably 20 minutes to 120 minutes, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH is in the range 8-14, wherein the temperature is above 0 °C, d. performing at least one oxidative bleach, wherein the time for the at least one oxidative bleach in step d) and a concentration of at least one bleaching substance in step d) are adjusted so that the limiting viscosity number as determined by ISO 5351:2010 for the resulting material after step d) is reduced to a value in the interval 200-1200 ml/g. a. providing at least one textile material, wherein the at least one textile material comprises natural cellulose fibers and man-made cellulose fibers, b.mechanically disintegrating the material, c. treating the material to swell the cellulose fibers in an aqueous solution during a time in the interval 5 minutes to 24 hours, preferably 20 minutes to 120 minutes, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH is in the range 8-14, wherein the temperature is above 0 °C, d. performing at least one oxidative bleach,
Apparatus for the driven movement of an actuating mechanism of an opening and/or closing apparatus for opening and/or closing a furniture part accommodated in a movable manner on a basic furniture part, comprising a drive unit , which can drive the actuating mechanism via a gearing arrangement with a plurality of gearing members (6 - 10), and the actuating mechanism can be arranged on one of the furniture parts and can be brought temporarily into contact with the other furniture parts during opening and/or closing, wherein the contact between the actuating mechanism and the other furniture part is broken during an opening operation, wherein the gearing arrangement comprises a traction-means device , characterized in that the actuating mechanism is designed in the form of a pushing-out lever, which can be pivoted about a pivot axis, and, in order for the pushing-out lever to be pivoted out for a pushing-out operation of the furniture part, the traction-means device has a belt-drive device with a drive belt and/or a chain-drive device with a chain drive for transmitting rotary movement between two rotatable gearing members (6, 7; 7, 8).
A composite laminate, comprising: a first metal layer containing copper; a second metal layer arranged on a lower surface of the first metal layer; a third metal layer that is arranged on a lower surface of the second metal layer, and contains silver, at least one metal selected from a first group made up of Sn, Al, and Ga, and at least one metal selected from a second group made up of In and Sb; and a fourth layer arranged on a lower surface of the third metal layer; wherein the third metal layer contains a metal portion that partially penetrates the second metal layer, wherein the first metal layer is jointed to the fourth layer by a brazing material that constitutes the third metal layer and contains from 30 to 70 mass % of Ag, from 1 to 5 mass % of Ti, from 20 to 40 mass % of at least one metal selected from the first group, and from 1 to 40 mass % of at least one metal selected from the second group, wherein the fourth layer is a metal layer with a lower coefficient of thermal expansion than that of the first metal layer, and wherein the composite laminate further comprises a fifth layer that is a ceramic substrate, wherein the fourth layer is jointed to the fifth layer. a first metal layer containing copper; a second metal layer arranged on a lower surface of the first metal layer; a third metal layer that is arranged on a lower surface of the second metal layer, and contains silver, at least one metal selected from a first group made up of Sn, Al, and Ga, and at least one metal selected from a second group made up of In and Sb; and a fourth layer arranged on a lower surface of the third metal layer; wherein the third metal layer contains a metal portion that partially penetrates the second metal layer, wherein the first metal layer is jointed to the fourth layer by a brazing material that constitutes the third metal layer and contains from 30 to 70 mass % of Ag, from 1 to 5 mass % of Ti, from 20 to 40 mass % of at least one metal selected from the first group, and from 1 to 40 mass % of at least one metal selected from the second group, wherein the fourth layer is a metal layer with a lower coefficient of thermal expansion than that of the first metal layer, and wherein the composite laminate further comprises a fifth layer that is a ceramic substrate, wherein the fourth layer is jointed to the fifth layer.
Manufacturing apparatus for a cosmetic composition, comprising a mixing machine comprising a receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location , configured to receive a second deformable capsule , the first and second capsules being intended to be fluidly connected to one another and containing respectively a first formulation and a second formulation, the mixing machine comprising at least one electrically powered actuation system configured to transmit a pressure force to the first and second capsules in order to move the contents of the first capsule into the second capsule , and vice versa, the mixing machine comprising an electric heating element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , the mixing machine being configured to implement a preparation phase prior to contact between the two formulations, wherein the actuation system and the heating element are alternately supplied with electricity. the mixing machine comprising at least one electrically powered actuation system configured to transmit a pressure force to the first and second capsules in order to move the contents of the first capsule into the second capsule , and vice versa, the mixing machine comprising an electric heating element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , the mixing machine being configured to implement a preparation phase prior to contact between the two formulations, wherein the actuation system and the heating element are alternately supplied with electricity.
A method for processing particular foam material for producing a particular foam part, comprising: - generating a first process fluid flow (P1) passing through two tool elements (2.1, 2.2), wherein the first process fluid flow (P1) flows through at least one opening (2.1.3) of a first tool element (2.1) into the mold tool cavity (2.3) and flows out of the mold tool cavity (2.3) via at least one opening (2.2.3) of a second tool element (2.2); and - generating a second process fluid flow (P2), wherein the second process fluid flow (P2) flows into the second tool element (2.2) via at least one opening (2.2.1) of the second tool element (2.2) and flows out of the second tool element (2.2) via at least one opening (2.2.2) of the second tool element (2.2), wherein the first and the second process fluid flow (P1, P2) differ in at least one flow parameter affecting the flow properties, characterized in that the first and second process fluid flows (P1, P2) simultaneously through the mold cavity (2.3). - generating a first process fluid flow (P1) passing through two tool elements (2.1, 2.2), wherein the first process fluid flow (P1) flows through at least one opening (2.1.3) of a first tool element (2.1) into the mold tool cavity (2.3) and flows out of the mold tool cavity (2.3) via at least one opening (2.2.3) of a second tool element (2.2); and - generating a second process fluid flow (P2), wherein the second process fluid flow (P2) flows into the second tool element (2.2) via at least one opening (2.2.1) of the second tool element (2.2) and flows out of the second tool element (2.2) via at least one opening (2.2.2) of the second tool element (2.2), wherein the first and the second process fluid flow (P1, P2) differ in at least one flow parameter affecting the flow properties, characterized in that the first and second process fluid flows (P1, P2) simultaneously through the mold cavity (2.3).
Motorizing system for powering a wheel associated with a suspension of an aircraft so that the latter can be moved around on the ground, comprising a motor unit , a drive member capable to be secured to the wheel , and a clutch device connecting the output shaft of the motor unit to the drive member , characterized in that the motor unit comprises an electric motor and is capable to be carried by an un-sprung part of a suspension strut , and in that the transmission between the output shaft and the drive member is a positive transmission, the drive member is an ring gear capable to be carried by the rim of the wheel and designed to enter into mesh with the output gear of the motor unit when the latter is in its engaged position, characterized in that the motor unit is capable to be carried by an axle crossmember of the wheel , and in that the clutch device is configured in such a way that the motor unit is mounted to pivot with respect to the axle crossmember about a horizontal pivot axis , and in that the output gear is connected to the motor unit by a constant-velocity joint.
Process for the treatment of an industrial effluent loaded with calcium for the purpose of removing all or part of the calcium therefrom, comprising the implementation of the following measures: - the effluent to be treated is led into a zone equipped with a settler ; - a part of the effluent is diverted into a diversion line, part withdrawn at the settler outlet, part of between 3% and 25% of the flow exiting from the settler, preferably between 5% and 10% of the flow exiting from the settler, part withdrawn downstream of a high-pressure pump , at a pressure of between 2 and 15 bar, preferably between 3 and 10 bar and more preferentially still between 8 and 10 bar; - at least one injection of gaseous CO 2 into the diverted stream is carried out, thus producing a reduction in the pH of the diverted stream within the range extending from 4 to 6.8, preferably within the range extending from 4.5 to 6; - the return of the diverted stream thus treated to the initial effluent, before its arrival in the settler, or to the settler proper is arranged. - the effluent to be treated is led into a zone equipped with a settler ; - a part of the effluent is diverted into a diversion line, part withdrawn at the settler outlet, part of between 3% and 25% of the flow exiting from the settler, preferably between 5% and 10% of the flow exiting from the settler, part withdrawn downstream of a high-pressure pump , at a pressure of between 2 and 15 bar, preferably between 3 and 10 bar and more preferentially still between 8 and 10 bar; - at least one injection of gaseous CO 2 into the diverted stream is carried out, thus producing a reduction in the pH of the diverted stream within the range extending from 4 to 6.8, preferably within the range extending from 4.5 to 6; - the return of the diverted stream thus treated to the initial effluent, before its arrival in the settler, or to the settler proper is arranged.
A computer-implemented method , comprising: implementing a feedback control scheme including controlling a separation efficiency for a high-pressure production trap by manipulating a demulsifier concentration, including: i) determining , as a function of temperature and based on correlations of historical process data, a minimum target separation efficiency and a maximum target separation efficiency; ii) identifying a target separation efficiency that is between the minimum target separation efficiency and the maximum target separation efficiency; and iii) adjusting a demulsifier dosage, used in calculating the separation efficiency, between a minimum demulsifier concentration and a maximum demulsifier concentration, the adjusting including: when the separation efficiency is below the target separation efficiency , adjusting, using a PID controller, the demulsifier dosage upward but not to exceed a maximum dosage concentration; and when the separation efficiency is above the target separation efficiency , adjusting, using the PID controller, the demulsifier dosage downward above a minimum dosage concentration. i) determining , as a function of temperature and based on correlations of historical process data, a minimum target separation efficiency and a maximum target separation efficiency; ii) identifying a target separation efficiency that is between the minimum target separation efficiency and the maximum target separation efficiency; and iii) adjusting a demulsifier dosage, used in calculating the separation efficiency, between a minimum demulsifier concentration and a maximum demulsifier concentration, the adjusting including: when the separation efficiency is below the target separation efficiency , adjusting, using a PID controller, the demulsifier dosage upward but not to exceed a maximum dosage concentration; and when the separation efficiency is above the target separation efficiency , adjusting, using the PID controller, the demulsifier dosage downward above a minimum dosage concentration. when the separation efficiency is below the target separation efficiency , adjusting, using a PID controller, the demulsifier dosage upward but not to exceed a maximum dosage concentration; and when the separation efficiency is above the target separation efficiency , adjusting, using the PID controller, the demulsifier dosage downward above a minimum dosage concentration.
A method for wireless communication performed by a user equipment, UE, comprising: performing an initial access procedure within an initial access bandwidth to obtain access to a cell; receiving , during the initial access procedure, a first cell specific configuration of a first control channel common search space within the initial access bandwidth and an indication of a downlink bandwidth part; receiving dedicated signaling associated with the downlink bandwidth part; monitoring at least one of the first control channel common search space, or a second control channel common search space within the downlink bandwidth part based at least in part on the dedicated signaling, or both, for control information; and wherein the first cell specific configuration or the dedicated signaling indicates that the first control channel common search space is accessible after the initial access procedure, and the dedicated signaling provides a second cell specific configuration of the second control channel common search space within the downlink bandwidth part. performing an initial access procedure within an initial access bandwidth to obtain access to a cell; receiving , during the initial access procedure, a first cell specific configuration of a first control channel common search space within the initial access bandwidth and an indication of a downlink bandwidth part; receiving dedicated signaling associated with the downlink bandwidth part; monitoring at least one of the first control channel common search space, or a second control channel common search space within the downlink bandwidth part based at least in part on the dedicated signaling, or both, for control information; and wherein the first cell specific configuration or the dedicated signaling indicates that the first control channel common search space is accessible after the initial access procedure, and the dedicated signaling provides a second cell specific configuration of the second control channel common search space within the downlink bandwidth part.
A resource determining method, comprises: detecting, by a User Equipment, UE, a Physical Downlink Control Channel, PDCCH; determining, by the UE, Physical Uplink Control Channel, PUCCH, resources required by the UE, during Radio Resource Control, RRC, reconfiguration based on detected PDCCH; wherein the PDCCH is detected in a Control Resource Set, CORESET, indicated by a network side; wherein the determining, by the UE, PUCCH resources required by the UE during RRC reconfiguration based on detected PDCCH, comprises: determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2. detecting, by a User Equipment, UE, a Physical Downlink Control Channel, PDCCH; determining, by the UE, Physical Uplink Control Channel, PUCCH, resources required by the UE, during Radio Resource Control, RRC, reconfiguration based on detected PDCCH; wherein the PDCCH is detected in a Control Resource Set, CORESET, indicated by a network side; wherein the determining, by the UE, PUCCH resources required by the UE during RRC reconfiguration based on detected PDCCH, comprises: determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2. determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2.
Combination of electric machine (ME) and cooling system of said electric machine (ME) comprising a stator (STA) and a rotor (ROT), said cooling system comprising: - a cooling circuit (OC) able to bring an oil-type cooling liquid into contact with active parts of said electric machine (ME), - a tank (OT) able to collect the cooling liquid that has cooled said active parts, - a pump (OP) able to reinject said cooling liquid upstream of said active parts, - and a heat exchanger (HE), combination in which said cooling circuit (OC) comprises a bypass branch (BD) able to deviate some of the cooling liquid circulating upstream of said active parts and to cause it to pass directly into the tank (OT) without passing through said active parts, said cooling system comprising means (MA) for opening and for closing said bypass branch (BD) as a function of a temperature threshold of the cooling liquid or a temperature threshold of the rotor and/or a temperature threshold of the stator, said opening and closing means (MA) being a solenoid valve controlled by an electronic control unit or a thermostat, able to allow cooling liquid to pass into said bypass branch (BD) as soon as the temperature of the cooling liquid becomes greater than said temperature threshold and able to prevent the cooling liquid from passing into said bypass branch as soon as the temperature is lower than said threshold, said threshold being between 30 and 50°C. - a cooling circuit (OC) able to bring an oil-type cooling liquid into contact with active parts of said electric machine (ME), - a tank (OT) able to collect the cooling liquid that has cooled said active parts, - a pump (OP) able to reinject said cooling liquid upstream of said active parts, - and a heat exchanger (HE),