mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a combustion device comprising the steps of: producing a gaseous fuel stream that is resistant to autoignition by mixing a vaporized liquid fuel with an inert gas stream that prevents or substantially delays reaction of the fuel prior to a combustion zone of a combustion device, or vaporizing a liquid fuel using an inert gas stream that prevents or substantially delays reaction of the fuel prior to a combustion zone of a combustion device; premixing the gaseous fuel stream with an oxygenated gas to produce a gas mixture at a location upstream of the combustion zone of the combustion device ; and combusting the gas mixture in the combustion zone of the combustion device , whereby auto-ignition of the gaseous fuel stream or of the gas mixture upstream of the combustion zone is substantially suppressed; wherein at least one of: the combustion device is configured to combust natural gas in a lean, premixed mode; and the combustion device includes a fuel metering system configured for natural gas; and characterized in that : an equivalence ratio of the gas mixture is less than a minimum equivalence ratio at which methane could be combusted under equivalent operating condition. producing a gaseous fuel stream that is resistant to autoignition by mixing a vaporized liquid fuel with an inert gas stream that prevents or substantially delays reaction of the fuel prior to a combustion zone of a combustion device, or vaporizing a liquid fuel using an inert gas stream that prevents or substantially delays reaction of the fuel prior to a combustion zone of a combustion device; premixing the gaseous fuel stream with an oxygenated gas to produce a gas mixture at a location upstream of the combustion zone of the combustion device ; and combusting the gas mixture in the combustion zone of the combustion device , whereby auto-ignition of the gaseous fuel stream or of the gas mixture upstream of the combustion zone is substantially suppressed; wherein at least one of: the combustion device is configured to combust natural gas in a lean, premixed mode; and the combustion device includes a fuel metering system configured for natural gas; and the combustion device is configured to combust natural gas in a lean, premixed mode; and the combustion device includes a fuel metering system configured for natural gas; and characterized in that : an equivalence ratio of the gas mixture is less than a minimum equivalence ratio at which methane could be combusted under equivalent operating condition.
Use of a composition comprising the combination of two active compounds consisting in the mixture of 1-Isothiocyanato-8-(methylsulfonyl)-octane and 1-Isothiocyanato-8-(methylsulfinyl)-octane and characterized in that 1-Isothiocyanato-8-(methylsulfonyl)-octane represents between 0.5-7% in concentration of said combination of said two active compounds, in the prevention or treatment of fungal pathogens in plants.
A shaving system comprising: a shaver including a shaver head; one or more sensors configured to detect a flow or sound of water or an orientation of the shaver; and a processor configured to determine a duration and/or water usage during a shaving session and/or a rinsing session, wherein the processor includes an algorithm configured to collect data from the one or more sensors and provide accuracy metrics of water usage and provide relevant advice to a user. a shaver including a shaver head; one or more sensors configured to detect a flow or sound of water or an orientation of the shaver; and a processor configured to determine a duration and/or water usage during a shaving session and/or a rinsing session, wherein the processor includes an algorithm configured to collect data from the one or more sensors and provide accuracy metrics of water usage and provide relevant advice to a user.
A method for a device to manage a data flow (608; 618) in a wireless communication system, comprising: obtaining a time period for which the data flow (608; 618) has been inactive, characterized in that the data flow (608; 618) is defined by a Quality of Service, QoS, requirement of data associated with the data flow (608; 618); and determining , based on the time period, to release a mapping between the data flow (608; 618) and a radio bearer . obtaining a time period for which the data flow (608; 618) has been inactive, characterized in that the data flow (608; 618) is defined by a Quality of Service, QoS, requirement of data associated with the data flow (608; 618); and determining , based on the time period, to release a mapping between the data flow (608; 618) and a radio bearer .
A fluidic system for transporting a medium which is a liquid of biological origin selected from blood, saliva, and urine, said system comprising: - a first channel ; - a second channel ; - a flexible element having an inner surface ; - an opposing element to the flexible element; - a fluidic capillary stop that connects said first channel and second channel; wherein the flexible element is arranged such that a determined mechanical pressure (F) applied on an outer surface of the flexible element leads to a local deformation of the inner surface reducing a distance (Δ) between said inner surface and the opposing element in such a way that a flow of the medium across the fluidic capillary stop is enabled, characterized in that the first channel, the second channel, and/or the fluidic capillary stop comprise a filter element for filtering the medium that is transported, and the inner surface of the flexible element comprises a protrusion , wherein said protrusion allows for the transport of the medium by capillary forces. - a first channel ; - a second channel ; - a flexible element having an inner surface ; - an opposing element to the flexible element; - a fluidic capillary stop that connects said first channel and second channel;
A method of controlling an injection molding machine having a screw control configured to use cavity pressure as an input to determine how far to advance a screw, the method comprising: executing, by a controller, a calibration cycle in accordance with a mold cycle implemented by the injection molding machine; analyzing, by the controller, a plurality of sensed melt pressure values during the calibration cycle to determine one or more calibration metrics; executing, by the controller, a run using the injection molding machine, wherein the run sequentially implements the mold cycle a plurality of times; and during each mold cycle of the run: detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure. executing, by a controller, a calibration cycle in accordance with a mold cycle implemented by the injection molding machine; analyzing, by the controller, a plurality of sensed melt pressure values during the calibration cycle to determine one or more calibration metrics; executing, by the controller, a run using the injection molding machine, wherein the run sequentially implements the mold cycle a plurality of times; and during each mold cycle of the run: detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure. detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure.
Steering column for a motor vehicle, comprising a guide box , in which a steering spindle is mounted rotatably about a longitudinal axis (L) and which is held adjustably by a support unit connectable to the body of a motor vehicle, with a pivot bearing , in which the guide box is mounted pivotably in a front region about a pivot axis (S) lying horizontally transversely to the longitudinal axis (L), and an adjusting lever , which is mounted in a first lever bearing in a rear region of the guide box and in a second lever bearing on the support unit , wherein the pivot bearing is mounted so as to be displaceable transversely to the pivot axis (S) in a displacement plane parallel to the longitudinal axis (L) characterized in in that the pivot bearing has a bearing element which is guided displaceably relative to the support unit , and in which a bearing pin of the pivot bearing is rotatably mounted, wherein the bearing pin passing through the bearing element is fixed in translation relative to the guide box .
Overall method for the treatment of biological waste, which comprises an aqueous liquid phase in which at least urea and ammonium compounds and inorganically and organically bound phosphates are dissolved and/or contained in particulate form, preferably liquid manure, liquid manure and fermentation residues from biogas plants, comprising the following Process steps: Stage (a): Introducing carbon dioxide gas [CO 2 ] under increased pressure or supercritical carbon dioxide into the liquid phase in order to dissolve particulate-bound phosphates; Step (b): Reducing the CO 2 content in the liquid phase by acidifying the liquid phase and driving off dissolved CO 2 and/or CO 2 bound as carbonate; Stage (c): Alkalizing the liquid phase with the release of ammonia [NH3], preferably using CaO or Ca(OH) 2 (lime milk), optionally mixed with NaOH, and expelling the ammonia [NH 3 ] with heating and/or by applying a negative pressure and/or with the aid of an air or steam stream (ammonia stripping); Stage (d): Precipitating and separating of calcium phosphate from the liquid phase, preferably as tricalcium phosphate [Ca 3 (PO 4 ) 2 ] or hydroxyapatite [Ca 5 (PO 4 ) 3 (OH)]; Stage (e): Reacting the ammonia [NH 3 ] obtained in stage (c) with phosphoric acid [H 3 PO 4 ] to obtain ammonium phosphate compound, preferably diammonium hydrogen phosphate [(NH 4 ) 2 HPO 4 ] (fertilizer), and separating the obtained ammonium phosphate compound; Stage (f): i) Using or providing the calcium phosphate obtained in stage (d) for use as a plant nutrient (fertilizer) and/or ii) Reacting the calcium phosphate obtained in step (d) with sulfuric acid [H 2 SO 4 ] to obtain calcium sulfate (gypsum) and phosphoric acid [H 3 PO 4 ] and separating the calcium sulfate from the liquid phase and/or iii) Mixing the calcium phosphate obtained in step (d) with the ash of incinerated biological waste and/or sewage sludge ash and reacting the mixture with phosphoric acid [H3PO4], nitric acid [HNO 3 ] or a mineral acid mixture of the two acids to obtain phosphoric acid [H 3 PO 4 ].
A lubricating composition comprising a major amount of an oil of lubricating viscosity and 0.01 to 25 percent by mass, based on the mass of the composition of an oil-soluble copolymer comprising units (a) and units (b): -N(COR 1 )CH 2 CH 2 - (a) -N(COR 2 )CH 2 CH 2 CH 2 - (b) wherein units (a) comprise from 10 to 90 mol% of the copolymer and units (b) comprise from 10 to 90 mol% of the copolymer; wherein the polymer carries an inorganic or organic nucleophilic polymerisation terminating group (t), and an initiator group (i) connected to the N atom of a repeat unit (a) or (b), the initiator group (i) being effective to initiate the polymerisation of linear, branched or cyclic hydrocarbyl moieties; wherein R 1 and R 2 are the same or different and are a single or a mixture of linear, branched or cyclic hydrocarbyl groups having 1-50 carbon atoms, some or all having 12-50 carbon atoms, or of at least one macro-monomeric hydrocarbyl group with more than 50 carbon atoms; and wherein the copolymer has a number average molecular weight (Mn) of 2,000-500,000 g/mol, as measured by Gel Permeation Chromatography with reference to linear narrow poly(methylmethacrylate) standards in the range of 550 to 600,000 g/mol.
A set of flow field plates for an electrochemical cell comprising, a first flow field plate having a first flow field defined mostly by a plurality of elongate ridges , and a second flow field plate having a second flow field defined mostly by a plurality of discontinuous lines of comparatively short ridges , and wherein, when the flow field plates are assembled into a cell, the first flow field faces the second flow field and the short ridges span between at least two successive elongate ridges . a first flow field plate having a first flow field defined mostly by a plurality of elongate ridges , and a second flow field plate having a second flow field defined mostly by a plurality of discontinuous lines of comparatively short ridges , and wherein, when the flow field plates are assembled into a cell, the first flow field faces the second flow field and the short ridges span between at least two successive elongate ridges .
A root canal treatment device, comprising a contra-angle hand-piece and a root canal file detachably connected to the contra-angle hand-piece ; and further comprising a drive module in transmission connection with the root canal file , wherein the drive module comprises a rotation driver and a vibration generator , the rotation driver is configured to drive the root canal file to rotate axially, and the vibration generator is configured to drive the root canal file to vibrate radially; wherein, the canal treatment device further comprising a handle connected to the contra-angle hand-piece , wherein the rotation driver is provided in the handle and the rotation driver drives the root canal file to rotate through the contra-angle hand-piece , characterized in that , the vibration generator is provided on the handle , and a vibration end of the vibration generator acts on the root canal file . a contra-angle hand-piece and a root canal file detachably connected to the contra-angle hand-piece ; and further comprising a drive module in transmission connection with the root canal file , wherein the drive module comprises a rotation driver and a vibration generator , the rotation driver is configured to drive the root canal file to rotate axially, and the vibration generator is configured to drive the root canal file to vibrate radially; wherein, the canal treatment device further comprising a handle connected to the contra-angle hand-piece , wherein the rotation driver is provided in the handle and the rotation driver drives the root canal file to rotate through the contra-angle hand-piece , characterized in that , the vibration generator is provided on the handle , and a vibration end of the vibration generator acts on the root canal file .
Method for thermally treating at least one electrode film (111a; 111b) on a metal current collector , characterized by the following steps a. the current collector is inductively heated and b. an electrode film which is part of a cell comprising at least one positive electrode and at least one negative electrode is chosen as the at least one electrode film to be thermally treated. a. the current collector is inductively heated and b. an electrode film which is part of a cell comprising at least one positive electrode and at least one negative electrode is chosen as the at least one electrode film to be thermally treated.
A composition for use in preventing or improving a periodontal disease, comprising a moringa extract and a eucommia bark extract as active ingredients, wherein a weight ratio of the moringa extract and the eucommia bark extract is 2:1 to 4:1 (moringa extract: eucommia bark extract).
A cryogenic storage system for receiving, storing and dispensing samples comprising a thermally insulated cryogenic space with sample carriers arranged therein for receiving the samples and a sealable first access in an upper ceiling portion of the cryogenic space through which the cryogenic space communicates with a thermally insulated intermediate storage disposed above the cryogenic space; means for transporting at least one sample carrier between the cryogenic space and the intermediate storage; with a working space laterally adjoining the intermediate storage, in which means are arranged for transporting, in at least one horizontal direction, elements of a sample carrier located in the intermediate storage, which elements can be individually removed from the sample carrier and inserted into the sample carrier again, into the working space, and in which a lock for transporting samples between a sample transport vessel and the working space is provided, wherein - a sample carrier receptacle for receiving a plurality of sample carriers is present in the cryogenic space ; - the sample carrier receptacle is movably mounted and connected to a controlled drive so that the individual sample carriers can be advanced to the first access (1.1) of the cryogenic space ; - the intermediate storage and the working space are thermally insulated from one another; - the intermediate storage and the working space are connected to one another via a closable second access (2.1); - the floor of the working space is accessible at least over a region from below and from outside the cryogenic space , and in the floor of the working space there is a closable third access (3.1) having a sealing element and a locking device for releasably locking a sample vessel in such a way that the sample vessel can be locked in a gas-tight manner at the third access (3.1) of the working space and samples can be transported between a locked sample vessel and the working space . - a sample carrier receptacle for receiving a plurality of sample carriers is present in the cryogenic space ; - the sample carrier receptacle is movably mounted and connected to a controlled drive so that the individual sample carriers can be advanced to the first access (1.1) of the cryogenic space ; - the intermediate storage and the working space are thermally insulated from one another; - the intermediate storage and the working space are connected to one another via a closable second access (2.1); - the floor of the working space is accessible at least over a region from below and from outside the cryogenic space , and in the floor of the working space there is a closable third access (3.1) having a sealing element and a locking device for releasably locking a sample vessel in such a way that the sample vessel can be locked in a gas-tight manner at the third access (3.1) of the working space and samples can be transported between a locked sample vessel and the working space .
A method of wireless communications by a user equipment LTE, comprising: obtaining , via a physical broadcast channel, PBCH, a signal comprising configuration information for a plurality of windows for transmission of one or more system information, SI, grant transmissions, wherein: each SI grant transmission of the one or more SI grant transmissions corresponds to a different synchronization signal, SS, block of a plurality of SS blocks; each different SS block of the plurality of SS blocks corresponds to a different window of the plurality of windows; and the one or more SI grant transmissions comprise remaining minimum system information, RMSI, block grant transmissions; and monitoring for one or more SI grant transmissions within one or more of the plurality of windows in accordance with the configuration information. each SI grant transmission of the one or more SI grant transmissions corresponds to a different synchronization signal, SS, block of a plurality of SS blocks; each different SS block of the plurality of SS blocks corresponds to a different window of the plurality of windows; and the one or more SI grant transmissions comprise remaining minimum system information, RMSI, block grant transmissions; and
A shovel comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab installed on the upper turning body ; a display device installed in the cab ; and a plurality of image capturing devices attached to the upper turning body , characterised in that the display device is configured to simultaneously display a left mirror image (CLM) and a right mirror image (CRM) generated based on an image captured by at least one of the plurality of image capturing devices , the left mirror image (CLM) is a virtual viewpoint image corresponding to a mirror image in a left mirror attached to a left front end of the shovel to face rearward, and the right mirror image (CRM) is a virtual viewpoint image corresponding to a mirror image in a right mirror attached to a right front end of the shovel to face rearward. a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab installed on the upper turning body ; a display device installed in the cab ; and a plurality of image capturing devices attached to the upper turning body , characterised in that the display device is configured to simultaneously display a left mirror image (CLM) and a right mirror image (CRM) generated based on an image captured by at least one of the plurality of image capturing devices , the left mirror image (CLM) is a virtual viewpoint image corresponding to a mirror image in a left mirror attached to a left front end of the shovel to face rearward, and the right mirror image (CRM) is a virtual viewpoint image corresponding to a mirror image in a right mirror attached to a right front end of the shovel to face rearward.
Control system for the actuation of ventilation and/or air extraction devices, containing a control unit, which as a mobile room control unit can be connected to the ventilation and/or air extraction devices, and further sensors for detecting the room air quality, wherein the control system contains sensors which are suitable for being located in the room, wherein, in the room, in particular at places in which persons are present, the further sensors can be assigned to the control unit, characterized in that , the control unit is a repeater for data transfer protocols, which can be integrated into an existing wireless data architecture, and can detect the number of the mobile network devices in its immediate vicinity.