Energy Access and Climate Mitigation and Adaptation - Revision history

Johanna von Behaim: /* Further Information */

2016-08-02T12:27:15Z

‎Further Information

Kira Kahmann: /* Further Information */

2016-05-27T11:31:06Z

‎Further Information

Lisafeldmann at 11:29, 21 April 2016

2016-04-21T11:29:27Z

Ranisha: /* Biomass Burning */

2015-12-01T15:53:54Z

‎Biomass Burning

Ranisha at 15:49, 1 December 2015

2015-12-01T15:49:25Z

Ranisha: /* Biomass Burning */

2015-11-30T15:43:08Z

‎Biomass Burning

Ranisha: /* Net Effect of Black Carbon */

2015-11-30T15:03:21Z

‎Net Effect of Black Carbon

Ranisha: /* Biomass Burning */

2015-11-27T15:55:38Z

‎Biomass Burning

Ranisha at 15:53, 27 November 2015

2015-11-27T15:53:38Z

Ranisha: /* Net Effect of Black Carbon */

2015-11-27T15:50:51Z

‎Net Effect of Black Carbon

@@ Line 74: / Line 74: @@
 <br/>
 = Further Information<br/> =
-*[https://energypedia.info/images/b/b7/GIZ_(2016)_Climate_Change_Energy_Access.pdf Climate Change Mitigation and Adoption Potential of Basic Energy Services (GIZ, 2015)]<br/>
+*[[:File:GIZ_(2016)_Climate_Change_Energy_Access.pdf|Climate Change Mitigation and Adoption Potential of Basic Energy Services (GIZ, 2015)]]<br/>
 *[http://documents.worldbank.org/curated/en/2010/03/14600224/household-cook-stoves-environment-health-climate-change-new-look-old-problem Household Cookstoves, Environment, Health and Climate Change – A New Look at an Old Problem (WB 2010)]<br/>
 *[http://www.worldbank.org/en/news/feature/2013/11/03/protecting-snow-ice-critical-for-development-climate On thin Ice: How Cutting Pollution Can Slow Warming and Save Lives (WB 2013)]<br/>

@@ Line 74: / Line 74: @@
 <br/>
 = Further Information<br/> =
-*Household Cookstoves, Environment, Health and Climate Change – A New Look at an Old Problem (WB 2010)
+*[https://energypedia.info/images/b/b7/GIZ_(2016)_Climate_Change_Energy_Access.pdf Climate Change Mitigation and Adoption Potential of Basic Energy Services (GIZ, 2015)]<br/>
+*[http://documents.worldbank.org/curated/en/2010/03/14600224/household-cook-stoves-environment-health-climate-change-new-look-old-problem Household Cookstoves, Environment, Health and Climate Change – A New Look at an Old Problem (WB 2010)]<br/>
-[http://documents.worldbank.org/curated/en/2010/03/14600224/household-cook-stoves-environment-health-climate-change-new-look-old-problem http://documents.worldbank.org/curated/en/2010/03/14600224/household-cook-stoves-environment-health-climate-change-new-look-old-problem]
+*[http://www.worldbank.org/en/news/feature/2013/11/03/protecting-snow-ice-critical-for-development-climate On thin Ice: How Cutting Pollution Can Slow Warming and Save Lives (WB 2013)]<br/>
-−
-*On thin Ice: How Cutting Pollution Can Slow Warming and Save Lives (WB 2013)
-−
-[http://www.worldbank.org/en/news/feature/2013/11/03/protecting-snow-ice-critical-for-development-climate http://www.worldbank.org/en/news/feature/2013/11/03/protecting-snow-ice-critical-for-development-climate]
-−
-*Black Carbon Finance Study Group Report (CCAC 2015)<br/>
 *[http://www.unep.org/ccac/Publications/Publications/BlackCarbonFinanceStudyGroupReport2015/tabid/1060194/Default.aspx Black Carbon Finance Study Group Report 2015]<br/>
-*<span>M. Jacobsen: Journal of Geophysical research: Atmosphere, July 30, 2014</span><br/>
+*<span>Effects of biomass burning on climate, accounting for heat and moisture fluxes, black and brown&nbsp;carbon , and could absorption effects (Jacobsen, Journal of Geophysical research: Atmospheres. 2014)</span><br/>
-<br/>[[Energy Access and Climate Mitigation and Adaptation#toc|►Go to Top]]
+[[Energy Access and Climate Mitigation and Adaptation#toc|►Go to Top]]<br/>
 <br/>
 = References =

@@ Line 22: / Line 22: @@
 For more information about indoor air pollution , see the article on [[Indoor Air Pollution (IAP)|Indoor Air Pollution (IAP)]] and[[Indoor Air Pollution (IAP) Measurement|Indoor Air Pollution (IAP) Measurement]]<br/>
 = Effect of Black Carbon on Climate =
@@ Line 56: / Line 57: @@
 The extraction, transportation and combustion of biomass releases a significant amount of carbon into the atmosphere. This carbon is added to the atmosphere and it takes time before it is balanced by the ecosystem. According to a report by IPCC on renewable energy sources and climate change mitigation (2011), ''it can take decades, even centuries, before ecosystems; in particular forests can recapture the carbon that has been released during biomass combustion'' . This creates a "'''carbon debt'''" in the atmosphere. Therefore, burning of solid biomas might not be "carbon neutral".<ref name="http://www.birdlife.org/sites/default/files/attachments/EU-Joint-NGO-briefing-biomass-sustainability-energy-March2012.pdf">http://www.birdlife.org/sites/default/files/attachments/EU-Joint-NGO-briefing-biomass-sustainability-energy-March2012.pdf</ref><ref name="https://www.iea.org/publications/freepublications/publication/cooking.pdf">https://www.iea.org/publications/freepublications/publication/cooking.pdf</ref>
 = Potential Measures =
@@ Line 97: / Line 99: @@
 <br/>
 [[Category:Energy_Access]]

@@ Line 10: / Line 10: @@
 <br/>
-== Biomass Burning ==
+= Biomass Burning =
 Burning of biomass generates carbon compounds such as carbon dioxide, methane, tiny bits of soot called black carbon and motes of associated substances called brown carbon.
@@ Line 21: / Line 21: @@
 For more information about indoor air pollution , see the article on [[Indoor Air Pollution (IAP)|Indoor Air Pollution (IAP)]] and[[Indoor Air Pollution (IAP) Measurement|Indoor Air Pollution (IAP) Measurement]]<br/>
 = Effect of Black Carbon on Climate =

@@ Line 1: / Line 1: @@
 = Facts and Figures =
@@ Line 9: / Line 10: @@
 <br/>
-= Effect of Black Carbon on Climate<br/> =
+== Biomass Burning ==
-Burning of biomass generates carbon dioxide, other forms of carbon such as methane, tiny bits of soot called black carbon and motes of associated substances called brown carbon.
+Burning of biomass generates carbon compounds such as carbon dioxide, methane, tiny bits of soot called black carbon and motes of associated substances called brown carbon.
 Black Carbon is generated by the incomplete combustion of fossil fuels, biofuels and biomass. It is a strongly light-absorbing particulate matter that absorbs solar radiation at all wavelength.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>&nbsp;
 Brown carbon (BrC) is also a carbon based particulate matter that absorbs solar radiation within the visible and ultraviolet wavelength.&nbsp;<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
 '''Black and brown carbon particles causes atmospheric warming in three ways:'''
@@ Line 25: / Line 32: @@
 == Warming of clouds ==
-Black and brown carbon, in the atmospheric surface enter the minuscule water droplets that form clouds. During day time, the sunlight penetrates the water droplet and is absorbed by the carbon particles, creating heat and accelerating the evaporation of the water droplets. Similarly, the carbon particles floating in between the water droplets spaces also absorb the sunlight resulting in additional heating. Heating the cloud reduces its relative humidity and causes the clouds to dissipate. Cloud acts as a buffer between the earth and the sun, reflecting the sunlight back to the atmosphere. with increased dissipation of the cloud, less sunlight will be reflected and more will be absorbed, resulting in the warming of the earth.<ref name=" https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
+Black and brown carbon, in the atmospheric surface enter the minuscule water droplets that form clouds. During day time, the sunlight penetrates the water droplet and is absorbed by the carbon particles, creating heat and accelerating the evaporation of the water droplets. Similarly, the carbon particles floating in between the water droplets spaces also absorb the sunlight resulting in additional heating. Heating the cloud reduces its relative humidity and causes the clouds to dissipate. Cloud acts as a buffer between the earth and the sun, reflecting the sunlight back to the atmosphere. with increased dissipation of the cloud, less sunlight will be reflected and more will be absorbed, resulting in the warming of the earth.<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
 == Snow/albedo Effect ==
@@ Line 31: / Line 38: @@
 White surface result more light as compared to darker surfaces. Therefore, snow and ice effectively reflect sunlight and are vital in balancing the atmospheric temperature. Black carbon deposited on snow and ice darkens the surface and decrease the reflectivity of the surface (albedo effect). Black carbon can also absorb solar radiation in all wavelength and thus, the BC deposited on the snow accelerates the melting of the snow,exposing the dark soil and the dark seas underneath. Since these surfaces are dark, they contribute to further warming.<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
+<br/>
 == Net Effect of Black Carbon ==
@@ Line 44: / Line 51: @@
 [[Energy Access and Climate Mitigation and Adaptation#toc|►Go to Top]]
+The extraction, transportation and combustion of biomass releases a significant amount of carbon into the atmosphere. This carbon is added to the atmosphere and it takes time before it is balanced by the ecosystem. According to a report by IPCC on renewable energy sources and climate change mitigation (2011), ''it can take decades, even centuries, before ecosystems; in particular forests can recapture the carbon that has been released during biomass combustion'' . This creates a "'''carbon debt'''" in the atmosphere. Therefore, burning of solid biomas might not be "carbon neutral".<ref name="http://www.birdlife.org/sites/default/files/attachments/EU-Joint-NGO-briefing-biomass-sustainability-energy-March2012.pdf">http://www.birdlife.org/sites/default/files/attachments/EU-Joint-NGO-briefing-biomass-sustainability-energy-March2012.pdf</ref><ref name="https://www.iea.org/publications/freepublications/publication/cooking.pdf">https://www.iea.org/publications/freepublications/publication/cooking.pdf</ref>
-== Biomass Burning ==
-−
-Biomass burning also includes the combustion of agricultural and lumber waste for energy production. Such power generation often is promoted as a “sustainable” alternative to burning fossil fuels. And that’s partly true as far as it goes. It is sustainable, in the sense that the fuel can be grown, processed and converted to energy on a cyclic basis. But the thermal and pollution effects of its combustion – in any form – can’t be discounted, Jacobson said.<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
-−
-“The bottom line is that biomass burning is neither clean nor climate-neutral,” he said. “If you’re serious about addressing global warming, you have to deal with biomass burning as well.”<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
-−
-Exposure to biomass burning particles is strongly associated with cardiovascular disease, respiratory illness, lung cancer, asthma and low birth weights. As the rate of biomass burning increases, so do the impacts to human health.<br/>
-−
-The global middle and upper class which are largely responsible for GHG emissions currently are the major beneficiaries in the climate mitigation approach whereas the poor and disadvantaged are left out! The poor are only served by climate financing through climate adaptation measures (risk mitigation, disaster management, etc.). This approach however might lead to sharpen inequalities as the funds are rather beneficial to the better-off and not to the poor and hence distort many development approaches.
-−
-For Black Carbon there is no internationally standardized methodology available. The Golden Standard Quantification Methodology&nbsp;has not been approved by UNFCCC by now. WB however applies it in a few pilot projects and has come out with first figures. Hence the question still remains which methodology to apply to monitor Black Carbon.
-−
-Non-Kyoto particles such as black carbon and short-lived climate pollutants are not mentioned in the current draft of the climate treaty&nbsp; but are important for INDC under UNFCCC. In developing countries, more than 1 billion tons of CO₂ are emitted into the atmosphere from burning biomass for cooking.<br/>
-−
-Other products of incomplete combustion and climate forcers (non-Kyoto particles) such as black carbon further exacerbate the problem. 21% of black carbon emissions is thought to be from residential solid fuel use for cooking and heating in the developing world (US EPA, 2012).
-−
-In terms of climate change, woody resources are generally regarded as “renewable” and “carbon neutral” if sustainably produced; however, while CO₂ to a degree could be sequestered if biomass regrows, the level of regrowth is likely to vary geographically. There is evidence that biomass used for household cooking is thus a net contributor to global warming since not all biomass harvested is renewable. When short-lived climate pollutants (SLCPs) such as black carbon are taken into consideration, the burning of solid fuels is decidedly not “climate neutral”.
-−
-[[Energy Access and Climate Mitigation and Adaptation#toc|►Go to Top]]
@@ Line 105: / Line 94: @@
 <references /><br/>
-[[Category:Energy_Access]]
+<br/>
-[[Category:Climate_Change_Adaptation]]
 [[Category:Climate_Change]]

@@ Line 1: / Line 1: @@
 = Facts and Figures =
@@ Line 12: / Line 11: @@
 = Effect of Black Carbon on Climate<br/> =
-Burning of biomass generates carbon dioxide, other forms of carbon such as methane, tiny bits of soot called black carbon and motes of associated substances caleld brown carbon.
+Burning of biomass generates carbon dioxide, other forms of carbon such as methane, tiny bits of soot called black carbon and motes of associated substances called brown carbon.
 Black Carbon is generated by the incomplete combustion of fossil fuels, biofuels and biomass. It is a strongly light-absorbing particulate matter that absorbs solar radiation at all wavelength.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>&nbsp;
@@ Line 18: / Line 17: @@
 Brown carbon (BrC) is also a carbon based particulate matter that absorbs solar radiation within the visible and ultraviolet wavelength.&nbsp;<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
-'''Black and brown carbon particles causes atmostpheric warming in three ways:'''
+'''Black and brown carbon particles causes atmospheric warming in three ways:'''
 == Direct effects ==
-Black carbon absorbs both the incoming and outcoming solar radiation at all wavelength and thus lead to the atmosphere warming. &nbsp;the &nbsp;green house gases (GHG) only trap the ougoing infrared radition from the earth's surface.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
+Black carbon absorbs both the incoming and outgoing solar radiation at all wavelength and thus lead to the atmosphere warming. The green house gases (GHG) only trap the outgoing infrared radiation from the earth's surface.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
 == Warming of clouds ==
-Black and brown carbon, in the atmospheric surface enter the miniscule water droplets that form clouds. During day time, the sunlight penetrates the water droplet and is absorbed by the carbon particles, creating heat and acceleraing the evaportation of the water droplets. Similarly, the carbon particles floating inbetween the water droplets spaces also absorb the sunlight resulting in additional heating. Heating the cloud reduces its relative humidity and casues the clouds to dissipate. Cloud acts as a buffer between the earth and the sun, reflecting the sunlight back to the atmosphere. with increased dissipation of the cloud, less sunlight will be refelcted and more will be absorbed, resulting in the warming of the earth.<ref name=" https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
+Black and brown carbon, in the atmospheric surface enter the minuscule water droplets that form clouds. During day time, the sunlight penetrates the water droplet and is absorbed by the carbon particles, creating heat and accelerating the evaporation of the water droplets. Similarly, the carbon particles floating in between the water droplets spaces also absorb the sunlight resulting in additional heating. Heating the cloud reduces its relative humidity and causes the clouds to dissipate. Cloud acts as a buffer between the earth and the sun, reflecting the sunlight back to the atmosphere. with increased dissipation of the cloud, less sunlight will be reflected and more will be absorbed, resulting in the warming of the earth.<ref name=" https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
 == Snow/albedo Effect ==
-White surface result more light as compared to darker surfaces. Therefore, snow and ice effectively reflect sunlight and are vital in balancing the atmosphering temperature. Black carbon deposited on snow and ice darkens the surface and decrease the refelectivity of the surface (albedo effect). Black carbon can also absorb solar radiation in all wavelength and thus, the BC deposited on the snow accelerates the melting of the snow,exposing the dark soil and the dark seas underneath. Since these surfaces are dark, they contribute to further warming<span style="line-height: 1.5em; font-size: 0.85em;">.</span><ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
+White surface result more light as compared to darker surfaces. Therefore, snow and ice effectively reflect sunlight and are vital in balancing the atmospheric temperature. Black carbon deposited on snow and ice darkens the surface and decrease the reflectivity of the surface (albedo effect). Black carbon can also absorb solar radiation in all wavelength and thus, the BC deposited on the snow accelerates the melting of the snow,exposing the dark soil and the dark seas underneath. Since these surfaces are dark, they contribute to further warming.<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
@@ Line 37: / Line 36: @@
 To understand the net effect of black carbon on atmospheric warming, it is important to take into account the following points:
-*Black carbon is not emitted alone but rather with other particles such as sulfur dioxide (SO2) , nitrogen oxides (NOx) and organic carbon. Some of these particles have a cooling effect on the climate. Therefore to calculate the net effect of black carbon, the cooling effect of co-emiited pollutants has to be offset.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
+*Black carbon is not emitted alone but rather with other particles such as sulfur dioxide (SO2) , nitrogen oxides (NOx) and organic carbon. Some of these particles have a cooling effect on the climate. Therefore to calculate the net effect of black carbon, the cooling effect of co-emitted pollutants has to be offset.<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
 *The atmospheric processes such as&nbsp;&nbsp;mixing, aging, and coating occur after the BC is emitted and can influence its effect on climate<ref name="http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf">http://www3.epa.gov/blackcarbon/2012report/Chapter2.pdf</ref>
@@ Line 44: / Line 43: @@
 According to a computer simulated model by Prof Jacobson,&nbsp;the director of Stanford’s Atmosphere/Energy Program and a senior fellow at the Stanford Woods Institute for the Environment and the Precourt Institute for Energy, "the sum of warming caused by all anthropogenic greenhouse gases – CO2, methane, nitrous oxide, chlorofluorocarbons and some others – plus the warming caused by black and brown carbon will yield a planetary warming effect of 2 degrees Celsius over the 20-year period. But light-colored particles – white and gray particles primarily – reflect sunlight and enhance cloudiness, causing more light to reflect.''''The cooling effect of these light-colored particles amounts to slightly more than 1 degree celcisu and thus the''''&nbsp;total net warming gain is 0.9 C or so and biomass accounts for about 0.4 degree celcius''.<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
-Jacobson’s model also tracks the impact of the direct heat produced by combusting biomass. According to the model, the direct heat generated by burning biomass is significant and contributes to cloud evaporation by decreasing relative humidity and determined that 7 percent of the total net warming is caused by biomass burning – that is, 7 percent of the 0.4 C net warming gain – can be attributed to the direct heat caused by the fires.”<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
+Jacobson’s model also tracks the impact of the direct heat produced by biomass combustion. According to the model, the direct heat generated by burning biomass is significant and contributes to cloud evaporation by decreasing relative humidity and determined that 7 percent of the total net warming is caused by biomass burning – that is, 7 percent of the 0.4 C net warming gain – can be attributed to the direct heat caused by the fires.”<ref name="https://engineering.stanford.edu/print/node/38216"> https://engineering.stanford.edu/print/node/38216</ref>
 [[Energy Access and Climate Mitigation and Adaptation#toc|►Go to Top]]
@@ Line 107: / Line 106: @@
 <references /><br/>
 [[Category:Energy_Access]]