Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming

碩士 === 逢甲大學 === 綠色能源科技碩士學位學程 === 102 === The purpose of this study is to investigate bioenergy production using continuously stirred tank reactor(CSTR) and agitated granular sludge bed (AGSB). Used concentrated beverage wastewater fermentation to produce hydrogen and used fermentation effluent to di...

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Main Authors: Keng-huan Lee, 李庚桓
Other Authors: Chiu-yue Lin
Format: Others
Language:zh-TW
Published: 2014
Online Access:http://ndltd.ncl.edu.tw/handle/n2hjwe
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spelling ndltd-TW-102FCU051600032019-05-15T21:32:14Z http://ndltd.ncl.edu.tw/handle/n2hjwe Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming 飲料廢水多元產氫-厭氧醱酵與甲烷電漿重組 Keng-huan Lee 李庚桓 碩士 逢甲大學 綠色能源科技碩士學位學程 102 The purpose of this study is to investigate bioenergy production using continuously stirred tank reactor(CSTR) and agitated granular sludge bed (AGSB). Used concentrated beverage wastewater fermentation to produce hydrogen and used fermentation effluent to digestion produce methane. The reaction of hydrogen fermentation is used continuous stirred tank reactor(CSTR), which planted bacteria is fructose factory granular sludge of TAIROUN Pruducts Co., which heating at 95 oC for 1 hour then use concentrate bevegrage starting fermentation. The operation condition of fermentation were hydraulic retention time(HRT) = 8 hour, temperature = 35±1 oC, pH = 5.6±0.1 and substrate concentration = 10 g, 20 g, 30 g , 40 g total sugar/L. Methane digestion reactor was using agitated granular sludge bed, which planted bacteria is fructose factory granular sludge of TAIROUN Pruducts Co., then starting methane digestion when bacteria domestication for one week. The operation of methane digestion were HRT=72, 36, 18, 12 hour, pH=7.2±0.1, temperature = 35±1 oC.The substrate was use 10 g, 20 g, 30 g , 40 g total sugar/L hydrngen fermentation effluent. The result show that the hydrogen fermentation system at HRT=8 hour, temperature=35 oC, pH=5.6, substrate concentration = 40 g total sugar/L has the highest hydrogen production rate and hydrogen concentration of 21.0 L/L-d, 49.4 %. Methane digestion system at HRT= 12 hour, temperature = 35 oC, pH=7.2 and substrate concentration used 30g total sugar/L of hydrogen fermentation effluent has the highest methane production rate(MPR) and COD removal rate of 12.0 L/L-d, 78.4 %. Plasma reforming system used methane digestion’s bio-methane reforming to hydrogen, which operation were voltage = 220 V, catalyst mass = 1.5 g, temperature = 25 oC, flowing speed = 720 mL/hr and test time must more than 80 minutes has the highest HPR 5.5 mL/mL-hr. Finally, the hydrogen production process in this study was combined anaerobic fermentation and plasma assisted methane reforming as pervious mention. Chiu-yue Lin Hoang-jyh Leu 林秋裕 呂晃志 2014 學位論文 ; thesis 79 zh-TW
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language zh-TW
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sources NDLTD
description 碩士 === 逢甲大學 === 綠色能源科技碩士學位學程 === 102 === The purpose of this study is to investigate bioenergy production using continuously stirred tank reactor(CSTR) and agitated granular sludge bed (AGSB). Used concentrated beverage wastewater fermentation to produce hydrogen and used fermentation effluent to digestion produce methane. The reaction of hydrogen fermentation is used continuous stirred tank reactor(CSTR), which planted bacteria is fructose factory granular sludge of TAIROUN Pruducts Co., which heating at 95 oC for 1 hour then use concentrate bevegrage starting fermentation. The operation condition of fermentation were hydraulic retention time(HRT) = 8 hour, temperature = 35±1 oC, pH = 5.6±0.1 and substrate concentration = 10 g, 20 g, 30 g , 40 g total sugar/L. Methane digestion reactor was using agitated granular sludge bed, which planted bacteria is fructose factory granular sludge of TAIROUN Pruducts Co., then starting methane digestion when bacteria domestication for one week. The operation of methane digestion were HRT=72, 36, 18, 12 hour, pH=7.2±0.1, temperature = 35±1 oC.The substrate was use 10 g, 20 g, 30 g , 40 g total sugar/L hydrngen fermentation effluent. The result show that the hydrogen fermentation system at HRT=8 hour, temperature=35 oC, pH=5.6, substrate concentration = 40 g total sugar/L has the highest hydrogen production rate and hydrogen concentration of 21.0 L/L-d, 49.4 %. Methane digestion system at HRT= 12 hour, temperature = 35 oC, pH=7.2 and substrate concentration used 30g total sugar/L of hydrogen fermentation effluent has the highest methane production rate(MPR) and COD removal rate of 12.0 L/L-d, 78.4 %. Plasma reforming system used methane digestion’s bio-methane reforming to hydrogen, which operation were voltage = 220 V, catalyst mass = 1.5 g, temperature = 25 oC, flowing speed = 720 mL/hr and test time must more than 80 minutes has the highest HPR 5.5 mL/mL-hr. Finally, the hydrogen production process in this study was combined anaerobic fermentation and plasma assisted methane reforming as pervious mention.
author2 Chiu-yue Lin
author_facet Chiu-yue Lin
Keng-huan Lee
李庚桓
author Keng-huan Lee
李庚桓
spellingShingle Keng-huan Lee
李庚桓
Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
author_sort Keng-huan Lee
title Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
title_short Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
title_full Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
title_fullStr Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
title_full_unstemmed Hydrogen Production Process from Beverage Wastewater−Anaerobic Fermentation and Plasma Assisted Methane Reforming
title_sort hydrogen production process from beverage wastewater−anaerobic fermentation and plasma assisted methane reforming
publishDate 2014
url http://ndltd.ncl.edu.tw/handle/n2hjwe
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