JP5046125B2 - Automatic eco compressor - Google Patents

Automatic eco compressor Download PDF

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JP5046125B2
JP5046125B2 JP2008210895A JP2008210895A JP5046125B2 JP 5046125 B2 JP5046125 B2 JP 5046125B2 JP 2008210895 A JP2008210895 A JP 2008210895A JP 2008210895 A JP2008210895 A JP 2008210895A JP 5046125 B2 JP5046125 B2 JP 5046125B2
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valve
tank
compressor
air
gas
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JP2010048102A (en
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興華 朱
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興華 朱
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/20Hydro energy

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Description

本発明は、潮やダム、雨水および雪溶け水などの位置エネルギーを空気圧に変換させ、得た低圧空気を用いて、自身の圧力を高めることが出来る自動エココンプレッサに関する。  The present invention relates to an automatic eco-compressor that converts potential energy such as tides, dams, rainwater, and melted snow water into air pressure, and can increase its own pressure by using the obtained low-pressure air.

純度100%気体を低コストで圧縮する自動エココンプレッサに関する。 The present invention relates to an automatic eco-compressor that compresses 100% purity gas at low cost.

現在、雨水や雪溶け水等は、水力発電以外、再生可能な自然エネルギーとして利用されていない。又、ダムに流される前の水やダムに流されてない水の位置エネルギーが回収されないまま消えているのは現状です。 At present, rainwater and melted snow are not used as renewable natural energy other than hydroelectric power generation. In addition, the potential energy of the water before flowing into the dam and the water not flowing into the dam is disappearing without being recovered.

近年地球温暖化が進み、世界各地毎年集中豪雨による水災害が多発し、それを防ぐ有効な対策は依然課題となっている。 In recent years, global warming has progressed, and water disasters due to torrential rains occur every year around the world.

産業上使われているエアコンプレッサは、往復駆動式が主流で、ピストンとシリンダの焼付きを防ぐ為に潤滑油が使われ、圧縮されたエアの中に混ぜられた潤滑油を除去する為、様々なフィルターを使わなければならない。それでも純度100%圧縮空気にならないし、コストも高い、効率が悪い。 The air compressor used in the industry is the reciprocating drive type, and the lubricant is used to prevent seizure of the piston and cylinder, and the lubricant mixed in the compressed air is removed. Various filters must be used. Still, it does not become 100% pure compressed air, is expensive, and is inefficient.

低コストで、再生可能な自然エネルギーの回収と利用が出来る技術の提供を第1の課題とする。 The first issue is to provide a technology that can recover and use renewable natural energy at low cost.

低コストで、純度100%気体を圧縮できる自動エココンプレッサの提供を第2の課題とする。 The second problem is to provide an automatic eco-compressor that can compress gas with a purity of 100% at low cost.

本願発明は、上面に大気を吸い込むための逆止弁(7)を備えた水面圧で気体を圧縮する密閉容器からなるコンプレッサ(6)とこのコンプレッサ(6)から5000mまでの高所に雨水や雪溶け水を溜める貯水槽(1)を設け、又、1000mまでの高所には上面に圧縮空気を大気に放出するための開閉弁10(16)を備えたタンク(17)を設けると共に、前記コンプレッサ(6)の下面と貯水槽(1)の下面とは開閉弁1(4)を介して貯水槽(1)からコンプレッサ(6)に雨水や雪溶け水を圧送し、コンプレッサ(6)内の空気を圧縮するために配水管(2)で連通させ、前記コンプレッサ(6)の下面と開閉弁1(4)の間の配水管(2)には開閉弁3(5)を介してタンク(17)の水をコンプレッサ(6)に圧送し、コンプレッサ(6)内の圧縮空気を更に圧縮するために耐圧配管(20)でタンク(17)の下面に連通させ、開閉弁1(4)と開閉弁3(5)の間の管には排水弁2(3)を設け、更に、前記コンプレッサ(6)とタンク(17)のそれぞれ上面は開閉弁4(9)と開閉弁5(12)を介して配管で連通され、前記開閉弁4(9)と開閉弁5(12)の間の配管には圧縮空気を貯める空気槽1(10)と管で連通し、コンプレッサ(6)で圧縮された一次圧縮空気は開閉弁4(9)を介して空気槽1(10)に貯められると共に、前記一次圧縮された空気は空気槽1(10)から開閉弁5(12)を介してタンク(17)に導入される一方、前記コンプレッサ(6)とタンク(17)のそれぞれ上面は開閉弁6(11)と開閉弁7(13)を介して配管でつながり、前記開閉弁6(11)と開閉弁7(13)の間の配管には圧縮空気を貯める空気槽2(21)と管で連通しており、前記空気槽1(10)に貯められた一次圧縮空気は開閉弁4(9)を介してコンプレッサ(6)の上部に導入され、次いで、前記タンク(17)に導入された一圧縮空気とタンク(17)の水が開閉弁3(5)を介して落差hによりコンプレッサ(6)に圧送されることにより、前記コンプレッサ(6)の上部に導入された一次圧縮空気が更に圧縮されて二次圧縮空気となり、コンプレッサ(6)から開閉弁6(11)を介して空気槽2(21)に貯められ、他方、圧縮気体を貯めるためにガス槽3(18)とガス槽4(19)が設けられ、開閉弁8(14)を介してガス槽3(18)と又、開閉弁9(15)を介してガス槽4(19)とは、それぞれ前記コンプレッサ(6)の上面と管で連通され、ガス槽3(18)に貯存されている低圧ガスが開閉弁8(14)を介してコンプレッサ(6)の上部に送られて圧縮され、この圧縮されたガスはコンプレッサ(6)から開閉弁9(15)を介してガス槽4(19)に貯められると共に、自動制御として開閉弁1を開け、コンプレッサ中の空気を水面圧によって圧縮し、開閉弁4を開け、空気槽1に貯める。次に開閉弁1,4を閉め、排水弁2を開け、水を放出し、逆止弁が開かれ、大気から空気が吸い込められ、再び排水弁2を閉め、開閉弁1,4を開け、このように圧縮空気が繰り返し空気槽1に貯められ、そして開閉弁1,5,6,7,8,9,及び排水弁2を閉め、開閉弁3を開け、空気槽1に貯められた圧縮空気が開閉弁4を通じてコンプレッサ上部に入れられ、開閉弁4を閉め、開閉弁5を開け、タンク上部に空気槽1より圧縮空気を入れると、コンプレッサ上部に入れられた同圧空気が落差hの水圧により更に圧縮され、開閉弁6を開け空気槽2に貯められる。そして、開閉弁5,6を閉め、タンク上部の圧縮空気を開閉弁10によって放出、開閉弁4開け、空気槽1から圧縮空気を再びコンプレッサ上部に入れ、開閉弁4再度閉め、開閉弁5,6を開け、このように空気槽1より圧力の高い圧縮空気が繰り返して空気槽2に貯められる。同じ方法で空気槽2に貯められた圧縮空気を更に圧縮することができる。更に、ガスを圧縮する場合、開閉弁1,4,5,6,7,9,及び排水弁2を閉め、開閉弁8を開け、ガス槽3に貯存されている圧縮ガスをコンプレッサ上部に入れ、開閉弁8を閉め、開閉弁7を開け、空気槽2に貯められた圧縮空気をタンク上部に入れると、ガスが空気槽2の空気圧+落差hの水圧まで圧縮され、開閉弁9を通じてガス槽4に貯められる。そして開閉弁9を閉め開閉弁5を開け、タンク上部の圧縮空気が空気槽1に回収され、開閉弁5を閉め、開閉弁8を開け、コンプレッサ上部に再びガスを入れ、開閉弁8を閉め、開閉弁7を開け、このように繰り返しガス槽3に貯められた圧縮ガスが更に圧縮された後ガス槽4に貯められることが出来る。The present invention includes a compressor (6) comprising a sealed container for compressing gas at a water surface pressure provided with a check valve (7) for sucking the atmosphere into the upper surface, and rainwater and high water from the compressor (6) to 5000 m. A water storage tank (1) for storing melted snow is provided, and a tank (17) having an open / close valve 10 (16) for releasing compressed air to the atmosphere is provided on the upper surface up to 1000 m, and The lower surface of the compressor (6) and the lower surface of the water storage tank (1) are pumped with rainwater or snow melt water from the water storage tank (1) to the compressor (6) via the on-off valve 1 (4 ). In order to compress the air inside, the water distribution pipe (2) communicates with the water distribution pipe (2) between the lower surface of the compressor (6) and the on-off valve 1 (4) via the on-off valve 3 (5). Pump the water from the tank (17) to the compressor (6) Withstand pipe to further compress the compressed air in the suppressor (6) (20) with communicates with the lower surface of the tank (17), the tube between the opening and closing valve 1 (4) and the on-off valve 3 (5) Drainage A valve 2 (3) is provided, and the upper surfaces of the compressor (6) and the tank (17) are connected to each other by piping via an on-off valve 4 (9) and an on-off valve 5 (12). 9) and the open / close valve 5 (12) communicate with the air tank 1 (10) for storing compressed air through a pipe, and the primary compressed air compressed by the compressor (6) passes through the open / close valve 4 (9). The air compressed in the air tank 1 (10) is introduced into the tank (17) from the air tank 1 (10) through the on-off valve 5 (12), while the compressor (6 ) And the upper surface of the tank (17) via the on-off valve 6 (11) and the on-off valve 7 (13). Ties in the pipe Te, the on-off valve 6 (11) and the pipe between the on-off valve 7 (13) communicates with the tube with the air tank 2 (21) to accumulate the compressed air, the air tank 1 (10) The primary compressed air stored in the tank is introduced into the upper part of the compressor (6) through the on-off valve 4 (9), and then the primary compressed air introduced into the tank (17) and the water in the tank (17) are opened and closed. By being pumped to the compressor (6) by the drop h through the valve 3 (5), the primary compressed air introduced into the upper part of the compressor (6) is further compressed into secondary compressed air, and the compressor (6 ) To the air tank 2 (21) via the on-off valve 6 (11), on the other hand, a gas tank 3 (18) and a gas tank 4 (19) are provided to store the compressed gas, and the on-off valve 8 ( 14) through the gas tank 3 (18) and the on-off valve 9 (1 5) is connected to the gas tank 4 (19) through a pipe with the upper surface of the compressor (6), and the low-pressure gas stored in the gas tank 3 (18) passes through the on-off valve 8 (14). Te is compressed is sent to the upper part of the compressor (6), the compressed gas is accumulated in the compressor-off valve 9 (6) (15) through the gas tank 4 (19) Rutotomoni, opened and closed automatically controlled The valve 1 is opened, the air in the compressor is compressed by the water surface pressure, the on-off valve 4 is opened, and stored in the air tank 1. Next, the on-off valves 1 and 4 are closed, the drain valve 2 is opened, the water is discharged, the check valve is opened, air is sucked in, the drain valve 2 is closed again, and the on-off valves 1 and 4 are opened. Thus, the compressed air was repeatedly stored in the air tank 1, and the on-off valves 1, 5, 6, 7, 8, 9 and the drain valve 2 were closed, the on-off valve 3 was opened, and the air tank 1 was stored. Compressed air is introduced into the upper part of the compressor through the on-off valve 4, the on-off valve 4 is closed, the on-off valve 5 is opened, and compressed air is introduced from the air tank 1 to the upper part of the tank. The water pressure is further compressed, and the on-off valve 6 is opened and stored in the air tank 2. Then, the on-off valves 5 and 6 are closed, the compressed air in the upper part of the tank is released by the on-off valve 10, the on-off valve 4 is opened, the compressed air from the air tank 1 is again put into the upper part of the compressor, and the on-off valve 4 is closed again. 6 is opened, and compressed air having a pressure higher than that of the air tank 1 is repeatedly stored in the air tank 2 in this manner. The compressed air stored in the air tank 2 can be further compressed in the same manner. Furthermore, when gas is compressed, the on-off valves 1, 4 , 5 , 6 , 7 , 9, and the drain valve 2 are closed, the on-off valve 8 is opened, and the compressed gas stored in the gas tank 3 is placed in the upper part of the compressor. When the on-off valve 8 is closed, the on-off valve 7 is opened, and the compressed air stored in the air tank 2 is put into the upper part of the tank, the gas is compressed to the air pressure of the air tank 2 + the water pressure of the drop h, and the gas is passed through the on-off valve 9. Stored in tank 4. Then, the on-off valve 9 is closed and the on-off valve 5 is opened. The compressed air in the upper part of the tank is collected in the air tank 1, the on-off valve 5 is closed, the on-off valve 8 is opened, gas is again put in the upper part of the compressor, and the on-off valve 8 is closed. The on-off valve 7 is opened, and the compressed gas repeatedly stored in the gas tank 3 in this manner can be further compressed and stored in the gas tank 4.

第2の課題を解決するため、請求項1に説明したコンプレッサをいかして、1000mまでの高所にタンクを設け、タンクとコンプレッサの間に開閉弁3を通じて耐圧配管をつなげ、開閉弁1,2,5,6,7,8.9を閉め、開閉弁3を開け、空気槽1に貯められた圧縮空気が開閉弁4を通じてコンプレッサ上部に入れられ、開閉弁4を閉め、開閉弁5を開け、タンク上部に空気槽1より圧縮空気を入れると、コンプレッサ上部に入れられた同圧空気が落差hの水圧により更に圧縮され、開閉弁6を開け空気槽2に貯められる。そして、開閉弁5,6を閉め、タンク上部の圧縮空気を開閉弁10によって放出、開閉弁4を開け、空気槽1から圧縮空気を再びコンプレッサ上部に入れ、開閉弁4を再度閉め、開閉弁5,6を開け、このように空気槽1より圧力の高い圧縮空気が繰り返して空気槽2に貯められる。同じ方法で空気槽2に貯められた圧縮空気を更に圧縮することができる。 To solve the second problem, the compressor described in claim 1 is used to provide a tank at a height of up to 1000 m, and a pressure-resistant pipe is connected between the tank and the compressor through the on-off valve 3, and the on-off valves 1, 2 , 5, 6, 7, 8.9 are closed, the on-off valve 3 is opened, the compressed air stored in the air tank 1 is put into the upper part of the compressor through the on-off valve 4, the on-off valve 4 is closed, and the on-off valve 5 is opened. When compressed air is introduced into the upper part of the tank from the air tank 1, the same-pressure air placed in the upper part of the compressor is further compressed by the water pressure of the drop h, and the opening / closing valve 6 is opened and stored in the air tank 2. Then, the on-off valves 5 and 6 are closed, the compressed air in the upper part of the tank is released by the on-off valve 10, the on-off valve 4 is opened, the compressed air from the air tank 1 is again put into the upper part of the compressor, and the on-off valve 4 is closed again. 5 and 6 are opened, and compressed air having a pressure higher than that of the air tank 1 is repeatedly stored in the air tank 2 in this manner. The compressed air stored in the air tank 2 can be further compressed in the same manner.

又、上記説明のように、図2に示す開閉弁1,2,4,5,6,7,9を閉め、開閉弁8
を開け、ガス槽3に貯存されている圧縮ガスをコンプレッサ上部に入れ、開閉弁8を
閉め、開閉弁7を開け、空気槽2から圧縮空気をタンク上部に入れると、ガスが空気
槽2の空気圧+落差hの水圧まで圧縮され、開閉弁9を通じてガス槽4に貯められる。
そして、開閉弁9を閉め、開閉弁5を開け、タンク上部の空気が空気槽1に回収され、
開閉弁5を閉め、開閉弁8を開け、コンプレッサ上部に再びガスを入れ、開閉弁8
を閉め、開閉弁7を開け、このようにガス槽3に貯められた圧縮ガスが更に圧縮され
た後ガス槽4に貯められることができる。
Further, as described above, the on-off valves 1, 2, 4, 5, 6, 7, and 9 shown in FIG.
, The compressed gas stored in the gas tank 3 is put into the upper part of the compressor, the on-off valve 8 is closed, the on-off valve 7 is opened, and the compressed air from the air tank 2 is put into the upper part of the tank. The air pressure is compressed to a water pressure of a drop h and is stored in the gas tank 4 through the on-off valve 9.
Then, the on-off valve 9 is closed, the on-off valve 5 is opened, and the air at the top of the tank is collected in the air tank 1,
Close the on-off valve 5 and open the on-off valve 8 and refill the top of the compressor with gas.
Is closed, the on-off valve 7 is opened, and the compressed gas thus stored in the gas tank 3 can be further compressed and stored in the gas tank 4.

この技術の普及によって、再生可能な自然エネルギーの回収ができ、同時に集中豪雨等による水災害の緩和や防止もできる。又、貯められた圧縮空気は、都会では防災や空気圧が利用される機器に使われるし、水の少ない地区への送水等空気圧エネルギーの積極的利用によって、低炭素社会の実現に役に立つことができる。 With the spread of this technology, renewable natural energy can be recovered, and water disasters caused by torrential rain can be mitigated and prevented. The stored compressed air can be used in urban areas where disaster prevention and air pressure are used, and it can be useful for the realization of a low-carbon society by actively using pneumatic energy such as water supply to areas with little water. .

呼吸器用ボンベに詰められる空気の安全性が求められている。本発明は、これに応え、低コストで安全な純度100%圧縮空気を得ることができる。 There is a need for the safety of the air that is packed in respiratory cylinders. In response to this, the present invention can obtain 100% compressed air with low cost and safety.

潤滑油などの異物が一切使用されてないので、低コストで純度100%ガスの圧縮ができる。 Since no foreign matter such as lubricating oil is used, 100% purity gas can be compressed at low cost.

雨水や雪溶け水など高所にある水の位置エネルギーを空気圧に変換させ、再生可能な自然エネルギーの回収方法を表わす。Represents a method for recovering renewable natural energy by converting the potential energy of rainwater and snow melt water into high pressure. 低コストで純度100%気体を圧縮できる仕組みを表す。This represents a mechanism that can compress 100% pure gas at low cost. 本発明の全体図Overall view of the present invention

符号の説明Explanation of symbols

1 高所に設置される貯水槽
2 配水管
3 排水弁2
6 コンプレッサ本体
7 大気吸い込む逆止弁
8 圧縮空気配管
10一次圧縮された圧縮空気貯存用空気槽1
17高所に設置されるタンク
18ガス槽3
19ガス槽4
20耐圧配管
21二次圧縮された圧縮空気貯存用空気槽2
h 液体の落差
1 Water tank installed at high place 2 Water distribution pipe 3 Drain valve 2
6 Compressor body 7 Check valve 8 for sucking into the atmosphere 8 Compressed air piping 10 Compressed air storage tank 1 for primary compression
17 gas tank 3 installed in 17 high places
19 gas tank 4
20 pressure-resistant piping 21 secondary compressed air storage air tank 2
h Liquid drop

Claims (1)

上面に大気を吸い込むための逆止弁(7)を備えた水面圧で気体を圧縮する密閉容器からなるコンプレッサ(6)とこのコンプレッサ(6)から5000mまでの高所に雨水や雪溶け水を溜める貯水槽(1)を設け、又、1000mまでの高所には上面に圧縮空気を大気に放出するための開閉弁10(16)を備えたタンク(17)を設けると共に、前記コンプレッサ(6)の下面と貯水槽(1)の下面とは開閉弁1(4)を介して貯水槽1)からコンプレッサ(6)に雨水や雪溶け水を圧送し、コンプレッサ(6)内の空気を圧縮するために配水管(2)で連通させ、前記コンプレッサ(6)の下面と開閉弁1(4)の間の配水管(2)には開閉弁3(5)を介してタンク(17)の水をコンプレッサ(6)に圧送し、コンプレッサ(6)内の圧縮空気を更に圧縮するために耐圧配管(20)でタンク(17)の下面に連通させ、開閉弁1(4)と開閉弁3(5)の間の管には排水弁2(3)を設け、更に、前記コンプレッサ(6)とタンク(17)のそれぞれ上面は開閉弁4(9)と開閉弁5(12)を介して配管で連通され、前記開閉弁4(9)と開閉弁5(12)の間の配管には圧縮空気を貯める空気槽1(10)と管で連通し、コンプレッサ(6)で圧縮された一次圧縮空気は開閉弁4(9)を介して空気槽1(10)に貯められると共に、前記一次圧縮された空気は空気槽1(10)から開閉弁5(12)を介してタンク(17)に導入される一方、前記コンプレッサ(6)とタンク(17)のそれぞれ上面は開閉弁6(11)と開閉弁7(13)を介して配管でつながり、前記開閉弁6(11)と開閉弁7(13)の間の配管には圧縮空気を貯める空気槽2(21)と管で連通しており、前記空気槽1(10)に貯められた一次圧縮空気は開閉弁4(9)を介してコンプレッサ(6)の上部に導入され、次いで、前記タンク(17)に導入された一次圧縮空気とタンク(17)の水が開閉弁3(5)を介して落差hによりコンプレッサ(6)に圧送されることにより、前記コンプレッサ(6)の上部に導入された一次圧縮空気が更に圧縮されて二次圧縮空気となり、コンプレッサ(6)から開閉弁6(11)を介して空気槽2(21)に貯められ、他方、圧縮気体を貯めるためにガス槽3(18)とガス槽4(19)が設けられ、開閉弁8(14)を介してガス槽3(18)と又、開閉弁9(15)を介してガス槽4(19)とは、それぞれ前記コンプレッサ(6)の上面と管で連通され、ガス槽3(18)に貯存されている低圧ガスが開閉弁8(14)を介してコンプレッサ(6)の上部に送られて圧縮され、この圧縮されたガスはコンプレッサ(6)から開閉弁9(15)を介してガス槽4(19)に貯められると共に、前記空気槽1(10)と空気槽2(21)とガス槽3(18)とガス槽4(19)に圧縮気体を貯めるために開閉弁1(4)、開閉弁3(5)から開閉弁10(16)の全てと排水弁2(3)及び逆止弁(7)を制御することを特徴とする自動エココンプレッサ。A compressor (6) consisting of a sealed container that compresses gas with water surface pressure equipped with a check valve (7) for sucking air into the upper surface, and rainwater and snow melt water at a height of 5000 m from this compressor (6) A water storage tank (1) is provided, and a tank (17) having an on- off valve 10 (16) for releasing compressed air to the atmosphere is provided on the upper surface up to 1000 m, and the compressor (6 ) And the lower surface of the water storage tank (1) are pumped with rainwater or snow-melted water from the water storage tank ( 1) to the compressor (6) via the on-off valve 1 (4). In order to compress, the water pipe (2) communicates, and the water pipe (2) between the lower surface of the compressor (6) and the on-off valve 1 (4) is connected to the tank (17) via the on-off valve 3 (5 ). Water is pumped to the compressor (6) and the compressor (6 ) To further compress the compressed air in the pipe , the pressure-resistant pipe (20) communicates with the lower surface of the tank (17), and a drain valve 2 (in the pipe between the on-off valve 1 (4) and the on-off valve 3 (5) 3), and the upper surfaces of the compressor (6) and the tank (17) are connected to each other by piping via the on-off valve 4 (9) and the on-off valve 5 (12), and the on-off valve 4 (9) The pipe between the on-off valve 5 (12) communicates with the air tank 1 (10) for storing compressed air through a pipe, and the primary compressed air compressed by the compressor (6) is supplied to the air through the on-off valve 4 (9). While being stored in the tank 1 (10), the primary compressed air is introduced from the air tank 1 (10) into the tank (17) via the on-off valve 5 (12), while the compressor (6) and the tank Each upper surface of (17) is connected by piping through on-off valve 6 (11) and on-off valve 7 (13). Rising, communicates with a pipe air tank 2 (21) to accumulate the compressed air in the piping between the on-off valve 6 (11) and the on-off valve 7 (13), are accumulated in the air tank 1 (10) The primary compressed air is introduced into the upper portion of the compressor (6) through the on-off valve 4 (9), and then the primary compressed air introduced into the tank (17) and the water in the tank (17) are supplied to the on-off valve 3 ( 5), the primary compressed air introduced into the upper part of the compressor (6) is further compressed into secondary compressed air by being sent to the compressor (6) by the drop h through 5), and is opened and closed from the compressor (6). The gas tank 3 (18) and the gas tank 4 (19) are provided to store the compressed gas in the air tank 2 (21) through the valve 6 (11) , and the on-off valve 8 (14) is provided. Via the gas tank 3 (18) and also via the on-off valve 9 (15) The gas tank 4 (19) Te, communicates with the upper surface and the tube of each of the compressor (6), a compressor low pressure gas being貯存to the gas tank 3 (18) via an on-off valve 8 (14) (6 ) is sent to the top of the compression, the compressed gas is accumulated in the compressor (gas tank through the opening and closing valve 9 (15) 6) 4 (19) Rutotomoni, the air tank 1 (10) In order to store compressed gas in the air tank 2 (21), the gas tank 3 (18), and the gas tank 4 (19), the on-off valve 1 (4), the on- off valve 3 (5) to all the on-off valves 10 (16) An automatic eco-compressor characterized by controlling the drain valve 2 (3) and the check valve (7).
JP2008210895A 2008-08-19 2008-08-19 Automatic eco compressor Expired - Fee Related JP5046125B2 (en)

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US20120297759A1 (en) * 2011-05-27 2012-11-29 Chui Wen Chiu System of power generation with under water pressure of air
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US4987932A (en) * 1989-10-02 1991-01-29 Pierson Robert M Process and apparatus for rapidly filling a pressure vessel with gas
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