A208 BASIC CHARACTERISTICS OF PERFORMANCE AND STRATEGY TO MAXIMIZE CO_2 REDUCTION EXTENT OF COGENERATION SYSTEMS
スポンサーリンク
概要
- 論文の詳細を見る
Economic advantage and CO_2 reduction extent of cogeneration system greatly depend on energy demand patterns, fuel costs and possibility of grid connection. The paper analyzes the basic characteristics of cogeneration system in economic and emission aspects and shows strategies necessary to maximize CO_2 reduction amount by the introduction of the system. The buildings analyzed in the paper are houses, offices, stores, hotels and hospitals, whose general energy-demand patterns are available. The result of the analysis shows that houses have the greatest potential to reduce CO_2 emissions among these building types, and reversed grid connection is the most important to maximize the potential. Combination of different types of buildings with energy network increases the economic and CO_2 reduction benefits, and the optimum combination of buildings is identified. The paper compares CO_2 emission amount for variety scenarios of strategies for introduction of cogeneration systems.
- 一般社団法人日本機械学会の論文
著者
-
CHIKAHISA Takemi
Div. of Mech. Sci., Hokkaido Univ.
-
HISHINUMA Yukio
Div. of Mech. Sci., Hokkaido Univ.
-
Chikahisa Takemi
Div. Of Mechanical Science Hokkaido University
-
Hishinuma Yukio
Div. Of Mechanical Science Hokkaido University
関連論文
- TED-AJ03-289 SIGNIFICANCE OF THE SPRAY TIP REGION IN NO_x EMISSIONS OF DIESEL COMBUSTION
- A16-086 ANALYSIS OF GAS FLOWS ON SILICON-WAFER SURFACE IN LOW PRESSURE CVD REACTOR
- TED-AJ03-372 ANALYSIS OF THE REACTANT GAS FLOW AND TEMPERATURE DISTRIBUTION ON SILICON WAFER SURFACES ARRANGED IN A ROW IN HEATING FURNACE
- Conditions for Reducing Frost on Air Pre-Cooler with LNG Cold
- A208 BASIC CHARACTERISTICS OF PERFORMANCE AND STRATEGY TO MAXIMIZE CO_2 REDUCTION EXTENT OF COGENERATION SYSTEMS
- TED-AJ03-371 HEATING CHARACTERISTICS OF SILICON WAFERS ARRANGED IN A ROW IN A HEATING FURNACE
- TED-AJ03-287 ENTROPY ANALYSIS IN THE INVESTIGATION OF THE MICROSCOPIC DIFFUSION STRUCTURE OF TURBULENT JET FLAMES