大气水发生器的设计:从稀薄的空气中收集水

Kiara Pontious, Bradley V. Weidner, Nima Guerin, Andrew N. Dates, O. Pierrakos, K. Altaii
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引用次数: 29

摘要

水资源短缺影响着全球12亿人,占全球人口的近五分之一。在一些区域,现有水源的枯竭速度快于它们的更新速度,这种枯竭的大部分被用于灌溉和农业目的。在任何时候,大气中都含有3400万亿加仑的水蒸气,这足以用1英寸的水覆盖整个地球。在这里,我们描述了一种创新的解决方案的设计,以解决中高湿度地区的水资源短缺-大气水发生器(AWG)。该装置将水蒸气转化为液态水,专为缺水地区的农业和灌溉用途而设计。更具体地说,我们的团队开发了两个AWG概念,一个使用Peltier设备,另一个使用热交换器,以便考虑多种设计方案。这个基于珀尔蒂埃的概念是通过施加电流来产生温度梯度,从而冷却和冷凝周围的空气。热交换器的概念是通过循环冷却剂来工作的,这种冷却剂被较低的地面温度冷却。这两种AWG的设计理念都采用了可持续的工程原则,以最大限度地降低能耗和成本(特别是与目前市场上的AWG相比)。在60%的相对湿度和85°F的示例测试条件下,这些设计估计每天产生足够的水来种植两棵果树(每周1加仑)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of an atmospheric water generator: Harvesting water out of thin air
Water scarcity affects 1.2 billion people on a global scale, representing nearly one fifth of the human population. In some regions, current water sources are being depleted faster than they are renewed and the majority of this depletion is being used for irrigation and agricultural purposes. At any given time, the atmosphere contains 3400 trillion gallons of water vapor, which would be enough to cover the entire Earth in 1 inch of water. Herein, we describe the design of an innovative solution to water scarcity in regions with medium to high humidity - Atmospheric Water Generators (AWG). This device converts water vapor into liquid water and is designed for agricultural and irrigation purposes in regions where water scarcity exists. More specifically, two AWG concepts were developed by our team, one utilizing Peltier devices and the other a heat exchanger, in order to allow multiple design alternatives to be considered. The Peltier-based concept works by applying current to induce a temperature gradient in order to cool and condense the surrounding air. The heat exchanger concept works by cycling a coolant that is cooled by a lower ground temperature. Both AWG concepts were designed utilizing sustainable engineering principles to minimize energy consumption and cost (particularly when compared to AWGs currently on the market). The designs are estimated to create enough water daily to grow 2 fruit trees (1 gallon a week) at an example test condition of 60% relative humidity and 85°F.
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