mhurhangee/ep-ind-claims huggingface dataset:
A counter mountable fluid dispenser (20, 120) comprising: a below deck assembly including a reservoir (30, 130) for storing a fluid, a dispensing mechanism (40, 140) in fluid communication with the reservoir (30, 130), and a controller (50, 150) in circuit communication with the dispensing mechanism (40, 140) for operation of the dispensing mechanism (40, 140); and an above deck assembly including a spout (60, 160) defining an outlet port (63, 163) in fluid communication with the reservoir (30, 130) for dispensing fluid stored in the reservoir (30, 130) upon operation of the dispensing mechanism (40, 140), an external supply port (70, 170) in fluid communication with the reservoir (30, 130) by a supply passage (35, 135) to supply fluid to the reservoir (30, 130), an access door (72, 172) movable between a closed position blocking access to the external supply port (70, 170) and an open position permitting access to the external supply port (70, 170), characterized in that the above deck assembly further includes a switch mechanism (75, 175) configured to disable the dispensing mechanism (40, 140) when the access door (72, 172) is in the open position. a below deck assembly including a reservoir (30, 130) for storing a fluid, a dispensing mechanism (40, 140) in fluid communication with the reservoir (30, 130), and a controller (50, 150) in circuit communication with the dispensing mechanism (40, 140) for operation of the dispensing mechanism (40, 140); and an above deck assembly including a spout (60, 160) defining an outlet port (63, 163) in fluid communication with the reservoir (30, 130) for dispensing fluid stored in the reservoir (30, 130) upon operation of the dispensing mechanism (40, 140), an external supply port (70, 170) in fluid communication with the reservoir (30, 130) by a supply passage (35, 135) to supply fluid to the reservoir (30, 130), an access door (72, 172) movable between a closed position blocking access to the external supply port (70, 170) and an open position permitting access to the external supply port (70, 170), characterized in that the above deck assembly further includes a switch mechanism (75, 175) configured to disable the dispensing mechanism (40, 140) when the access door (72, 172) is in the open position.
Process for producing a powder formulation which contains particles, characterized in that a) a solution comprising components i) to iii): i) an anticholinergic of formula 1 wherein X - denotes a negatively charged anion, ii) at least one embedding material selected from the group consisting of mono- or disaccharides, oligosaccharides, polymers, sugar alcohols and cholesterol, iii) a sufficient amount of an organic, physiologically acceptable acid such that the solution has a pH of <7 before atomization according to step b), is provided in a suitable solvent, and subsequently the following steps are carried out, b) atomizing the solution from step a) in a hot air current c) drying the atomized solution from step b) to form a powder containing particles d) separating off the powder from step c) using a cyclone or filters. a) a solution comprising components i) to iii): i) an anticholinergic of formula 1 wherein X - denotes a negatively charged anion, ii) at least one embedding material selected from the group consisting of mono- or disaccharides, oligosaccharides, polymers, sugar alcohols and cholesterol, iii) a sufficient amount of an organic, physiologically acceptable acid such that the solution has a pH of <7 before atomization according to step b), is provided in a suitable solvent, and subsequently the following steps are carried out, i) an anticholinergic of formula 1 wherein X - denotes a negatively charged anion, ii) at least one embedding material selected from the group consisting of mono- or disaccharides, oligosaccharides, polymers, sugar alcohols and cholesterol, iii) a sufficient amount of an organic, physiologically acceptable acid such that the solution has a pH of <7 before atomization according to step b), is provided in a suitable solvent, and subsequently the following steps are carried out, b) atomizing the solution from step a) in a hot air current c) drying the atomized solution from step b) to form a powder containing particles d) separating off the powder from step c) using a cyclone or filters.
Temperature-stable formulation which is a water-in-oil emulsion having a colorant for a food, in the aqueous phase of which emulsion a hydrophilic colorant is contained, with an emulsifier in the continuous oil phase, characterized in that the colorant at the pH value of the food is instable at an increased temperature of 65 to 72 °C, the aqueous phase is adjusted to a pH value at which the colorant is stable at the increased temperature and the aqueous phase has a mean droplet size of at maximum 1.5 μm in the oil phase.
A process for preparing 1,1,1,2,2-pentafluoropropane and 2,3,3,3-tetrafluoropropene, the process comprising: gas phase catalytic dehydrochlorination of a composition comprising 1,1,1-trifluoro-2,3- dichloropropane to produce an intermediate composition comprising 3,3,3- trifluoro-2-chloro-prop-1-ene (CF 3 CCl=CH 2, 1233xf), hydrogen chloride (HCl) and, optionally, air; and gas phase catalytic fluorination with hydrogen fluoride of the intermediate composition to produce a reactor product composition comprising 245cb, 1234yf, HF, HCl and air; wherein the process is carried out with a co-feed of air, wherein the amount of air co-fed to the process is from 0.1 to 500 mol% based on the amount of organics.
Method for managing a regeneration of a particulate filter, the particulate filter comprising an inlet and an outlet, the method comprising a step of monitoring a temperature measured at the outlet of the particulate filter during a regeneration process of the particulate filter and a step of interrupting said regeneration process based on a function of said measured temperature, the method being characterized in comprising the following preliminary steps: - measuring a DPF inlet temperature, - estimating a theoretical temperature value at the DPF outlet based on at least • environmental parameters, • operating parameters of a related internal combustion engine, • said DPF inlet temperature, wherein said estimation step ignores any oxidative contribution of any particulate accumulated in the particulate filter, and wherein said function comprises calculating a difference (ToutDPFmis - ToutDPFcalc) between said theoretical temperature value and said temperature measured at the DPF outlet, and wherein said step of interrupting said regeneration process is implemented when said difference is below a first predefined threshold (ToutDPFmis - ToutDPFcalc < Th1). - measuring a DPF inlet temperature, - estimating a theoretical temperature value at the DPF outlet based on at least • environmental parameters, • operating parameters of a related internal combustion engine, • said DPF inlet temperature, wherein said estimation step ignores any oxidative contribution of any particulate accumulated in the particulate filter, and wherein said function comprises calculating a difference (ToutDPFmis - ToutDPFcalc) between said theoretical temperature value and said temperature measured at the DPF outlet, and wherein said step of interrupting said regeneration process is implemented when said difference is below a first predefined threshold (ToutDPFmis - ToutDPFcalc < Th1). • environmental parameters, • operating parameters of a related internal combustion engine, • said DPF inlet temperature,
A driving apparatus of a light emitting load comprising a first switching element, a second switching element, an emission controller for outputting a control signal, and a gate driver, for controlling gates of the first switching element and the second switching element based on the control signal, to drive first and second light emitting loads connected in series: the first switching element, when in an ON state, is adapted to bypass a current so that it does not pass through the first light emitting load; and the second switching element, when in an ON state, is adapted to bypass a current so that it does not pass through the second light emitting load; characterized in that the gate driver is adapted to reduce at least one of an overshoot current caused when the first and second switching elements are simultaneously turned on and an undershoot current caused when the first and second switching elements are simultaneously turned off by way of: detecting control signals ({SCi}) that may cause at least one event of the simultaneous turning on of the first and second switching elements and the simultaneous turning off of the first and second switching elements; and delaying the control signals ({SCi}) of the first switching element and the second switching element to delay the timing of the event. the first switching element, when in an ON state, is adapted to bypass a current so that it does not pass through the first light emitting load; and the second switching element, when in an ON state, is adapted to bypass a current so that it does not pass through the second light emitting load; characterized in that the gate driver is adapted to reduce at least one of an overshoot current caused when the first and second switching elements are simultaneously turned on and an undershoot current caused when the first and second switching elements are simultaneously turned off by way of: detecting control signals ({SCi}) that may cause at least one event of the simultaneous turning on of the first and second switching elements and the simultaneous turning off of the first and second switching elements; and delaying the control signals ({SCi}) of the first switching element and the second switching element to delay the timing of the event. detecting control signals ({SCi}) that may cause at least one event of the simultaneous turning on of the first and second switching elements and the simultaneous turning off of the first and second switching elements; and delaying the control signals ({SCi}) of the first switching element and the second switching element to delay the timing of the event.
A method of extracting Polyhydroxylated Fatty Alcohols comprising: drying the crushed avocado seeds to a humidity level of at most 12 wt.%; inserting crushed avocado seeds to one or more extraction chambers; flowing supercritical CO 2 fluid, at a pressure range of 100 bar to 200 bar through the crushed avocado seeds in the one or more extraction chambers; and separating from the supercritical CO 2 flown through the crushed avocado seeds the PFA extracted and dissolved in the supercritical CO 2, wherein the supercritical CO 2 fluid being the only solvent used for dissolving and extracting the PFA from the seeds. drying the crushed avocado seeds to a humidity level of at most 12 wt.%; inserting crushed avocado seeds to one or more extraction chambers; flowing supercritical CO 2 fluid, at a pressure range of 100 bar to 200 bar through the crushed avocado seeds in the one or more extraction chambers; and separating from the supercritical CO 2 flown through the crushed avocado seeds the PFA extracted and dissolved in the supercritical CO 2, wherein the supercritical CO 2 fluid being the only solvent used for dissolving and extracting the PFA from the seeds.
Use of a fatty acid amide derivative of formula wherein R 1 is a C 5 to C 25 alkyl residue or C 5 to C 25 alkenyl residue, R 2 is a long-chain organic residue containing at least 6 carbon atoms, in an amount of 2500 to 18000 ppm in an article comprising a heterophasic propylene copolymer (HECO) to reduce the surface tack in comparison with the same article but without a slip agent. R 1 is a C 5 to C 25 alkyl residue or C 5 to C 25 alkenyl residue, R 2 is a long-chain organic residue containing at least 6 carbon atoms,
A heat exchanger for transferring heat from a first material to a second material, comprising a structural heat transfer member having a first surface in contact with the first material and a second surface in contact with the second material; and a coating disposed on the first surface or the second surface, or disposed on the first and second surfaces, the coating comprising rod, tubule, fiber, or platelet filler particles that are nanoscopic in at least one dimension dispersed in a polymer resin matrix and characterized in that the filler particles are aligned in a direction of heat flow across the coating.
A mass spectrometer comprising: an ion source, wherein said ion source is selected from the group comprising: (i) an electrospray ion source; (ii) an atmospheric pressure chemical ionization ion source; and (iii) a matrix assisted laser desorption ion source; a collision cell for fragmenting ions, wherein in a first mode ions are fragmented in said collision cell and in a second mode ions are not substantially fragmented; and a mass analyser; wherein said collision cell comprises an octopole rod set; and characterised in that said mass spectrometer further comprises: a control system for automatically switching between said two modes at least once every 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1, 2, 3, 4, 5, 6, 7; 8, 9 or 10 seconds. an ion source, wherein said ion source is selected from the group comprising: (i) an electrospray ion source; (ii) an atmospheric pressure chemical ionization ion source; and (iii) a matrix assisted laser desorption ion source; a collision cell for fragmenting ions, wherein in a first mode ions are fragmented in said collision cell and in a second mode ions are not substantially fragmented; and a mass analyser; wherein said collision cell comprises an octopole rod set; and characterised in that said mass spectrometer further comprises: a control system for automatically switching between said two modes at least once every 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1, 2, 3, 4, 5, 6, 7; 8, 9 or 10 seconds.
Control process for a furnace for baking carbon anodes for the production of aluminum by electrolysis, the furnace including: - longitudinal hollow partitions in each of which a hot baking gas flow may circulate at a certain flow rate and at a certain temperature, the hollow partitions defining together in-between cells to receive the anodes to be baked and including a plurality of peepholes, - and a heating system, rotating in relation to the hollow partitions, which comprises an upstream ramp of several blowing legs blowing air into the various hollow partitions, a downstream ramp of several suction legs sucking gas from the various hollow partitions and, between said upstream and downstream ramps, at least one heating ramp (21, 22, 23) equipped with at least one burner or at least one fuel injector per partition; lines for gas flows to circulate in the hollow partitions being formed in the hollow partitions between the blowing legs and the corresponding suction legs; the process including a natural pre-heating phase for the partitions and anodes during which the anodes release combustible volatile matter which burns inside the hollow partitions forming a degassing front to pre-heat the gases, the partitions and the anodes, this natural pre-heating phase being carried out in a natural pre-heating zone of the furnace downstream of the heating ramp, characterized in that the natural pre-heating zone is divided into at least one first natural pre-heating zone located at a first distance from the heating ramp and a second natural pre-heating zone located at a second distance from the heating ramp, the first distance being larger than the second distance, and in which gas flows circulating in the hollow partitions are modified so as to control gas flows (30,31) passing through the first natural pre-heating zone from gas flows leaving the second natural pre-heating zone to regulate the rise in temperature of the partitions and the anodes in the first natural pre-heating zone and control the location of the degassing front. - longitudinal hollow partitions in each of which a hot baking gas flow may circulate at a certain flow rate and at a certain temperature, the hollow partitions defining together in-between cells to receive the anodes to be baked and including a plurality of peepholes, - and a heating system, rotating in relation to the hollow partitions, which comprises an upstream ramp of several blowing legs blowing air into the various hollow partitions, a downstream ramp of several suction legs sucking gas from the various hollow partitions and, between said upstream and downstream ramps, at least one heating ramp (21, 22, 23) equipped with at least one burner or at least one fuel injector per partition;
A method for wireless communication of glucose data, the method comprising: generating glucose data indicative of the concentration of glucose in a host using a transcutaneous glucose sensor; processing the generated glucose data using a sensor electronics module integral with, or releasably attachable to, the transcutaneous glucose sensor to generate sensor information; authenticating a display device configured to display, or process and display, sensor information transmitted by the sensor electronics module, for a first wireless connection by exchanging information related to authentication between the sensor electronics module and the display device; upon authenticating the display device, the sensor electronics module periodically exchanging messages with the display device to maintain continuous connection over the first wireless connection; and the sensor electronics module transmitting encrypted sensor information to the display device during the time the first wireless connection is maintained. generating glucose data indicative of the concentration of glucose in a host using a transcutaneous glucose sensor; processing the generated glucose data using a sensor electronics module integral with, or releasably attachable to, the transcutaneous glucose sensor to generate sensor information; authenticating a display device configured to display, or process and display, sensor information transmitted by the sensor electronics module, for a first wireless connection by exchanging information related to authentication between the sensor electronics module and the display device; upon authenticating the display device, the sensor electronics module periodically exchanging messages with the display device to maintain continuous connection over the first wireless connection; and the sensor electronics module transmitting encrypted sensor information to the display device during the time the first wireless connection is maintained.
A method for offboard navigation of a robotic device, the method comprising: receiving a threshold value of a positional accuracy of the robotic device; calculating latency of a network through which the robotic device and a server communicate, the latency of the network being a time difference between sending sensor data from the robotic device to the server and receiving processed data corresponding to the sent sensor data by the robotic device from the server; determining speed of the robotic device based on the threshold value of the positional accuracy of the robotic device and the latency of the network; and driving the robotic device to move at a speed equal to or less than the determined speed. receiving a threshold value of a positional accuracy of the robotic device; calculating latency of a network through which the robotic device and a server communicate, the latency of the network being a time difference between sending sensor data from the robotic device to the server and receiving processed data corresponding to the sent sensor data by the robotic device from the server; determining speed of the robotic device based on the threshold value of the positional accuracy of the robotic device and the latency of the network; and driving the robotic device to move at a speed equal to or less than the determined speed.
A method of preparing a polymer dispersion comprising (i) contacting an aqueous dispersion of de-ionized acidic colloidal silica particles with a first mixture of monomers to form a combination; (ii) polymerizing said combination at an initial pH of from 2 to 5 to at least 90% in completion; and (iii) adding a second mixture of monomers at a rate equal to the rate of consumption of said second mixture of monomers to continue and complete the polymerization and wherein the monomers are polymerizable ethylenically unsaturated nonionic monomers.
A sorption heat pump (1, 21, 31, 51, 61, 71) having: a gaseous refrigerant and a liquid solvent; a depleted solution and an enriched solution, the depleted and enriched solutions being single-phase mixtures of the solvent and the refrigerant; a first absorber (2, 26, 43, 53, 65, 77), in which the depleted solution absorbs the refrigerant and emits heat in the process; a throttle element (8, 24, 35, 62), which expands the enriched solution after exit from the first absorber (2, 26, 43, 53, 65, 77); a generator (4, 22, 36, 63, 75), in which, after exit from the throttle element (8, 24, 35, 62), the enriched solution absorbs an externally supplied heat flow and in the process expels the refrigerant; a conveying element, which conveys the refrigerant into the first absorber (2, 26, 43, 53, 65, 77) after exit from the generator (4, 22, 36, 63, 75); and a pump, which pumps the depleted solution into the first absorber (2, 26, 43, 53, 65, 77) after exit from the generator (4, 22, 36, 63, 75), characterised by a second absorber (11, 79) which is arranged in parallel with the first absorber (2, 26, 43, 53, 65, 77) and in which a partial flow of the depleted solution, before entry into the first absorber (2, 26, 43, 53, 65, 77), absorbs a partial flow of the refrigerant before entry into the absorber (2, 26, 43, 53, 65, 77) and in the process emits heat to the depleted solution before entry into the first absorber (2, 26, 43, 53, 65, 77).