JPS5851270A - Fuel vaporizing apparatus for internal-combustion engine - Google Patents

Fuel vaporizing apparatus for internal-combustion engine

Info

Publication number
JPS5851270A
JPS5851270A JP15022281A JP15022281A JPS5851270A JP S5851270 A JPS5851270 A JP S5851270A JP 15022281 A JP15022281 A JP 15022281A JP 15022281 A JP15022281 A JP 15022281A JP S5851270 A JPS5851270 A JP S5851270A
Authority
JP
Japan
Prior art keywords
fuel
container
vaporization
pipe
combustion engine
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP15022281A
Other languages
Japanese (ja)
Inventor
Masuo Yamamoto
増男 山本
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP15022281A priority Critical patent/JPS5851270A/en
Publication of JPS5851270A publication Critical patent/JPS5851270A/en
Pending legal-status Critical Current

Links

Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02MSUPPLYING COMBUSTION ENGINES IN GENERAL WITH COMBUSTIBLE MIXTURES OR CONSTITUENTS THEREOF
    • F02M69/00Low-pressure fuel-injection apparatus ; Apparatus with both continuous and intermittent injection; Apparatus injecting different types of fuel

Landscapes

  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Cooling, Air Intake And Gas Exhaust, And Fuel Tank Arrangements In Propulsion Units (AREA)

Abstract

PURPOSE:To increase the efficiency of fuel consumption of an internal combustion engine, by ejecting fuel from a nozzle disposed in a vaporizing container, baporizing fuel in the container, and drawing the vaporized fuel into an intake pipe at a required rate. CONSTITUTION:In feeding vaporized fuel into a fuel supply pipe 1, liquid fuel in a fuel tank 10 is at first drawn up by a pump 13. Then, the liquid fuel is sprayed, under a high pressure, upward from an injection nozzle 12 disposed near the bottom of a conical vaporizing container 8, the diameter of which is decreased toward its top, at a rate greater than the quantity into the fuel supply pipe 1 by the negative pressure. Here, the particle sizes of fuel are reduced toward the top of the container 8 and vaporization of fuel is promoted, whereas the particle sizes of fuel near the inner wall surface of the container are relatively large, so that the fuel near the inner wall surface of the container is recovered into the fuel tank 10 via revovery pipe 9. Only the vaporized fuel in the container 8 is drawn into the pipe 1 and supplied to an engine 3 through a venturi 5.

Description

【発明の詳細な説明】 大発明は内燃機関における気化装置さらに詳しくは気体
(空気)と液体(ガソリン)との混合を最適な状態で行
なうことがでへる気化装置(キャブレータ)、特にガソ
リン機関における気化装置に関しその目的とするところ
は、エンジン側に混合気を送る空気流入管の手前に灼料
を気化する気化室を設は該気化室から気化燃料のみを流
入管に吸引導入させることにより燃料消費効率を著しく
向上することがでた省エネルギーに最適な全く新規且つ
画期的な内燃機関における気化装置を提供するにある。
DETAILED DESCRIPTION OF THE INVENTION The great invention is a vaporization device for an internal combustion engine, more specifically a vaporization device (carburator) that can mix gas (air) and liquid (gasoline) in an optimal state, especially for a gasoline engine. The purpose of the vaporization device is to provide a vaporization chamber for vaporizing the caustic material in front of the air inflow pipe that sends the air-fuel mixture to the engine side, and to draw only the vaporized fuel from the vaporization chamber into the inflow pipe. An object of the present invention is to provide a completely new and revolutionary vaporization device for an internal combustion engine that is optimal for energy saving and can significantly improve fuel consumption efficiency.

他の目的はガソリン機関の燃料として軽油の使用が可能
となる全く予期できな(へ効果を期待できる気化装置を
提供するにある。
Another object of the present invention is to provide a vaporizing device which can be expected to have a completely unexpected effect by allowing the use of diesel oil as a fuel for a gasoline engine.

一般に内燃機関特にガソリン機関等燃料気化器の構造は
、ベンチュリ管の負圧力によふ噴霧気化方式が最も多く
使用されその普及率も世界的である。
In general, in the structure of fuel vaporizers for internal combustion engines, particularly gasoline engines, a spray vaporization method based on the negative pressure of a venturi tube is most commonly used, and its popularity is worldwide.

しかし々≠≦らその気化噴欝粒子径は、約200戸〜3
00.#程度の粗粒子であるため、炉焼効率面で最近の
燈料費のコスト高と相伴なって間頴がクローズアップさ
れているのである。す々わち燃焼効率面においては灼料
気化粒径は微粒化に々る程、各シリンダへの分配が均一
となり炉料消費率は向上するため、既に各業界におりて
は微粒子気化法の開発が行なわれているものである。し
かしながら従来の気化装置においては、ペンチュIJ 
iを小さくしてベンチュリを通る空気流速を速めること
によりガソリンの微粒化を行なう技術思想なるものであ
るため、空気流速がある速さ以上になると抵抗による負
圧が増し吸入効率が低下して出力が低下することに々る
問題があった。
However, the particle size of the vaporized particles is approximately 200 ~ 3
00. Because it is a coarse particle of about # size, in terms of furnace firing efficiency, due to the recent rise in lighting costs, the intermittent heat is attracting attention. In other words, in terms of combustion efficiency, the finer the particle size of the vaporized burnt material, the more uniform the distribution to each cylinder and the higher the consumption rate of the furnace material.Therefore, various industries are already working on the development of fine particle vaporization methods. is being carried out. However, in conventional vaporizers, Pentu IJ
The technical idea is to atomize gasoline by reducing i and increasing the air flow rate through the venturi, so when the air flow rate exceeds a certain speed, negative pressure due to resistance increases, reducing suction efficiency and reducing output. There were many problems with the decline in

よって従来のペンキユリ存を小さくすることにより微粒
化を得る手段では出力低下の要因となふため、消費効率
を向上できる程の微粒化を図ることができなかった。
Therefore, the conventional means of obtaining atomization by reducing the amount of paint particles does not cause a decrease in output, and it has not been possible to achieve atomization to the extent that the consumption efficiency can be improved.

いずれにしても従来の技術においては、末だ微粒子気化
技術として燃料消費効率の面から満足すべく技術開発に
成功していなりのであふ。
In any case, in the conventional technology, we have succeeded in developing the technology to satisfy the fuel consumption efficiency as particulate vaporization technology.

本発明はこのよう々点に着目して技術開発を行なった結
果、燃料を空気流入管側に導入する手前で一旦微粒子化
して気化燃料とすることにより燃料消費効率を著しく向
上することがで外る画期的な気化装置を開発したもので
、その特徴とするところはエアクリーナ側からシリンダ
側に混合気を送る空気流入管との間に気化容器を設は且
つB気化容器内には燃料を高圧噴射させる上向き噴霧ノ
ズルを設け、該噴霧ノズルから吸引量を上回る噴霧量を
拡散噴出せしめ吸引量に応じた気化燃料のみを空気流入
管側に誘引導入せしめる構成にしてなゐにある。以下そ
の具体的構成について図面に示し九−実施例に従って説
明する。
As a result of technological development focusing on these points, the present invention has made it possible to significantly improve fuel consumption efficiency by turning the fuel into fine particles and turning it into vaporized fuel before introducing it into the air inflow pipe. The company has developed a ground-breaking vaporization device that is characterized by the fact that a vaporization container is installed between the air inflow pipe that sends the air-fuel mixture from the air cleaner side to the cylinder side, and that the fuel is placed inside the B vaporization container. The configuration is such that an upward spray nozzle for high-pressure injection is provided, and a spray amount exceeding the suction amount is diffused and ejected from the spray nozzle, so that only the vaporized fuel corresponding to the suction amount is induced into the air inlet pipe side. The specific structure thereof will be explained below according to the embodiments shown in the drawings.

・、1、図勅は未発明に係る気化装置を含めたガソリン
機関の概略系統図で、図中+llはエアクリーナ(2)
と4サイクル工ンジン機関(3)の各シリンダ(4a)
、(4b)、(4c)、(4d)間を連通ずるだめの空
気流入管で、ベンチュリ管部(5)とチョークバルブ(
6)及びスロットルバルブ(7)を有する。
・, 1. The diagram is a schematic system diagram of a gasoline engine including an uninvented carburetor, and +ll in the diagram is an air cleaner (2).
and each cylinder (4a) of the 4-cycle engine (3)
, (4b), (4c), and (4d) with a sliding air inflow pipe that connects the venturi pipe section (5) and the choke valve (
6) and a throttle valve (7).

(8)は上方が先細な円錐型気化容器で、先端部(81
が前記空気流入管111のベンチュリ管部(5)に接続
してなる。(9)は該円錐型気化容器(81の底部から
燃料タンク(lO)内に垂設した余剰噴霧液回収管、(
11)は前記空気流入管(1)から気化容器(8)の底
部側に連結してなる静圧導入管、(121け燃料タンク
(10)に直結したポンプ031を介して燃料を高圧噴
霧するための噴霧ノズルで、前記気化容器(8)の底部
近傍に設けてなる。+141は気化燃料の逆戻りを防止
するためにエアクリーナ12)直下に設けた安全弁を示
す。
(8) is a conical vaporizer with a tapered upper part, and the tip part (81
is connected to the venturi pipe portion (5) of the air inflow pipe 111. (9) is an excess spray liquid collection pipe vertically installed from the bottom of the conical vaporization container (81) into the fuel tank (1O);
11) is a static pressure introduction pipe connected from the air inflow pipe (1) to the bottom side of the vaporization container (8), and (121) sprays fuel at high pressure via a pump 031 directly connected to the fuel tank (10). A spray nozzle is provided near the bottom of the vaporization container (8). +141 indicates a safety valve provided directly below the air cleaner 12) to prevent the vaporized fuel from returning.

本発明は上記のように構成されてなるため、ポンプ+1
31を駆動すると燃料は、噴霧ノズル021から気化容
器(8)内に上向きに高圧拡散噴射され、噴射された噴
霧体は吸引量を上回る過剰量が噴射され、噴、射された
粒子構造は先端部に近づく程、l OO,IL以下の微
粒子となって気化ガスの発生が促進される一方、外周に
は粗粒子が同時発生すb0従って本発明においては、一
旦気化室としての気化容器(8)内で噴霧ノズル(12
)によって燃料を噴出せしめて気化ガス化状態にせしめ
るのである。その際気化容器(8)が円錐型なるため、
ノズルQ21から噴出した粒子は拡散噴出して先端側に
導かれるだめ、先端部においては燃料が濃縮した気化ガ
ス状態を容易に得られるのである。
Since the present invention is configured as described above, the pump +1
31, the fuel is injected upward at high pressure into the vaporization container (8) from the spray nozzle 021, and the injected atomized body is injected in an excess amount exceeding the suction amount, and the injected particle structure is formed at the tip. The closer to the periphery of the vaporizer, the finer particles become smaller than l OO,IL and the generation of vaporized gas is promoted, while coarse particles are simultaneously generated on the outer periphery b0 Therefore, in the present invention, once the vaporization container (8 ) in the spray nozzle (12
), the fuel is ejected and turned into a vaporized gas state. At that time, since the vaporization container (8) becomes conical,
Since the particles ejected from the nozzle Q21 are diffused and ejected and guided to the tip side, a vaporized gas state in which the fuel is concentrated can be easily obtained at the tip.

このように本発明にお−ては、通常エンジンの駆動時に
発生し得る吸引負圧力によって圧力噴射によって得られ
なかった微粒子ガ、ノズル(12)を気化容器(8)内
に設けて圧力拡散噴射させることにより粗粒子とともに
容易にガス化に近い微粒子を得ることに成功したもので
ある。
In this way, in the present invention, the nozzle (12) is provided in the vaporization container (8) to perform pressure diffusion injection of fine particles that are not obtained by pressure injection due to the suction negative pressure that may normally occur when the engine is running. By doing so, we were able to easily obtain fine particles close to gasification together with coarse particles.

このようにして気化容器(8)内には消費量を上回る過
剰の気化燃料が発生しているだめ、気化燃料は、容器(
8)先端部(81が空気流入管(1)のベンチュリ管部
(5)に接続されているため、エンジン駆動側のピスト
ン駆動による吸引量に応じて必要量の気化燃料のみが空
気流入管(11側に自然に誘引導入されると同時に空気
と混合して混合気となりスロットルバルプ(7)の開度
Kff5じてシリンダ(4a)、(4b)、(4c)、
(4d)に吸り込まれる。他方誘引導入されない粗粒子
燃料は容器内で粒子比重が大となって自重により底部に
自然落下し回収管(9)からタンク(10)内に戻る。
In this way, an excess of vaporized fuel exceeding the consumption amount is generated in the vaporization container (8).
8) Since the tip part (81) is connected to the venturi pipe part (5) of the air inflow pipe (1), only the required amount of vaporized fuel is transferred to the air inflow pipe ( At the same time, it is naturally attracted and introduced to the 11 side, and at the same time mixes with air to form an air-fuel mixture.As the throttle valve (7) opens Kff5, the cylinders (4a), (4b), (4c),
It is sucked into (4d). On the other hand, the coarse particle fuel that is not induced to be introduced has a high particle specific gravity within the container, naturally falls to the bottom due to its own weight, and returns to the tank (10) through the collection pipe (9).

しかもこのシリンダに吸−込まれる混合気には、燃料が
ガス化状mまで気化された微粒子のみが含まれてbるた
め、シリンダ内〜け完全ガス化状態となり、よって各シ
リンダ\の分配も均一に行なうことができ、よって燃料
消費率を非常に向上することができる他、粒子が微粒子
なるためシリンダの摩耗損傷等の防止を図ることができ
る。さらにシリンダ内への混合気の表面積が大となり燃
焼速度を早めることができる効果がある。
Furthermore, the air-fuel mixture sucked into this cylinder contains only fine particles that have been vaporized to the gasified state of the fuel, so the cylinder is completely gasified, and the distribution to each cylinder is also affected. This can be done uniformly, thereby greatly improving the fuel consumption rate, and since the particles are fine, it is possible to prevent cylinder wear and damage. Furthermore, the surface area of the air-fuel mixture into the cylinder is increased, which has the effect of increasing the combustion rate.

以上のように大発明は気化容器内にノズルを設け、該ノ
ズルから燃料を必要量より過剰量高圧拡散噴射させて容
器内で一旦完全な気化燃料に成した上で空気流入管に必
要な量に応じた気化燃料のみを送りて空気と混合させふ
ことを要旨とするものであるため、粗粒子が容器内で同
時発生しても粗粒子は空気流入管内に送られることがな
い。
As described above, the great invention is to provide a nozzle in the vaporization container, and to inject fuel from the nozzle at high pressure in excess of the required amount, to completely vaporize the fuel in the container, and then to supply the required amount to the air inlet pipe. The purpose of this system is to send only the vaporized fuel corresponding to the amount of fuel and mix it with air, so even if coarse particles are generated simultaneously in the container, the coarse particles will not be sent into the air inlet pipe.

従って燃料消費効率が従来の気化器に比し格段すぐれて
bる他、粗粒子によるシリンダの摩耗損傷等を防止でき
る利点もある。よって空気流入管内にノズルを組み込み
て直接噴射させることにより生じる粗粒子のシリンダ内
\の送りが防1トできるのである。
Therefore, not only is the fuel consumption efficiency much higher than that of conventional carburetors, but it also has the advantage of preventing cylinder wear and damage caused by coarse particles. Therefore, by incorporating a nozzle into the air inlet pipe and directly injecting the air, it is possible to prevent coarse particles from being sent into the cylinder.

尚、エンジン側の吸引量と燃料の噴讐量との関係におい
て、誘引負圧のため容器内に負圧力が発生し、誘引能力
が著しく低下する場合があるので、大発明においては容
器18)と空気流入管illとの間に静圧導入管(11
)を設けて′g器(8)内に静圧を導入して負圧力の調
整を図りて吸引量に応己て早く気化燃料のみを送るよう
に調整すべく手段を講じてなるため、負圧による弊害は
解消されて粘る。
In addition, in the relationship between the suction amount on the engine side and the fuel injection amount, negative pressure may be generated in the container due to the induced negative pressure, and the attraction ability may be significantly reduced. A static pressure introduction pipe (11
) is installed to introduce static pressure into the gator (8) to adjust the negative pressure so that only the vaporized fuel is sent quickly in response to the amount of suction. The harmful effects of pressure are eliminated and it becomes sticky.

その他、エンジン機関の低速回転時と高速回転時に応じ
てスロットルバルブ(7)の開閉度を#a整i工能とし
てなる。
In addition, the opening/closing degree of the throttle valve (7) is set to #a adjustment depending on whether the engine rotates at low speed or high speed.

さらrC太発明においては、エンジン側の吸引消費量外
に燃料が過剰噴射されているため、燃料特に粗粒子燃料
は、一定量容器(8)内で粒子密度が増大すると互いに
接触付着作用か生じその粒子比重を大にして自重によっ
て自然落下し、容器(8)底部の余剰噴霧液回収管(9
)を介して燃料タンクflOi内に戻るようになってい
る。
Furthermore, in the invention, since fuel is injected in excess of the suction consumption on the engine side, when the particle density of the fuel, especially the coarse particle fuel, increases in the fixed amount container (8), contact and adhesion effects occur with each other. The specific gravity of the particles increases and they fall naturally under their own weight, and the excess spray liquid collection pipe (9) at the bottom of the container (8)
) into the fuel tank flOi.

尚、該実施例では気化容器(8)を円錐型に形成してな
るため、ノズルから噴射した噴霧体は容器内壁に拡散噴
射されると同時に衝突して微粒子となり気化ガス化状態
に促進されやすく且つ先端側で燃料が濃縮される好条件
と々るが、必ずしも容器の形状は円錐型に限られるもの
ではなく、ノズルから噴射した噴霧体が拡散可能であれ
ばよい。従って例えばノズルを複数個使用するような場
合には円筒型であってもよい。その他、空気流入管や静
圧導入管等の形状は決して実施例に限られ為ものではな
−。また上記実施例ではエアクリーナ(2)の直下に安
全弁041を設けてなるため、エンジン停止時等に気化
燃料がエアクリーナ(2)側に逆戻りすることを防止し
て安全対策を図っているが、安全弁α4)の取付は位置
は必ずしも決定されるものでけなり。
In this embodiment, since the vaporization container (8) is formed into a conical shape, the atomized material injected from the nozzle is diffused and injected onto the inner wall of the container, and at the same time collides with the container to become fine particles and is easily promoted to the vaporization state. Although this is a favorable condition in which the fuel is concentrated on the tip side, the shape of the container is not necessarily limited to a conical shape, as long as the atomized material injected from the nozzle can be diffused. Therefore, for example, when a plurality of nozzles are used, a cylindrical shape may be used. In addition, the shapes of the air inflow pipe, static pressure introduction pipe, etc. are by no means limited to the embodiments. In addition, in the above embodiment, a safety valve 041 is provided directly below the air cleaner (2), so that a safety measure is taken by preventing vaporized fuel from returning to the air cleaner (2) side when the engine is stopped, etc. When installing α4), the position is not necessarily determined.

叙上のように末完り]け空気流入管の手6i[:気化容
器を設け、該容器内に上向きの噴霧ノズルを設けて燃料
を高子拡散噴射させ且つ噴霧量をエンジン側の消費必要
量より過剰噴射させることにより、一旦気化容器内で燃
料を微粒子によるガス化状謙まで気化し、エンジン側の
必要量に応じた気化畑料のみを空気流入管を介しシリン
ダ内Vこ送る構造々るため、シリンダ内に送られる燃%
け完全な気化ガス化状態になった微粒子構造とたり、よ
って各シリンダ内へ完全均一な分配が可能となり、これ
にて燃料消費効率が従来の気化器に比し、格別すぐれた
顕著々実用的効果を得るに至り、これが省エネルギ一対
策として全く画期的な効果をすするに至った。
As described above, a vaporizing container is provided, and an upward spray nozzle is provided in the container to inject the fuel by polymer diffusion, and the amount of spray is consumed by the engine. By injecting in excess of the amount, the fuel is vaporized in the vaporization container until it becomes gasified by fine particles, and only the vaporized fuel according to the amount required by the engine is sent to the cylinder via the air inlet pipe. Therefore, the percentage of fuel sent into the cylinder is
It has a fine particle structure that is completely vaporized and gasified, making it possible to completely uniformly distribute it into each cylinder, making it extremely practical and extremely efficient in terms of fuel consumption compared to conventional carburetors. This has resulted in a completely revolutionary effect as an energy-saving measure.

しかも気化容器内には微粒子と同時に粗粒子も発生する
が、粗粒子は容器外の燃料タンクに戻されるため、シリ
ンダ内に混入することがなくなり、これがシリンダの摩
耗や損傷防止を図れる等の副次的効果がある。
In addition, coarse particles are also generated in the vaporization container at the same time as fine particles, but since the coarse particles are returned to the fuel tank outside the container, they do not get mixed into the cylinder. There are secondary effects.

さらに未発F3AK係る気化装置を使用することにより
、従来ガソリン燃料より気化率の悪−ものとしてガソリ
ン機関に使用され々かった軽油燃料によってもガソリン
機関の駆動が可能となる全く画期的な効果を得るに至っ
た。その結果燃費効率の良い且つ安価々軽油の使用によ
って省エネルギ一対策が抜水的に解決するに至った。し
かもジーゼル機関に比し軽量で且つコンパクトでありガ
から回転数の多因馬力の大なるエンジン機関となふ。
Furthermore, by using a vaporization device related to the unexploded F3AK, it is possible to drive a gasoline engine even with diesel fuel, which has traditionally been used in gasoline engines because it has a worse vaporization rate than gasoline, which is a completely revolutionary effect. I ended up getting this. As a result, the use of fuel-efficient and inexpensive light oil has led to the solution of energy saving and water removal. In addition, it is lighter and more compact than a diesel engine, and has a large horsepower due to multiple rotational speeds.

その他、本発明に係る気化装置は自fil+車、船舶等
の内燃機関として幅広く利用できる等その有用的効果は
大なるものがある。
In addition, the vaporizer according to the present invention can be widely used as an internal combustion engine for automobiles, ships, etc., and has many other useful effects.

【図面の簡単な説明】[Brief explanation of drawings]

図面は本発明に係る一例としてのカッリン機関に使用し
た気化装置の概略図。 (1)・・・空気流入管  (2)・・・エアクリーナ
(8)・・・気化容器   02(・・・噴霧ノズル出
願人  山 木  増 男 代理人  弁理士原本 昇
The drawing is a schematic diagram of a carburetor used in a Kallin engine as an example of the present invention. (1)... Air inflow pipe (2)... Air cleaner (8)... Vaporization container 02 (... Spray nozzle applicant Masu Yamaki, male representative, patent attorney Noboru)

Claims (1)

【特許請求の範囲】 l エアクリーナ側からシリンダ側に混合気を送る空気
流入管の手前に気化容器を設は且つ該気化容器内には燃
料を高圧噴射させる上向き噴霧ノズルを設け、該噴霧ノ
ズルから消費量を上回る過剰々噴霧量を拡散噴出せしめ
消費量に応じた気化燃料のみを空気流入管側に誘引導入
せしめる構成にしてなることを特徴とする内燃機関にお
け為気化装M。 2 気化容器が空気流入管側に先細な円錐型である特許
請求の範囲@1項記載の内燃機関における気化装置。 3 気化容器が空気流入管側と連通した静圧導入管を有
する特許請求の範囲第1項又は@2項記載の内燃機関に
おける気化装置。 4 気化容器が燃料タンクと連通した余剰噴霧液回収管
を有する特許請求の範囲第3項記載の内燃機関における
気化装置。 5 気化容器が空気流入管のベンチュリ管部に連結して
なる特許請求の範囲第4項記載の内炒機関における気化
装置。
[Scope of Claims] l A vaporization container is provided in front of an air inflow pipe that sends the air-fuel mixture from the air cleaner side to the cylinder side, and an upward spray nozzle for injecting fuel at high pressure is provided in the vaporization container, and from the spray nozzle. A vaporizer M for an internal combustion engine, characterized in that it is configured to diffuse and eject an excessive spray amount exceeding the consumption amount and to induce and introduce only vaporized fuel corresponding to the consumption amount into an air inlet pipe side. 2. The vaporization device for an internal combustion engine according to claim 1, wherein the vaporization container has a conical shape tapered toward the air inlet pipe. 3. The vaporization device for an internal combustion engine according to claim 1 or @2, wherein the vaporization container has a static pressure introduction pipe communicating with the air inflow pipe side. 4. The vaporization device for an internal combustion engine according to claim 3, wherein the vaporization container has an excess spray liquid recovery pipe communicating with the fuel tank. 5. The vaporization device for an internal combustion engine according to claim 4, wherein the vaporization container is connected to a venturi pipe portion of the air inflow pipe.
JP15022281A 1981-09-22 1981-09-22 Fuel vaporizing apparatus for internal-combustion engine Pending JPS5851270A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP15022281A JPS5851270A (en) 1981-09-22 1981-09-22 Fuel vaporizing apparatus for internal-combustion engine

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP15022281A JPS5851270A (en) 1981-09-22 1981-09-22 Fuel vaporizing apparatus for internal-combustion engine

Publications (1)

Publication Number Publication Date
JPS5851270A true JPS5851270A (en) 1983-03-25

Family

ID=15492199

Family Applications (1)

Application Number Title Priority Date Filing Date
JP15022281A Pending JPS5851270A (en) 1981-09-22 1981-09-22 Fuel vaporizing apparatus for internal-combustion engine

Country Status (1)

Country Link
JP (1) JPS5851270A (en)

Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3279770A (en) * 1963-12-20 1966-10-18 Jr Ewell E Parker Chamber carburetor

Patent Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3279770A (en) * 1963-12-20 1966-10-18 Jr Ewell E Parker Chamber carburetor

Similar Documents

Publication Publication Date Title
US3336017A (en) Compound cyclonic flow inductor and improved carburetor embodying same
US4550706A (en) Fuel vaporizer
EP0549655B1 (en) Internal combustion engines
JP2002528671A (en) Mixture mixing equipment for engines
US3865907A (en) Needle valve vapor injection and method
US4343282A (en) Liquid tower carburetor
US4417547A (en) Engine speed and engine load responsive fluid injection system for an internal combustion engine
US3446196A (en) Fuel gasifier system
US4411224A (en) Fluid injection system for a turbocharged internal combustion engine
US4373500A (en) Carburetor air injection system
US4233945A (en) Carburetion in an internal combustion engine
JPS5851270A (en) Fuel vaporizing apparatus for internal-combustion engine
CN2931820Y (en) Lighting type internal combustion engine carburetor
US3294381A (en) Carburetor
CN200978740Y (en) Internal combustion engine higher frequency oscillation atomization steam-supply system
CN2775324Y (en) Carburetor for porous fuel jet type small general gasoline engine
RU2129662C1 (en) Process of preparation of fuel before its injection to engine and internal combustion engine
CN1392338A (en) Oil supply system of new type gasoline engine
US4401060A (en) Fluid injection system for a supercharged internal combustion engine
KR910009727B1 (en) Apparatus for combustion air fuel mixture promoted and water supplied
CA1177344A (en) Liquid tower carburetor
CN207500004U (en) A kind of power-equipment fuel supplies distributor gear
JPS5728864A (en) Fuel supply device for internal combustion engine
GB2276669A (en) I.c. engine fuel gasifying
CN204610080U (en) A kind of oil supply system