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研究生物质气化和流化行为,用于试点双式泡流化床反应堆

Gokul Gopan¹, Lalhmingsanga Hauchhum², Satyajit Pattanayak³

¹Department of Mechanical Engineering, SIMATS, Saveetha School of Engineering, Saveetha Institute of Medical and Technical Sciences, Saveetha Nagar, Thandalam, Chennai, 602 105, India. gkulgopan@gmail.com.

Environmental science and pollution research international

|November 7, 2024

概括

这项研究探讨了使用新型反应堆在印度生产合成气的竹子气化. 碳转化效率和气体产量的最佳结果是在高温下以1.18毫米颗粒大小实现的.

科学领域:

热化学工程热化学工程
可再生能源技术可再生能源技术
生物质转换生物质转换

背景情况:

印度东北地区拥有丰富的竹子资源,适合发电.
来自生物质的合成天然气生产是可持续能源研究的关键领域.
传统的气化方法面临着原料变化和反应堆效率方面的挑战.

研究的目的:

来自印度米佐拉姆的六种竹种通过气化来研究合成天然气的生产.
评估一种用于生物质气化的新型双流体床反应堆 (DTBFBR) 的性能.
为了确定颗粒大小和温度对合成气组成和气化效率的影响.

主要方法:

六种竹子被预先加工 (切碎,干燥,选).
热化学转换是在试点规模的5公斤/小时DTBFBR (1.2米高,16.5厘米直径) 中在600-1000°C的温度下进行的.
生物质颗粒大小 (380 μm,600 μm,1.18 mm) 和表面速度 (0-2 m/s) 都有所不同.

主要成果:

DTBFBR的设计改善了床的水力动力学.
较高的温度 (>900°C) 有利于H2和CO2,而较低的温度 (<800°C) 有利于CH4的产量.
在1.18毫米颗粒大小下观察到最佳的碳转化效率 (CCE) 和干气产量 (YG).

结论:

在DTBFBR中的竹子气化是一种可行的合成气生产方法.
颗粒大小显著影响气化效率,1.18毫米是最佳的.
竹子生物质为印度东北部地区提供了一个有前途的可持续能源.

关键词:

竹子 (Bambusa vulgaris) 瓦明 (Wamin) 是一种常见的植物.碳转化效率是指碳转化效率.下一个加热值.颗粒大小颗粒大小辛加斯天然气的生产生产.收的角度是收的角度

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