JP2011122483A - Fuel improvement device and method - Google Patents

Fuel improvement device and method Download PDF

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JP2011122483A
JP2011122483A JP2009279185A JP2009279185A JP2011122483A JP 2011122483 A JP2011122483 A JP 2011122483A JP 2009279185 A JP2009279185 A JP 2009279185A JP 2009279185 A JP2009279185 A JP 2009279185A JP 2011122483 A JP2011122483 A JP 2011122483A
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electromagnetic wave
fuel
power supply
supply device
generating part
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Koji Sawamura
こう次 澤村
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SAWAMURA DENKI KK
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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
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    • Y02T10/12Improving ICE efficiencies

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Abstract

<P>PROBLEM TO BE SOLVED: To suppress occurrence of incomplete combustion substances such as CO, HC, and PM by improving combustion efficiency, and to reduce emission quantity of CO<SB>2</SB>. <P>SOLUTION: An electromagnetic wave generating part 2 formed by a conductive material is disposed near fuel F to be processed, not making contact with the fuel F to be processed. The electromagnetic wave generating parts 2 is connected with an electric power unit 4, and, by applying voltage of 800 to 30,000 V of an alternating current, the fuel F to be processed is irradiated with an electromagnetic wave, thus chemical reaction activity of fuel molecules is raised by the electromagnetic wave. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

本発明は、被処理燃料に電磁波を照射することにより、例えば天然ガス等の気体燃料では、気体燃料分子中の電子を励起し、またガソリン、軽油等の液体燃料では、液体燃料分子中の電子を励起すると共に、液体燃料分子のクラスターを細分化し、つまり各種燃料の化学反応活性を高めて、燃焼効率を向上させると共に、CO、HC、PM等の不完全燃焼物の発生を抑制する様にした燃料改質装置及び方法に関する。   The present invention excites electrons in gaseous fuel molecules by irradiating the fuel to be treated with electromagnetic waves, for example, in gaseous fuel such as natural gas, and in liquid fuels such as gasoline and light oil, In addition to subdividing the cluster of liquid fuel molecules, that is, increasing the chemical reaction activity of various fuels, improving combustion efficiency, and suppressing the generation of incomplete combustion products such as CO, HC, PM, etc. The present invention relates to a fuel reforming apparatus and method.

従来より、燃料改質の技術は数多く知られており、例えば次のものが見受けられる。
燃料油パイプと、該燃料油パイプを挟んで両側に、互いに極性が逆になるように配置した永久磁石と、該永久磁石及び燃料油パイプの該永久磁石が取り付けられた部分を囲繞する磁気回路形成用強磁性材製の第一筒体と、を含む少なくとも一つの磁気回路を有する、燃料油改良用磁気装置(下記特許文献1を参照)。
Conventionally, many techniques for fuel reforming are known. For example, the following can be seen.
A fuel oil pipe, permanent magnets arranged on opposite sides of the fuel oil pipe so that their polarities are opposite to each other, and a magnetic circuit surrounding the permanent magnet and a portion of the fuel oil pipe to which the permanent magnet is attached A magnetic device for improving fuel oil having at least one magnetic circuit including a first cylindrical body made of a forming ferromagnetic material (see Patent Document 1 below).

黒体放射体と、複数個の電磁波通過穴が形成され前記黒体放射体より放射される電磁波を一定の波長に収束させる電磁波収束体とからなる電磁波発生体の複数個をケースに直線状に配置して樹脂で一体化させて電磁波発生体ユニットを形成し、この電磁波発生体ユニットを燃料油パイプを挟んで両側に電磁波収束体が燃料油パイプ側になるように2個一対を複数組固定し、この電磁波発生体ユニットが取付けられた燃料油パイプを円筒内に配置し、円筒内に樹脂を充填して一体化させてなることを特徴とする燃料油改良装置。
黒体放射体は、複種類の金属酸化物を粉体化し、1000〜1400°Cで焼結処理して形成されている(下記特許文献2を参照)。
A plurality of electromagnetic wave generators comprising a black body radiator and an electromagnetic wave converging body that forms a plurality of electromagnetic wave passage holes and converges the electromagnetic waves emitted from the black body radiator to a predetermined wavelength are linearly formed in a case. An electromagnetic wave generator unit is formed by arranging and integrating with a resin, and a plurality of pairs of these electromagnetic wave generator units are fixed so that the electromagnetic wave converging body is on the fuel oil pipe side on both sides of the fuel oil pipe. A fuel oil improvement device comprising: a fuel oil pipe to which the electromagnetic wave generator unit is attached is disposed in a cylinder, and the cylinder is filled with a resin so as to be integrated.
The black body radiator is formed by pulverizing multiple types of metal oxides and sintering at 1000 to 1400 ° C. (see Patent Document 2 below).

内燃機関に貼着されることにより、燃焼効率を向上させる燃焼活性化シートであり、少なくとも耐熱性シート材から形成した第1の基材と、上記第1の基材の第1主面上に微量放射線放射物質及び金属酸化物を含有する所定の燃焼活性化材を合成樹脂材により結合してなる活性化材を塗布して形成した活性化層と、上記第1の基材の第2主面上に貼着剤を塗布して形成した貼着層とから構成され、上記貼着層を介して上記内燃機関の空気供給部の外側面に貼着されることを特徴とする燃焼活性化シート(下記特許文献3を参照)。   A combustion activation sheet that improves combustion efficiency by being attached to an internal combustion engine, and includes at least a first base material formed from a heat-resistant sheet material and a first main surface of the first base material. An activation layer formed by applying an activation material formed by bonding a predetermined combustion activation material containing a trace radiation emitting material and a metal oxide with a synthetic resin material; and the second main of the first base material Combustion activation characterized by comprising a sticking layer formed by applying a sticking agent on the surface, and sticking to the outer surface of the air supply part of the internal combustion engine via the sticking layer Sheet (see Patent Document 3 below).

特開2003−206816号公報(特許請求の範囲)JP 2003-206816 A (Claims) 特開2007−327423号公報(特許請求の範囲、段落〔0010〕)JP 2007-327423 A (Claims, paragraph [0010]) 特開2009−180191号公報(特許請求の範囲)JP 2009-180191 A (Claims)

ところが、上記燃料改質技術は、いずれも電磁波照射により燃料改質を行うものであるが、かかる電磁波は、永久磁石や放射性物質に依存するものであるため、電磁波強度の適切な制御、電磁波照射体の調製が困難であり、得られる効果も不安定であった。   However, all of the above fuel reforming techniques perform fuel reforming by electromagnetic wave irradiation. However, since such electromagnetic waves depend on permanent magnets and radioactive substances, appropriate control of electromagnetic wave intensity, electromagnetic wave irradiation The preparation of the body was difficult, and the obtained effect was also unstable.

本発明は、被処理燃料の近傍に、該被処理燃料と非接触状態にて、導電性素材で形成した電磁波発生部を配設し、該電磁波発生部に電源装置を接続して、800〜30000Vの電圧を交流電流にて印加することによって、被処理燃料に電磁波を照射し、該電磁波にて燃料分子の化学反応活性を高める様にして、上記課題を解決する。   In the present invention, an electromagnetic wave generating part formed of a conductive material is disposed in the vicinity of the fuel to be processed in a non-contact state with the fuel to be processed, and a power supply device is connected to the electromagnetic wave generating part. By applying a voltage of 30000 V with an alternating current, an electromagnetic wave is applied to the fuel to be treated, and the chemical reaction activity of the fuel molecules is enhanced by the electromagnetic wave, thereby solving the above-mentioned problem.

要するに本発明は、導電性素材で形成した電磁波発生部に電圧800〜30000Vの交流電流を出力する電源装置を接続したので、被処理燃料の近傍に電磁波発生部を配設して電磁波を照射することにより、気体燃料では、気体燃料の分子を構成している電子を励起し、酸素との化学反応活性を高めて、燃焼効率を向上させることが出来る。
又、液体燃料では、液体燃料分子中の電子を励起させると共に、液体燃料分子が形成している分子集合体(クラスター)を細分化し、燃料噴射による気化(霧化)効率を高めると共に、酸素との化学反応活性を高めて、燃焼効率を向上させることが出来る。
従って、燃料を完全に燃焼させて、CO、HC、PM等の不完全燃焼物の発生を抑制でき、また燃料消費率が向上し、低燃費であるため、CO2 の排出量を削減することも出来る。
In short, according to the present invention, since the power supply device that outputs an alternating current with a voltage of 800 to 30000 V is connected to the electromagnetic wave generating part formed of a conductive material, the electromagnetic wave generating part is disposed in the vicinity of the fuel to be treated to irradiate the electromagnetic wave. As a result, in the gaseous fuel, the electrons constituting the molecules of the gaseous fuel can be excited, the chemical reaction activity with oxygen can be increased, and the combustion efficiency can be improved.
In liquid fuel, electrons in liquid fuel molecules are excited, and molecular assemblies (clusters) formed by liquid fuel molecules are subdivided to increase the efficiency of vaporization (atomization) by fuel injection, It is possible to increase the chemical reaction activity and improve the combustion efficiency.
Therefore, it is possible to completely burn the fuel and suppress the generation of incomplete combustion products such as CO, HC, PM, etc. Further, the fuel consumption rate is improved and the fuel consumption is low, so the CO 2 emission is reduced. You can also.

電源装置と電磁波発生部の間に抵抗器を介在させることにより、電磁波発生部に出力される電流を0.02〜0.4mAの範囲としたので、仮に運転中の電磁波発生部に触れてしまっても、感電せず、安全性を確保することが出来る。   By interposing a resistor between the power supply device and the electromagnetic wave generation unit, the current output to the electromagnetic wave generation unit is in the range of 0.02 to 0.4 mA, so that the electromagnetic wave generation unit during operation is temporarily touched. However, safety can be ensured without electric shock.

直流の入力を交流に変換し電源装置へ出力する直交変換器を備えたので、自動車に搭載し、自動車に既存の二次電池により供給される電力を利用して、燃料改質を行うことが出来る。   Since it has an orthogonal converter that converts direct current input to alternating current and outputs it to the power supply, it can be mounted on a car and fuel reformed using the power supplied by the existing secondary battery to the car. I can do it.

電磁波透過性素材で形成したシース内に電磁波発生部を収納し密閉すると共に、かかる密閉状態を保持したまま前記シース内外に連通して電磁波発生部と電源装置を接続した導線に防液加工を施したので、被処理燃料を注入した燃料タンク内に電磁波発生部をシースごと配置し、至極簡単且つ手軽に燃料改質(燃料活性)の処理を行うことが出来る。   The electromagnetic wave generating part is housed and sealed in a sheath made of an electromagnetic wave transmitting material, and a liquid-proof process is applied to the lead wire connected to the inside and outside of the sheath and connecting the electromagnetic wave generating part and the power supply device while maintaining the sealed state. As a result, the electromagnetic wave generating part is disposed with the sheath in the fuel tank into which the fuel to be treated is injected, and the fuel reforming (fuel activation) process can be performed extremely easily and easily.

電磁波発生部を棒状に形成し、該電磁波発生部の始端に電源装置を接続したので、交流電流が電磁波発生部の終始端間を往復し、往復電流にて発生する電場及び磁場が間断なく変動し、強力な電磁波が発生する。
又、電磁波発生部の終始端間において、外径を不均一に形成したので、電流の通過断面積が部分部分で異なるため、それに応じて通過電荷量が変化し、発生する電場及び磁場が常時複雑に変動し、変動量(振幅、ベクトル等が極微小の時間の間に複雑に変動するものと考えられる。)の大きな電磁波となる。
そして、かかる変動の大きな電磁波を被処理燃料に照射するため、燃料分子中の電子が受ける力は、強度、方向ともに高速で変化し、燃料分子中の電子が振動させられ、これにより電子が励起されたり、分子間の静電気力による結合が切断され、液体燃料分子のクラスターが一層細かく細分化された活性燃料(改質燃料)が生成されるのである。
Since the electromagnetic wave generating part is formed in a rod shape and a power supply device is connected to the starting end of the electromagnetic wave generating part, alternating current reciprocates between the starting end of the electromagnetic wave generating part, and the electric and magnetic fields generated by the reciprocating current fluctuate without interruption. In addition, strong electromagnetic waves are generated.
In addition, since the outer diameter is unevenly formed between the start and end of the electromagnetic wave generating part, the current passing cross-sectional area is different in each part, so that the passing charge amount changes accordingly, and the generated electric and magnetic fields are constantly The electromagnetic wave fluctuates in a complicated manner and has a large fluctuation amount (the amplitude, the vector, etc. are considered to fluctuate in a complicated manner during a very small time).
In order to irradiate the fuel to be treated with electromagnetic waves with such large fluctuations, the force received by the electrons in the fuel molecules changes at high speed in both strength and direction, causing the electrons in the fuel molecules to vibrate, thereby exciting the electrons. In other words, the bond between molecules due to electrostatic force is broken, and an active fuel (reformed fuel) in which a cluster of liquid fuel molecules is further finely divided is generated.

電磁波発生部は、棒状の導電部コアの終始端間に突部を周設して形成したので、電流の通過断面積が突部と凹部で大きく異なり、発生する電場及び磁場がより大きく変動するため、更に変動量の大きな電磁波が発生し、より効率良く燃料改質を行うことが出来る。   Since the electromagnetic wave generating part is formed by projecting a protrusion between the beginning and end of the rod-shaped conductive part core, the current passing cross-sectional area differs greatly between the protrusion and the concave part, and the generated electric and magnetic fields vary more greatly. Therefore, an electromagnetic wave having a larger fluctuation amount is generated, and fuel reforming can be performed more efficiently.

導線を複数本束ねて導電部コアと成し、該導電部コアの周囲に導線を巻着して突部としたので、各導線を夫々個別に流れる電子により、様々に異なる電場及び磁場が発生し、これらの合成により生じる電磁波の挙動変化は更に複雑となり、燃料改質の効率を更に向上させることが出来等その実用的効果甚だ大である。   A plurality of conductor wires are bundled to form a conductive part core, and a conductive wire is wound around the conductive part core to form a protrusion, so that different electric and magnetic fields are generated by electrons flowing individually through each conductive line. However, the behavioral change of the electromagnetic wave generated by the synthesis is further complicated, and the practical effect such as the ability to further improve the fuel reforming efficiency is significant.

本発明に係る燃料改質装置の使用状態を示す模式図である。It is a schematic diagram which shows the use condition of the fuel reformer which concerns on this invention. 図1中の電磁波発生部の拡大図である。It is an enlarged view of the electromagnetic wave generation | occurrence | production part in FIG. 図2のA−A断面図である。It is AA sectional drawing of FIG. 図2上部側の縦断面拡大図である。It is a longitudinal cross-sectional enlarged view of FIG. 2 upper part side.

以下、本発明の燃料改質装置及び方法につき詳細に説明する。
本発明の燃料改質装置は、図1〜図4に示す様に、シース1内に導電性素材で形成した電磁波発生部2を収納し、該電磁波発生部2の始端(図面上では上端)に導線3を介して電源装置4を接続している。
又、電源Pからの直流の入力を交流に変換して出力する直交変換器5を備え、該直交変換器5からの出力を上記電源装置4に接続している。
Hereinafter, the fuel reforming apparatus and method of the present invention will be described in detail.
As shown in FIGS. 1 to 4, the fuel reformer of the present invention houses an electromagnetic wave generation unit 2 formed of a conductive material in a sheath 1, and the start end (upper end in the drawing) of the electromagnetic wave generation unit 2. The power supply device 4 is connected to the power source 4 via the conductor 3.
Further, an orthogonal transformer 5 that converts a direct current input from the power source P into an alternating current and outputs the alternating current is provided, and an output from the orthogonal transformer 5 is connected to the power supply device 4.

電源装置4は、高圧の交流電流を出力できれば、その具体的構成については、特に限定されるものではなく、例えば、図1に示す様に、交流を昇圧する変圧器6を具有し、該変圧器6からの出力を電磁波発生部2に接続すれば良い。
電源装置4の出力としては、800V未満では、発生する電磁波の強度が低く燃料改質せず、30000V超過では、得られた改質燃料による燃焼効率、不完全燃焼物発生量にそれ以上の変化が認められないため、電源装置4の出力電圧は、800〜30000Vの範囲で良い。
尚、電源Pの電圧を考慮の上、変圧器6を適宜選択して上記範囲の電圧が電磁波発生部2に印加される様にすれば良く、また図1中、7は抵抗器であり、変圧器6と電磁波発生部2の間に抵抗器7を介在させることで、電磁波発生部2に流れる電流を低く抑えて、安全性の向上を図るようにするのが良く、0.02mA未満では、発生する電磁波の強度が低く燃料改質せず、0.4mA超過では、危険性が高くなるため、0.02〜0.4mAの範囲が良い。
The specific configuration of the power supply device 4 is not particularly limited as long as it can output a high-voltage alternating current. For example, as shown in FIG. 1, the power supply device 4 includes a transformer 6 that boosts alternating current. The output from the vessel 6 may be connected to the electromagnetic wave generator 2.
If the output of the power supply device 4 is less than 800V, the intensity of the generated electromagnetic wave is low and the fuel is not reformed, and if it exceeds 30000V, the combustion efficiency by the obtained reformed fuel and the amount of incomplete combustion products generated are further changed. Therefore, the output voltage of the power supply device 4 may be in the range of 800-30000V.
In consideration of the voltage of the power supply P, the transformer 6 may be appropriately selected so that the voltage in the above range is applied to the electromagnetic wave generator 2, and in FIG. 1, 7 is a resistor. By interposing a resistor 7 between the transformer 6 and the electromagnetic wave generator 2, the current flowing through the electromagnetic wave generator 2 should be kept low to improve safety, and at less than 0.02 mA The intensity of the generated electromagnetic wave is low and the fuel is not reformed, and if it exceeds 0.4 mA, the danger increases, so a range of 0.02 to 0.4 mA is preferable.

シース1は、電磁波が透過可能な素材(例えば、合成樹脂)で形成した一端閉塞他端開口の筒状の容器であり、上端開口部に蓋体8を設け、該蓋体8の中央に空孔9を貫設し、該空孔9に上記導線3を挿通し、導線3をシース1の内外に連通させ、蓋体8の内外面における空孔9の周囲にパッキン10、10aを設けて、導線3と蓋体8との隙間を密閉し、シース1の封密を保持している。
又、導線3は当然に絶縁被膜に覆われ、つまり防液加工が施されている。
The sheath 1 is a cylindrical container with one end closed and the other end opening made of a material that can transmit electromagnetic waves (for example, synthetic resin). A lid body 8 is provided at the upper end opening, and an empty space is formed in the center of the lid body 8. A hole 9 is penetrated, the lead wire 3 is inserted into the hole 9, the lead wire 3 is communicated with the inside and outside of the sheath 1, and packings 10 and 10 a are provided around the hole 9 on the inner and outer surfaces of the lid 8. The gap between the conductor 3 and the lid 8 is sealed to keep the sheath 1 sealed.
Moreover, the conducting wire 3 is naturally covered with an insulating film, that is, liquid-proofed.

電磁波発生部2は、円柱形状や平板形状にしても良いが、例えば紡錘形に形成して、電磁波発生部2の外径を不均一にするのがより良い。
又、棒状の導電部コア11を形成し、該導電部コア11の始端と、その他方側終端との間に適宜間隔毎に突部12、12a…を複数周設して、電磁波発生部2としても良く、この様に電磁波発生部2の外径を不均一にすることで、電流の通過断面積が部分部分で異なるため、それに応じて通過電荷量が変化し、発生する電場及び磁場が常時複雑に変動し、変動量の大きな電磁波となる。
The electromagnetic wave generator 2 may be formed in a columnar shape or a flat plate shape, but it is better to form it in a spindle shape, for example, so that the outer diameter of the electromagnetic wave generator 2 is not uniform.
In addition, a bar-shaped conductive part core 11 is formed, and a plurality of protrusions 12, 12a,... Are provided around the conductive part core 11 at appropriate intervals between the start end and the other side end, and the electromagnetic wave generating part 2 In this way, by making the outer diameter of the electromagnetic wave generator 2 non-uniform, the cross-sectional area of the current is different in each part, so that the amount of passing charge changes accordingly, and the generated electric and magnetic fields are The electromagnetic wave fluctuates constantly and becomes a large amount of electromagnetic waves.

本実施例のものでは、図3及び4に示す様に、導線13、13a…を複数本束ねて棒状の導電部コア11を形成し、該導電部コア11の周囲に導線14、14a…を巻着して突部12、12a…としているため、高電圧の印加により、電子は各導線を夫々個別に流れ、各導線から様々に異なる電場及び磁場が発生し、これらが合成され生じる電磁波全体としては、極めて複雑な挙動をする。   In this embodiment, as shown in FIGS. 3 and 4, a plurality of conducting wires 13, 13 a... Are bundled to form a rod-shaped conducting portion core 11, and the conducting wires 14, 14 a. Since they are wound and formed as protrusions 12, 12 a, electrons flow individually through the conductors by applying a high voltage, and different electric and magnetic fields are generated from the conductors. As it behaves extremely complex.

本発明は、メタン、プロパン、ブタン等の気体燃料、ガソリン、灯油、軽油、重油等の液体燃料の改質に好適である。
例えば、ガソリンは石油中の沸点範囲約30〜200℃の留分で、パラフィン系、ナフテン系、オレフィン系、芳香属系の炭素数4〜10の炭化水素化合物の混合物であり、炭化水素化合物は、主に炭素(C)と水素(H)の結合により構成され、両原子の電気陰性度の差により、電子はほんの僅かに炭素側に偏在し、炭素原子は僅かに負に帯電し、水素原子は僅かに正に帯電する。
この正負電荷は、メタンの様に、正四面体の重心に炭素原子が位置し、4頂点に水素原子が位置する場合、立体的に打ち消されて、極性を生じないが、C−C間結合を有する炭素数2以上の炭化水素分子は、その立体形状がジグザグ状となるため、電荷の偏りが打ち消されることなく、微弱な極性を生じる。
従って、ガソリン中の炭化水素分子は、その複数個が互いの極性を打ち消し合うよう静電気力により引き付け合い、集合してクラスターを形成している。
The present invention is suitable for reforming gaseous fuels such as methane, propane, and butane, and liquid fuels such as gasoline, kerosene, light oil, and heavy oil.
For example, gasoline is a fraction having a boiling point range of about 30 to 200 ° C. in petroleum, and is a mixture of paraffinic, naphthenic, olefinic, and aromatic hydrocarbon compounds having 4 to 10 carbon atoms. , Mainly composed of bonds of carbon (C) and hydrogen (H). Due to the difference in electronegativity of both atoms, electrons are only slightly distributed on the carbon side, carbon atoms are slightly negatively charged, The atoms are slightly positively charged.
This positive / negative charge is sterically counteracted when the carbon atom is located at the center of gravity of the regular tetrahedron and the hydrogen atom is located at the four vertices, like methane, and no polarity is produced. Since the three-dimensional shape of the hydrocarbon molecule having 2 or more carbon atoms having a zigzag shape, a weak polarity is generated without canceling out the charge bias.
Therefore, the hydrocarbon molecules in gasoline attract each other by electrostatic force so that a plurality of the molecules cancel each other's polarity, and gather to form a cluster.

この様にクラスターを形成している液体燃料に本発明の燃料改質装置により、前説の極めて複雑な挙動をする電磁波を照射すると、炭化水素分子の電子は励起し、また炭化水素分子中の電子が受ける力は、強度、方向ともに高速で変動するため、炭化水素分子中の電子および分子自体が振動させられ、これによりクラスターの形成に関与している結合力が弱まり、結合が切断され、炭化水素分子のクラスターが一層細かく細分化された活性燃料が生成されるのである。   When the liquid reformer of the present invention irradiates the electromagnetic waves having the extremely complicated behavior described above to the liquid fuel that forms clusters in this way, the electrons of the hydrocarbon molecules are excited and the electrons in the hydrocarbon molecules are excited. Since the strength and direction of the force that is applied fluctuate at high speed in both strength and direction, the electrons in the hydrocarbon molecule and the molecule itself are vibrated, which weakens the bonding force involved in the formation of the cluster, breaks the bond, and carbonizes. An active fuel is produced in which the clusters of hydrogen molecules are further finely divided.

この活性燃料は、クラスターが細分化されていることにより、燃料噴射による気化(霧化)の際、通常の液体燃料の場合に比して、より細かな液滴となり、酸素との混合分散状態がより細かく均一となること、並びに、霧化燃料分子中の電子が励起状態であることから、化学反応活性が高く、頗る良好に燃焼し、完全燃焼する。
又、気体燃料の場合も、燃料分子中の電子が励起されていることにより、頗る良好に燃焼し、完全燃焼する。
This active fuel is divided into clusters, so that when it is vaporized by fuel injection (atomization), it becomes finer droplets than in the case of normal liquid fuel, and it is mixed and dispersed with oxygen. Is more fine and uniform, and the electrons in the atomized fuel molecules are in an excited state, so that the chemical reaction activity is high, and the fuel burns well and burns completely.
Also, in the case of gaseous fuel, the electrons in the fuel molecules are excited, so that the fuel burns much better and burns completely.

本発明の燃料改質装置を用いて次の試験を行った。
先ず、図1に示す様に、ガソリン車(平成17年5月新車登録)の燃料タンクTにガソリン(被処理燃料F)を給油し、該被処理燃料F中にシース1内に収納した電磁波発生部2を没入し、適宜固定手段(図示せず)により、燃料タンクTにシース1を固定した。
次に、エンジンを始動し、アイドリング状態にて排気ガスを採取し、排気ガス中の不完全燃焼物(CO及びHC)の濃度をHORIBA MEXA−324J(株式会社堀場製作所製)にて測定した。
次に、電源装置4を起動し、電圧AC2000V、電流0.04mAの条件で電磁波発生部2に高電圧を印加し、約5分間アイドリング後に排気ガスを採取し、上記と同様に不完全燃焼物の濃度を測定した。
尚、電源Pとしては、試験車両に搭載の二次電池(出力DC12V)を用いた。
測定結果を下記表1に示す。
The following tests were conducted using the fuel reformer of the present invention.
First, as shown in FIG. 1, gasoline (processed fuel F) is supplied to a fuel tank T of a gasoline vehicle (registered as a new car in May 2005), and electromagnetic waves stored in a sheath 1 in the processed fuel F. The generator 2 was immersed, and the sheath 1 was fixed to the fuel tank T by appropriate fixing means (not shown).
Next, the engine was started, exhaust gas was collected in an idling state, and the concentration of incompletely combusted substances (CO and HC) in the exhaust gas was measured with HORIBA MEXA-324J (manufactured by Horiba, Ltd.).
Next, the power supply device 4 is started, a high voltage is applied to the electromagnetic wave generator 2 under the conditions of a voltage of AC 2000V and a current of 0.04 mA, and the exhaust gas is collected after idling for about 5 minutes. The concentration of was measured.
As the power source P, a secondary battery (output DC 12V) mounted on the test vehicle was used.
The measurement results are shown in Table 1 below.

Figure 2011122483
Figure 2011122483

以上の通り、本試験によれば、HCの排出量が減少し、臭いも無臭化した。
尚、COについては、変化が見られないが、使用した測定機器の検出限界以下の濃度であるからであり、HC排出量の減少からして、COについても減少しているものと考えられる。
As described above, according to this test, the amount of HC emission decreased and the odor was not brominated.
Although no change is observed for CO, it is because the concentration is below the detection limit of the measuring instrument used, and it is considered that CO is also decreasing due to a decrease in HC emissions.

又、ディーゼル車(平成3年7月新車登録)についても、上記ガソリン車の場合と同様に、燃料タンクTに注入した被処理燃料F(軽油)中に、シース1に収納した電磁波発生部2を配置し、国土交通省による「道路運送車両の保安基準の細目を定める告示(2008年3月25日) 別添109 無負荷急加速時に排出される排出ガスの光吸収係数の測定方法」に準拠し、燃料改質前後のPM(粒子状物質)測定を行った。
尚、電磁波発生部2への印加条件は、電圧AC2000V、電流0.06mA、印加時間(燃料改質処理時間)5分とし、電源Pとしては、試験車両に搭載の二次電池(出力DC24V)を用いた。
又、PM(粒子状物質)測定には、AVL DISMOKE 4800(AVL LIST GMBH(オーストリア)製)を用いた。
測定結果を下記表2に示す。
As for the diesel vehicle (registered as a new vehicle in July 1991), the electromagnetic wave generator 2 housed in the sheath 1 in the fuel to be treated F (light oil) injected into the fuel tank T, as in the case of the gasoline vehicle. To the “Notification that defines the details of safety standards for road transport vehicles (March 25, 2008), Attachment 109, Method for Measuring Light Absorption Coefficients of Exhaust Emissions during No-Load Rapid Acceleration” by the Ministry of Land, Infrastructure, Transport and Tourism Based on this, PM (particulate matter) measurement before and after fuel reforming was performed.
The application conditions to the electromagnetic wave generator 2 are as follows: voltage AC 2000 V, current 0.06 mA, application time (fuel reforming treatment time) 5 minutes, and the power source P is a secondary battery mounted on the test vehicle (output DC 24 V). Was used.
In addition, AVL DISMOKE 4800 (manufactured by AVL LIST GMBH (Austria)) was used for PM (particulate matter) measurement.
The measurement results are shown in Table 2 below.

Figure 2011122483
Figure 2011122483

本試験によれば、光吸収係数が低下し、PM量の減少が認められた。
以上の通り、ガソリン車及びディーゼル車についての上記両試験共に、排出ガス浄化が認められたが、これは電磁波により燃料分子の電子が励起し、また燃料分子のクラスターが細分化されて、燃焼効率が向上したからであると考えられ、同理由により燃費についても向上すると考えられる。
According to this test, the light absorption coefficient decreased, and a decrease in the amount of PM was observed.
As described above, in both the above tests for gasoline and diesel vehicles, exhaust gas purification was observed, but this was caused by the excitation of fuel molecule electrons by electromagnetic waves and the fragmentation of fuel molecule clusters, resulting in combustion efficiency. It is thought that this is because the fuel efficiency has improved, and the fuel efficiency is also expected to improve for the same reason.

上記両試験では、シース1内に電磁波発生部2を収納した燃料改質装置を使用したが、シース1は無くとも良く、図示しないが、例えば燃料タンクを電磁波透過性の素材で形成し、かかる燃料タンクの周囲に剥き出しの電磁波発生部を配設したり、電磁波透過性の燃料タンクを水平断面ドーナッツ形に形成し、ドーナッツ形の中央に剥き出しの電磁波発生部を配設すれば良く、要するに、本発明の燃料改質方法では、被処理燃料の近傍に、該被処理燃料と非接触状態にて、導電性素材で形成した電磁波発生部を配設し、該電磁波発生部に電源装置を接続して、800〜30000Vの電圧を交流電流にて印加し、発生した電磁波を被処理水に照射する様にすれば良い。   In both of the above tests, a fuel reformer in which the electromagnetic wave generating unit 2 is housed in the sheath 1 is used. However, the sheath 1 may be omitted, and although not shown, for example, a fuel tank is formed of an electromagnetic wave transmissive material. It is only necessary to arrange an exposed electromagnetic wave generating part around the fuel tank, or to form an electromagnetic wave permeable fuel tank in a horizontal cross-section donut shape, and to provide an exposed electromagnetic wave generating part in the center of the donut shape. In the fuel reforming method of the present invention, an electromagnetic wave generator formed of a conductive material is disposed in the vicinity of the fuel to be processed in a non-contact state with the fuel to be processed, and a power supply device is connected to the electromagnetic wave generator. Then, a voltage of 800 to 30000 V may be applied with an alternating current, and the generated electromagnetic wave may be irradiated to the water to be treated.

1 シース
2 電磁波発生部
3 導線
4 電源装置
P 電源
5 直交変換器
6 変圧器
7 抵抗器
8 蓋体
9 空孔
10、10a パッキン
11 導電部コア
12、12a… 突部
13、13a … 導線
14、14a … 導線
T 燃料タンク
F 被処理燃料
DESCRIPTION OF SYMBOLS 1 Sheath 2 Electromagnetic wave generating part 3 Conductor 4 Power supply device P Power supply 5 Orthogonal transformer 6 Transformer 7 Resistor 8 Cover body 9 Hole
10, 10a packing
11 Conductor core
12, 12a ... Projection
13, 13a… Conductor
14, 14a… Conductor T Fuel tank F Fuel to be treated

Claims (14)

導電性素材で形成した電磁波発生部に電圧800〜30000Vの交流電流を出力する電源装置を接続したことを特徴とする燃料改質装置。   A fuel reformer characterized in that a power supply device that outputs an alternating current with a voltage of 800 to 30000 V is connected to an electromagnetic wave generator formed of a conductive material. 電源装置と電磁波発生部の間に抵抗器を介在させて、電磁波発生部に出力される電流を0.02〜0.4mAの範囲としたことを特徴とする請求項1記載の燃料改質装置。   2. The fuel reformer according to claim 1, wherein a resistor is interposed between the power supply device and the electromagnetic wave generator, and the current output to the electromagnetic wave generator is in the range of 0.02 to 0.4 mA. . 直流の入力を交流に変換し電源装置へ出力する直交変換器を備えたことを特徴とする請求項1又は2記載の燃料改質装置。   3. The fuel reformer according to claim 1, further comprising an orthogonal converter that converts a direct current input into an alternating current and outputs the alternating current to a power supply device. 電磁波透過性素材で形成したシース内に電磁波発生部を収納し密閉すると共に、かかる密閉状態を保持したまま前記シース内外に連通して電磁波発生部と電源装置を接続した導線に防液加工を施したことを特徴とする請求項1、2又は3記載の燃料改質装置。   The electromagnetic wave generating part is housed and sealed in a sheath made of an electromagnetic wave transmitting material, and a liquid-proof process is applied to the lead wire connected to the inside and outside of the sheath and connecting the electromagnetic wave generating part and the power supply device while maintaining the sealed state. The fuel reformer according to claim 1, 2, or 3. 電磁波発生部を棒状に形成し、該電磁波発生部の始端に電源装置を接続し、かかる電磁波発生部の終始端間において、外径を不均一に形成したことを特徴とする請求項1、2、3又は4記載の燃料改質装置。   The electromagnetic wave generating part is formed in a rod shape, a power supply device is connected to the starting end of the electromagnetic wave generating part, and the outer diameter is formed non-uniformly between the starting end of the electromagnetic wave generating part. 3. The fuel reformer according to 3 or 4. 電磁波発生部は、棒状の導電部コアの終始端間に突部を周設して形成したことを特徴とする請求項5記載の燃料改質装置。   6. The fuel reformer according to claim 5, wherein the electromagnetic wave generating part is formed by providing a protrusion around the end of the rod-shaped conductive part core. 導線を複数本束ねて導電部コアと成し、該導電部コアの周囲に導線を巻着して突部としたことを特徴とする請求項6記載の燃料改質装置。   7. The fuel reformer according to claim 6, wherein a plurality of conducting wires are bundled to form a conductive portion core, and a conducting wire is wound around the conductive portion core to form a protrusion. 被処理燃料の近傍に、該被処理燃料と非接触状態にて、導電性素材で形成した電磁波発生部を配設し、該電磁波発生部に電源装置を接続して、800〜30000Vの電圧を交流電流にて印加し、発生した電磁波を被処理燃料に照射する様にしたことを特徴とする燃料改質方法。   In the vicinity of the fuel to be processed, an electromagnetic wave generating part made of a conductive material is disposed in a non-contact state with the fuel to be processed, and a power supply device is connected to the electromagnetic wave generating part so that a voltage of 800 to 30000 V is applied. A fuel reforming method, wherein the fuel to be treated is irradiated with an electromagnetic wave generated by applying an alternating current. 電源装置と電磁波発生部の間に抵抗器を介在させることにより、電磁波発生部に出力される電流を0.02〜0.4mAの範囲に制御する様にしたことを特徴とする請求項8記載の燃料改質方法。   9. The current output to the electromagnetic wave generator is controlled in the range of 0.02 to 0.4 mA by interposing a resistor between the power supply device and the electromagnetic wave generator. Fuel reforming method. 直流の入力を交流に変換し電源装置へ出力する直交変換器を備える様にしたことを特徴とする請求項8又は9記載の燃料改質方法。   10. The fuel reforming method according to claim 8, further comprising an orthogonal converter that converts a direct current input into an alternating current and outputs the alternating current to a power supply device. 電磁波透過性素材で形成したシース内に電磁波発生部を収納し密閉すると共に、かかる密閉状態を保持したまま前記シース内外に連通して電磁波発生部と電源装置を接続した導線に防液加工を施し、かかるシースを被処理燃料中に配置させて、電磁波発生部を被処理燃料近傍に配設する様にしたことを特徴とする請求項8、9、又は10記載の燃料改質方法。   The electromagnetic wave generating part is housed and sealed in a sheath made of an electromagnetic wave transmissive material, and a liquid-proof process is applied to the lead wire connected to the inside and outside of the sheath while the sealed state is maintained and the electromagnetic wave generating part and the power supply device are connected. 11. The fuel reforming method according to claim 8, 9, or 10, wherein the sheath is disposed in the fuel to be treated, and the electromagnetic wave generating portion is disposed in the vicinity of the fuel to be treated. 電磁波発生部を棒状に形成し、該電磁波発生部の始端に電源装置を接続し、かかる電磁波発生部の終始端間において、外径を不均一に形成する様にしたことを特徴とする請求項8、9、10又は11記載の燃料改質方法。   The electromagnetic wave generation part is formed in a rod shape, a power supply device is connected to the start end of the electromagnetic wave generation part, and the outer diameter is formed unevenly between the start and end of the electromagnetic wave generation part. The fuel reforming method according to 8, 9, 10 or 11. 電磁波発生部は、棒状の導電部コアの終始端間に突部を周設して形成する様にしたことを特徴とする請求項12記載の燃料改質方法。   13. The fuel reforming method according to claim 12, wherein the electromagnetic wave generation part is formed by providing a protrusion around the end of the rod-like conductive part core. 導線を複数本束ねて導電部コアと成し、該導電部コアの周囲に導線を巻着して突部とする様にしたことを特徴とする請求項13記載の燃料改質方法。   14. The fuel reforming method according to claim 13, wherein a plurality of conducting wires are bundled to form a conductive portion core, and a conducting wire is wound around the conductive portion core to form a protrusion.
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