JP2012097734A - Method and tool for improving fuel consumption of combustion engine - Google Patents

Method and tool for improving fuel consumption of combustion engine Download PDF

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JP2012097734A
JP2012097734A JP2011223099A JP2011223099A JP2012097734A JP 2012097734 A JP2012097734 A JP 2012097734A JP 2011223099 A JP2011223099 A JP 2011223099A JP 2011223099 A JP2011223099 A JP 2011223099A JP 2012097734 A JP2012097734 A JP 2012097734A
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fuel
combustion engine
supply pipe
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tesla
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Akio Shigeta
昭夫 重田
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Abstract

PROBLEM TO BE SOLVED: To reliably maintain improved fuel consumption of a combustion engine with a permanent magnet.SOLUTION: A method of improving fuel consumption of a combustion engine includes arranging a fuel supply pipe of a cylinder of the combustion engine and a part of an air supply pipe in a strong magnetic field.

Description

この発明は、燃焼機関の燃料及び吸気に磁気を作用させて、その燃費を改善することを目的とした燃焼機関の燃費改善方法及び燃費改善具に関する。   The present invention relates to a fuel efficiency improvement method and a fuel efficiency improvement tool for a combustion engine for the purpose of improving the fuel efficiency by applying magnetism to fuel and intake air of the combustion engine.

従来、ガソリンの配管に0.2テスラ(2000ガウス)〜1テスラ(10000ガウス)の永久磁石を設置して、ガソリンを磁気処理し、燃焼機関の燃費を改善させようとした提案がある。また、液体の配管に永久磁石を対向設置して、液体に0.2テスラ〜0.4テスラの磁気を作用させ、燃費を改善させるようにした提案もある。然して前記における燃費の改善は8%〜15%とされている。   Conventionally, there has been a proposal to improve the fuel efficiency of a combustion engine by installing a permanent magnet of 0.2 Tesla (2000 Gauss) to 1 Tesla (10000 Gauss) in a gasoline pipe to magnetically process the gasoline. There is also a proposal in which a permanent magnet is placed opposite to a liquid pipe so that a magnetic force of 0.2 Tesla to 0.4 Tesla acts on the liquid to improve fuel efficiency. However, the improvement of the fuel consumption in the above is 8% to 15%.

前記のように、燃料に磁気を作用させて燃費を改善することには、幾多の提案があるが、何れも実験報告程度であって、実用機への実施化については知られていない。   As described above, there are many proposals for improving the fuel consumption by applying magnetism to the fuel, but all of them are experimental reports, and no practical implementation is known.

特開平8−14121号公報JP-A-8-14121 特開平11−57727号公報JP-A-11-57727

従来、燃料に磁気を作用させて、燃費を改善しようとする技術については幾多の提案があり(特許文献1、2)、磁力についても0.2テスラ乃至1.0テスラが実用的として示されている。   Conventionally, there have been many proposals for improving the fuel efficiency by applying magnetism to fuel (Patent Documents 1 and 2), and the magnetic force of 0.2 Tesla to 1.0 Tesla has been shown as practical. ing.

前記従来の提案は、燃料管の外側に永久磁石のN極とS極を対向設置し、燃料管内に強磁場を形成して、該部を通過する燃料に磁気を投射しており、投射方法、器具などは異なるが、燃料を強磁力にさらして影響力を付与して燃焼し易くし、これにより完全燃焼させて燃費を改善させるもので、8%〜15%の燃費の改善ができると報告されている(特許文献1)。   In the conventional proposal, the N pole and S pole of a permanent magnet are installed oppositely on the outside of the fuel pipe, a strong magnetic field is formed in the fuel pipe, and the magnetism is projected onto the fuel passing through the portion, Although the equipment is different, the fuel is exposed to strong magnetic force to give influence to make it easy to burn, and this makes it completely burned to improve fuel economy, which can improve fuel efficiency by 8% to 15% It has been reported (Patent Document 1).

前記燃費の改善には、0.2テスラ乃至1.0テスラの磁化装置を使用すると記載されているが、実験の結果によれば、0.1テスラでも効果があるので、0.1テスラ以上が好ましく、1.0テスラ以上にしても効果に変化がないことが認められたので、0.1テスラ乃至1.0テスラで所期の目的を達成するものと認められる。前記は永久磁石の磁力の強さを示したものであるが、要は燃料を0.1テスラ以上の強磁場に何秒間置くかが問題となる。然して磁場を通過した燃料は、時間の経過と共に、効力の低下が認められるので、設置位置は給油ホースよりも給油パイプが好ましい。   Although it is described that a 0.2 Tesla to 1.0 Tesla magnetizer is used to improve the fuel efficiency, according to the results of experiments, 0.1 Tesla is also effective, so 0.1 Tesla or higher It is recognized that there is no change in effect even at 1.0 Tesla or higher, so it is recognized that the intended purpose is achieved at 0.1 Tesla to 1.0 Tesla. The above shows the strength of the magnetic force of the permanent magnet, but the problem is how many seconds the fuel is placed in a strong magnetic field of 0.1 Tesla or more. However, since the fuel that has passed through the magnetic field has a decrease in effectiveness over time, the fuel supply pipe is preferable to the fuel supply hose.

前記のように、燃料(例えばガソリンその他燃焼機関に用いる燃料)を強磁場下に置くことと、磁力を十分作用させることとは異なる。前記における燃料に対する磁力の作用は、燃料の分子を活性化にすることであり、又はくっついた分子を離れ易くすることである。従って、燃料の燃焼時に、各分子が瞬時に活性化して瞬時に燃焼すれば、燃費は著しく改善され、馬力も向上することになる。実験結果によれば、燃費は15%〜30%改善されたことが認められた。従って、燃料、例えばガソリンの分子が活性化しなくても、燃焼時に瞬時に活性化するように結合力を弱めることができれば、目的を十分達成できることが判明した。   As described above, placing a fuel (for example, gasoline or other fuel used in a combustion engine) in a strong magnetic field is different from applying a sufficient magnetic force. The effect of the magnetic force on the fuel in the above is to activate the molecules of the fuel or to make it easy to leave the stuck molecules. Therefore, if each molecule is instantly activated and burned instantaneously when the fuel is burned, the fuel efficiency is remarkably improved and the horsepower is also improved. According to the experimental results, it was recognized that the fuel consumption was improved by 15% to 30%. Accordingly, it has been found that even if the molecules of fuel, for example gasoline, are not activated, the object can be sufficiently achieved if the binding force can be weakened so that it is activated instantly during combustion.

前記において、給油パイプのみを強磁場下においた場合には、効果の変動が認められるが、給油パイプ及び給気パイプの一部を強磁場下においた場合には効果(燃費を15%〜30%改善)の変動が少ない。即ち、給油パイプと給気パイプとを共に強磁場下に置くことによって、受ける磁化作用が不十分であっても給気がこれを補正することにより、燃焼が安定化し常時最良の状態を保って燃焼するためと認められる。   In the above description, when only the oil supply pipe is placed in a strong magnetic field, a change in the effect is recognized. However, when a part of the oil supply pipe and the air supply pipe is placed in a strong magnetic field, the effect (fuel consumption is 15% to 30%). % Improvement) is small. In other words, by placing both the oil supply pipe and the air supply pipe under a strong magnetic field, even if the magnetizing action received is insufficient, the air supply corrects this, thereby stabilizing the combustion and maintaining the best state at all times. Permitted to burn.

前記のように、ガソリンを強磁場下に置いてガソリンの分子の結合力を弱め、又は各分子を活性化して(又は活性化し易くして)燃焼機関に送るようにできれば良いのであるが、自動車などの燃料系装置の改造は好ましくないので、給油パイプ又は燃料タンクに燃料を充填する際に用いる給油ホースに、永久磁石を装着させることが考えられる。従来の提案の多くは、永久磁石の装着について同様の技術的対応がなされている。   As described above, it is sufficient that gasoline is placed in a strong magnetic field to weaken the binding force of gasoline molecules, or each molecule is activated (or facilitated to be activated) and sent to a combustion engine. Since modification of the fuel system device such as the above is not preferable, it is conceivable to attach a permanent magnet to the oil supply hose used when the fuel supply pipe or the fuel tank is filled with fuel. In many of the conventional proposals, the same technical measures are taken for the mounting of permanent magnets.

前記はガソリンについて説明したが、ディーゼルエンジン用の燃料(軽油)についても同様である。要は燃料油の分子の移動を磁気により活性化し、又は燃料油のかたまっている分子を分離し、又は分子の分離を容易にしてから燃焼させることにより、瞬時に完全燃焼させることができるようになり、燃費の改善を達成したのである。   Although the foregoing has been described for gasoline, the same applies to fuel for diesel engines (light oil). In short, the movement of the fuel oil molecules is activated by magnetism, or the molecules of the fuel oil are separated, or by facilitating the separation of the molecules and then burning, so that complete combustion can be instantaneously performed. As a result, fuel efficiency has been improved.

前記特許文献1、2も燃費の改善を目的としたもので、当該明細書記載の効果を奏するものと認められる。   Patent Documents 1 and 2 are also intended to improve fuel consumption, and are recognized as having the effects described in the specification.

然るに、前記技術を実用車に付属させると、燃費改善の効果が発現しにくくなるので、未だ普及するに至っていないものと認められる。前記特許文献によれば、燃費の改善は8%〜15%とされており、到底無視できない数値であるにも拘わらず、実用化されないのは何故か究明したところ、次の点が判明した。   However, it is recognized that when the technology is attached to a practical vehicle, the effect of improving the fuel efficiency becomes difficult to be realized, so that it has not yet spread. According to the patent document, the improvement in fuel efficiency is 8% to 15%, and the reason why it is not put into practical use although it is a numerical value that can hardly be ignored is as follows.

即ち、燃料(例えばガソリン)を燃料タンクに入れる時に強磁場を通過させると、その燃料については分子が活性化して、燃焼効率が向上し、燃費の改善が著しいことが認められていたが、そのガソリンにおける分子の活性は、1日〜2日で消失することが認められた。そこで、エンジンにガソリンを供給する給油パイプに永久磁石を付着させたが、所期の目的を達成することができなかった。即ち、給油パイプの場合に何故目的を達成することができなかったか不明であるけれども、常時同一効果を得るためには、強磁場付きの給油ホースで燃料タンクに充填し、磁化した燃料を1日〜2日で全部使用しなければならならないことがわかった。しかしながら、営業車はともかく、一般車で頻繁に給油することは現実的ではないので、通常は燃費改善の効果が継続しないことが判明し、前記従来の発明の実用化についての問題点となっていた。   That is, when a strong magnetic field was passed when fuel (for example, gasoline) was passed into the fuel tank, it was recognized that the molecule was activated and the combustion efficiency was improved and the fuel consumption was significantly improved. It was observed that the molecular activity in gasoline disappeared in 1-2 days. Therefore, a permanent magnet was attached to the oil supply pipe that supplies gasoline to the engine, but the intended purpose could not be achieved. That is, although it is unclear why the purpose could not be achieved in the case of a refueling pipe, in order to always obtain the same effect, the fuel tank was filled with a refueling hose with a strong magnetic field and magnetized fuel was used for one day. I found that I had to use everything in ~ 2 days. However, aside from commercial vehicles, frequent refueling with ordinary vehicles is not practical, so it has been found that the effect of improving fuel efficiency usually does not continue, and this is a problem with the practical application of the conventional invention. It was.

この発明は、燃料供給時(例えばエンジンへ燃料を供給する時)に、0.1テスラ〜1.0テスラの強磁場を通過させると共に、エンジンに供給する空気も強磁場を通過させることによって、強磁場を通過した燃料をそのまま燃焼した時と同様に燃費を著しく改善することが認められ、前記従来の問題点を解決したのである。   The present invention allows a strong magnetic field of 0.1 Tesla to 1.0 Tesla to pass when fuel is supplied (for example, when fuel is supplied to the engine), and also allows air supplied to the engine to pass the strong magnetic field. It was recognized that the fuel consumption was remarkably improved in the same manner as when the fuel that passed through the strong magnetic field was burned as it was, and the conventional problems were solved.

即ち、請求項1の発明は、燃焼機関への給油パイプ及び給気パイプの一部を0.1テスラ〜1.0テスラの強磁場下に置くことを特徴とした燃焼機関の燃費改善方法である。実験の結果によれば、燃焼機関における磁場の強さは0.2〜1.0テスラが実用範囲であり、好ましくは、0.2テスラ〜0.6テスラである。   That is, the invention of claim 1 is a method for improving the fuel consumption of a combustion engine, characterized in that a part of an oil supply pipe and an air supply pipe to the combustion engine are placed in a strong magnetic field of 0.1 Tesla to 1.0 Tesla. is there. According to the results of the experiment, the strength of the magnetic field in the combustion engine is in the practical range of 0.2 to 1.0 Tesla, preferably 0.2 Tesla to 0.6 Tesla.

請求項2の発明は、燃焼機関への給油パイプ及び給気パイプと、タンクへ燃料を供給する際の給油ホースの一部を0.1テスラ〜1.0テスラの強磁場下に置くことを特徴とした燃焼機関の燃費改善方法である。   According to the second aspect of the present invention, an oil supply pipe and an air supply pipe for a combustion engine and a part of an oil supply hose for supplying fuel to a tank are placed under a strong magnetic field of 0.1 Tesla to 1.0 Tesla. This is a characteristic method for improving the fuel consumption of a combustion engine.

請求項3の発明は、磁場の強さを0.2テスラ〜0.6テスラとしたことを特徴とする請求項1又は2記載の燃焼機関の燃費改善方法である。   A third aspect of the present invention is the combustion engine fuel efficiency improving method according to the first or second aspect, wherein the strength of the magnetic field is 0.2 Tesla to 0.6 Tesla.

請求項4の発明は、燃焼機関を内燃機関、ボイラー又は燃焼機器としたことを特徴とする請求項1乃至3いずれか1項記載の燃焼機関の燃費改善方法である。   A fourth aspect of the present invention is the combustion engine fuel efficiency improving method according to any one of the first to third aspects, wherein the combustion engine is an internal combustion engine, a boiler, or a combustion device.

請求項5の発明は、強磁場は、永久磁石のN極とS極を平行して対向させて形成したことを特徴とする請求項1乃至4いずれか1項記載の燃焼機関の燃費改善方法である。   The invention according to claim 5 is characterized in that the strong magnetic field is formed by making the north and south poles of the permanent magnets face each other in parallel, and the fuel efficiency improvement method for the combustion engine according to any one of claims 1 to 4. It is.

請求項6の発明は、非磁性袋へ複数の永久磁石を一列に収容するに際し、前記非磁性袋を給油パイプ及び給気パイプに装着する時に、前記永久磁石のN極とS極が互いに平行して対向するように位置を定めたことを特徴とする燃焼機関の燃費改善具である。   According to a sixth aspect of the present invention, when a plurality of permanent magnets are accommodated in a row in a nonmagnetic bag, the N pole and S pole of the permanent magnet are parallel to each other when the nonmagnetic bag is mounted on an oil supply pipe and an air supply pipe. Thus, the fuel efficiency improvement tool of the combustion engine is characterized in that the positions are determined so as to face each other.

請求項7の発明は、非磁性袋の装着時に、外側となる側に断熱層を設けたことを特徴とする請求項6記載の燃焼機関の燃費改善具である。   A seventh aspect of the present invention is the fuel efficiency improving tool for a combustion engine according to the sixth aspect, wherein a heat insulating layer is provided on the outer side when the nonmagnetic bag is mounted.

請求項8の発明は、非磁性袋の端部に、該非磁性袋を燃焼パイプに装着時の留め具を設けたことを特徴とする請求項6記載の燃費改善具である。   The invention according to claim 8 is the fuel efficiency improvement tool according to claim 6, wherein a fastener for attaching the nonmagnetic bag to the combustion pipe is provided at an end of the nonmagnetic bag.

前記発明においては、燃料タンク及び給油パイプ、給気パイプなど現に使用している器具に変更を加えることなく、給油パイプ及び給気パイプに強磁場を形成するようにしているので、総て現使用のパイプ又はホースに装着する方法である。従って、原則的には自動車又は燃焼器の所有者が前記器具を使用することになるので、自動車又は燃焼器の製造者、販売者その他ガソリンスタンドなどの関係者には一切付加すべき労力又は器具はない。但し、自動車又は燃焼器を新しく製造する場合には、給気パイプ及び給気パイプなどへ永久磁石を埋設することができる。   In the above invention, since a strong magnetic field is formed in the oil supply pipe and the air supply pipe without changing the equipment currently used such as the fuel tank, the oil supply pipe, and the air supply pipe, all the current use It is a method of attaching to the pipe or hose. Therefore, in principle, the owner of the car or combustor will use the appliance, so any labor or equipment that should be added to the automobile or combustor manufacturer, seller, or other related parties such as a gas station. There is no. However, when a car or a combustor is newly manufactured, a permanent magnet can be embedded in the air supply pipe and the air supply pipe.

前記における永久磁石の強さについては、実用上0.1テスラ〜1.0テスラとされており、好ましくは0.2テスラ〜0.6テスラである。何故ならば、同一効果が上がることが判れば、永久磁石の強さは小さい方が好ましいからである。   The strength of the permanent magnet is practically 0.1 Tesla to 1.0 Tesla, and preferably 0.2 Tesla to 0.6 Tesla. This is because if it is found that the same effect is improved, it is preferable that the strength of the permanent magnet is small.

燃料が強磁場を通過することによって燃焼し易くなることは、幾多の実験により確認されており、燃料の分子が活性化するとした説が有力である。その反面、1日〜2日で燃料の分子が元の状態(非活性状態)に戻ることも確認されている。そこで、数個のかたまりの分子が一旦分離され、再び数個のかたまりとなった場合に、結合力の強弱と、分離の前後との関係は不明であるが、物理現象として、一旦分離したものは結合しても弱い結合となっていることが多いので、その後外力が加われば、比較的容易に分離するものと推定される。この点は、強磁場を通過した空気を燃焼に使用することで、燃費の改善が認められることが確認されている(一度活性化した燃料は、活性化が消失しても、再活性化が容易となる)。   It has been confirmed by many experiments that the fuel easily burns by passing through a strong magnetic field, and the theory that the fuel molecules are activated is promising. On the other hand, it has also been confirmed that the fuel molecules return to the original state (inactive state) in one to two days. Therefore, when several masses of molecules are once separated and become several masses again, the relationship between the strength of the binding force and before and after the separation is unknown, but as a physical phenomenon, In many cases, the bonds are weakly bonded, so that it is estimated that they are separated relatively easily when an external force is applied thereafter. In this respect, it has been confirmed that the use of air that has passed through a strong magnetic field for combustion improves fuel efficiency. (Once activated, fuel can be reactivated even if activation is lost. Easy).

一般に、酸素に光を当てると、「スーパーオキシドアニオンラジカル(O )」という活性酸素となることが認められている。そこで、光に代えて強磁力を付与した場合にも同様の活性酸素が生じると仮定すれば、燃費改善の実験結果と符合するから、活性酸素の生成と判断する。 In general, it is recognized that when light is applied to oxygen, it becomes active oxygen called “superoxide anion radical (O 2 )”. Therefore, if it is assumed that similar active oxygen is generated even when a strong magnetic force is applied instead of light, it is determined that the generation of active oxygen since it coincides with the experimental result of fuel consumption improvement.

この発明における燃焼機関の対象物は、自動車のエンジンが最も一般的であるから、自動車のエンジンの燃料(ガソリン)について考察する。一般に、燃料タンク内のガソリンは分子同士が結合しているから、これをそのままエンジンに供給した場合には、まず結合している分子を分解してその後燃焼(爆発)させることになるので、瞬時ではあるが分解エネルギーが必要である。   The object of the combustion engine in the present invention is an automobile engine, so the fuel (gasoline) of the automobile engine is considered. In general, gasoline in a fuel tank has molecules bonded to each other. When this is supplied to the engine as it is, the bonded molecules are first decomposed and then burned (exploded). However, decomposition energy is required.

然しながら、ガソリンを給油する際に、強磁場を通過させてガソリンの分子を分離した状態にしておけば、前記分解エネルギーは不要になるので、その不要分だけ燃費を向上することができる。   However, when refueling, if the gasoline molecules are separated by passing a strong magnetic field, the decomposition energy becomes unnecessary, so that the fuel consumption can be improved by the unnecessary amount.

また、分離されない場合にはそのまま排気されるので、結果的には分解エネルギー及び排気中へ排出した未分解部分の量の大小が燃費向上の多寡となるものと推定される。   Moreover, since it will exhaust as it is when it is not isolate | separated, as a result, it is estimated that the magnitude | size of the amount of the decomposition energy and the amount of the undecomposed part discharged | emitted in exhaust gas will increase fuel consumption.

前記において、燃料タンクへ燃料を補給する場合に、燃料ホースの一部を磁化すれば、燃料タンク内の燃料は充填時に活性化されるが、その活性は経時的に低減し、2日間経過後は磁化前の状態に近くなる。そこで、給油パイプに包装磁石を装着し、給油毎に強磁場を通過させたところ、格段の燃費改善が見受けられた。   In the above, when fuel is supplied to the fuel tank, if a part of the fuel hose is magnetized, the fuel in the fuel tank is activated at the time of filling, but the activity decreases with time, and after two days have passed. Becomes close to the state before magnetization. Therefore, when a wrapping magnet was attached to the refueling pipe and a strong magnetic field was passed for each refueling, a marked improvement in fuel consumption was observed.

前記燃料は、給油パイプ中を相当のスピードで通過するので、給油の処理不足が懸念されたけれども、絶大な効果が認められたので、磁場の強さが0.1テスラ以上、好ましくは0.2テスラ以上であれば処理時間が短くても所期の目的を達成することが認められた。   Since the fuel passes through the refueling pipe at a considerable speed, there is a concern about insufficient processing of the refueling, but a great effect has been recognized, so the strength of the magnetic field is 0.1 Tesla or higher, preferably 0. It was recognized that the desired purpose was achieved even if the treatment time was short if it was 2 Tesla or more.

この発明の効果として、燃費を15%〜30%改善することが認められている。前記燃費の差は車種、運転者及び走行条件の良否により生じるものと認められた。   As an effect of the present invention, it has been recognized that fuel efficiency is improved by 15% to 30%. It was recognized that the difference in fuel consumption was caused by the quality of the vehicle type, driver, and driving conditions.

この発明においては、ガソリンを燃料タンクへ収容する時に、強磁場を通過させる処理をしてガソリンの分子を活性化し(又は活性化し易くし)、この分子が再結合した以後(2〜3日後)に強磁場を通過した空気をエンジンに供給したところ、ガソリンの当初処理と同様に燃費が改善されることが確認されている。従って、前記強磁場を通過した空気の酸素の一部がスーパーオキシドアニオンラジカルになって作用したと推定しても何等の矛盾はない。     In this invention, when gasoline is stored in the fuel tank, a process of passing a strong magnetic field is performed to activate (or facilitate activation) the gasoline molecules, and after the molecules recombine (after 2 to 3 days). In addition, when air that passed through a strong magnetic field was supplied to the engine, it was confirmed that fuel efficiency was improved as in the case of the initial processing of gasoline. Therefore, there is no contradiction even if it is estimated that a part of oxygen in the air that has passed through the strong magnetic field acts as a superoxide anion radical.

この発明で使用する磁石は、市販の磁石であって、温度上昇により磁力の低下が見込まれるので、この発明の器具をエンジン室内へ設置する場合(燃料及び空気の磁化)には、前記器具を断熱処理し、少なくとも磁石の温度が50℃以上にならないようにすることが望ましい。但し、100℃位まで磁力強度の変わらない耐熱磁石を使用すれば、簡易の高温防止手段で十分目的を達成することができる。     The magnet used in the present invention is a commercially available magnet, and a decrease in magnetic force is expected due to temperature rise. Therefore, when the instrument of the present invention is installed in the engine compartment (magnetization of fuel and air), the instrument is used. It is desirable to insulate so that at least the temperature of the magnet does not exceed 50 ° C. However, if a heat-resistant magnet whose magnetic strength does not change up to about 100 ° C. is used, the object can be sufficiently achieved with simple high temperature prevention means.

前記説明は、燃焼器を主として内燃機関として説明したが、この発明は、内燃機関に限定されることなく、流体燃料の燃焼について凡て当てはまることは明らかである。然して磁石は永久磁石である。   In the above description, the combustor is mainly described as an internal combustion engine. However, the present invention is not limited to the internal combustion engine, but obviously applies to the combustion of fluid fuel. Thus, the magnet is a permanent magnet.

また、強力な永久磁石の磁力が計器類に影響を及ぼさないようにするには、磁気遮蔽を考慮する必要がある。磁気遮蔽については、例えば器具を金属薄板又は金属メッシュで包装することで簡易かつ確実に磁気遮蔽効果を期待することができる。     In order to prevent the magnetic force of a strong permanent magnet from affecting the instruments, it is necessary to consider magnetic shielding. As for magnetic shielding, for example, a magnetic shielding effect can be expected simply and reliably by packaging an instrument with a metal thin plate or a metal mesh.

この発明によれば、燃料の補給時に燃料を磁化すると共に、燃焼用の給気も磁化するので、燃料の分子は容易に活性化し、又は活性し易い状態で燃焼することになり、いわゆる完全燃焼し、燃費を15%〜30%改善することができる効果がある。     According to the present invention, the fuel is magnetized when the fuel is replenished, and the supply air for combustion is also magnetized, so that the fuel molecules are easily activated or burned in an easily activated state, so-called complete combustion. In addition, the fuel consumption can be improved by 15% to 30%.

また、この発明の器具は給油パイプ、給気パイプ又は給油ホースなどへ簡単に装着できるので、特別の労力又は時間を考慮する必要はない。また、新車又は新燃焼器については、燃料パイプへ予め永久磁石を埋め込み一体化して使用することもできる。     Further, since the device of the present invention can be easily attached to an oil supply pipe, an air supply pipe, an oil supply hose, or the like, it is not necessary to consider special labor or time. Moreover, about a new vehicle or a new combustor, a permanent magnet is previously embedded and integrated into a fuel pipe.

特に、一度活性化した分子が、その活性が消失しても磁化空気により再び活性化し、又は活性化し易い状態に戻ることは、従来技術に示されていなかった新規な効果である。     In particular, it is a novel effect that has not been shown in the prior art that once activated molecules are reactivated by magnetized air even when their activity disappears, or return to a state where they are easily activated.

(a)この発明の実施例の一部を省略した展開斜視図、(b)同じく装着状態を示す断面図、(c)同じく装着状態を示す斜視図。(A) The expansion | deployment perspective view which abbreviate | omitted a part of Example of this invention, (b) Sectional drawing which similarly shows a mounting state, (c) The perspective view which also shows a mounting state. (a)この発明の他の実施例の装着状態を示す正面図、(b)同じく側面図。(A) The front view which shows the mounting state of the other Example of this invention, (b) Same side view. (a)この発明の他の実施例の一部を破切した正面図、(b)同じく図(a)中A−A断面図、(c)同じく他の実施例の断面図、(d)同じく図(c)中B−B断面図。(A) Front view in which a part of another embodiment of the present invention is broken, (b) A sectional view taken along the line AA in FIG. (A), (c) A sectional view of the other embodiment, (d) Similarly BB sectional drawing in figure (c). (a)同じく永久磁石を上下平行に対向して設置した場合の磁力分布の説明図、(b)同じく永久磁石を上下左右に対向設置した場合の磁力分布の説明図。(A) Explanatory drawing of magnetic force distribution when permanent magnets are similarly installed facing each other in the vertical direction, (b) Explanatory drawing of magnetic force distribution when permanent magnets are similarly installed oppositely in the vertical and horizontal directions. 同じく燃料及び空気を磁化する実施例の説明図。Explanatory drawing of the Example which magnetizes fuel and air similarly.

この発明は、燃焼機関の燃費改善に関するもので、内燃機関についてはガソリンタンクへの燃料給送ホース、シリンダーへの給油パイプ及び給気パイプへ、強磁場生成用の包装磁石を装着して、燃料を活性化したのである。   The present invention relates to an improvement in fuel consumption of a combustion engine. For an internal combustion engine, a fuel supply hose to a gasoline tank, a fuel supply pipe to a cylinder, and a supply pipe are equipped with a wrapping magnet for generating a strong magnetic field, Is activated.

前記包装磁石の装着は、二枚の永久磁石のN極とS極を、前記燃料給送ホース、給油パイプ又は給気パイプを挟んで平行に対向設置し、前記永久磁石間の磁力線により、燃料給送ホース、給油パイプ及び給気パイプを通過する燃料及び空気に強磁力を作用させるようにしてある。   The wrapping magnets are mounted by placing two N poles and S poles of permanent magnets facing each other in parallel across the fuel supply hose, oil supply pipe or air supply pipe, and the line of magnetic force between the permanent magnets A strong magnetic force is applied to the fuel and air passing through the feed hose, the oil supply pipe, and the air supply pipe.

前記において、燃料給送ホース内の燃料は例えば0.2テスラ〜0.6テスラの強磁場を通過することになるので、前記永久磁石からの強力な磁力線を受けて磁化され、各燃料分子が活性化したままか、又は活性化し易くなった状態で、燃料タンク内へ収容される。   In the above, since the fuel in the fuel supply hose passes through a strong magnetic field of 0.2 Tesla to 0.6 Tesla, for example, it is magnetized by receiving a strong magnetic field line from the permanent magnet, and each fuel molecule is It is accommodated in the fuel tank while being activated or easily activated.

前記燃料タンク内の燃料は、何れも燃料分子が活性化しているか、又は活性化し易くなっているが、1日〜2日経過すると、各分子同士の活性が低下するものと認められる。   In each fuel in the fuel tank, fuel molecules are activated or easily activated, but it is recognized that the activity of each molecule decreases after 1 to 2 days.

次に、給油パイプ及び給気パイプの外側へ包装磁石を装着し、強磁場を生成すると、エンジンに供給される空気も強磁場を通過するので、該空気中の酸素が活性化され、前記活性化し易くなっている燃料に作用して、これを活性化してシリンダー内へ送入し、点火、燃焼させる。そこで、燃料は瞬時に完全燃焼して燃費を15%〜30%向上させることができた。また、給油パイプ及び給気パイプに永久磁石を平行して対向埋設しても同様である。   Next, when a wrapping magnet is attached to the outside of the oil supply pipe and the air supply pipe and a strong magnetic field is generated, the air supplied to the engine also passes through the strong magnetic field, so that oxygen in the air is activated and the activity is increased. It acts on the fuel that is easy to convert, activates it, sends it into the cylinder, and ignites and burns it. Therefore, the fuel was completely burned instantly and the fuel consumption was improved by 15% to 30%. Further, the same applies when permanent magnets are embedded in parallel in the oil supply pipe and the air supply pipe.

次に、燃料を軽油として軽油の分解エネルギーを計算すると次のとおりである。軽油の分子をC1532とすると、その燃焼反応は次式で表される。
1532+23O=15CO+16H
Next, when the cracking energy of light oil is calculated using light oil as fuel, it is as follows. When the light oil molecule is C 15 H 32 , the combustion reaction is expressed by the following equation.
C 15 H 32 + 23O 2 = 15CO 2 + 16H 2 O

ここで、分子の結合エネルギーを求めると、次のようになる(化学便覧基礎編)。
C−C 107.3kcal/mol
C−H(端) 109.2kcal/mol
C−H(中間) 79.94kcal/mol
O−O 117.3kcal/mol
O−C−O 381.7kcal/mol
H−O−H 219.3kcal/mol
Here, when the binding energy of a molecule is obtained, it is as follows (Chemical Handbook Basics).
C-C 107.3 kcal / mol
C-H (end) 109.2 kcal / mol
C-H (intermediate) 79.94 kcal / mol
O-O 117.3 kcal / mol
O-C-O 381.7 kcal / mol
H-O-H 219.3 kcal / mol

前記数値を使用し、各分子の分解エネルギーを計算すると、
(1)軽油の分解エネルギー
(C−C)×14+(C−H(端))×6+(C−H(中間))×26
=4,234.8kcal/mol=21,393kcal/kg
(2)所要酸素の分解エネルギー
(O−O)×23=117.3kcal/mol×23
=2,697.9kcal/mol=13,629kcal/kg
(3)分解した原子状軽油の酸化エネルギー
(O−C−O)×15+(H−O−H)×16
=381.7kcal/mol×15+219.3kcal/mol×16
=9,234.3kcal/mol=46,631kcal/kg
(4)軽油の燃焼エネルギー
46,631kcal/kg−21,393kcal/kg−13,629kcal/kg=11,609cal/kg
Using the above numerical values and calculating the decomposition energy of each molecule,
(1) Decomposition energy of light oil (C−C) × 14 + (C−H (end)) × 6 + (C−H (intermediate)) × 26
= 4,234.8 kcal / mol = 21,393 kcal / kg
(2) Decomposition energy of required oxygen (OO) × 23 = 117.3 kcal / mol × 23
= 2,697.9 kcal / mol = 13,629 kcal / kg
(3) Oxidation energy of decomposed atomic light oil (O—C—O) × 15 + (H—O—H) × 16
= 381.7 kcal / mol × 15 + 219.3 kcal / mol × 16
= 9, 234.3 kcal / mol = 46,631 kcal / kg
(4) Combustion energy of light oil 46,631 kcal / kg-21,393 kcal / kg-13,629 kcal / kg = 11,609 cal / kg

次に、燃焼に使用する空気の酸素の10%が活性化したとすると、酸素の分解エネルギーは13,629kcal/kgから12,266kcal/kgとなり、燃焼エネルギーは11,609cal/kgから12,972cal/kgに増加して、燃費は約11.7%向上したことになる。   Next, if 10% of oxygen in the air used for combustion is activated, the decomposition energy of oxygen is changed from 13,629 kcal / kg to 12,266 kcal / kg, and the combustion energy is changed from 11,609 cal / kg to 12,972 cal. This increases fuel efficiency by about 11.7%.

ここで、軽油に磁力を作用させて軽油の結合力が10%減少したとすると、軽油の分解エネルギーは21,393kcal/kgから19,254kcal/kgとなり、燃焼エネルギーは13,748kcal/kgとなって、燃費は18.4%の向上となる。   Here, if the gas oil is subjected to a magnetic force and the binding force of the light oil is reduced by 10%, the decomposition energy of the light oil is changed from 21,393 kcal / kg to 19,254 kcal / kg, and the combustion energy is changed to 13,748 kcal / kg. Thus, the fuel consumption is improved by 18.4%.

前記のように、給油パイプと給気パイプが強磁場を通過することにより、給油及び給気に磁気を作用させて燃費を向上させることができる。   As described above, when the oil supply pipe and the air supply pipe pass through the strong magnetic field, it is possible to improve the fuel consumption by applying magnetism to the oil supply and the air supply.

従来磁気により燃費の向上が図られていたが、専ら給油に作用させるだけであり、その向上も最高が15%程度と少なかった。この発明は給油と給気の両者に磁力を作用させることにより、20%以上の効果が認められると共に、効果の安定化が認められた。即ち、運転技術、道路条件又は交通条件などにより、15%〜30%の燃費改善の効果は変動するが、15%以下にはならなかった。   Conventionally, the improvement in fuel efficiency has been achieved by magnetism, but it has only been applied to the oil supply, and the improvement has been as low as 15%. In this invention, by applying a magnetic force to both the oil supply and the air supply, an effect of 20% or more was recognized, and stabilization of the effect was recognized. That is, the fuel efficiency improvement effect of 15% to 30% varies depending on driving technology, road conditions, traffic conditions, etc., but did not fall below 15%.

前記は、給油の磁化と、給気の磁化により給油又は給気過程における一方の不十分を他方で補い、平均的効果を維持するようにしたものと認められる。   It is recognized that the above-mentioned is that the insufficient effect of one of the oil supply or the air supply process is compensated by the other by the magnetization of the oil supply and the magnetization of the air supply, and the average effect is maintained.

前記において、給気を磁化しない場合には、燃料タンク内に1日〜2日以上収容されていた燃料は、各分子の活性化が低下しており、無処理燃料とほぼ同一になる。この場合に、燃焼時に供給する空気を磁化空気として供給することにより、燃料は磁化直後の燃料とほぼ同一になることが判明した。更に、吸気を磁化することにより安定効果が向上した。     In the above, when the supply air is not magnetized, the activation of each molecule of the fuel stored in the fuel tank for 1 to 2 days or more is almost the same as the untreated fuel. In this case, it has been found that by supplying the air supplied at the time of combustion as magnetized air, the fuel is almost the same as the fuel immediately after magnetization. Furthermore, the stability effect was improved by magnetizing the intake air.

即ち、従来燃料タンク内に1日〜2日以上保存されていた燃料は、分子の活性化が消失して完全燃焼できなくなっていたが、磁化空気の給気及び磁化燃料の給油により全体を活性化して完全燃焼が可能となり、この発明により安定した効果を奏することが明らかとなった。     In other words, the fuel that has been stored in the fuel tank for more than 1 to 2 days has lost its molecular activation and cannot be burned completely. However, the entire fuel is activated by supplying magnetized air and refueling magnetized fuel. It has become clear that complete combustion is possible and that the present invention has a stable effect.

この発明の実施例を図1(a)に基づいて説明する。図1(b)のように布袋1へ収容した永久磁石2、3のN極、S極を給油パイプ4を挟んで平行に対向設置すると、矢示5で示されるような磁場が形成される。従って、給油パイプ4内の燃料は流動中に、矢示5で示される磁場から強磁力を受ける。そして燃料が活性化し、又は活性化し易い状態となって、シリンダー21内(図5)に給油される。図1中6は磁着用の鉄片であり、これにより布袋1の装着状態を保持することができる。     An embodiment of the present invention will be described with reference to FIG. When the N poles and S poles of the permanent magnets 2 and 3 accommodated in the cloth bag 1 are placed opposite to each other in parallel with the oil supply pipe 4 interposed therebetween as shown in FIG. 1B, a magnetic field as indicated by an arrow 5 is formed. . Therefore, the fuel in the fuel supply pipe 4 receives a strong magnetic force from the magnetic field indicated by the arrow 5 during the flow. Then, the fuel is activated or easily activated, and is supplied into the cylinder 21 (FIG. 5). In FIG. 1, reference numeral 6 denotes an iron piece magnetically attached, whereby the wearing state of the cloth bag 1 can be maintained.

前記に用いる永久磁石2、3の材質について特定しない。本実施例における永久磁石2、3の材質はネオジウムである。   The material of the permanent magnets 2 and 3 used for the above is not specified. The material of the permanent magnets 2 and 3 in the present embodiment is neodymium.

次に、図5において、送油ホース28が強磁場29の下に置かれると、送油ホース28内を通過する燃料は何れも磁化されて、燃料タンク20内へ貯蔵される。   Next, in FIG. 5, when the oil feeding hose 28 is placed under the strong magnetic field 29, any fuel passing through the oil feeding hose 28 is magnetized and stored in the fuel tank 20.

前記燃料がそのまま使用されると、燃費は著しく(例えば燃費改善25%)改善されるけれども、燃料タンク内の燃料は時間の経過と共に活性を失い、又は不活性に変質するので、ほぼ2日経過後は、磁化処理前の状態になることが判明している。然しながら、この発明のように、給油と給気を磁化して燃焼させると、前記燃料が活性化するために、瞬時に完全燃焼するので、燃費を著しく改善することができる。前記実施例は、内燃機関を対象としているが、燈油ストーブなどの他の燃焼器でも同様の効果がある。     If the fuel is used as it is, the fuel consumption is remarkably improved (for example, 25% improvement in fuel consumption). However, the fuel in the fuel tank loses its activity with time or becomes inactive. Has been found to be in a state prior to the magnetization treatment. However, as in the present invention, when fueling and air supply are magnetized and burned, the fuel is activated, and complete combustion is instantaneously performed. Therefore, fuel consumption can be remarkably improved. The above embodiment is intended for an internal combustion engine, but the same effect can be obtained with other combustors such as a soot stove.

(実験例1)
次に図4(a)、(b)に基づいて実験例について説明する。図4(a)は、給油パイプ23に対し、永久磁石25、26を上下平行に対向設置したところ、磁力線は矢示36、36のようになり、各点の磁力の強さは表1のようになった。
(Experimental example 1)
Next, experimental examples will be described based on FIGS. 4 (a) and 4 (b). In FIG. 4A, when the permanent magnets 25 and 26 are installed vertically opposite to the oil supply pipe 23, the lines of magnetic force are as indicated by arrows 36 and 36, and the strength of the magnetic force at each point is as shown in Table 1. It became so.

また、図4(b)のように、給油パイプ23に対し、永久磁石25、26を上下左右に配置したところ、磁力線は矢示37、38のようになり、各点の磁力の強さは表1のようになった。

Figure 2012097734
Further, as shown in FIG. 4B, when the permanent magnets 25 and 26 are arranged vertically and horizontally with respect to the oil supply pipe 23, the lines of magnetic force are as indicated by arrows 37 and 38, and the strength of the magnetic force at each point is as follows. It became like Table 1.
Figure 2012097734

前記のように、永久磁石を平行に配置した場合の磁力分布(図4(a))はほぼ均等であるが、永久磁石を周辺に配置した場合の磁力分布(図4(b))は、磁石の近辺に集中し、通過流体に対する作用が極めて弱いものと認められる。従って、磁石は給油パイプに対し平行に対向設置することが好ましいとの結論を得た。   As described above, the magnetic force distribution when the permanent magnets are arranged in parallel (FIG. 4A) is substantially equal, but the magnetic force distribution when the permanent magnets are arranged in the periphery (FIG. 4B) is Concentrated in the vicinity of the magnet, it is recognized that the effect on the passing fluid is extremely weak. Therefore, it was concluded that it is preferable to install the magnet opposite to the oil supply pipe in parallel.

一般に、永久磁石には温度特性があって、高温(例えば50℃以上)には変化を来たしやすいので、例えば40℃以下の使用が好ましいが、高温(例えば80℃以上)になるおそれがある場所に用いる場合には、高温耐性のある永久磁石を使用することが好ましい。外気温に対し適宜の遮温処理(例えば断熱被覆)をして40℃以下で使用することも考えられる。 Generally, permanent magnets have temperature characteristics and are likely to change at high temperatures (for example, 50 ° C. or higher). For example, use of 40 ° C. or lower is preferable, but places where there is a risk of high temperatures (for example, 80 ° C. or higher). In the case of using for, it is preferable to use a permanent magnet having high temperature resistance. It is also conceivable to use an appropriate temperature-insulating treatment (for example, heat-insulating coating) with respect to the outside air temperature at 40 ° C. or lower.

この発明の他の実施例を図2に基づいて説明する。給油パイプ31の外側に、永久磁石32、32を埋設した枠体33、33を嵌着してボルト34、34、ナット35、35で締め付け固定する。図2のように固定すれば、永久磁石32,32は給油パイプ31に確実に固定され、多少の振動があっても枠体33が外れたり、脱落するおそれはなく、給油パイプ31の所定の装着位置に磁場を形成することができる。   Another embodiment of the present invention will be described with reference to FIG. Frame bodies 33 and 33 in which permanent magnets 32 and 32 are embedded are fitted on the outer side of the oil supply pipe 31 and fastened and fixed with bolts 34 and 34 and nuts 35 and 35. If fixed as shown in FIG. 2, the permanent magnets 32, 32 are securely fixed to the oil supply pipe 31, and there is no possibility that the frame 33 will come off or fall off even if there is some vibration. A magnetic field can be formed at the mounting position.

前記における永久磁石の長さ(給油パイプ31と平行の方向)は10mm〜30mmとする。   The length of the permanent magnet (in the direction parallel to the oil supply pipe 31) is set to 10 mm to 30 mm.

この発明の他の実施例を図3(a)、(b)に基づいて説明する。給油パイプ9の上下に永久磁石10、11を平行に対向して埋設したもので、図中12は断熱材(例えば発泡スチロール)である。前記実施例において、燃料は矢示13の方向に流動し、磁力線は矢示14、14のように投射されるので、内部に強磁場が形成され、流動する燃料は磁力により活性化されてシリンダー(図示していない)に送られる。   Another embodiment of the present invention will be described with reference to FIGS. 3 (a) and 3 (b). Permanent magnets 10 and 11 are embedded in parallel above and below the oil supply pipe 9, and 12 in the figure is a heat insulating material (for example, polystyrene foam). In the above embodiment, the fuel flows in the direction of arrow 13 and the lines of magnetic force are projected as indicated by arrows 14 and 14, so that a strong magnetic field is formed inside, and the flowing fuel is activated by the magnetic force and is (Not shown).

次に他の実施例を図3(c)、(d)に基づいて説明する。給油パイプ15の一部を上下に加圧して、上下平行な壁17、17を有する偏平部16を形成し、平行な壁17、17に永久磁石18、19を平行に埋設する。磁力線は矢示22のようになり、内部に強磁場が形成される。前記偏平部16は、磁力線が均等に分布し、流動油を磁化し活性化する。   Next, another embodiment will be described based on FIGS. 3 (c) and 3 (d). A part of the oil supply pipe 15 is pressurized up and down to form a flat portion 16 having upper and lower parallel walls 17 and 17, and permanent magnets 18 and 19 are embedded in parallel walls 17 and 17 in parallel. The lines of magnetic force are as shown by arrows 22 and a strong magnetic field is formed inside. The flat part 16 has magnetic field lines distributed evenly, and magnetizes and activates the fluid oil.

前記実施例は、給油について説明したが、給気についても全く同一であり、空気が磁場を通過する際に磁化され、酸素が活性化されるものと認められる。   Although the above embodiment has been described with respect to refueling, it is recognized that air supply is completely the same and is magnetized and oxygen is activated when air passes through a magnetic field.

前記実施例は何れも燃料パイプ内へ永久磁石を埋設したが、燃料パイプを内外二重管とし、内管の外側に永久磁石を固定し、内管の外側へ外管を嵌装して、永久磁石を外管で被着しても同様の効果がある。要するに、永久磁石が平行に対向設置されることが要件であり、永久磁石の取り付け構造又はフィルムなどによる被着構造に限定はない。   In any of the above embodiments, permanent magnets are embedded in the fuel pipe, but the fuel pipe is an inner / outer double pipe, the permanent magnet is fixed to the outside of the inner pipe, and the outer pipe is fitted to the outer side of the inner pipe, The same effect can be obtained by attaching a permanent magnet with an outer tube. In short, it is a requirement that the permanent magnets be installed facing each other in parallel, and there is no limitation on the attachment structure of the permanent magnets or the attachment structure using a film or the like.

(実験例2)
この発明の燃費改善具を図1の要領で燃料パイプ及び空気パイプに固定したところ、表2の結果を得た。

Figure 2012097734
(Experimental example 2)
When the fuel efficiency improving tool of the present invention was fixed to the fuel pipe and the air pipe as shown in FIG. 1, the results shown in Table 2 were obtained.
Figure 2012097734

前記のように、各車種共に、略20%以上(19.9%〜36.4%)の燃費の向上が認められた。前記は、各車種につきこの発明の燃費改善具を装着した場合と、装着しない場合それぞれについて50kmを複数回走行し、平均値を求めたものである。   As described above, an improvement in fuel consumption of approximately 20% or more (19.9% to 36.4%) was recognized for each vehicle type. In the above, the average value is obtained by traveling 50 km a plurality of times for each vehicle type when the fuel efficiency improvement tool of the present invention is mounted and when not mounted.

この発明の他の実施例を図5に基づいて説明する。燃料タンク20とシリンダー21との間の給油パイプ22を強磁場27の下に置くと共に、ポンプ24aで給油した。   Another embodiment of the present invention will be described with reference to FIG. The oil supply pipe 22 between the fuel tank 20 and the cylinder 21 was placed under the strong magnetic field 27 and supplied with a pump 24a.

また、給気パイプ25を強磁場26の下に置くと共に、ポンプ24bで給気した。この場合の給油と給気は全く通常のとおりとした。   Further, the air supply pipe 25 was placed under the strong magnetic field 26 and supplied with air by the pump 24b. In this case, the refueling and the air supply were made as usual.

前記は25トンのタンクローリーに設置した場合の一例を示したものであって、1200km走行したが、燃費は3.3km〜3.5km/Lであった。   The above shows an example when installed in a 25-ton tank lorry, and it traveled 1200 km, but the fuel consumption was 3.3 km to 3.5 km / L.

前記同一タンクローリーを使用し、強磁場を設けない場合の燃費は2.5〜2.8km/Lであった。従って、平均28%の燃費の向上が認められた。   The fuel consumption when using the same tank lorry and not providing a strong magnetic field was 2.5 to 2.8 km / L. Therefore, an average 28% improvement in fuel consumption was recognized.

1 布袋
2、3、10、11、18、19、25、26、32、 永久磁石
4、22、23 給油パイプ
6 鉄片
8 フェライト板
9、15 給油パイプ
12 断熱材
16 偏平部
20 燃料タンク
21 シリンダー
24a、24b ポンプ
25 給気パイプ
26、27、29 強磁場
28 送油ホース
31 給油パイプ
33 枠体
DESCRIPTION OF SYMBOLS 1 Cloth bag 2, 3, 10, 11, 18, 19, 25, 26, 32 Permanent magnet 4, 22, 23 Oil supply pipe 6 Iron piece 8 Ferrite plate 9, 15 Oil supply pipe 12 Heat insulating material 16 Flat part 20 Fuel tank 21 Cylinder 24a, 24b Pump 25 Air supply pipes 26, 27, 29 Strong magnetic field 28 Oil supply hose 31 Oil supply pipe 33 Frame

Claims (8)

燃焼機関への給油パイプ及び給気パイプの一部を0.1テスラ〜1.0テスラの強磁場下に置くことを特徴とした燃焼機関の燃費改善方法。   A method for improving fuel consumption of a combustion engine, characterized in that an oil supply pipe and a part of an air supply pipe for the combustion engine are placed in a strong magnetic field of 0.1 Tesla to 1.0 Tesla. 燃焼機関への給油パイプ及び給気パイプと、タンクへの給油ホースの一部を0.1テスラ〜1.0テスラの強磁場下に置くことを特徴とした燃焼機関の燃費改善方法。   A method for improving fuel consumption of a combustion engine, characterized in that an oil supply pipe and an air supply pipe to the combustion engine and a part of an oil supply hose to the tank are placed in a strong magnetic field of 0.1 Tesla to 1.0 Tesla. 磁場の強さは、0.2テスラ〜0.6テスラとしたことを特徴とする請求項1又は2記載の燃焼機関の燃費改善方法。   The method for improving the fuel consumption of a combustion engine according to claim 1 or 2, wherein the strength of the magnetic field is 0.2 Tesla to 0.6 Tesla. 燃焼機関は、内燃機関、ボイラー又は燃焼機器としたことを特徴とする請求項1乃至3いずれか1項記載の燃焼機関の燃費改善方法。   The method for improving fuel consumption of a combustion engine according to any one of claims 1 to 3, wherein the combustion engine is an internal combustion engine, a boiler, or a combustion device. 強磁場は、永久磁石のN極とS極を平行して対向させて形成したことを特徴とする請求項1乃至4いずれか1項記載の燃焼機関の燃費改善方法。   The method for improving fuel consumption of a combustion engine according to any one of claims 1 to 4, wherein the strong magnetic field is formed by making the N pole and S pole of a permanent magnet face each other in parallel. 非磁性袋へ複数の永久磁石を一列に収容するに際し、前記非磁性袋を給油パイプ及び給気パイプに装着する時に、前記永久磁石のN極とS極が互いに平行して対向するように位置を定めたことを特徴とする燃焼機関の燃費改善具。   When a plurality of permanent magnets are accommodated in a row in a nonmagnetic bag, the N pole and the S pole of the permanent magnet are opposed in parallel to each other when the nonmagnetic bag is attached to an oil supply pipe and an air supply pipe. A fuel economy improvement tool for a combustion engine characterized by 非磁性袋の装着時に、外側となる側に断熱層を設けたことを特徴とする請求項6記載の燃焼機関の燃費改善具。   The fuel efficiency improving tool for a combustion engine according to claim 6, wherein a heat insulating layer is provided on the outer side when the nonmagnetic bag is attached. 非磁性袋の端部に、該非磁性袋を燃焼パイプに装着時の留め具を設けたことを特徴とする請求項6記載の燃費改善具。   The fuel consumption improvement tool according to claim 6, wherein a fastener for attaching the nonmagnetic bag to the combustion pipe is provided at an end of the nonmagnetic bag.
JP2011223099A 2010-10-08 2011-10-07 Method and tool for improving fuel consumption of combustion engine Pending JP2012097734A (en)

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Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5825561A (en) * 1982-04-13 1983-02-15 Katsuro Yoshimura Low weight magnetic field treatment unit for providing magnetic field to fluid in piping
JPH0814121A (en) * 1994-06-27 1996-01-16 Inaba Eiko Fuel consumption improving device of combustion engine
JP2006307819A (en) * 2005-04-26 2006-11-09 Tokuaki Kawahara Improvement of combustion efficiency by magnetic response of engine fuel mix
JP2008031846A (en) * 2006-07-26 2008-02-14 Shinichi Kondo Magnetic treatment device for internal combustion engine

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5825561A (en) * 1982-04-13 1983-02-15 Katsuro Yoshimura Low weight magnetic field treatment unit for providing magnetic field to fluid in piping
JPH0814121A (en) * 1994-06-27 1996-01-16 Inaba Eiko Fuel consumption improving device of combustion engine
JP2006307819A (en) * 2005-04-26 2006-11-09 Tokuaki Kawahara Improvement of combustion efficiency by magnetic response of engine fuel mix
JP2008031846A (en) * 2006-07-26 2008-02-14 Shinichi Kondo Magnetic treatment device for internal combustion engine

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