TWM452235U - Gas molecules burning aid - Google Patents

Description

Gaseous molecular combustion burner

This creation is related to a combustion-supporting device, in particular to a gaseous molecular combustion aid.

According to the normal operation of the engine, the fuel is burned in its cylinder for the engine to operate. However, the explosion of air and fuel is often incomplete, resulting in a lot of exhaust gas and engine carbon deposit. The water molecules can decompose hydrogen and oxygen in a high temperature environment, thereby obtaining the effect of combustion, making combustion more complete, reducing exhaust emissions, and removing engine carbon deposits.

Referring to FIG. 1 , it is a schematic diagram of a conventional water burner, which comprises a bottle body 1 for accommodating water or a mixed solution of water and ethanol, and the bottle body 1 has an intake pipe 2 . The air intake pipe 2 is disposed on the bottle body 1 , wherein the air outlet end of the air intake pipe 2 is disposed in the liquid contained in the bottle body 1 , and the upper end of the bottle body 1 is further An air outlet pipe 3 is disposed, and the air inlet end of the air outlet pipe 3 is disposed above the liquid surface of the liquid contained in the bottle body 1, and the air outlet end of the air outlet pipe 3 is connected to an engine 200. On the gas manifold 300. In view of the fact that when the engine 200 is operating, its intake manifold 300 will thus generate a negative pressure, and thereby introduce air for fuel-fuel mixture explosion combustion, thereby causing the intake manifold 300 to generate a negative during operation of the engine 200. The pressure will cause a negative pressure in the bottle body 1 to cause the intake pipe 2 to take in air, and generate air bubbles during the passage of the air through the liquid, thereby increasing the amount of dissolved oxygen in the liquid. The bubbles are also shattered at the liquid surface to form oxygen-containing small droplets that are introduced into the engine 200 by the negative pressure generated by the intake manifold 300.

Since the small droplets are in a high temperature environment within the engine 200, The absorption of latent heat vaporization can effectively reduce the ambient temperature during the fuel explosion combustion process. However, the small droplets, while lowering the engine temperature, are also caused by too much moisture in the engine 200 due to the high water content of the droplets themselves, thus causing knocking of the engine 200. It even affects the explosion of its fuel, and even worse, it may cause damage to the rust of the engine 200.

Please refer to FIG. 2 again, which is a schematic view of another conventional water burner, which comprises a bottle body 4 for accommodating water or a mixed solution of water and ethanol, and the bottle body 4 is provided with a The atomizer 5 is configured to atomize the liquid contained in the bottle body 4 to form water molecules, and the upper end of the bottle body 4 is provided with a connecting pipe 6, and the inlet end of the connecting pipe 6 is The gas outlet end of the connecting body 6 is disposed in an atomized water collecting bottle 7, and the upper end of the atomized water collecting bottle 7 is disposed on the liquid surface of the liquid contained in the bottle body 4. There is an air outlet 8 and the air outlet 8 is connected to the intake manifold 300 of an engine 200.

When the engine 200 is operated, the negative pressure generated by the intake manifold 300 will cause a negative pressure in the atomized water collection bottle 7, and the water generated by the atomization of the atomizer 5 will be generated. The molecules are thereby introduced into the atomized water collection bottle 7 and further introduced into the engine 200 to lower the temperature of the engine 200. Although the water-supplying bottle 7 can pass through the atomized water collecting bottle 7 through the atomized water collecting bottle 7, the water is condensed in the atomized water collecting bottle 7 to be stagnant. The atomized water is collected in the bottle 7, but the mechanism for condensing water molecules having excessive water content into water droplets is poor, resulting in limited effect, and the water vapor introduced into the engine 200 is still excessive, thereby causing the The engine 200 does not operate smoothly.

Therefore, after observing the above shortcomings, the creator of the case believes that the above-mentioned water burners are necessary for further improvement, and this creation is accompanied by this creation.

The purpose of this creation is to provide a gaseous molecular combustion burner that filters out moisture that is too high in water content, while retaining only gaseous molecules to pass through It can achieve the purpose of combustion support, and thus has the advantages of making the engine burn more completely and running smoothly.

In order to achieve the above object, the present invention provides a gaseous molecular combustion burner comprising a first bottle for containing a liquid, and the first bottle system has an intake pipe, and the intake pipe is worn. Provided on the first bottle body, the two ends of the air inlet pipe are respectively defined as an air inlet end and an air outlet end, and a connecting pipe is disposed on the first bottle body, and the two ends of the connecting pipe are respectively The air intake end is defined as an air inlet end and an air outlet end, and the air inlet end of the connecting tube is disposed at the upper end of the first bottle body, and the air outlet end of the connecting tube is disposed on a second bottle body, the first The second bottle system is provided with a plurality of filter materials for gas-liquid separation, and the upper end of the second bottle body is further provided with an air outlet pipe.

The gaseous molecular combustion burner provided by the present invention has an outlet pipe further connected to an intake manifold, and an engine is connected through the intake manifold, and the gaseous molecular combustion aid is realized by the gas-liquid separation filter. The purpose of filtering and separating the water vapor with too high water content is that when the gaseous molecules passing through the gas outlet tube are mixed into the engine and combusted with the fuel, the hydrogen and oxygen decomposed by the gaseous molecules can achieve the effect of combustion-supporting, without As a result, the water in the engine is too much, which makes the engine burn more completely, runs smoothly, and further reduces the temperature of the overall engine.

[知知]

1‧‧‧ bottle

2‧‧‧Intake pipe

3‧‧‧Exhaust pipe

4‧‧‧ bottle body

5‧‧‧ atomizer

6‧‧‧Connecting tube

7‧‧‧Atomized water collection bottle

8‧‧‧Exhaust pipe

200‧‧‧ engine

300‧‧‧ intake manifold

[This creation]

100‧‧‧Gaseous molecular combustion burner

10‧‧‧First bottle

11‧‧‧Intake pipe

111‧‧‧ intake end

112‧‧‧Exhaust end

12‧‧‧First filter

13‧‧‧The first bubble stone

14‧‧‧Liquid

20‧‧‧Connecting tube

201‧‧‧ intake end

202‧‧‧Exhaust end

21‧‧‧Second bubble stone

30‧‧‧Second bottle

31‧‧‧Exhaust pipe

311‧‧‧ intake end

312‧‧‧Exhaust end

32‧‧‧Second filter

33‧‧‧ Filter media for gas-liquid separation

40‧‧‧ bottle body

41‧‧‧Intake pipe

411‧‧‧ intake end

412‧‧‧Exhaust end

42‧‧‧Exhaust pipe

421‧‧‧ intake end

422‧‧‧Exhaust end

43‧‧‧First filter

44‧‧‧ bubble stone

45‧‧‧Second filter

46‧‧‧Liquid

47‧‧‧ Filter media for gas-liquid separation

Figure 1 is a schematic diagram of a conventional water burner.

Figure 2 is a schematic view of another conventional water burner.

Figure 3 is a perspective view of the first embodiment of the present creation.

Figure 4 is a cross-sectional view of the first embodiment of the present invention.

Figure 5 is a schematic cross-sectional view showing the first embodiment of the present invention.

Figure 6 is a schematic cross-sectional view showing a second embodiment of the present invention.

Figure 7 is a schematic cross-sectional view showing a third embodiment of the present invention.

Please refer to FIG. 3 and FIG. 4 , which are perspective views and cross-sectional views of a first embodiment of the present invention. The present invention discloses a gaseous molecular combustion improver 100. The gaseous molecular combustion improver 100 includes: a first The bottle body 10 is for accommodating the liquid 14. In the first embodiment of the present invention, the liquid 14 is water, but this is only an embodiment, and is not limited to the embodiment of the present invention. Either ethanol or a mixture of ethanol and water can be selected, which can also achieve the same effect, and the low-flame-burning and high-volatility ethanol also has the effect of supporting combustion. The first bottle body 10 has an intake pipe 11 , and the air intake pipe 11 is disposed on the first bottle body 10 . The two ends of the air intake pipe 11 are respectively defined as an intake end 111 . And an air outlet end 112, wherein the air inlet end 111 of the air inlet tube 11 is located outside the first bottle body 10, and communicates with the outer boundary of the first bottle body 10, and the air inlet end of the air inlet tube 11 The 111 series is provided with a first filter material 12. In the first embodiment of the present invention, the first filter material 12 is an air filter for filtering air, thereby filtering particles in the air, and the air inlet pipe 11 The outlet end 112 is provided with a first bubble stone 13 , and the outlet end 112 of the intake pipe 11 is in the first bottle body 10 and extends downward to the lower end of the first bottle body 10 and is located at the liquid 14 By virtue of the porous nature of the first bubble stone 13, the liquid contained in the first bottle body 10 can be vented to generate fine bubbles.

A connecting tube 20 is defined as an air inlet end 201 and an air outlet end 202 respectively. The air inlet end 201 of the connecting tube 20 is disposed at the upper end of the first bottle body 10, and the air outlet end 202 is provided. There is a second bubble stone 21.

a second bottle body 30 for accommodating a plurality of gas-liquid separation filter materials 33. In the first embodiment of the present invention, the gas-liquid separation filter materials 33 are a plurality of foam blocks, and the foams are used in the foams. A gap is formed between the blocks, but this is only an embodiment, and is not limited to the embodiment of the present invention. The gas-liquid separation filter material 33 may also be selected to have a specific gravity smaller than water and ethanol or other liquids having the same effect, and the weight. Heavyer than air, For example: multiple styrofoam blocks, plural PU blocks, and so on. The outlet end 202 of the connecting tube 20 is disposed on the second bottle body 30, and the outlet end 202 of the connecting tube 20 extends downwardly in the second bottle body 30 to the second bottle body 30. The lower end of the second bottle body 30 is further provided with an air outlet pipe 31. The two ends of the air outlet pipe 31 are respectively defined as an air inlet end 311 and an air outlet end 312, wherein the air outlet pipe 31 enters The air end 311 is located above the gas-liquid separation filter material 33, and the air inlet end 311 of the air outlet pipe 31 is provided with a second filter material 32. In the first embodiment of the present invention, the second filter material 32 is An air filter, and the air outlet end 312 of the air outlet pipe 31 is located outside the second bottle body 30.

The gaseous molecular blaster 100 is coupled to an intake manifold via the air outlet 31 and is coupled to an engine through the intake manifold to communicate the gaseous molecular blaster 100 with the engine.

In order to further understand the characteristics of this creation, the use of technical means and the expected results, we will use the way of using this creation. I believe that we can have a deeper and more specific understanding of this creation, as follows: Please continue to refer to As shown in Fig. 5, when the engine is actuated, the negative pressure generated by the intake manifold causes a negative pressure to be generated in the second bottle 30, and the first bottle body 10 is further caused. A negative pressure is also formed, so that the intake pipe 11 takes in air, and bubbles are generated by the first bubble stone 13 when the air is discharged, thereby increasing the contact area of the air with each other in the process of passing through the liquid 14, thereby The action is enhanced to increase the amount of dissolved oxygen in the liquid 14, and the bubbles are split at their liquid level to form oxygen-containing moisture, and the water is drawn into the second through the connecting pipe 20. Inside the bottle body 30.

In the second bottle body 30, the gap between the gas-liquid separation filter materials 33 accommodated in the second bottle body 30 is used to adsorb moisture having a high water content and condense in the second bottle body 30. The gas-liquid separation filter 33 is passed only between the gaps Oxygen-containing gaseous molecules, for the purpose of filtering and separating water vapor with excessive water content, so that the water molecules passing through the gas outlet pipe 31 of the second bottle body 30 are oxygen-containing gaseous molecules, and then enter the engine. When it is internally combusted by its gaseous molecules and fuel, it can be enriched with oxygen by the oxygen-containing gaseous molecules itself, and can further generate hydrogen in a high temperature environment, and the hydrogen and oxygen decomposed by the gas. The fuel-burning effect is achieved, and the engine is burned more completely, which not only reduces exhaust emissions, but also reduces carbon deposition without causing excessive moisture in the engine to make the engine run smoothly.

It is worth mentioning that the gaseous molecules absorb latent heat before the high temperature environment in the engine is decomposed into hydrogen and oxygen, thus effectively reducing the temperature of the overall engine.

Please refer to FIG. 6 , which is a schematic cross-sectional view of a second embodiment of the present invention. The gas molecular combustion improver 100 is different from the first embodiment in that the second bottle body 30 is accommodated. The gas-liquid separation filter material 33 is a plurality of foam sheets, and the foam sheets have a plurality of through-holes, but this is only an embodiment, and is not limited to the embodiment of the present invention, and the gas-liquid separation is used. The filter material 33 may also be selected as a plurality of styrofoam plates having a plurality of through holes or a plurality of PU plates having a plurality of through holes.

When the moisture in the first bottle body 10 is sucked into the second bottle body 30, the foam sheets are accommodated by the second bottle body 30 for adsorbing moisture having excessive moisture content. Passing the water vapor through the holes, causing them to condense on the foam plates, thereby achieving the purpose of filtering and separating the moisture having an excessively high water content, thereby allowing the second bottle to pass. The water molecules of the outlet pipe 31 of the 30 are oxygen-containing gaseous molecules, and can achieve the effect of combustion-supporting, so that the engine burns more completely, thereby reducing carbon deposits and even removing carbon deposits without causing moisture in the engine. Too much to make the engine run smoother.

Please refer to FIG. 7 , which is a schematic cross-sectional view of the third embodiment of the present invention. When the space is insufficient to accommodate the two bottles, the creation system provides the third implementation. For example, it is disclosed that there is a gaseous molecular combustion improver 100, which is different from the previous embodiment in that it comprises: a bottle body 40 containing a liquid 46, in the present invention. In the third embodiment, the liquid 46 is water, but this is merely an embodiment and is not intended to limit the implementation of the present invention. The bottle body 40 has an air inlet tube 41, and the air inlet tube 41 is disposed on the bottle body 40. The two ends of the air inlet tube 41 are respectively defined as an air inlet end 411 and an air outlet end. 412, wherein the intake end 411 is located outside the bottle body 40 and communicates with the outer boundary of the bottle body 40, and the air outlet end 412 is in the liquid 46, and the intake end 411 of the intake pipe 41 A first filter material 43 is provided. In the third embodiment of the present invention, the first filter material 43 is an air filter, and the air outlet end 412 of the air inlet pipe 41 is provided with a bubble stone 44. Further, the bottle body 40 further houses a plurality of gas-liquid separation filter materials 47, and the gas-liquid separation filter materials 47 are disposed on the liquid 46. In the third embodiment of the present invention, the gas-liquid separation is performed. The filter material 33 is a plurality of foam blocks, and a gap is formed between the foam blocks. However, this is only an embodiment, and is not limited to the embodiment of the present invention. The gas-liquid separation filter material 33 can also be selected. It is a material that is heavier than water or other liquids with the same effect and is heavier than air. The upper end of the bottle body 40 is further provided with an air outlet tube 42. The two ends of the air outlet tube 42 are respectively defined as an air inlet end 421 and an air outlet end 422, and the air inlet end 421 of the air outlet tube 42 is provided with a The second filter material 45, in the third embodiment of the present invention, the second filter material 45 is an air filter.

The gaseous molecular blaster 100 is coupled to an intake manifold via the air outlet conduit 42 and is coupled to an engine through the intake manifold to communicate the gaseous molecular blaster 100 with the engine.

Continuing to refer to FIG. 7, the gas-liquid separation filter material 47 floating on the liquid 46 is capable of adsorbing moisture having a high water content and condensing it on the gas-liquid separation filter material 47. Passing oxygen-containing gaseous molecules only between their gaps, The purpose of filtering and separating the moisture having an excessively high water content is achieved, and the water molecules passing through the gas outlet 42 of the bottle body 40 are oxygen-containing gaseous molecules. Thereby, not only the efficacy and advantages of the foregoing embodiments can be preserved, but also the volume of the gaseous molecular igniter 100 can be further reduced, so that the gaseous molecular susceptor 100 of the present invention can be used in a small space.

Hereby, the characteristics of this creation and its achievable expected effects are stated as follows: The gaseous molecular combustion burner of the present invention achieves the purpose of filtering and separating water and moisture with excessive water content by using the filter material for gas-liquid separation. The gas outlet is a gaseous molecule, and when it is mixed with a fuel, the hydrogen and oxygen decomposed by the gaseous molecules can achieve the combustion-supporting effect, so that the engine burns more completely, the exhaust gas is reduced, thereby reducing carbon deposits, and even Eliminates carbon deposits, making the engine run smoother and lowering the temperature of the overall engine.

In summary, this creation has its excellent progress and practicality in similar products. At the same time, it has investigated the technical information about such structures at home and abroad. The same structure has not been found in the literature. This creation has already possessed new types of patent requirements, and applied for it according to law.

However, the above-mentioned ones are only one of the preferred embodiments of the present invention, and the equivalent structural changes of the present specification and the scope of the patent application are intended to be included in the scope of the present patent.

100‧‧‧Gaseous molecular combustion burner

10‧‧‧First bottle

11‧‧‧Intake pipe

111‧‧‧ intake end

112‧‧‧Exhaust end

12‧‧‧First filter

13‧‧‧The first bubble stone

14‧‧‧Liquid

20‧‧‧Connecting tube

201‧‧‧ intake end

202‧‧‧Exhaust end

21‧‧‧Second bubble stone

30‧‧‧Second bottle

31‧‧‧Exhaust pipe

311‧‧‧ intake end

312‧‧‧Exhaust end

32‧‧‧Second filter

33‧‧‧ Filter media for gas-liquid separation

Claims (9)

A gaseous molecular combustion burner includes: a bottle body containing a liquid, and the bottle system has an intake pipe, the intake pipe is disposed on the bottle body, and the intake pipe is The two ends are respectively defined as an air inlet end and an air outlet end, wherein the air inlet end is located outside the bottle body and communicates with the outer boundary of the bottle body, and the air outlet end is located in the liquid, and The bottle body is further provided with a plurality of filter materials for gas-liquid separation, and the gas-liquid separation filter materials are disposed on the liquid, and the upper end of the bottle body is further provided with an air outlet pipe, and the two ends of the gas outlet pipe are respectively The air intake end is defined as an air inlet end and an air outlet end, wherein the air inlet end of the air outlet pipe is located above the gas-liquid separation filter material, and the air outlet end of the air outlet pipe is located outside the bottle body, and the system is connected Intake manifold to an engine. The gas molecular fuel-assisted burner according to claim 1, wherein the inlet end of the gas inlet pipe is provided with a first filter material, and the inlet end of the gas outlet pipe is provided with a second filter material. The gas molecular fuel-assisted burner according to claim 1, wherein the gas outlet end of the gas inlet pipe is provided with a bubble stone. A gaseous molecular combustion burner includes: a first bottle body for accommodating a liquid, and the first bottle system has an intake pipe, and the intake pipe is threaded through the first bottle body The two ends of the intake pipe are respectively defined as an intake end and an outlet end, wherein the intake end of the intake pipe is located outside the first bottle and communicates with the outer boundary of the first bottle And the outlet end of the inlet pipe is located in the liquid; a connecting pipe has two ends defined as an inlet end and an outlet end, and the inlet end of the connecting pipe is disposed in the first bottle body An upper end, and above the liquid; a second bottle body for accommodating a plurality of filter materials for gas-liquid separation, wherein an outlet end of the connecting pipe is disposed on the second bottle body, and the second bottle is The upper end of the body is further provided with an air outlet pipe, and the two ends of the air outlet pipe are respectively defined as an air inlet end and an air outlet. The end of the outlet pipe is located above the gas-liquid separation filter material, and the outlet end of the gas outlet pipe is located outside the second bottle body, which is connected to an engine intake manifold tube. The gas molecular fuel-assisted burner according to claim 4, wherein the inlet end of the gas inlet pipe is provided with a first filter material, and the inlet end of the gas outlet pipe is provided with a second filter material. The gas molecular fuel-assisted burner according to claim 4, wherein the gas outlet end of the gas inlet pipe is provided with a first bubble stone, and the outlet end of the connection pipe is provided with a second bubble stone. A gaseous molecular igniter as described in claim 1 or 4, wherein the liquid system is water. The gas molecular fuel-assisted burner according to claim 1 or 4, wherein the gas-liquid separation filter material is a plurality of foam blocks, and a gap is formed between the foam blocks. The gas molecular fuel-assisted burner according to claim 1 or 4, wherein the gas-liquid separation filter material is a plurality of foam sheets, and the foam sheets have a plurality of through holes.