Bioenergy Production by Anaerobic Digestion
Bioenergy Production by Anaerobic Digestion
复制标题
通过厌氧消化生产生物能源
DOI：
10.4324/9780203137697
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发表时间：
2013
期刊：
影响因子：
--
通讯作者：
J. West
中科院分区：
文献类型：
--
作者：
Nicholas E. Korres;P. O'kiely;J. Benzie;J. West
1.可持续农业和温室气体排放Jonathan S.第一部分：立法-能源政策与生物甲烷有关的能源和农业政策，特别是运输部门比阿特丽斯·史密斯3。参考土地利用变化的生物甲烷生产Surajbhan Sevda、Deepak Pant和Anoop Singh，第2部分：原料草和草青贮：农艺特性和沼气生产。第五章.用于生物甲烷生产的玉米和玉米青贮Markus Neureiter 6.微藻和海藻生产生物甲烷的适宜性。H.第七章.用于生物甲烷生产的有机废物Anoop Singh 8.生物甲烷生产的工业残留物Markus Ortner，Bernhard Drosg，Elitza Stoyanova和Gunther Bochmann第3部分：厌氧消化技术9.厌氧消化器：前景与挑战。Saville和石楠L. 10. hot water沼气升级和压缩Prasad Kaparaju，Saija Rasi和Jukka Rintala 11.生物甲烷的储存和分配。12. history of life厌氧消化的变化：过程监控的需要。Korres和A.S. 13. honor厌氧消化中数据仓库和数据挖掘的一般原理。放大图片作者：Anastasios Dekazos，Dimitris N. Argyropoulos，Ammar Ahmed and Paul Stack Part 4：Genetics and Population Dynamics 14.生物甲烷生产过程中的微生物群落及其动态。Theodoros Argyropoulos Varzakas和John A. H. 15. Benzie分子生物学在优化厌氧消化和生物甲烷生产中的作用。Charoula C. Argyropoulos Psallida and John A. H.第5部分：在厌氧消化的可持续性16.生命周期评估作为评估生物甲烷生产可持续性的工具。17. baby baby使用Digestate作为人造肥料的替代品Brian Chambers和Matthew Taylor 18.农场规模的小型厌氧消化池的可持续性菲利普霍布斯和艾伦巴特勒19.发展中国家的沼气技术。可持续发展的方法Dhanya，Shiv Prasad和Anoop Singh总结发言附录：厌氧消化在典型柬埔寨家庭农场中的应用-案例研究Andrea Salimbeni和Giuliano Grassi指数
1. Sustainable Agriculture and Greenhouse Gas Emissions Jonathan S. West Part 1: Legislation-Energy Policy 2. Energy and Agricultural Policy in Relation to Biomethane, with Particular Reference to the Transport Sector Beatrice Smyth 3. Biomethane Production with Reference to Land Use Change Surajbhan Sevda, Deepak Pant and Anoop Singh Part 2: Feedstocks 4. Grass and Grass Silage: Agronomical Characteristics and Biogas Production Joseph McEniry, Nicholas E. Korres and Padraig O'Kiely 5. Maize and Maize Silage for Biomethane Production Markus Neureiter 6. Suitability of Microalgae and Seaweeds for Biomethane Production John A. H. Benzie and Stephen Hynes 7. Organic Wastes for Biomethane Production Anoop Singh 8. Industrial Residues for Biomethane Production Markus Ortner, Bernhard Drosg, Elitza Stoyanova and Gunther Bochmann Part 3: Anaerobic Digestion Technology 9. Anaerobic Digesters: Perspectives and Challenges Abdul-Sattar Nizami, Bradley A. Saville and Heather L. MacLean 10. Biogas Upgrading and Compression Prasad Kaparaju, Saija Rasi and Jukka Rintala 11. Storage and Distribution of Biomethane Nicholas E. Korres 12. Variation in Anaerobic Digestion: Need for Process Monitoring Nicholas E. Korres and A.S. Nizami 13. General Principles of Data Warehouse and Data Mining in Anaerobic Digestion Nicholas E. Korres, Anastasios Dekazos, Dimitris N. Argyropoulos, Ammar Ahmed and Paul Stack Part 4: Genetics and Population Dynamics 14. Microbial Communities and their Dynamics in Biomethane Production Dimitris N. Argyropoulos, Theodoros H. Varzakas and John A. H. Benzie 15. The Role of Molecular Biology in Optimizing Anaerobic Digestion and Biomethane Production Dimitris N. Argyropoulos, Charoula C. Psallida and John A. H. Benzie Part 5: Sustainability in Anaerobic Digestion 16. Life Cycle Assessment as a Tool for Assessing Biomethane Production Sustainability Nicholas E. Korres 17. The Use of Digestate as a Substitute for Manufactured Fertiliser Brian Chambers and Matthew Taylor 18. The Sustainability of Small-Scale Anaerobic Digesters at Farm Scale Phillip Hobbs and Allan Butler 19. Biogas Technology for Developing Countries. An Approach to Sustainable Development M.S. Dhanya, Shiv Prasad and Anoop Singh Concluding Remarks Appendix: Anaerobic Digestion Application in a Typical Cambodia Family Farm- a Case Study Andrea Salimbeni and Giuliano Grassi Index