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Using the gravitational energy of water to generate power by separation of charge at interfaces

机译:利用水的重力能通过界面电荷的分离来发电

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When a fluid comes into contact with a solid surface, charge separates at the interface. This study describes a method that harvests the gravitational energy of water-available in abundance naturally, such as in rain and rivers-through the separation of charge at the interface. Essentially, it is found that water can be charged by flowing it across a solid surface under its own weight; thus, a continuous flow of water can produce a constant supply of power. After optimizing the system, a power of up to similar to 170 mu W (per Teflon tube of 2 mm in diameter) can be generated. The efficiency, defined as the energy generated by the system over the gravitational energy that the water losses, can reach up to similar to 3-4%. In order to generate a continuous stream of positively-charged water, there should also be a constant production of negatively-charged species in the system. Experimental results suggest that the negative charge transfers constantly to the atmosphere due to dielectric breakdown of air. With regards to applications related to high electrical potential of water droplets, the amount of charge generated in a single water droplet is found to be equivalent to that produced by charging the water droplet with a high-voltage power supply operated at similar to 5 kV. In general, the energy generated is clean, renewable, and technically simple and inexpensive to produce.
机译:当流体与固体表面接触时,电荷在界面处分离。这项研究描述了一种方法,该方法通过界面处电荷的分离来自然地收集大量可用水的重力能量,例如在雨水和河流中。本质上,发现可以通过使水在自身重量作用下流过固体表面而带电。因此,连续不断的水流可以产生恒定的电力供应。优化系统后,可以产生高达170瓦的功率(每个直径2毫米的特氟龙管)。效率定义为系统产生的能量超过重力损失所产生的水分损失,最高可达3-4%。为了产生连续的带正电荷的水流,系统中还应不断产生带负电荷的物质。实验结果表明,由于空气的介电击穿,负电荷不断转移到大气中。关于与水滴的高电势有关的应用,发现在单个水滴中产生的电荷量等于通过用工作在约5kV的高压电源对水滴充电而产生的电荷量。通常,所产生的能量是清洁,可再生的,并且在技术上简单且生产成本低廉。

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