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Most of the existing biomass power plant location models and supply chain designs are developed only for the minimization of logistics cost, having neglected the pollutant emissions during biomass feedstock transportation. How to achieve a win-win situation between the two for optimal power plant locations has become a main research direction. This paper, integrating the economic and environmental dimensions of sustainable development, develops a bi-objective 0–1 integer programming model for optimal locations and corresponding feedstock supply chain designs of biomass power plants. Having made improvements to the existing location models, this model is developed basing on the relevant research data of Chinese biomass power generation. A numerical example analysis is done in order to validate the model and to highlight the practicality and effectiveness. It is expected that this model may provide scientific guidance for biomass power plant siting and improve their environmental performance while still remaining economically competitive. [ABSTRACT FROM AUTHOR]

Abstract: China currently is engaged in resolving many issues, which involve increasing peasants’ income, protecting environment and adjusting energy structure, which are able to be solved by developing the biomass power generation industry. This paper focuses on the development goal of 30GW for China’s biomass power generation, summarizes the industrial situation and policy environment, discusses the possibility of achieving the development goal, and introduces the way to achieve the goal. We draw the following conclusions: (1) there are still some obstacles to be overcome, such as the insufficient raw material supply, the low feed-in tariff, and the poor ability of technical research; (2) according to China’s current industrial situation, it is possible to achieve the development goal; (3) China’s policy tools is able to guarantee the industry development goal. At last, we offer several policy recommendations for adjusting the feed-in tariff and completing the Tradable Green Certificate system. [Copyright &y& Elsevier]

Abstract: Effective spatial planning is crucial for cost-effectively and sustainably developing biomass energy resources due to the diffuse nature of biomass and high transportation cost. Using the spatial analysis technology, economic models and scenario analysis, this paper presents a spatial planning framework to identify the appropriate developing areas of biomass energy at regional level. The methodology is applied in a case study of Fujian Province, China. Firstly, spatial distribution of two kinds of biomass resources and the technical potential, i.e. the amount of power generation from agricultural and forestry residues in each supply area, were estimated by incorporating the spatial data and the statistical data. The results indicate that total technical potential of agricultural and forestry residues is estimated at 25.13TWhy−1, equivalent to approximately 19% of total electricity consumption in Fujian in 2010. In the second step, the economic analysis assesses the cost of biomass generation for each supply area on the basis of current market conditions. Ranking of the supply areas is then performed by using the priority development index (PDI), which can measure the priority of each biomass supply area by combining several influencing indicators. Finally, the selection of supply areas for power plants can be carried out according to its order in PDI until the total planed capacity in the region is met. The priority of the subregions and the corresponding cost of biomass generation for different planning scenarios can be explicitly visualized. The methodology can be applied to a wide area and can support the local authorities to define and implement a strategy for future biomass energy development. [Copyright &y& Elsevier]