WO2017020825A1 - 湿化过滤器及具有湿化过滤器的气体产生装置 - Google Patents

湿化过滤器及具有湿化过滤器的气体产生装置 Download PDF

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Publication number
WO2017020825A1
WO2017020825A1 PCT/CN2016/093003 CN2016093003W WO2017020825A1 WO 2017020825 A1 WO2017020825 A1 WO 2017020825A1 CN 2016093003 W CN2016093003 W CN 2016093003W WO 2017020825 A1 WO2017020825 A1 WO 2017020825A1
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Prior art keywords
hydrogen
mixed gas
filter
tank
gas
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PCT/CN2016/093003
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English (en)
French (fr)
Inventor
林信涌
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林信涌
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Publication of WO2017020825A1 publication Critical patent/WO2017020825A1/zh

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    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61M—DEVICES FOR INTRODUCING MEDIA INTO, OR ONTO, THE BODY; DEVICES FOR TRANSDUCING BODY MEDIA OR FOR TAKING MEDIA FROM THE BODY; DEVICES FOR PRODUCING OR ENDING SLEEP OR STUPOR
    • A61M16/00—Devices for influencing the respiratory system of patients by gas treatment, e.g. mouth-to-mouth respiration; Tracheal tubes
    • A61M16/10—Preparation of respiratory gases or vapours
    • A61M16/14—Preparation of respiratory gases or vapours by mixing different fluids, one of them being in a liquid phase
    • A61M16/16—Devices to humidify the respiration air
    • C—CHEMISTRY; METALLURGY
    • C25—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES; APPARATUS THEREFOR
    • C25B—ELECTROLYTIC OR ELECTROPHORETIC PROCESSES FOR THE PRODUCTION OF COMPOUNDS OR NON-METALS; APPARATUS THEREFOR
    • C25B9/00—Cells or assemblies of cells; Constructional parts of cells; Assemblies of constructional parts, e.g. electrode-diaphragm assemblies; Process-related cell features

Definitions

  • the present invention relates to a humidification filter and a gas generation device having the same, and more particularly to a humidification filter having a filtration and humidification function and reducing electrolyte consumption, and a gas having a humidification filter. Generator.
  • the hydrogen-oxygen mixed gas produced after electrolyzing water through the electrolysis device generally has a relatively high temperature and is relatively dry, which is not suitable for direct inhalation by the human body.
  • the above problems in turn, often cause inconvenience in the use of conventional electrolyzers.
  • a humidification filter of the present invention comprising:
  • first conduit connecting the inside and the outside of the tank, the first conduit having a first end for receiving a hydrogen-oxygen mixed gas, and a first end corresponding to the hydrogen-oxygen mixed gas a second end in the tank;
  • a first filter member for filtering an impurity in the hydrogen-oxygen mixed gas disposed at the second end of the first conduit;
  • a first conduit for outputting the filtered hydrogen-oxygen mixed gas communicates with the inside and the outside of the tank.
  • one end of the branch conduit is connected between the first end and the second end of the first conduit, and the other end of the branch conduit has a water level for controlling one of the tanks A check valve.
  • the utility model further includes a cover body, a third pipe, and a valve for controlling the third pipe to communicate with the first pipe and excluding water remaining in the first pipe, wherein the cover body is disposed in the slot
  • the first pipe and the third pipe are respectively located on the cover body and communicate with the inside and the outside of the groove body, respectively.
  • a drainage bolt for periodically discharging water in the tank, and the drainage bolt is disposed on the tank.
  • the first filter element and the second filter element are made of a porous plastic.
  • the porous plastic is a polyethylene.
  • the humidification filter of the present invention is capable of filtering an electrolyte in a hydrogen-oxygen mixed gas to output a hydrogen-oxygen mixed gas suitable for human use.
  • the humidification filter of the present invention can also reduce the electrolyte concentration in the tank by draining and replenishing the water.
  • the invention also discloses a gas generating device with a humidification filter, characterized in that it comprises:
  • An electrolytic cell for electrolyzing an electrolyzed water to produce a hydrogen-oxygen mixed gas
  • a humidification filter comprising:
  • first conduit connecting the tank body and the electrolytic tank, the first conduit having a first end for receiving the hydrogen-oxygen mixed gas, and a first end corresponding to the hydrogen-oxygen mixed gas a second end in the tank;
  • a first filter member for filtering one of the impurities in the hydrogen-oxygen mixed gas disposed at the second end of the first conduit;
  • a first conduit for outputting the filtered hydrogen-oxygen mixed gas communicates with the inside and the outside of the tank.
  • the humidification filter further comprises a second filter element for filtering the moisture in the hydrogen-oxygen mixed gas, the second filter element being located at the outlet or inlet of the first pipe.
  • the humidification filter further comprises a conduit, one end of the branch conduit is connected between the first end and the second end of the first conduit, and the other end of the branch conduit has a slot for controlling the slot A check valve for one of the water levels in the body.
  • the atomized/volatile gas mixing tank for receiving the filtered hydrogen-oxygen mixed gas and generating an atomizing gas and the filtered hydrogen-oxygen mixed gas to generate a health care gas, wherein the atomizing gas is selected One of a group consisting of water vapor, atomized syrup, volatile essential oil, and any combination thereof.
  • a condensing filter for condensing the oxy-hydrogen mixed gas and filtering the impurities therein is further included, wherein the condensing filter is located between the electrolytic cell and the humidifying filter.
  • the condensing filter comprises a plurality of condensing sheets, each condensing sheet has a first-class trajectory, and the flow passage of the condensing sheet communicates with the adjacent flow passage of the condensing sheet, thereby forming a circulation of the oxy-hydrogen mixed gas A circulating flow path, wherein the flow channel is provided with a filter material composed of any one of ceramic, quartz stone, diatomaceous earth, sepiolite, and activated carbon fiber.
  • a humidifying device for supplementing a supplementary water to the electrolytic cell and backflushing the impurities remaining in the condensing filter to the electrolytic cell, wherein the humidifying device is connected to the humidifying filter,
  • the humidification device comprises a hollow body for accommodating a make-up water, a gas input pipe for receiving the mixed gas of hydrogen and oxygen output by the humidification filter, and for humidifying and refining the hydrogen-oxygen mixture
  • An output pipe of the gas being connected to the gas input pipe, the surface of the output pipe having a plurality of perforations.
  • the hydrogen-oxygen mixed gas generated by the electrolytic cell can be condensed by the condensing filter and the electrolyte in the hydrogen-oxygen mixed gas can be filtered, by wet
  • the filter filters the electrolyte in the hydrogen-oxygen mixed gas again, and refines and humidifies the hydrogen-oxygen mixed gas by the humidification device to provide a hydrogen-oxygen mixed gas suitable for human body inhalation and a hydrogen-containing oxygen-containing mixed gas. water.
  • the gas generator with the humidification filter of the invention can also supplement the supplementary water from the humidification device to the electrolysis tank, and can recharge the electrolyte to the electrolysis tank while replenishing the water to restore the filtration of the condensing filter.
  • FIG. 1A and 1B are schematic views showing humidification filters at different viewing angles according to an embodiment of the present invention.
  • FIG. 2A is a schematic view showing the interior of FIG. 1A.
  • FIG. 2B is a schematic view showing the inside of FIG. 1B.
  • 3A and 3B are exploded views of the humidification filter at different viewing angles in accordance with an embodiment of the present invention.
  • FIG. 4A and 4B are plan views showing a humidification filter of the embodiment shown in Fig. 1A and a cross-sectional view taken along line A-A of the plan view.
  • 5A and 5B are schematic views showing gas generating devices having a humidification filter at different viewing angles according to an embodiment of the present invention.
  • 6A and 6B are plan views showing a condensing filter and a water tank according to another embodiment of the present invention, and a cross-sectional view taken along line B-B of the plan view.
  • Fig. 7 is a schematic view showing the inside of the humidifying device of Fig. 5A.
  • FIG. 1A and FIG. 1B are schematic diagrams showing the humidification filter at different viewing angles according to an embodiment of the present invention
  • FIG. 2A is a schematic diagram of the internal view of FIG. 1A
  • FIG. 2B is a schematic view of the interior of FIG. 1B.
  • the trough 20 is not illustrated in FIGS. 2A and 2B.
  • connection includes both direct and indirect connections.
  • the humidification filter 2 includes a tank body 20, a first duct 21, a first filter member 22, and a first duct 25.
  • the tank body 20 has an accommodating space for accommodating water, but it is not limited to the actual application, and the required liquid can be accommodated according to requirements.
  • the first conduit 21 communicates with the outside and the inside of the trough body 20, and has a first end 210 and a second end 212 corresponding to the first end 210, and the first end 210 and the second end 212 can communicate with the outside and the inside of the trough 20.
  • the first filter element 22 is disposed at the second end 212 of the first conduit 21.
  • the first duct 25 communicates with the inside and the outside of the tank.
  • the humidification filter 2 may further comprise a second filter member 23 located at the outlet or inlet of the first conduit.
  • the second filter member 23 can be disposed under the first pipe, thereby directly outputting the hydrogen-oxygen mixed gas after filtering the moisture.
  • the first filter member 22 and the second filter member 23 may be made of a porous plastic.
  • the porous plastic may be a polyethylene, but not limited thereto.
  • the first end 210 of the first conduit 21 can receive the hydrogen-oxygen mixed gas from the outside, and then input the hydrogen-oxygen mixed gas into the tank 20 via the second end 212. Since the first filter member 22 is disposed at the second end 212, the hydrogen-oxygen mixed gas passes through the first filter member 22 when being outputted by the second end 212, and the impurities in the hydrogen-oxygen mixed gas are filtered by the first filter member 22, wherein The impurity can be an electrolyte. After the hydrogen-oxygen mixed gas is supplied to the water contained in the tank body 20, the hydrogen-oxygen mixed gas can be filtered again by the water. The water-filtered hydrogen-oxygen mixed gas can be filtered through the second filter member 23 to filter out the water vapor in the hydrogen-oxygen mixed gas, and the filtered hydrogen-oxygen mixed gas is output to the outside of the tank body 20 through the first conduit 25.
  • the humidification filter further includes a cover 200.
  • the cover body 200 is disposed on the tank body 20.
  • the cover body 200 and the trough body 20 can be a detachable structure.
  • the tank body 20 can accommodate water, and its water level can be adjusted according to demand.
  • the cover 200 may further include a frame for receiving the second filter member 23.
  • the outer shape of the frame of the cover body 200 corresponds to the outer shape of the second filter member 23, whereby the second filter member 23 can be accommodated in the frame of the cover body 200, in one embodiment, outside the second filter member 23.
  • the type is a plate, but it is not limited to this, and can be adjusted according to the needs of use.
  • the water in the tank body 20 is not completely full.
  • the second filter member 23 disposed in the lid body 200 does not contact the tank body 20.
  • the water, which is used to keep it dry, can also be used to filter moisture.
  • the cover body 200 may further have a screw hole, and the first duct 21 has a thread corresponding to the screw hole of the cover body 200.
  • the first duct 21 can be screwed into the screw hole of the cover body 200 to allow the first duct 21 to be suspended in the tank body 20.
  • the outer shape of the first filter member 22 corresponds to the outer shape of the first duct 21, so that the first filter member 22 can be sleeved on the first duct 21 (as shown in FIG. 4B).
  • FIG. 3A, FIG. 3B, FIG. 4A and FIG. 4B, FIG. 4A and FIG. 4B are a plan view of the humidification filter of the embodiment shown in FIG. 1A and a cross-sectional view taken along line A-A of the plan view.
  • the humidification filter 2 can also include a conduit 24.
  • One end of the branch conduit 24 communicates between the first end 210 and the second end 212 of the first conduit 21, and the other end of the branch conduit 24 has a one-way valve 240.
  • the one-way valve 240 can be used to block the hydrogen-oxygen mixed gas from being output from the branch conduit 24, so that when the first conduit 21 receives the hydrogen-oxygen mixed gas from the outside, the hydrogen-oxygen mixed gas is blocked by the check valve 240, and only the first conduit 21 can be used.
  • the first end 210 is output to the second end 212 to the trough 20.
  • the one-way valve 240 can also be used to control a water level (not shown) in the tank body 20. When the water level exceeds a predetermined value, the humidification filter 2 can start the water in the tank body 20 by the one-way valve 240, while the water in the tank body 20 that is pumped back through the one-way valve 240 passes through the branch.
  • the conduit 24 and the first conduit 21 are discharged to the outside of the tank body 20; until the water level of the water in the tank body 20 is lower than a predetermined value, the check valve 240 no longer sucks the water inside the tank body 20, so that the water inside the tank body 20 is The water level can be maintained at a certain height.
  • the humidification filter 2 may further include a first conduit 25 and a second conduit 27.
  • the first duct 25 and the second duct 27 are respectively located in the cover body 200 and communicate with the inside and the outside of the tank body 20.
  • the second duct 27 penetrates the cover body 200 at a position corresponding to the first duct 21 to communicate the inside and the outside of the tank body 20, thereby inputting the external hydrogen-oxygen mixed gas through the second duct 27.
  • the inside of the tank 20 is humidified and filtered.
  • the first duct 25 penetrates the cover body 200 at a position corresponding to the second filter member 23 to communicate the inside and the outside of the tank body 20, thereby outputting the filtered hydrogen-oxygen mixed gas to the tank body 20 via the first duct 25. external.
  • the first pipe 25 can be used to output the filtered hydrogen-oxygen mixed gas to the outside of the tank body 20.
  • the first pipe 25 can also be used to input a supplementary water from the outside of the tank body 20 to the tank body 20. Since the impurity concentration of water in the tank body 20 is increased during the filtration of the hydrogen-oxygen mixed gas, the present invention can reduce the impurity concentration of water in the tank body 20 by inputting makeup water from the outside.
  • the humidification filter 2 may further comprise a valve 26 and a third tube Road 29.
  • the valve 26 can control the third conduit 29 to communicate with the first conduit 25 and to remove water remaining in the first conduit.
  • the valve 26 is disposed on the third conduit 29 for controlling the entry or exit of external gases.
  • the third duct 29 penetrates the cover body 200 and can communicate with the outside of the tank body 20 and the first duct 25. When the operation of inputting the makeup water is suspended, the valve 26 is opened to allow the outside air to be sucked into the tank body 20, so that the water remaining in the first duct 25 can flow into the tank body 20.
  • the valve 26 can be a solenoid valve, but not limited thereto. In practical applications, valves such as pneumatic valves or mechanical valves can be selected according to requirements.
  • the third pipe 29 has two cylinders at the front and the rear thereof for fixing the valve 26 to the cover 200. Please refer to FIG. 1B and FIG. 4B again.
  • the humidification filter 2 may additionally comprise a drain bolt 28.
  • the drain bolt 28 is disposed on the tank body 20 and communicates with the inside and outside of the tank body 20.
  • the drain bolt 28 provides an anti-static grounding function.
  • the drain bolts 28 can also be used to periodically drain water from the tank 20.
  • the present invention can achieve the action of the cleaning tank 20 by performing the operation of draining the drain bolt 28 and replenishing the makeup water a plurality of times.
  • the humidification filter of the present invention is capable of filtering the electrolyte in the hydrogen-oxygen mixed gas to output a hydrogen-oxygen mixed gas suitable for human use. Further, the humidification filter 2 of the present invention can also reduce the electrolyte concentration in the tank by the operation of draining and replenishing water.
  • FIG. 4B, FIG. 5A and FIG. 5B, FIG. 5A and FIG. 5B are schematic diagrams showing the gas generating device with the humidification filter at different viewing angles according to an embodiment of the invention.
  • the gas generating device 1 may include a humidifying filter 2 and an electrolytic cell 3.
  • the electrolytic cell 3 as a whole is shown by a broken line only in FIGS. 5A and 5B.
  • the electrolytic cell 3 is used to electrolyze water to produce a hydrogen-oxygen mixed gas.
  • the humidification filter 2 includes a tank body 20, a first duct 21, a first filter member 22, and a first duct 25.
  • the tank body 20 is for accommodating water.
  • the first conduit 21 communicates with the tank body 20 and the electrolytic cell 3, and has a first end 210 for receiving the hydrogen-oxygen mixed gas from the electrolytic tank 3, and a corresponding first end 210 for inputting the hydrogen-oxygen mixed gas to the tank body 20.
  • the second end 212 is inside.
  • the first filter member 22 may filter impurities in the hydrogen-oxygen mixed gas input into the tank body 20 from the second end 212, wherein the impurities may be electrolytes.
  • the water contained in the tank body 20 can again filter the hydrogen-oxygen mixed gas input into the tank body 20.
  • the first pipe 25 connecting the inside and the outside of the tank body can output the filtered hydrogen-oxygen mixed gas to the outside of the tank.
  • the humidification filter 2 may further comprise a second filter member 23 located at the outlet or inlet of the first conduit.
  • the second filter member 23 can further filter the moisture in the water-filtered hydrogen-oxygen mixed gas. That is, after the hydrogen-oxygen mixed gas is supplied to the water contained in the tank body 20, the hydrogen-oxygen mixed gas can be filtered again by the water. The water-filtered hydrogen-oxygen mixed gas can be filtered through the second filter member 23 to filter out the water vapor in the hydrogen-oxygen mixed gas.
  • the gas generating device 1 may further comprise a condensing filter 4 for condensing the hydrogen-oxygen mixed gas and filtering the impurities therein first.
  • the condensing filter 4 is located between the electrolytic cell 3 and the humidification filter 2.
  • the condensing filter 4 has an air inlet 46 and an air outlet 48. The air inlet 46 can be connected to the electrolytic cell 3 for receiving the hydrogen-oxygen mixed gas.
  • the air outlet 48 can be connected to the humidification filter 2 through the second duct 27 for inputting the hydrogen-oxygen mixed gas filtered through the condensing filter 4 to the humidification filter 2 via the gas input pipe 52 for further filtration.
  • the condensing filter 4 of the present invention comprises a plurality of condensing sheets 40. Each condensing sheet 40 has a first-stage passage 42. The flow passage 42 of the condensing sheet 40 communicates with the flow passage 42 of the adjacent condensing sheet 40 to form a circulation flow passage 44 for circulating a hydrogen-oxygen mixed gas for condensing hydrogen. Oxygen mixed gas.
  • the air inlet holes 46 and the air outlet holes 48 are connected to each other by the circulation flow path 44.
  • the flow channel 42 may be provided with a filter material composed of any one or a combination of ceramic, quartz, diatomaceous earth, sepiolite, and activated carbon fiber. That is, in the present embodiment, through the design of the circulation flow path 44 and the arrangement of the filter material, the hydrogen-oxygen mixed gas can be condensed and filtered by passing through the condensation and filtration paths.
  • FIG. 7 is a schematic diagram showing the internal structure of the humidification device 5 of FIG. 5A.
  • the gas generating device 1 may further comprise a humidifying device 5 for replenishing water to the electrolytic cell 3 and backflushing impurities remaining in the condensing filter 4 to the electrolytic cell 3.
  • the humidification device 5 is connected to the humidification filter 2 and includes a hollow body 50, a gas input pipe 52, an output pipe 54, and a gas output pipe 56.
  • the hollow body 50 is for accommodating supplementary water.
  • the gas input pipe 52 may be connected to the humidification filter 2 by the first pipe 25 for receiving the hydrogen-oxygen mixed gas output by the humidification filter 2 via the first pipe 25.
  • the surface of the output tube 54 has a plurality of perforations 540, and the output tube 54 is connected to the gas input conduit 52 for receiving the hydrogen-oxygen mixed gas and for humidifying and refining.
  • the perforations 540 have a nanometer-sized pore diameter ranging from 2 nm to 10 nm for refining the gas to form a resolvable refining bubble.
  • the aperture size of the perforation 540 is adjusted depending on the needs of the user.
  • the humidification device 5 further includes a liquid ingress and egress structure 58.
  • a liquid ingress and egress structure 58 As described above, when the hydrogen-oxygen mixed gas passes through the nanoperforation 540 of the output pipe 54, it enters into the water to form fine bubbles, that is, the solubility of the hydrogen-oxygen mixed gas in the water increases to form hydrogen water.
  • the liquid inlet and outlet structure may be disposed on the hollow body 50 to supplement the input supplementary water or the output hydrogen water.
  • the liquid inlet and outlet structure is a liquid inlet and outlet, which can be opened or closed, and can be replenished from the external environment through the liquid inlet and outlet, or can be taken out from the hollow body 50 and rich in hydrogen and oxygen. Mixed gas of hydrogen water.
  • the humidification filter 2 may further comprise a conduit 24 having one end communicating between the first end 210 and the second end 212 of the first conduit 21 and having the other end of the branch conduit 24 A one-way valve 240.
  • a one-way valve 240 can be used to control a level of water within the tank 20.
  • the hollow body 50 of the humidification device 5 The make-up water can also be supplementally supplied to the humidification filter 2 via the first conduit 25.
  • the humidification filter 2 can control the water level in the tank body 20 by the one-way valve 240 and pump back the water exceeding the water level to the electrolysis. Slot 3.
  • the supplementary water backed by the humidification filter 2 may be passed through the condensing filter 4 to be input to the electrolytic cell 3, and the supplementary water may backflush the electrolyte adsorbed in the circulation flow path 44 of the condensing filter 4 to the electrolytic cell 3. .
  • the gas generating device 1 may further comprise a water tank 6 and a water pump device 7.
  • the electrolytic cell 3 may be disposed in the water tank 6 and supplied to the water tank 6 for electrolyzing water to generate a hydrogen-oxygen mixed gas.
  • the condensing filter 4 can communicate with the electrolytic cell 3 via the water tank 6 for receiving and condensing and filtering the hydrogen-oxygen mixed gas generated by the electrolytic cell 3.
  • the humidification filter 2 is connected to the condensing filter 4 to filter the hydrogen-oxygen mixed gas output from the condensing filter 4.
  • the humidification device 5 is connected to the humidification filter 2 for receiving and humidifying the filtered hydrogen-oxygen mixed gas and outputting it for use by a user.
  • the water pump device 7 communicates with the accommodation space of the water tank 6.
  • the water pump device 7 is activated, and the water pump device 7 draws the gas inside the accommodating space of the water tank 6 to cause a negative pressure inside the water tank 6.
  • the humidification device 5 draws back the makeup water by a negative pressure, and the makeup water passes through the humidification filter 5, the condensing filter 4, and the water tank 6 to the electrolytic cell 3 from the humidification device 5.
  • the electrolyte adsorbed in the condensing filter 4 can be backflushed to the electrolytic cell 3 via the make-up water to restore the filtering ability of the condensing filter 4, prevent clogging and corrosion, and reduce electrolyte consumption.
  • the gas generating device 1 may further comprise an atomizing/volatile gas mixing tank 8.
  • the atomization/volatile gas mixing tank 8 can be connected to the humidification filter 2 to receive the filtered hydrogen-oxygen mixed gas, and to generate an atomizing gas mixed with the filtered hydrogen-oxygen mixed gas to produce a health care product. Gas for inhalation by the user, but not limited to the above.
  • the atomization/volatile gas mixing tank 8 can be connected to the humidification device 5.
  • the atomizing/volatile gas mixing tank 8 can be connected to the humidification device 5 via a gas output conduit 56.
  • the hydrogen-oxygen mixed gas output from the gas output line 56 of the humidification device 5 may be further mixed with the atomizing gas generated via the atomizing/volatile gas mixing tank 8 to form a health care gas for inhalation by the user.
  • the water pump device 7 may be located between the atomizing/volatile gas mixing tank 8 and the water tank 6.
  • Fig. 5A the connection of the water pump device 7 to the atomizing/volatile gas mixing tank 8 is shown only by broken lines.
  • the atomizing/volatile gas mixing tank 8 has an output pipe 54 that communicates with the outside, and the water pump device 7 can communicate with the outside by the atomizing/volatile gas mixing tank 8.
  • the gas extracted from the inside of the accommodating space of the water tank 6 by the water pump device 7 can be discharged to the outside through the atomizing/volatile gas mixing tank 8, whereby a negative pressure is generated inside the water tank 6.
  • the humidification device 5 then draws the makeup water back to the electrolytic cell 3 by a negative pressure.
  • the output voltage of the power source is between about 17 volts (V) and 27 volts (V), and the output current of the power source is about 30 amps (A) to 40 amps.
  • A that is, the electrolytic cell 3 generates an outgas amount of between about 1.5 liters and 4.0 liters per minute.
  • Each group of electrodes (positive and negative electrodes) when in use The voltage is between about 1.5 volts (V) and 3 volts (V). If there are eight groups, the voltage is between 12V and 24V.
  • the output voltage of the power source is between about 5 volts (V) and 24 volts (V), and the output current of the power source is about 2 amps.
  • the power of the electrolytic cell 3 is between about 10 watts (i.e., about 5 V * 2 A) to 3,600 watts (i.e., about 24 V * 150 A), and the electrolytic cell 3 can produce 0.01 per minute.
  • the venting volume between liters and 12 liters.
  • the hydrogen-oxygen mixed gas generated by the electrolytic cell can be condensed by the condensing filter and the electrolyte in the hydrogen-oxygen mixed gas can be filtered.
  • the electrolyte in the hydrogen-oxygen mixed gas is filtered again by the humidification filter, and the hydrogen-oxygen mixed gas is refined and humidified by the humidification device to provide a hydrogen-oxygen mixed gas suitable for human body inhalation and a hydrogen-oxygen mixed gas to be taken. Hydrogen water.
  • the gas generator with the humidification filter of the invention can also supplement the supplementary water from the humidification device to the electrolysis tank, and can recharge the electrolyte to the electrolysis tank while replenishing the water to restore the filtration of the condensing filter.

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Abstract

一种湿化过滤器及具有湿化过滤器的气体产生装置，湿化过滤器(2)包含槽体(20)、第一导管(21)、第一过滤件(22)以及第一管道(25)。第一导管(21)连通槽体(20)内部与外部，并具有用以接收一氢氧混合气体的一第一端(210)，以及对应第一端(210)并用以将氢氧混合气体输入至槽体(20)内的一第二端(212)。第一过滤件(22)设置于第一导管(21)的第二端(212)，用以过滤氢氧混合气体中的一杂质。第一管道(25)连通槽体(20)内部与外部，用以输出过滤后的氢氧混合气体。具有湿化过滤器的气体产生装置包含电解槽(3)及上述湿化过滤器(2)。电解槽(3)电解水以产生氢氧混合气体。湿化过滤器(2)可用以接收并过滤电解槽(3)产生的氢氧混合气体。

Description

湿化过滤器及具有湿化过滤器的气体产生装置 技术领域
本发明有关于一种湿化过滤器及具有湿化过滤器的气体产生装置，特别是有关于一种具有过滤、湿化功能并且减低电解质消耗的湿化过滤器及具有湿化过滤器的气体产生器。
背景技术
一直以来，人类对于生命是十分地重视，许多医疗的技术的开发，都是用来对抗疾病，以延续人类的生命。过去的医疗方式大部分都是属于被动，也就是当疾病发生时，再对症进行医疗，比如手术、给药、甚至癌症的化学治疗、放射性治疗、或者慢性病的调养、复健、矫正等。但是近年来，许多医学专家逐渐朝向预防性的医学方法进行研究，比如保健食品的研究，遗传性疾病筛检与提早预防等，更是主动的针对未来性可能的发病进行预防。另外，为了延长人类寿命，许多抗老化、抗氧化的技术逐渐被开发，且广泛地被大众采用，包含涂抹的保养品及抗氧化食物/药物等。
经研究发现：人体因各种原因，(比如疾病，饮食，所处环境或生活习惯)引生的不安定氧(O+)，亦称自由基(有害自由基)，可以与吸入的氢混合成部份的水，而排出体外。间接减少人体自由基的数量，达到酸性体质还原至健康的碱性体质，可以抗氧化、抗老化，进而也达到消除慢性疾病和美容保健效果。甚至有临床实验显示，对于一些久卧病床的病人，因为长期呼吸高浓度氧，造成的肺损伤，可以透过吸入氢气以缓解肺损伤的症状。
然而，经由电解装置电解水后所产生的氢氧混合气体通常具有较高的温度且相对干燥，其并不适合人体直接吸入。同时，在电解过程中亦会有水与电解质消耗的问题，而需要补充水及电解质的情形发生。以上问题进而常常造成习知电解装置使用上的不便利。
发明内容
本发明的目的在于，提供一种湿化过滤器及具有湿化过滤器的气体产生装置，以解决现有技术存在的缺陷，其具有过滤、湿化功能并且能够在补充水的同时并将电解质回冲至电解槽，用以恢复冷凝过滤器的过滤能力、防止阻塞和腐蚀以及降低电解质的消耗。
为实现上述目的，本发明一种湿化过滤器，其特征在于，包含：
用以容置水的一槽体；
一第一导管，连通该槽体的内部与外部，该第一导管具有用以接收一氢氧混合气体的一第一端，以及对应该第一端并用以将该氢氧混合气体输入至该槽体内的一第二端；
用以过滤该氢氧混合气体中的一杂质的一第一过滤件，设置于该第一导管的该第二端；以及
用以输出过滤后的该氢氧混合气体的一第一管道，连通该槽体的内部与外部。
其中，进一步包含用以过滤该氢氧混合气体中之水气的一第二过滤件，其中该第二过滤件位于该第一管道的出口或入口。
其中，进一步包含一支导管，该支导管的一端连通于该第一导管的该第一端与该第二端之间，以及该支导管的另一端具有用以控制该槽体内之一水位的一单向阀。
其中，另包含一盖体、一第三管道以及用以控制该第三管道以与该第一管道连通并且排除残留于该第一管道内的水的一阀门，其中该盖体设置于该槽体上，该第一管道以及该第三管道分别地位于该盖体并且分别地连通该槽体的内部与外部。
其中，另包含用以定期排放该槽体内的水的一排水螺栓，该排水螺栓设置于该槽体上。
其中，该第一过滤件及该第二过滤件由一多孔性塑料所制成。
其中，该多孔性塑料为一聚乙烯。
综合而言，本发明的湿化过滤器能够过滤氢氧混合气体中的电解质，以输出适合人体使用的氢氧混合气体。此外，本发明的湿化过滤器亦能够藉由排水及补充补充水的操作，用以降低槽体内的电解质浓度。
本发明还公开了一种具有湿化过滤器的气体产生装置，其特征在于，包含：
用以电解一电解水以产生一氢氧混合气体的一电解槽；以及
一湿化过滤器，包含：
用以容置水的一槽体；
一第一导管，连通该槽体与该电解槽，该第一导管具有用以接收该氢氧混合气体的一第一端，以及对应该第一端并用以将该氢氧混合气体输入至该槽体内的一第二端；
用以过滤该氢氧混合气体中之一杂质的一第一过滤件，设置于该第一导管的该第二端；以及
用以输出过滤后的该氢氧混合气体的一第一管道，连通该槽体的内部与外部。
其中，该湿化过滤器进一步包含用以过滤该氢氧混合气体中之水气的一第二过滤件，该第二过滤件位于该第一管道的出口或入口。
其中，该湿化过滤器进一步包含一支导管，该支导管的一端连通于该第一导管的该第一端与该第二端之间，以及该支导管的另一端具有用以控制该槽体内之一水位的一单向阀。
其中，用以接收过滤后的该氢氧混合气体以及产生一雾化气体与过滤后的该氢氧混合气体混合以产生一保健气体的一雾化/挥发气体混合槽，而该雾化气体选自于由水蒸汽、雾化药水、挥发精油及其任意组合所组成的族群中其中一种。
其中，另包含用以冷凝该氢氧混合气体并过滤其中的该杂质的一冷凝过滤器，其中该冷凝过滤器位于该电解槽与该湿化过滤器之间。
其中，该冷凝过滤器包含有数个冷凝片，每一冷凝片具有一流道，该冷凝片的该流道与相邻的该冷凝片的该流道相互连通，藉以形成供该氢氧混合气体流通的一循环流道，其中该流道设有陶瓷、石英石、硅藻土、海泡石、活性碳纤维中任一者组成的过滤材料。
其中，另包含用以补充一补充水至该电解槽并且回冲残留于该冷凝过滤器内的该杂质至该电解槽的一湿化装置，其中该湿化装置连接该湿化过滤器，该湿化装置包含有用以容置一补充水的一中空本体、用以接收由该湿化过滤器所输出的该氢氧混合气体的一气体输入管道以及用以湿化并细化该氢氧混合气体的一输出管，该输出管与该气体输入管道连接，该输出管的表面具有数个穿孔。
综合而言，本发明的具有湿化过滤器的气体产生装置中，由电解槽所产生的氢氧混合气体，能够藉由冷凝过滤器进行冷凝及过滤氢氧混合气体中的电解质，藉由湿化过滤器再次过滤氢氧混合气体中的电解质，以及藉由湿化装置细化及湿化氢氧混合气体，以提供一适合人体吸入的氢氧混合气体以及服用的含氢氧混合气体的氢气水。本发明的具有湿化过滤器的气体产生器亦能将补充水由湿化装置输入补充回电解槽，能够在补充水的同时并将电解质回冲至电解槽，用以恢复冷凝过滤器的过滤能力、防止阻塞和腐蚀以及降低电解质的消耗。
关于本发明的优点，精神与特征，将以实施例并参照所附图式，进行详细说明与讨论。
附图说明
图1A以及图1B：绘示根据本发明的一具体实施例的湿化过滤器于不同视角的示意图。
图2A：绘示图1A的内部示意图。
图2B：绘示图1B的内部的示意图。
图3A及图3B：绘示根据本发明的一具体实施例的湿化过滤器于不同视角的爆炸图。
图4A及图4B：绘示图1A所示实施例的湿化过滤器的俯视图及沿该俯视图的A-A线剖设的剖面图。
图5A及图5B：绘示根据本发明的一具体实施例的具有湿化过滤器的气体产生装置于不同视角的示意图。
图6A及图6B：绘示根据本发明的另一具体实施例的冷凝过滤器及水箱的俯视图及沿该俯视图的B-B线剖设的剖面图。
图7：绘示图5A中的湿化装置的内部示意图。
具体实施方式
请先参阅图1A、图1B、图2A以及图2B，图1A以及图1B绘示根据本发明的一具体实施例的湿化过滤器于不同视角的示意图，图2A绘示图1A的内部示意图，图2B绘示图1B的内部的示意图。然而，为了能够清楚表达湿化过滤器内部构造，因此图2A及图2B中并未绘示槽体20。
另外，于本案的说明书中所提的“连通”一词，包含直接连接与间接连接。
如图1A至图2B所示，湿化过滤器2包含有槽体20、第一导管21、第一过滤件22以及第一管道25。槽体20有一容置空间，可用来容置水，但于实际应用时并不以此为限，而可以根据需求容置所需的液体。第一导管21连通槽体20的外部与内部，其具有第一端210以及对应第一端210的第二端212，且第一端210与第二端212可连通槽体20外部与内部。第一过滤件22设置于第一导管21的第二端212。第一管道25连通槽体内部与外部。
于一实施例中，湿化过滤器2可进一步地包含一第二过滤件23，其位于第一管道的出口或入口。于实际应用时，第二过滤件23可设置于第一管道下，藉以将过滤水气后的氢氧混合气体直接输出。第一过滤件22及第二过滤件23可由一多孔性塑料所制成。于一实施例中，多孔性塑料可为一聚乙烯，惟不以此为限。
第一导管21的第一端210可由外部接收氢氧混合气体，再经由第二端212将氢氧混合气体输入至槽体20内。由于第一过滤件22设置在第二端212，氢氧混合气体由第二端212输出时会经过第一过滤件22，并藉第一过滤件22过滤掉氢氧混合气体中的杂质，其中杂质可为电解质。氢氧混合气体输入至槽体20内所容置的水后，可藉由水再次过滤氢氧混合气体。经过水过滤后的氢氧混合气体，可再经过第二过滤件23过滤掉氢氧混合气体中的水气，并经由第一管道25将过滤后的氢氧混合气体输出至槽体20外。
请参阅图3A以及图3B，图3A及图3B绘示根据本发明的一具体实施例的湿化过 滤器于不同视角的爆炸图。于一实施例中，湿化过滤器另包含一盖体200。盖体200设置于槽体上20。盖体200与槽体20可为一可拆式结构。槽体20可容纳水，其水位高低可以根据需求作调整。盖体200可另包含一框架，用以容纳第二过滤件23。盖体200的框架的外型与第二过滤件23的外型相对应，藉以可将第二过滤件23容纳于盖体200的框架中，于一实施例中，第二过滤件23的外型为一板状，惟不以此为限，可根据使用所需作调整。于一实施例中，槽体20内的水并非全满，当盖体200盖设于槽体20上时，设置于盖体200内的第二过滤件23并不会接触到槽体20内的水，藉以保持干燥亦可用于过滤水气。盖体200可另具有一螺孔，而第一导管21具有相对应于该盖体200螺孔的螺纹。第一导管21可藉由螺纹以栓入盖体200的螺孔，以使第一导管21悬空地设置于槽体20中。第一过滤件22的外型与第一导管21的外型相对应，因此第一过滤件22可套接于第一导管21上(如图4B所示)。
请再参阅图3A、图3B、图4A以及图4B，图4A及图4B绘示图1A所示实施例的湿化过滤器的俯视图及沿该俯视图的A-A线剖设的剖面图。湿化过滤器2还可包含一支导管24。支导管24的一端连通于第一导管21的第一端210与第二端212之间，并且支导管24的另一端具有一单向阀240。单向阀240可用以阻挡氢氧混合气体由支导管24输出，因此当第一导管21由外部接收氢氧混合气体时，氢氧混合气体会被单向阀240所阻挡，仅可由第一导管21的第一端210往第二端212输出至槽体20中。单向阀240亦可用以控制槽体20内的一水位(未绘示)。当水位为超过一预定值时，湿化过滤器2可藉由单向阀240开始反抽槽体20内的水，同时经由单向阀240所反抽的槽体20内的水会经由支导管24及第一导管21排出至槽体20外；直到槽体20内水的水位低于预定值时，单向阀240不再抽吸槽体20内部的水，使得槽体20内部水的水位可维持在一定高度。
请再参阅图4A以及图4B。湿化过滤器2可另包含第一管道25及第二管道27。第一管道25以及第二管道27分别位于盖体200并且连通槽体20的内部与外部。于一实施例中，第二管道27在相对应于第一导管21的位置上贯穿盖体200，以连通槽体20的内部与外部，藉以将外部的氢氧混合气体经由第二管道27输入槽体20内部进行湿化及过滤。第一管道25在相对应第二过滤件23的位置上贯穿盖体200，以连通槽体20的内部与外部，藉以将经过过滤后的氢氧混合气体经由第一管道25输出至槽体20外部。
第一管道25除了可用以输出经过过滤后的氢氧混合气体至槽体20外部，第一管道25亦可用以自槽体20外部输入一补充水至槽体20。由于过滤氢氧混合气体的过程中，槽体20内水的杂质浓度会提高，因此本发明可藉由从外部输入补充水以降低槽体20内水的杂质浓度。
请再参阅图3A、图3B以及图4B。湿化过滤器2还可另包含阀门26以及一第三管 道29。阀门26可控制第三管道29以与第一管道25连通并且排除残留于第一管道内的水。于一实施例中，阀门26设置于第三管道29上，可用以控制外部气体的进入与否。第三管道29贯穿盖体200，并可连通槽体20外部与第一管道25。当暂停输入补充水的操作时，打开阀门26以让外部气体吸入槽体20内，进而可让残留于第一管道25内的水流至槽体20内。如此一来，由于第一管道25内没有残留水，当再次执行输入氢氧混合气体进行过滤的操作时，由第一管道25输出经过滤的氢氧混合气体并不会使第一管道25发生吐水现象。如图4B所示，阀门26可以为一电磁阀，惟不以此为限，于实际应用时可根据需求选择如气动阀或机械阀等阀门。另外，于图3A及图3B中，第三管道29的前后有两柱体，该两柱体是用于固定阀门26于盖体200上。请再参阅图1B及图4B。湿化过滤器2还可另包含排水螺栓28。排水螺栓28为设置于槽体20上，并连通槽体20内部及外部。排水螺栓28可提供防静电接地功能。排水螺栓28亦可用以定期排放槽体20内的水。本发明可藉由多次进行藉由排水螺栓28排水并且重新补充补充水的操作，而可达到清洗槽体20的作用。
综上所述，本发明的湿化过滤器能够过滤氢氧混合气体中的电解质，以输出适合人体使用的氢氧混合气体。此外，本发明的湿化过滤器2亦能够藉由排水及补充水的操作，用以降低槽体内的电解质浓度。
接着，请参阅图4B、图5A以及图5B，图5A及图5B绘示根据本发明的一具体实施例的具有湿化过滤器的气体产生装置于不同视角的示意图。气体产生装置1可包含湿化过滤器2以及电解槽3。电解槽3整体于图5A及图5B中仅以虚线绘示。电解槽3用以电解水以产生氢氧混合气体。湿化过滤器2包含槽体20、第一导管21、第一过滤件22以及第一管道25。槽体20用以容置水。第一导管21连通槽体20与电解槽3，且具有用以自电解槽3接收氢氧混合气体的第一端210，以及对应第一端210并用以将氢氧混合气体输入至槽体20内的第二端212。第一过滤件22可过滤由第二端212输入至槽体20内的氢氧混合气体中的杂质，其中杂质可为电解质。槽体20内所容置的水可再次过滤输入至槽体20中的氢氧混合气体。而连通槽体内部与外部的第一管道25可将过滤后的氢氧混合气体输出至槽体外。
于一实施例中，湿化过滤器2可进一步地包含一第二过滤件23，其位于第一管道的出口或入口。第二过滤件23可进一步过滤经过水过滤后的氢氧混合气体中的水气。亦即，氢氧混合气体输入至槽体20内所容置的水后，可藉由水再次过滤氢氧混合气体。经过水过滤后的氢氧混合气体，可再经过第二过滤件23过滤掉氢氧混合气体中的水气。此外，由于湿化过滤器2部分细节已于本案说明书先前的内容中有详细的描述，故在此不再就重复内容多加赘述。
请参阅图5A、图5B、图6A以及图6B，图6A及图6B绘示根据本发明的另一具体实施例的冷凝过滤器及水箱的俯视图及沿该俯视图的B-B线剖设的剖面图。于一实 施例中，气体产生装置1可另包含一冷凝过滤器4，其用以冷凝氢氧混合气体并先行过滤其中的杂质。冷凝过滤器4位于电解槽3与湿化过滤器2之间。冷凝过滤器4具有一入气孔46以及一出气孔48。入气孔46可连接电解槽3，用以接收氢氧混合气体。出气孔48可藉由第二管道27以连通湿化过滤器2，用以将经过冷凝过滤器4过滤后的氢氧混合气体经由气体输入管道52输入至湿化过滤器2进行进一步过滤。另外，本发明的冷凝过滤器4包含有数个冷凝片40。每一冷凝片40具有一流道42，冷凝片40的流道42与相邻的冷凝片40的流道42相互连通，藉以形成供氢氧混合气体流通的一循环流道44，用以冷凝氢氧混合气体。入气孔46与出气孔48可藉由循环流道44相互连通。其中流道42可设置由陶瓷、石英石、硅藻土、海泡石、活性碳纤维中的任一者或以上组合所组成的过滤材料。意即于本实施例中，透过循环流道44的设计以及过滤材材料的设置，能使氢氧混合气体藉由通过冷凝及过滤路径，而达到冷凝及过滤效果。
请参阅图5A、图5B以及图7，图7绘示图5A中的湿化装置5的内部示意图。气体产生装置1可另包含一湿化装置5，用以补充水至电解槽3并且回冲残留于冷凝过滤器4内的杂质至电解槽3。湿化装置5连接湿化过滤器2，并包含中空本体50、气体输入管道52、输出管54以及气体输出管道56。中空本体50用以容置补充水。气体输入管道52可藉由第一管道25以连通湿化过滤器2，用以接收由湿化过滤器2经由第一管道25所输出的氢氧混合气体。输出管54的表面具有数个穿孔540，且输出管54连接气体输入管道52，用以接收氢氧混合气体并将其用以湿化及细化。于一实施例中，穿孔540得具有奈米级的孔径为介于2奈米至10奈米的范围内，用以对气体进行细化以形成易溶解的细化气泡，于实际应用时，穿孔540的孔径大小得视使用者需求进行调整。当氢氧混合气体穿过输出管54的奈米穿孔540后，会进入到水中形成微小气泡并上升，且于上升的过程被湿化。湿化后的氢氧混合气体上升至中空本体50上方，可经由气体输出管道56输出至外界，以供使用者吸入。
湿化装置5另包含液体进出结构58。如上所述，当氢氧混合气体穿过输出管54的奈米穿孔540后，会进入到水中形成微小气泡，亦即氢氧混合气体于水中的溶解度增加而形成氢气水。液体进出结构可设置于中空本体50上，用以补充输入补充水或输出氢气水。于一实施例中，液体进出结构系一液体出入口，其可被开启或关闭，透过液体出入口，可从外部环境对中空本体50补充水，也可从中空本体50内取出已经富含氢氧混合气体的氢气水。
请参阅图5A、图5B以及图4B。如前所述，湿化过滤器2可进一步包含一支导管24，支导管24的一端连通于第一导管21的第一端210与第二端212之间，并且支导管24的另一端具有一单向阀240。单向阀240可用以控制槽体20内的一水位。于一实施例中，当电解槽3暂停产生氢氧气体混合气体时，湿化装置5的中空本体50内 的补充水也可经由第一管道25补充输入至湿化过滤器2中。当补充水由湿化装置5输入至湿化过滤器2的槽体20时，湿化过滤器2可藉由单向阀240控制槽体20内的水位并且将超过水位的水反抽至电解槽3。其中由湿化过滤器2反抽的补充水可经过冷凝过滤器4以输入至电解槽3，同时补充水可将吸附于冷凝过滤器4的循环流道44内的电解质回冲至电解槽3。
请参阅图5A、图5B以及图7。气体产生装置1可另包含一水箱6以及一水泵装置7。电解槽3可设置于水箱6内并与水箱6连供，用以电解水以产生一氢氧混合气体。冷凝过滤器4可经由水箱6与电解槽3连通，用以接收并冷凝并过滤电解槽3所产生的氢氧混合气体。湿化过滤器2连接冷凝过滤器4，以过滤由冷凝过滤器4输出的氢氧混合气体。湿化装置5连接湿化过滤器2，用以接收并湿化过滤后的氢氧混合气体，并输出供使用者使用。水泵装置7连通水箱6的容置空间。当电解槽3暂停产生氢氧气体混合气体时，启动水泵装置7运作，水泵装置7抽取水箱6的容置空间内部的气体以使水箱6内部产生一负压。湿化装置5藉由负压将补充水回抽，补充水由湿化装置5经过湿化过滤器2、冷凝过滤器4以及水箱6至电解槽3。吸附于冷凝过滤器4内的电解质可经由补充水回冲至电解槽3，以恢复冷凝过滤器4的过滤能力、防止阻塞及腐蚀及降低电解质的消耗。
请参阅图5A、图5B。于一实施例中，气体产生装置1可另包含雾化/挥发气体混合槽8。于一实施例中，雾化/挥发气体混合槽8可连接湿化过滤器2以接收过滤后的氢氧混合气体，以及产生一雾化气体与过滤后的氢氧混合气体混合以产生一保健气体，以供使用者吸入，惟不以上述为限。于一实施例中，如图5A、图5B所示，雾化/挥发气体混合槽8可连接湿化装置5。雾化/挥发气体混合槽8可经由气体输出管道56与湿化装置5连接。于实际应用时，由湿化装置5的气体输出管道56输出的氢氧混合气体可进一步地与经由雾化/挥发气体混合槽8产生的雾化气体混合，以形成保健气体供使用者吸入。
另外，水泵装置7亦可位于雾化/挥发气体混合槽8与水箱6之间。于图5A中，水泵装置7与雾化/挥发气体混合槽8的连接方式仅以虚线表示。当水泵装置7运作，水泵装置7抽取水箱6的容置空间内部的气体以使水箱6内部产生一负压。雾化/挥发气体混合槽8具有一与外界连通的输出管54，水泵装置7可藉由雾化/挥发气体混合槽8与外界连通。于实际应用时，藉由水泵装置7由水箱6的容置空间内部所抽取的气体可经由雾化/挥发气体混合槽8排出至外界，藉以在水箱6内部产生负压。湿化装置5再藉由负压将补充水回抽至电解槽3。
于一实施例中，当电解槽3与外部电源电连接，电源的输出电压约为17伏特(V)至27伏特(V)之间，电源的输出电流约为30安培(A)至40安培(A)之间，即电解槽3约产生每分钟1.5公升至4.0公升之间的出气量。于使用时每一组电极(正负极之 间)的电压约1.5伏特(V)至3伏特(V)之间，如有八组则使用的电压为12V～24V之间。惟不以此为限，于实际应用时，当电解槽3与外部电源电连接，电源的输出电压约为5伏特(V)至24伏特(V)之间，电源的输出电流约为2安培(A)至150安培(A)之间，即电解槽3的功率约为10瓦(即约5V*2A)至3600瓦(即约24V*150A)之间，电解槽3能产生每分钟0.01公升至12公升之间的出气量。
综上所述，于本发明的具有湿化过滤器的气体产生器中，由电解槽所产生的氢氧混合气体，能够藉由冷凝过滤器进行冷凝及过滤氢氧混合气体中的电解质，藉由湿化过滤器再次过滤氢氧混合气体中的电解质，以及藉由湿化装置细化及湿化氢氧混合气体，以提供一适合人体吸入的氢氧混合气体以及服用的含氢氧混合气体的氢气水。本发明的具有湿化过滤器的气体产生器亦能将补充水由湿化装置输入补充回电解槽，能够在补充水的同时并将电解质回冲至电解槽，用以恢复冷凝过滤器的过滤能力、防止阻塞和腐蚀以及降低电解质的消耗。
藉由以上较佳具体实施例的详述，系希望能更加清楚描述本发明的特征与精神，而并非以上述所揭露的较佳具体实施例来对本发明的范畴加以限制。相反地，其目的是希望能涵盖各种改变及具相等性的安排于本发明所欲申请的专利范围的范畴内。虽然本发明已以实施方式揭露如上，然其并非用以限定本发明，任何熟习此技艺者，在不脱离本发明的精神和范围内，当可作各种的更动与润饰，因此本发明的保护范围当视后附的申请专利范围所界定者为准。

Claims (14)

  1. 一种湿化过滤器，其特征在于，包含：
    用以容置水的一槽体；
    一第一导管，连通该槽体的内部与外部，该第一导管具有用以接收一氢氧混合气体的一第一端，以及对应该第一端并用以将该氢氧混合气体输入至该槽体内的一第二端；
    用以过滤该氢氧混合气体中的一杂质的一第一过滤件，设置于该第一导管的该第二端；以及
    用以输出过滤后的该氢氧混合气体的一第一管道，连通该槽体的内部与外部。
  2. 如权利要求1所述的湿化过滤器，其特征在于，进一步包含用以过滤该氢氧混合气体中之水气的一第二过滤件，其中该第二过滤件位于该第一管道的出口或入口。
  3. 如权利要求1所述的湿化过滤器，其特征在于，进一步包含一支导管，该支导管的一端连通于该第一导管的该第一端与该第二端之间，以及该支导管的另一端具有用以控制该槽体内之一水位的一单向阀。
  4. 如权利要求1所述的湿化过滤器，其特征在于，另包含一盖体、一第三管道以及用以控制该第三管道以与该第一管道连通并且排除残留于该第一管道内的水的一阀门，其中该盖体设置于该槽体上，该第一管道以及该第三管道分别地位于该盖体并且分别地连通该槽体的内部与外部。
  5. 如权利要求1所述的湿化过滤器，其特征在于，另包含用以定期排放该槽体内的水的一排水螺栓，该排水螺栓设置于该槽体上。
  6. 如权利要求2所述的湿化过滤器，其特征在于，该第一过滤件及该第二过滤件由一多孔性塑料所制成。
  7. 如权利要求6所述的湿化过滤器，其特征在于，该多孔性塑料为一聚乙烯。
  8. 一种具有湿化过滤器的气体产生装置，其特征在于，包含：
    用以电解一电解水以产生一氢氧混合气体的一电解槽；以及
    一湿化过滤器，包含：
    用以容置水的一槽体；
    一第一导管，连通该槽体与该电解槽，该第一导管具有用以接收该氢氧混合气体的一第一端，以及对应该第一端并用以将该氢氧混合气体输入至该槽体内的一第二端；
    用以过滤该氢氧混合气体中之一杂质的一第一过滤件，设置于该第一导管的 该第二端；以及
    用以输出过滤后的该氢氧混合气体的一第一管道，连通该槽体的内部与外部。
  9. 如权利要求8所述的具有湿化过滤器的气体产生装置，其特征在于，该湿化过滤器进一步包含用以过滤该氢氧混合气体中之水气的一第二过滤件，该第二过滤件位于该第一管道的出口或入口。
  10. 如权利要求8项所述的具有湿化过滤器的气体产生装置，其特征在于，该湿化过滤器进一步包含一支导管，该支导管的一端连通于该第一导管的该第一端与该第二端之间，以及该支导管的另一端具有用以控制该槽体内之一水位的一单向阀。
  11. 如权利要求8所述的具有湿化过滤器的气体产生装置，其特征在于，用以接收过滤后的该氢氧混合气体以及产生一雾化气体与过滤后的该氢氧混合气体混合以产生一保健气体的一雾化/挥发气体混合槽，而该雾化气体选自于由水蒸汽、雾化药水、挥发精油及其任意组合所组成的族群中其中一种。
  12. 如权利要求8所述的具有湿化过滤器的气体产生装置，其特征在于，另包含用以冷凝该氢氧混合气体并过滤其中的该杂质的一冷凝过滤器，其中该冷凝过滤器位于该电解槽与该湿化过滤器之间。
  13. 如权利要求12所述的具有湿化过滤器的气体产生装置，其特征在于，该冷凝过滤器包含有数个冷凝片，每一冷凝片具有一流道，该冷凝片的该流道与相邻的该冷凝片的该流道相互连通，藉以形成供该氢氧混合气体流通的一循环流道，其中该流道设有陶瓷、石英石、硅藻土、海泡石、活性碳纤维中任一者组成的过滤材料。
  14. 如权利要求12所述的具有湿化过滤器的气体产生装置，其特征在于，另包含用以补充一补充水至该电解槽并且回冲残留于该冷凝过滤器内的该杂质至该电解槽的一湿化装置，其中该湿化装置连接该湿化过滤器，该湿化装置包含有用以容置一补充水的一中空本体、用以接收由该湿化过滤器所输出的该氢氧混合气体的一气体输入管道以及用以湿化并细化该氢氧混合气体的一输出管，该输出管与该气体输入管道连接，该输出管的表面具有数个穿孔。
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