JP4257398B2 - Pneumatic combined engine - Google Patents

Pneumatic combined engine Download PDF

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JP4257398B2
JP4257398B2 JP2006025048A JP2006025048A JP4257398B2 JP 4257398 B2 JP4257398 B2 JP 4257398B2 JP 2006025048 A JP2006025048 A JP 2006025048A JP 2006025048 A JP2006025048 A JP 2006025048A JP 4257398 B2 JP4257398 B2 JP 4257398B2
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air
valve
cylinder
piston
compressed air
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JP2007182867A (en
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健 一 朱
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朱 健一
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02CGAS-TURBINE PLANTS; AIR INTAKES FOR JET-PROPULSION PLANTS; CONTROLLING FUEL SUPPLY IN AIR-BREATHING JET-PROPULSION PLANTS
    • F02C1/00Gas-turbine plants characterised by the use of hot gases or unheated pressurised gases, as the working fluid
    • F02C1/02Gas-turbine plants characterised by the use of hot gases or unheated pressurised gases, as the working fluid the working fluid being an unheated pressurised gas
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F01MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
    • F01DNON-POSITIVE DISPLACEMENT MACHINES OR ENGINES, e.g. STEAM TURBINES
    • F01D1/00Non-positive-displacement machines or engines, e.g. steam turbines
    • F01D1/02Non-positive-displacement machines or engines, e.g. steam turbines with stationary working-fluid guiding means and bladed or like rotor, e.g. multi-bladed impulse steam turbines
    • F01D1/026Impact turbines with buckets, i.e. impulse turbines, e.g. Pelton turbines
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F01MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
    • F01DNON-POSITIVE DISPLACEMENT MACHINES OR ENGINES, e.g. STEAM TURBINES
    • F01D15/00Adaptations of machines or engines for special use; Combinations of engines with devices driven thereby
    • F01D15/08Adaptations for driving, or combinations with, pumps

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Valve Device For Special Equipments (AREA)
  • Reciprocating Pumps (AREA)

Description

車両からモーター等駆動力を有する機械などに用いる無公害エンジンPollution-free engine used in vehicles and other machines with driving force such as motors

空気モーターのピストンは圧縮空気タンク、又はコンプレッサー等による、圧縮空気をモーター内部直前で、バルブと調節弁によって遮断され、動力を生むさいに、調節弁に拠ってバルブ部に送り込む空気圧力を調整し調整された圧縮空気をバルブに拠って遮断しているが、圧縮空気を空気モーター内部のシリンダー部に急激開放する事で、圧縮空気の爆発的な空気膨張力を生み、爆発的な空気膨張力によってシリンダー内のピストンが運動する、空気モーターと油圧ポンプの軸部と直接的又はギャーに拠って連結することで同時回転運動するために瞬時に油圧ポンプの圧力も上がり同時に油圧モーターを駆動できる、仮に空気モーターで7馬力を生み出し、油圧ポンプと油圧モーターによって空気モーターの力を20倍に上げる事で140馬力を生み出される方式は微弱力が油圧ポンプと油圧モーターを複合させる事に拠って大きな力になる。The piston of the air motor is compressed by the compressed air tank or compressor, and the compressed air is cut off by the valve and the regulating valve just before the inside of the motor. The adjusted compressed air is shut off by the valve, but by rapidly opening the compressed air to the cylinder part inside the air motor, the explosive air expansion force of the compressed air is generated, and the explosive air expansion force Because the piston in the cylinder moves by connecting directly with the air motor and the shaft part of the hydraulic pump or by gear, the pressure of the hydraulic pump rises instantaneously and can drive the hydraulic motor at the same time, Assuming that 7 horsepower is generated by the air motor and the power of the air motor is increased 20 times by the hydraulic pump and hydraulic motor, 140 Method produced a force becomes large force by the fact that the weak force is combined hydraulic pump and a hydraulic motor.

発明が解決しようとする課題Problems to be solved by the invention

燃焼排気ガスによる地球温暖化とCOによる環境問題と低経費問題Global warming due to combustion exhaust gas and environmental and low cost problems due to CO

ガソリン、デイゼルエンジンなどの油、ガスなどの燃焼運動に拠って駆動力を生むエンジン並びに電気モーター等によって駆動力を必要とする車両、重機、機械などに使用できる無公害エンジンNon-polluting engines that can be used in engines, such as gasoline and diesel engines, that generate driving power through combustion movements of oil, gas, etc., as well as vehicles, heavy machinery and machinery that require driving power through electric motors, etc.

課題を解決するための手段Means for solving the problem

従来の空気モーターは空気による回転良くのタービン式が大半を占めている、空気モーターのシリンダー内部に回転ピストン方式を用いられている物は無く、シリンダー内部に翼を有し、空気圧力で回転運動をもたらす物は有るが、シリンダーと翼との機密性を有している物は無い、更にバルブに拠って瞬時シリンダー内部に圧縮空気を送り込み、爆発的な空気の膨張を利用した物も無い、更に排出空気部にバルブを有する空気モーターも無い。Most conventional air motors use a turbine type that rotates well with air. Nothing uses a rotating piston system inside the cylinder of the air motor, and there are blades inside the cylinder. , But there is nothing that has confidentiality between the cylinder and the wings, and there is no thing that uses compressed air to send the compressed air into the cylinder instantaneously by using a valve, and that uses explosive air expansion, There is also no air motor with a valve in the exhaust air section.

現在の世界的な空気汚染、地球温暖化が重要な問題に成っているために、水素ガスを利用したエンジン、乾電池を利用した電気自動車などが有るが、コスト面も高額になるばかりか、水素ガスは各物質、水等を科学分解して取り出しているが、地球の温暖化は燃焼した物を大気中に放出すれば温暖化は削減できても、現在の30%の削減には至らない、乾電池を利用した電気モーターを使用している車両などは、蓄電率の良いものを作るのに、大変なコストが必要なばかりか、長い充電時間が必要になる、自然界の空気を圧縮し瞬時に開放した空気の膨張力と嘖射力を利用し、回転力を生み出した空気は、大気に戻せば、熱の発生も微弱で殆ど無に等しく地球温暖化も飛躍的に削減できるばかりか、人類、植物、生物に対して悪影響も無く大気汚染もなくなる、更に隧道工事、深層工事の場合に酸欠防止の為に酸素を供給しているが、酸素供給などの補助的な役割も有る、空気タンクに対し空気の充填も従来のガソリン車のガソリン供給とほぼ同じくらい時間は短く、充填に対する燃料費、走行する為の燃料費も大きく削減できる。The current global air pollution and global warming are important issues, so there are engines that use hydrogen gas, electric vehicles that use dry cells, etc. The gas is obtained by scientific decomposition of each substance, water, etc., but global warming can be reduced by releasing the burned material into the atmosphere, but it does not reduce the current 30%. Vehicles that use electric motors that use dry batteries not only require a lot of cost, but also need a long charge time to make a battery with a good storage rate. By using the expansion force and repulsive force of the air released to the air, and returning the air to the atmosphere, the generation of heat is weak and almost equal to the global warming can be dramatically reduced, Large, without adverse effects on humans, plants, and living things Contamination is eliminated, and oxygen is supplied to prevent oxygen deficiency in tunnel construction and deep construction, but it also has an auxiliary role such as oxygen supply. The time is almost as short as the gasoline supply, and the fuel cost for filling and the fuel cost for running can be greatly reduced.

圧縮空気吸入口にバルブを設け、瞬時圧縮空気をシリンダー内部に開放することで、内部に空気の膨張が生まれる、いわゆる油で動いているエンジン等のシリンダー内部で油の燃焼による空気の瞬間膨張と同じである。By providing a valve at the compressed air inlet and releasing the instantaneous compressed air inside the cylinder, the air is expanded inside. The same.

圧縮空気排出口にバルブを設け吸入口のバルブより少し早目に作動させシリンダー部の圧縮空気を抜く事で、圧縮空気がシリンダーより開放されるエネルギーと吸入される圧縮空気の瞬発力が生かせれる。By installing a valve at the compressed air discharge port and operating it a little earlier than the valve at the intake port to remove the compressed air from the cylinder part, the energy that releases the compressed air from the cylinder and the instantaneous force of the compressed air that is sucked in can be utilized. .

混合ガスを利用し、発火させて動く自動車等に対し空気モーターの力不足を油圧ポンプの油圧に拠って適合する油圧にし、油圧モーターを動かせば、力不足を補ぎなえれ、従来の車並の馬力が得られる。Using a mixed gas, the lack of power of the air motor is adapted to the hydraulic pressure of the hydraulic pump for automobiles that move by firing, and if the hydraulic motor is moved, the lack of power can be compensated for, which is similar to that of conventional vehicles. Horsepower can be obtained.

油圧モーターの駆動軸を現在の車のミッションに連結すれば現在のレシプロエンジン、ロータリーエンジンなどの自動車、重機とあまり変らないモーター自動車、重機が出来る。If the drive shaft of the hydraulic motor is connected to the current vehicle mission, it will be possible to create motor vehicles and heavy machinery that do not differ much from current vehicles such as reciprocating engines and rotary engines, and heavy machinery.

圧縮空気吸入口にバルブのほかに空気流通量の調節弁を設ける事で、バルブ箇所の空気圧を調節し、調整された空気圧をシリンダーに送る事で、空気モーターの力が調節できる。In addition to the valve at the compressed air inlet, the air flow rate adjustment valve is provided to adjust the air pressure at the valve location, and the adjusted air pressure can be sent to the cylinder to adjust the power of the air motor.

別件特許出願の空気自動補充式ボンベに拠って、空気モーターへの加圧空気供給が長時間可能に成った。According to the self-replenishing air cylinder of another patent application, it is possible to supply pressurized air to the air motor for a long time.

発明の実施するための最良の形態BEST MODE FOR CARRYING OUT THE INVENTION

別件特許出願している空気自動補充式ボンベより、圧縮空気を空気モーター内部にカムとバルブ運動により送り込み、ピストンを回転運動させる、ピストンと回転リングとシャフトと軸を連結されている軸は油圧ポンプの軸と連結されている為に、空気モーターの運動と共に油圧ポンプも作動し、油圧を上げ、上がった油圧によって、油圧モーターが作動する、空気モーターの弱力を油圧ポンプと油圧モーターに拠って増大させ増大した回転運動を適合する各ギャー比率にし、各車両、重機、工作機械を作動する。From an air replenishment cylinder that has been filed for another patent, compressed air is pumped into the air motor by a cam and valve motion, and the piston is rotated. The shaft that connects the piston, rotating ring, shaft, and shaft is a hydraulic pump. The hydraulic pump is activated by the movement of the air motor, the hydraulic pressure is increased, and the hydraulic motor is activated by the increased hydraulic pressure. The weakness of the air motor is affected by the hydraulic pump and the hydraulic motor. Each vehicle, heavy machinery, and machine tool is operated with the increased and increased rotational motions adapted to each gear ratio.

吸入口のバルブに拠って圧縮空気が瞬時シリンダー内に送られ、圧縮空気の爆発的な膨張力に拠ってピストンが運動するので力強い回転力が得られる。Compressed air is instantaneously sent into the cylinder by the valve of the suction port, and the piston moves by the explosive expansion force of the compressed air, so that a strong rotational force can be obtained.

空気モーターの回転軸と油圧ポンプの軸が直結の為にスムーズな働きを生み、油圧モーターが同時作動され力強い回転が生まれる。The rotating shaft of the air motor and the shaft of the hydraulic pump are directly connected, producing a smooth function, and the hydraulic motor is operated simultaneously to produce powerful rotation.

吸入口のバルブの働きと排出口のバルブに拠って、空気の一回当りの使用量が節約できる為に従来のような翼を有し、空気の流通に拠って回転を生むモーターよりも圧縮空気調節弁とバルブを設け、吸入口と排出口に設けたバルブに拠って圧縮空気の瞬間吸排出に拠ってピストン運動させる方式の方が空気ボンベの圧縮空気放出時間が数段長持ちする。Because of the function of the inlet valve and the outlet valve, the amount of air used per one time can be saved, so it has more blades than the conventional one, and it compresses more than the motor that produces rotation based on the air flow. A method in which an air control valve and a valve are provided, and a piston is moved by instantaneous suction and discharge of compressed air by means of valves provided at an inlet and an outlet, and the compressed air discharge time of the air cylinder is several times longer.

空気モーター部と油圧ポンプ部、油圧モーター部と一個のエンジンに一体化に作られた側面図Side view integrated into the air motor and hydraulic pump unit, and the hydraulic motor unit and one engine 空気モーター部と油圧ポンプ部、油圧モーター部、圧縮空気タンクの系図System diagram of air motor, hydraulic pump, hydraulic motor, and compressed air tank 空気モーターのD‘−Dのピストン部分の拡大断面図Enlarged sectional view of the piston part of the air motor D'-D 空気モーターの正面図Front view of air motor 空気モーター部の吸入口に設けられている吸入用バルブの拡大図Enlarged view of the intake valve installed at the intake port of the air motor 空気モーター部の吸入バルブ部分の拡大平面図のK−K箇所の断面図Sectional drawing of the KK place of the enlarged plan view of the suction valve part of an air motor part 空気モーター部の吸入口バルブ部分の拡大平面図のH−H箇所の断面図Sectional drawing of the HH place of the enlarged plan view of the inlet valve part of an air motor part 空気モーター部の排気バルブ部分の拡大側面図Expanded side view of the exhaust valve part of the air motor 空気モーター部の排気バルブ部分の拡大側面図のM−M箇所の断面図Sectional view of the MM part of the enlarged side view of the exhaust valve part of the air motor part 空気モーター部の排気バルブ部分の拡大側面図のP−P箇所の断面図Cross-sectional view of the PP part of the enlarged side view of the exhaust valve part of the air motor part

符合の説明Explanation of sign

A1 圧縮空気取り入れ口
A2 圧縮空気排出口
A3 コイルスプリング
A4 カム軸
A5 タペット
A6 タペット軸
A7 カム
B1 空気ボンベへの空気供給取り入れ口
B2 空気ボンベへの空気取り入れ口
C1 ピストン
C2 ピストンリング
C3 ピストンシャフト
C4 枠止めリング
C5 ボールベアリング
G2 バルブ
G3 バルブシャフト
V1 複合エンジンの空気モーター部
V2 複合エンジンの油圧モーター部
V3 変速ギャーボックス
V4 複合エンジンの油圧ポンプ部
V5 油タンク
V6 空気モーター軸
V7 ミッションへの連結軸
V8 圧縮空気タンク
V9 空気フィルター
V10 オイルタンクからオイルポンプへの油取り入れ連結パイプ
V11 オイルモーターからオイルタンクへの油流出接続パイプ
V12 圧縮空気タンクの油圧シリンダーへのオイル配管パイプ
W1 第1シリンダー
W2 第2シリンダー
W3 第3シリンダー
W4 第4シリンダー
W5 第5シリンダー
W6 第6シリンダー
W7 第7シリンダー
W8 第8シリンダー
X1 ボルトナット
X2 回転リング
X3 枠止め用突起部
X4 空気調節バルブ
X5 空気方向切り替えバルブ
R1 油圧シリンダー
R5 移動式仕切り弁
A1 Compressed air inlet A2 Compressed air outlet A3 Coil spring A4 Cam shaft A5 Tappet A6 Tappet shaft A7 Cam B1 Air supply inlet to air cylinder B2 Air inlet to air cylinder C1 Piston C2 Piston ring C3 Piston shaft C4 Frame Stop ring C5 Ball bearing G2 Valve G3 Valve shaft V1 Combined engine air motor V2 Combined engine hydraulic motor V3 Shifting gearbox V4 Combined engine hydraulic pump V5 Oil tank V6 Air motor shaft V7 Transmission shaft V8 Compression Air tank V9 Air filter V10 Oil intake connection pipe V11 from oil tank to oil pump Oil outflow connection pipe V12 from oil motor to oil tank V12 Ile piping pipe W1 1st cylinder W2 2nd cylinder W3 3rd cylinder W4 4th cylinder W5 5th cylinder W6 6th cylinder W7 7th cylinder W8 8th cylinder X1 Bolt nut X2 Rotating ring X3 Frame projection X4 Air conditioning Valve X5 Air direction switching valve R1 Hydraulic cylinder R5 Mobile gate valve

Claims (4)

空気式モーター部のモーターのピストンは皿状で、圧縮空気によってロータリー式に回転し、皿状ピストンが回転運動と共に回転軸も共に回転するように作られている空気式複合エンジンは圧縮タンクから圧縮空気をモーターシリンダーに供給して行く時に、空気取入れ部に平板円形硬貨型の空気圧調節バルブ(X4)と中央より両部を円錐形菱状型にしたバルブ(G2)は空気供給側の先端部分に空気供給方向に対し円柱形のバルブシャフト(G3)をバルブからバルブシャフトまで一体化に構成したバルブシャフトにコイルスプリング(A3)を有し、空気モーターのバルブシャフト(G3)は中央部にタペット軸(A6)を有した、くの字形状のタペット(A5)の一方を平板状もう一方を菱形にしたカム(A7)とカム軸(A4)の回転運動に拠ってカム(A7)はタペット(A5)に与える長短運動によって連係的にタベットも空気供給方向と所定位置にたいし往復運動を繰り返し、タペットの反対部の一方も往復運動と共にバルブシャフトを押し、連係してバルブもバネの伸縮運動によって往復運動を繰り返し、圧縮空気をシリンダー(W1)に供給と停止によってピストンリングを有するピストンは回転運動をする、カムとタペットの連係作用に拠ってバルブシャフトとバルブによる圧縮空気の瞬間放出噴射力と空気膨張によって、シリンダー(W1)に有するピストンリング(C2)を有しているピストンに強い力を与える事ができ、シリンダー(W4)部に有する圧縮空気排出用のバルブによる圧縮空気の遮断と排出の関連運動によってシリンダー(W4)の圧縮空気の瞬間排出によってピストンリング(C2)を有しているピストンは圧縮空気放出による流体運動によって回転力を生むと同時にシリンダー(W5)部をピストンリング(C2)を有しているピストンが(W6)部方向へ移動して行く時に空気の吸入は自然に行われるが、外部空気取入れ口部に空気フィルター(V9)によってチリ等微小なゴミが処理された空気が空気ボンベへの空気取入れ口(B2)を通過しシリンダー(W5)部へ取り入れられる、清浄処理され取り入れられた空気はシリンダー(W6)部を通過しシリンダー(W7)部で空気ボンベへの空気供給取入れ口(B1)より排出される、排出と平行し圧縮空気取入れ口(A1)部に有するカムとタペットの働きによって円錐形菱状型バルブ(G2)がシリンダー(W1)方向へ移動し圧縮空気が瞬間放出されシリンダー(W1)に有するピストンに与える圧縮空気の瞬間放出噴射力と空気膨張力をピストンにほぼ完璧に与える事が出来る、瞬間放出噴射力と空気膨張を生かすためにバルブの瞬時による開放と遮断によって圧縮空気圧低下を防ぎ、圧縮空気の瞬間放出噴射力と空気膨張が生み出されるピストンの回転運動速度は圧縮空気の放出量の調整を空気圧調節バルブ(X4)に拠って行い回転運動速度を調整する、ピストンの回転運動はシャフト(C3)と回転軸(V6)は連結し、さらに空気モーター回転軸と油圧ポンプ回転軸と連結することで、空気モーターと同時に油圧ポンプ(V4)も同時運動し、圧縮された圧縮油によって、油圧モーター(V2)を作動させる事に拠って強い駆動力を生むように、作られた空気式複合エンジンThe piston of the motor of the pneumatic motor section is dish-shaped, and it is rotated by compressed air, and the pneumatic compound engine that is configured so that the dish-shaped piston rotates together with the rotary motion is compressed from the compression tank. When supplying air to the motor cylinder, a flat circular coin type air pressure control valve (X4) at the air intake and a conical rhombus shaped valve (G2) from the center are the tip on the air supply side The valve shaft (G3), which has a cylindrical valve shaft (G3) integrated from the valve to the valve shaft in the air supply direction, has a coil spring (A3), and the air motor valve shaft (G3) tappets in the center. One of the U-shaped tappets (A5) having the shaft (A6) and the cam (A7) and the camshaft (A4) having a flat plate on the other side and a rhombus on the other Due to the rolling motion, the cam (A7) is linked to the tappet (A5) by the long and short motion, and the tabbed repeatedly reciprocates in the air supply direction and a predetermined position. The valve also reciprocates by the expansion and contraction of the spring, and the piston with the piston ring rotates by supplying and stopping the compressed air to the cylinder (W1). A strong force can be applied to the piston having the piston ring (C2) in the cylinder (W1) by the instantaneous discharge force and air expansion of the compressed air by the valve shaft and the valve, and the cylinder (W4) has Pressure of cylinder (W4) by the related movement of shutoff and discharge of compressed air by a valve for discharging compressed air The piston having the piston ring (C2) by instantaneous discharge of air generates a rotational force by the fluid motion by the discharge of compressed air, and the piston having the piston ring (C2) at the cylinder (W5) portion (W6). ) When moving in the direction of the air, the air is naturally sucked in, but the air that has been treated with fine dust such as dust by the air filter (V9) in the external air inlet is the air inlet ( B2) passes through the cylinder (W5) through the cylinder (W6) and passes through the cylinder (W6) and is discharged from the air supply inlet (B1) to the air cylinder. The cone-shaped rhomboid valve (G2) is connected to the cylinder (W1 by the action of the cam and tappet which are in the compressed air intake (A1) portion in parallel with the discharge ), The compressed air is instantaneously released, and the instantaneous discharge injection force and air expansion force of the compressed air given to the piston in the cylinder (W1) can be given almost perfectly to the piston. In order to make use of it, the valve is instantly opened and shut off to prevent a decrease in compressed air pressure, and the rotational speed of the piston that produces the instantaneous discharge force and air expansion of the compressed air adjusts the discharge amount of the compressed air. Air pressure adjustment valve (X4) The rotation speed of the piston is adjusted according to the rotation speed of the piston. The shaft (C3) and the rotation shaft (V6) are connected to each other, and the air motor rotation shaft and the hydraulic pump rotation shaft are connected. The hydraulic pump (V4) also moves at the same time, and a strong driving force is generated by operating the hydraulic motor (V2) by the compressed compressed oil. To, crafted pneumatic composite engine 空気モーターシリンダーへの圧縮空気をシリンダーへ送る遮断と開放の為に設置されている圧縮空気取り入れ口と排出口部分に有するピストン式バルブは頭部が円形菱形状を用いられている請求項1の空気式複合エンジン2. A piston type valve having a compressed air intake port and a discharge port portion for shutting and releasing the compressed air to the air motor cylinder is provided with a circular rhombus head. Pneumatic combined engine 空気式モーター部と連係している油圧ポンプ部の形式は歯車式、ベーン式、ロータリー式、プランジャー式、スリーブ式等の各適合形式によって油圧ポンプ部を作られた請求項1の空気式複合エンジン2. The pneumatic composite unit according to claim 1, wherein the hydraulic pump unit linked to the pneumatic motor unit is a hydraulic pump unit formed by a gear type, vane type, rotary type, plunger type, sleeve type, etc. engine 空気モーター部の回転軸と油圧ポンプ部の回転軸がシャフト又はギャーで連結されている請求項1の空気式複合エンジンThe pneumatic composite engine according to claim 1, wherein the rotary shaft of the air motor unit and the rotary shaft of the hydraulic pump unit are connected by a shaft or a gear.
JP2006025048A 2006-01-04 2006-01-04 Pneumatic combined engine Expired - Fee Related JP4257398B2 (en)

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PCT/JP2006/326317 WO2007077944A1 (en) 2006-01-04 2006-12-19 Air type composite engine

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