An Enclosed Plant Terrarium is a Renewable Source of an Aqueous f\ Form of Hybrid-Plasma

Benjamin J Scherlag
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Abstract

Introduction: In previous reports we described a newly discovered non-thermal plasma formed without input of external energy. Moreover, this Hybrid- plasma consisted of the gas/water combination. In the present study we used the gaseous form to produce a mainly aqueous Hybrid-plasma. Methods: A dehumidifier was activated and placed in a sealed plastic container holding twelve broad leaf plants in which maximum levels of ion counts and humidity had been registered indicative of the presence of Hybrid-plasma gas. After 24 hours, the device was removed and 100-125 cc of water was collected. When the ion counts and humidity returned, to initial levels in the plant container the water extraction process was repeated (n=7). Protocol 1: Cut flowers of pink carnations were obtained from a local garden center. Two beakers were filled with either 150 cc of distilled water or dehumidified water. Branches with buds starting to flower were photographed daily for 10 days. Protocol 2: Distilled water, 150 cc was placed in snap cover plastic containers (n=5). Another set of 5 were similarly filled with the dehumidified water. Both sets were instrumented with hygrometers. Results: After dehumidifying, the percent changes of the ion count and humidity values from starting levels averaged 36% and 41%, in the enclosed plant terrarium respectively. After 24 hours the ion count was restored to maximum levels and humidity registered close to 90% after 7 iterations. After 10 days the bud in tap water had blossomed into a full grown flower, buds in Hybrid-water was essentially the same as at the start of the study. After 24hours humidity in all plastic containers with dehumidified water registered 99% whereas the humidity in the distilled water containers ranged from 89-92%. Conclusions: The aqueous form of Hybrid-plasma can be extracted from a gaseous form by using a dehumidifier. Flower buds grown in Hybrid-water fail to bloom whereas those in tap water blossomed over the same time period. Placed in a sealed container, Hybrid water uniformly registered maximum levels (99%, n=7); Distilled water values ranged from 89-92%.
一个封闭的植物玻璃容器是一种可再生的混合等离子体的水形式
在以前的报道中,我们描述了一种新发现的无外部能量输入的非热等离子体。此外,这种混合等离子体是由气体/水的组合组成的。在本研究中,我们使用气态形式来产生主要是水的混合等离子体。方法:一个除湿器被激活,并放置在一个密封的塑料容器中,里面有12株阔叶植物,其中最大的离子计数和湿度已经登记,表明存在混合等离子体气体。24小时后,取出装置,收集100-125 cc的水。当离子计数和湿度恢复到植物容器中的初始水平时,重复水提取过程(n=7)。步骤1:粉色康乃馨切花从当地的园艺中心获得。两个烧杯分别装满150cc蒸馏水或除湿水。带芽开始开花的枝条每天拍摄10天。方案2:蒸馏水,150cc,放入塑料盒盖中(n=5)。另一组5个同样充满了除湿水。两组都装有湿度计。结果:除湿后,室内离子计数和湿度值相对于初始水平的变化百分比分别为36%和41%。24小时后,离子计数恢复到最大水平,7次迭代后湿度接近90%。10天后,自来水中的花蕾长成了一朵成熟的花,混合水中的花蕾基本上和研究开始时一样。24小时后,所有装有除湿水的塑料容器的湿度为99%,而蒸馏水容器的湿度为89-92%。结论:利用除湿机可从气态混合等离子体中提取水相混合等离子体。在混合水中生长的花蕾没有开花,而在自来水中生长的花蕾在同一时期开花。混合水置于密封容器中,均匀记录最高水平(99%,n=7);蒸馏水的值在89-92%之间。
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