乙醇燃料预混火焰影响磁场感应的表征

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The experimental research method is to heat ethanol until it is in the form of steam, then flow it to the burner which will then be given air which is controlled by the mass flow. The research began with the manufacture of magnetic induction from carbon steel wrapped in copper wire. Then testing the fuel by providing a magnetic field before the ethanol fuel enters the burner tip. The magnetic field helps the fuel ionization process, this ionization is needed so that the fuel can easily bind oxygen during the combustion process. If the ionization process goes well then the combustion process becomes more complete. In this ionization process, it will result in the formation of positively charged fuel molecules so that during combustion the combustion process will occur more quickly. The magnetic field will generate Far Infrared waves, which will strengthen the positively charged bonds in the fuel structure due to the ionization process and position these bonds in an orderly manner. 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摘要

本研究的目的是确定磁场感应对预混乙醇燃烧火焰特性的影响。如果找不到替代能源,石油储量将日益枯竭。因此,需要各种突破来防止能源危机的发生。同时,研究人员也在努力寻找可以节省燃料消耗的设备。为了获得更有效的火焰,你可以对燃烧的火焰施加磁场效应,特别是在火焰的燃烧速度方面。在正常情况下,燃油往往是不规则的,并聚集在一起。通过提供磁场来诱导燃料油,碳氢化合物键将断裂,并使化学成分更加均匀。实验研究方法是将乙醇加热到蒸汽形式,然后将其流到燃烧器中,然后向燃烧器提供由质量流量控制的空气。这项研究始于用铜线包裹的碳钢制造磁感应。然后通过在乙醇燃料进入燃烧器尖端之前提供磁场来测试燃料。磁场有助于燃料的电离过程,这种电离是必要的,这样燃料在燃烧过程中可以很容易地与氧气结合。如果电离过程进展顺利,那么燃烧过程将变得更加完整。在这个电离过程中,它将导致带正电的燃料分子的形成,从而在燃烧过程中燃烧过程将更快地发生。磁场会产生远红外波,由于电离过程,远红外波会加强燃料结构中带正电的键,并有序地定位这些键。这使得氧气在燃烧过程中容易与燃料反应。在电运动的情况下,力将提高燃烧温度。温度的升高是由电动势产生的磁场引起的燃料电离过程引起的。动态电动势使火焰在电流流动时增加,在电流切断时减少。由此产生的火焰更透明、更清晰、更可见。N-S磁场的方向导致温度高于N-N磁场的方向。磁场会影响乙醇火焰的燃烧速度。在存在磁场影响的不良混合物(ξ1)中,着火率高于没有磁场影响的情况。
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Characterization of Premixed Flames with Ethanol Fuel affected Magnetic Field Induction
The purpose of this study was to determine the effect of magnetic field induction on the characteristics of premixed ethanol combustion flames. Petroleum reserves will increasingly be depleted if alternative energy is not found. Therefore, various breakthroughs are needed to prevent an energy crisis from occurring. Simultaneously the researchers are also trying to find equipment that can save fuel consumption. To get a more effective and efficient flame, you can apply a magnetic field effect to the burning fire, especially in terms of the rate of burning of the fire. Fuel oil under normal conditions tends to be irregular and grouped together. By providing a magnetic field to induce the fuel oil, the hydrocarbon bonds will break and will make the chemical composition more homogeneous. The experimental research method is to heat ethanol until it is in the form of steam, then flow it to the burner which will then be given air which is controlled by the mass flow. The research began with the manufacture of magnetic induction from carbon steel wrapped in copper wire. Then testing the fuel by providing a magnetic field before the ethanol fuel enters the burner tip. The magnetic field helps the fuel ionization process, this ionization is needed so that the fuel can easily bind oxygen during the combustion process. If the ionization process goes well then the combustion process becomes more complete. In this ionization process, it will result in the formation of positively charged fuel molecules so that during combustion the combustion process will occur more quickly. The magnetic field will generate Far Infrared waves, which will strengthen the positively charged bonds in the fuel structure due to the ionization process and position these bonds in an orderly manner. This makes it easy for oxygen to react with fuel in the combustion process. With the electric motion force will increase the combustion temperature. The increase in temperature is caused by the process of ionization of the fuel due to the magnetic field generated by the electromotive force. The dynamic electromotive force causes the flame to increase when the current is flowing and decrease when the electric current is cut off. The resulting fire is more transparent, clearer and more visible. The direction of the N-S magnetic field causes the temperature to be higher than the direction of the N-N magnetic field. The magnetic field can affect the burning speed of the ethanol flame. In a poor mixture (ϕ <1) in the presence of magnetic influence, the rate of fire is lower without the influence of a magnetic field, but in a rich mixture (ϕ > 1) in the presence of a magnetic influence, the rate of fire is higher than without the influence of a magnetic field.
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