<jupyter_start><jupyter_text>Power Generation Emission Calculation MethodsThis notebook contains the methodologies in calculating the emission from Power Generation in order to develop Life Cycle Inventories for Power Generation.The different methodologies are from: No. | Country | Pub. Yr | -- | ------- | --------- | 1  | Japan | 2000 | 2. | Canada | 2001 | 3. | Brazil | 2003 | 4. | Indonesia | 2003 | 5. | Korea | 2004 | 6. | China | 2007 | 7. | Thailand | 2008 | 8. | Singapore | 2010 |  4.1 CO_2$$EI_{Elec,CO_2} = \frac{\sum F_{CO_2,i} * H_i * G_i}{E_{Elec,Grid}}$$$EI_{Elec,CO_2}$ = emission intensity [kg-CO_2/kWh]  4.2 $SO_2$$$EI_{Elec,SO_2} = \frac{\sum C_{S,i} * \frac{M_{SO_4}}{M_s} * (1 - \eta_{DeSO_2}) * \frac{P_{DeSO_2}}{P_{Total}}* G_i}{E_{Elec,Grid}}$$  4.3 NO_x$$EI_{Elec,NO_x} = \frac{\sum F_{NO_x,i} * H_i * (1 - \eta_{DeNO_x,i}) * \frac{P_{DeSO_2}}{P_{Total}}* G_i}{E_{Elec,Grid}}$$<jupyter_code>## Dust and heavy metals (DHM)

$$EI_{Elec,DHM,j} = \frac{\sum C_{j,i} * (1 - \eta_{Filter}) \frac{P_{Filter}}{P_{Total}} * (1 - \eta_{DeSO_2}) * \frac{P_{DeSO_2}}{P_{Total}}* G_i}{E_{Elec,Grid}}$$<jupyter_output><empty_output>
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