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             \author[1]{Professor Dr. Kazi Abdur  Rouf}

             \affil[1]{  Noble International University}

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\date{\small \em Received: 6 September 2015 Accepted: 30 September 2015 Published: 15 October 2015}

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\begin{abstract}
        


Energy is inevitable for development and its demand is increasing day by day. Energy is essential and important for human life. However, energy from fossil fuel (coals, diesel, kerosene, wood etc.) generates carbon, carbon dioxide emissions, green house emissions that pollute air, and destroy environment resulted global warming that?s harmful to living beings and nature. Hence energy scientists are looking for alternative energy resources uses that are environmentally friendly and good for human being. They are provoking for renewable energy (solar radiation energy, bio gas energy, wind energy, water wave energy, CNG energy and hydropower energy) use because PV technologies produce very small amount of CO2 compared to the emissions from conventional existing fossil fuel energy technologies. Therefore, renewable energy (RE) uses is less harmful to living beings and environment (air, water and land). This paper talks about fossil fuel energy and renewable energy use and their consequence and impact respectively in the nature and society. In the paper, the author incorporates his working experience with Grameen Shakti (GS) and the collected data from different RE implementing organizations in Bangladesh during his visit to Bangladesh in 2014-2015. The paper identifies different RE resources and different RE projects undertaken in the world particularly Bangladesh. The study explores RE resource utilization different business models, programs, and their benefits in Bangladesh. The study finds Bangladesh has developed a Government managed private apex organization named IDCOL (Infrastructure Development Company), which is involved in coordinating, counselling and financing to the RE implementing agencies in Bangladesh. The study discovers Grameen Shakti, a sister organization of Grameen Bank, is the largest RE implementing organization not only in Bangladesh, but also in the world. GS has developed a micro-utility RE financial model that has disseminated to the IDCOL p

\end{abstract}


\keywords{Bio gas, climate change, fossil fuel energy, grameen shakti, green house gas emission, global warming, renewable energy and solar panel.}

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\let\tabcellsep& 	 	 		 
\section[{Introduction}]{Introduction}\par
t has been alarming the global warming is increasing because of fossil fuel CO 2 emission and other greenhouse gases consequences climate change. Now carbon emission, green house emissions are serious issues for environment pollution and climate change that have been forefront to the global community. Today's development in the advanced countries has resulted in global climate change and massive environmental damage. Many programs have already been initiated throughout the world in order to reduce GHG emission, which enhances mainly the utilization of renewable energy technologies. It is evident that the protection of climate and environment is only possible through complete reliance on renewable energy technologies. Environment and climate issues thus, have been significant considerations before many of the countries (EU countries, Japan) for the application of PV systems. So, large PV applications will have to be seen from the perspective of clean energy development and environmental protection. Bangladeshi people especially rural people and many industries are suffering from electrical power and energy. However, Bangladesh has huge renewable energy (Solar, biogas, and wind pump etc.) potentials because of its geophysical condition. Rural people of Bangladesh depend on biomass, crop residues, plant debris, animal dung and wood for fuel creating deforestation, flood, soil erosion and health hazards etc. to living beings. Women and children, on whom the burden of collecting fuel falls, suffer the most. They are the worst victims of indoor air pollution such as smokes in the kitchens. The combustion of non-renewable fossil fuels like petroleum, natural gas and coal produce the greenhouse gases up to the level which causes the rapid rise of global temperature. Research shows the renewable energy sources release very negligible amount of CO 2 to the atmosphere.\par
Many NGOs, private agencies and public institutions are involved in renewable energy green businesses and earn income by selling renewable energy products to people in Bangladesh. The paper studies the context of renewable energy in Bangladesh, its scope and applications there. The research also discerns renewable energy business models that exit in Bangladesh. In the paper, the author incorporates his working experience with Grameen Shakti (GS) and the Source: \hyperref[b68]{SWERA, 2007} The gradual increase of global temperature and its consequences affect Bangladesh, risen the sea level of Bay of Bengal. It is because of climate change and because of radiant energy leaving the planet is naturally retained in the atmosphere. The concentration of the atmospheric gases slowly increases and helps to rise temperature. This issue is being termed as global warming, which accelerates the earth's climate change. The earth's average surface temperature, which has been relatively stable for more than, 1,000 years, has risen by about 0.5 degrees Celsius in the past 100 years. The nine warmest years in the 20 th century have occurred since 1980 and 1990s were probably the warmest decade of the second millennium \hyperref[b40]{(IPCC, 2001)}. Carbon dioxide (CO 2 ), nitrous oxide (N 2 O) and methane (CH 4 ) are naturally formed trace gases produced by the burning of fossil fuels, released by living and dead biomass, and resulting from various metabolic processes of microorganisms in the soil, wetlands and oceans. Along with these gases, chlorofluocarbons, bromofluocarbons including their hydrogenated forms (CFC, BFC, HCFC, and HBFC) have potential to accumulate heat from solar radiation, which are reflected from the earth's crust at longer wave length \hyperref[b0]{(Ahmed, 2005)}. The gas wave lengths are increasing due to both human and natural reasons, and contributing to global warming.\par
The anthropogenic activities include mainly the production and consumption of fossil fuels, as well as the intensification of agricultural activity changes in land use and land cover. Energy production and use, the largest sole source of CO 2 emissions and a large contributor of CH 4 and N 2 O emissions, accounted for 81.7 percent of emissions in industrialized countries in 1998  {\ref (UNFCCC, 2000)}. Another estimate shows that the earth's atmosphere receives around 27,000 million tons of CO 2 in the recent years. As a country the USA is the largest CO 2 emitter in the world, which releases 5,729 million tons of CO 2 every year with 19.7 million tons of per capita emission, and the nearest contributor is China which releases 3,719 million tons with 2.9 million tons of per capita emission. Carbon dioxide, the greenhouse gas largely blamed for global warming, has already reached a record-high level in the atmosphere \hyperref[b30]{(Hanley, 2004)}. It has increased by 30\% in the last 200 years as a result of industrial emissions, automobiles, and rapid forecast burning, especially in the tropics. Much of these have taken place since 1960. From 1973 to 2006, the emission of CO 2 has increased at a rate of 79.05\%. Other pollutants (e.g. SO 2 ) are also released at high level from the combustion of coal. 
\section[{III.}]{III.} 
\section[{World Energy Situation}]{World Energy Situation}\par
Among the renewable sources, large hydropower all over the world plays an important role (approximately 80\%) among renewable, and contributes around 20\% of the total energy generation. But the use of hydropower is no longer increasing due to environmental limits throughout the world \hyperref[b66]{(Sorensen, 2005;} {\ref European Commission, 1997)}. Hydropower is the largest (17\%) renewable resource used for electricity generation. More than 150 countries are producing hydroelectricity by constructing dams. Nepal, India and China have a huge potential in hydropower generation. Among them, Nepal and India have economically exploitable hydropower potential of 84,000 MW and 34,000 MW respectively \hyperref[b3]{(Arya, 2001}; \hyperref[b52]{Khera and Singh, 2001)}. Moreover, China has already installed a massive hydroelectric project known as Three Gorges Dam with an installed capacity of 18,000 MW and also plans to install larger plants in the near future  {\ref (Kabir and Endlicher, 2012)}.\par
Many developed countries including some developing countries are adopting large scale investment in RETs since the global reserve of nonrenewable sources like petroleum, gas, coal etc. gets reduced. Global renewable energy (wind power, solar hot water, geothermal heating, and off-grid solar PV capacity) increased at a rate of 15-30 percent annually during the period 2002-2006. Mass production of electricity using RE has recently been familiar throughout the world. UN predicts that 50\% of the world's population now live in cities and this figure will be 60\% in 2030. Over 75\% of energy consumption is directly related to cities and per capita energy consumption is increasing fast in many cities especially in the developing countries (The world Watch Institute, 2007). The fasted growing energy technology in the world is grid-connected solar PV (growing capacity by 60\% per year from  {\ref [2000]} {\ref [2001]} {\ref [2002]} {\ref [2003]} {\ref [2004]}, to cover more than 400,000 rooftops in Japan, Germany, and the United States. The average annual growth of PV market over the last 15 years is 30 percent.     {\ref Data (1973 and} Source: Prepared from International Energy Agency  {\ref (2008)}.\par
Table -3 provides information on fossil fuel emission produced from different fuel sources. 
\section[{Table 3 : GHG Emission Factor}]{Table 3 : GHG Emission Factor}\par
Fuel mixed grid electricity production contains huge CO 2 , CH 4 , N 2 O emission. 
\section[{Note: Global warming Potential of GHG 1 ton CH 4 = 21 tons CO 2 1 ton N 2 O= 310 tons CO 2}]{Note: Global warming Potential of GHG 1 ton CH 4 = 21 tons CO 2 1 ton N 2 O= 310 tons CO 2}\par
The GHG emission from electricity production of 20062 MKwh in 2004 is 9 million tons. The emission is increasing with the years.\par
Source: RETScreen analysis in SWERA report 2007.\par
With availability of effective bright roof areas, satisfactory global irradiation and sunshine duration, the environmental concerns are very practical and pragmatic consideration for the installation of the photovoltaic systems. As a result, countries with capacity of technological innovation and strong economy have emphasized on harnessing energy from the renewable resources. The Kyoto Protocol prescribed that countries largely contributing to GHG emission could take part in emission trading, clean development mechanism and joint implementation to reduce their shares of GHG emission. Germany, Japan, Netherland etc. are some of the industrialized countries, which have been shown their obedience to the protocol since it was adopted. 
\section[{IV.}]{IV.} 
\section[{Energy Concern a) Bangladesh Energy Concerns}]{Energy Concern a) Bangladesh Energy Concerns}\par
Before 2006, only 40\% people of the country are connected to grid electricity and the rest depend mostly on biomass energy, kerosene and diesel powered electricity. Remote villagers and coastal energy users are suffering from energy use. Most of the households do not have access to electricity as there is no power distribution network in the coastal areas. Kerosene is the most common fuel used by the households for illumination purposes. Price of kerosene is often subject to fluctuations with price going up in the event of scarcity of supply. The quality of light from kerosene lamps is poor and not adequate enough for all purposes. Besides, it pollutes the household environment through emission of smokes and is also hazardous. The households have to use dry cell for running different appliances like radio, emergency lighting. The price of dry cell is relatively high. This causes extra financial burden to the household budget. Recently there is a scarcity of biomass fuel for cooking in Bangladesh. The scarcity takes serious in the rainy season because biomasses are under water.\par
Small-scale private generators are in operation in some markets to provide electricity to the shops for limited hours, usually after the evening. The commercial shops in the non-electrified market places use kerosene lamps, candles, etc. which are not found suitable for their activities. The electrified shops face problems of load shedding, irregular supply of electricity and poor service by the utility agencies.\par
Most of the industrial units and irrigation pumps located in the coastal areas have no access to the gridbased supply of electricity. They are run by diesel. The diesel engines are facing many mechanical problems. The electrified industrial units suffer due to load shedding, non-cooperative attitude of the utility agencies and their poor service quality. and frequent interruption in the supply of electricity affect the industrial units adversely causing a cut in production and revenue. Although Bangladesh is also not a big contributor to global greenhouse gas emission, the imminent consequences of climate change in the country are likely to be higher due to sea-level rise and frequently occurring catastrophes. Meanwhile the country has experienced massive destruction due to severe cyclones in the south and frequent flood events, which are reported to be the result of global climate change. It is evident (experts' opinions) that due to the accelerated industrial growth of the developed countries, relatively low-lying countries (e.g., Bangladesh, Maldives) are getting more vulnerable to climate change. 
\section[{b) Dhaka Mega City Energy Problem}]{b) Dhaka Mega City Energy Problem}\par
The population of Dhaka City was 6.15 million in 1991. The number of inhabitants in the Dhaka Mega City rose to 14 million in 2008 (2015) now it is 17.9 million. Unofficially the number would be higher than formal statistics. With the dramatic growth of the size of the city population, the demand for energy consumption has also been increased manifold. However, the power situation is not satisfactory at all. The whole system of electricity distribution is poorly managed and continues with more than 30 percent system loss mainly through illegal connections \hyperref[b1]{(Alam et al. 2004}). Power supply is quite inadequate compared to its peak demand in summer. Dhaka Megacity is supplied around 1, 000-1,200 MW, of electricity against the peak demand of nearly 2,000 MW. The country as a whole continues to have 1,500 MW of deficit, while Dhaka City lacks more than 500 MW.\par
In Dhaka, the total number of households is reported to be 1,796, 950 where 1, 6252,525 of them are identified as urban and the rest 144,425 are rural households  {\ref (BBS, 2006)}. Electricity connections in these households are increasing over the decade. In 1991, the electricity connected households were 74\% which increased to 88.76\% in 2001. More than 10\% households of Dhaka are still without electricity connection. The electricity demand of Dhaka Megacity is increasing at an alarming rate every year due to the rapid growth of population along with the growth of electricity connectivity. Currently the demand is around 1,500-2,000 MW, but DESA can supply a maximum of 1,000-1,200 Mw, which is not satisfactory to the existing demand. As a result the city experiences huge load shedding. The good news is the present government take huge steps to install nuclear plants for electricity generation and made agreement with India for quick rental electricity supply. Although the city has 0.8 million domestic gas connections, many of the households are still without gas connections including slums. Recently compressed natural gas (CNG) has drastically changed people`s transportation system and mobility in the city. Now all vehicles use CNG as their fuel. City dwellers are buying cars that contribute to air pollution in Dhaka city  {\ref (Hosssain and Badr, 2005)}.\par
Nearly 40\% of the population of Dhaka Megacity is the slum-dwellers. In 2005, the slum clusters identified in Dhaka Megacity was 4,966, which shared 3.4 million people out of city's nearly 9.1 million  {\ref (CUS et.al. 2005)}. Slum population rises to 5.2 million out of total 14 million in 2009. Within the DCC wards (134.282 KM 2 ), their informal settlements have occupied nearly 10km 2 . Nearly 96\% of these slum communities are provided with grid electricity with obvious poor connection facilities. The entire households of the slum settlements 3-5 MW electricity can be generated from the off-grid SPV systems. Electricity crisis can immediately solve by nuclear power plant. But the problem would be with the disposal of highly radioactive wastes, although nuclear power would be increasingly important source of the world`s electricity mix \hyperref[b17]{(Doman, 2004)}.\par
V. 
\section[{Why Need Renewable Energy}]{Why Need Renewable Energy}\par
Reduction of global greenhouse gas emission to seize global warming requires minimizing the use of fossil fuels. To achieve this, a large scale use of renewable energies must be made over the globe for production of electrical and thermal energy. World resources of oil, gas, and coal are limited and there is a global concern about this but, for Bangladesh the situation appears to be extremely unhappy as per capita reserve of fossil fuels is only 1/50 th to 12/100 th of world per capita.\par
According to a recent study by the World Health Organization, around 46,000 people die every year in Bangladesh from exposure to indoor air pollution caused by inefficient traditional cook stoves, with 70\% of the victims being children under age of five years. Around 90\% of the households in Bangladesh uses biomass fuels and low efficiency stoves for cooking resulting incomplete combustion and corresponding Indoor Air Pollution (IAP) through emissions of greenhouse pollutants and particular materials. It causes severely adverse health impacts which are particularly acute for women and children who are the most exposed groups to indoor air pollution.\par
The rapid growth of population, industrialization, urbanization and standard living of people demanded for energy and electricity lights. The production and consumption of global energy are still dominated by the non-renewable energies (petroleum, natural gas and coal). These non-renewable energies are mostly used for electricity generation. In 2005, electricity generation worldwide was 17,450 TWh, out of which 40\% was generated from coal, 20\% from gas, 16\% from nuclear, 16\% hydro, 7\% from oil and only 2\% from renewable sources such as geothermal, solar, wind and waste  
\section[{a) Large Electricity Deficit in Bangladesh}]{a) Large Electricity Deficit in Bangladesh}\par
The country had an initial installed capacity of 5,202 MW (current rerated capacity-4,000 MW mainly due to ageing of infrastructures), while average electricity generation at present is around 3,700-3,800 MW against the present demand of over 5,000 MW (BPDB, 2009; World  {\ref Bank and GTZ, 2009)}. Alongside; however, the country's electricity demand is increasing over 500MW each year \hyperref[b67]{(Stromsta, 2009)}.\par
Therefore, Bangladesh has been suffering from energy crisis. Huge load shading, lack of sufficient energy for agricultural irrigation is because of energy crisis. Heavy industries in Bangladesh cannot be developed because of energy crisis. Before 2000s, rural people use biomass fuel for cooking. 50\% energy obtained from biomass energy in the rural areas. Indigenous gas (available within the field), oil (petroleum and coal (few from Bangladeshi coal mines and imported) are the major source of primary commercial energy in Bangladesh. Hydroelectric energy sources are managing by the public sector which is very limited and inefficient. The country's power is being mostly generated with conventional fuel (82\% indigenous natural gas, 9\% imported oil, 5\% coal) and renewable sources (4\% hydropower and solar). According to Bangladesh Bureau of Statistics  {\ref (BBS, 2006)}, around 32\% people of the country had electricity connection, and around 4\% have natural gas supply. Currently around 40\% people are connected with electricity grid. But still 60\% people throughout country are still remaining without electricity  {\ref (Kabir \& Endlicher, 2012)}. However, the annual GDP growth of electricity is gradually rising  {\ref (BBS, 2006)}. The electricity connection statistics show more disparity between urban and rural areas. In the urban areas, 70.32\% households are connected with electricity, while only 29.68\% of the rural households are having electricity connection  {\ref (BBS, 2006)}.\par
The emission of carbon-dioxide in Bangladesh in 2004 was 37.17 million tons and the per capita emission was 0.25 tons. Nevertheless, traditional use of biomass, such as, burning wood, agricultural residues, dung, and livestock along with industrial emission, automobiles are the sources of GHG emission in the country. These gases cause indoor air pollution and health hazards to the people  {\ref (Uddin et al. 2006}). In the energy sector, the two largest greenhouse gas emitters are electricity generation and non-energy use (Urea fertilizer production). These sectors emit approximately 50\% of the country's total GHG emission (Alam et al. 
\section[{ND.)}]{ND.)}\par
Bangladesh is one of the most disaster prone countries in the world, and is vulnerable to various devastating disasters like cyclone, tidal surge, sea level rise etc. The imminent consequences of global warming due to increase of GHG emissions will certainly affect the deltaic Bangladesh. The country has experienced with massive coastal cyclones and saline intrusion. It is predicted that in the near future, more severe impacts are likely to happen if immediate measures are not undertaken. This tremendous power shortfall and air pollution drives for alternative energy (solar home systems) exploitations in Bangladesh. Solar home systems  {\ref (SHSs)} has covered more than 2.2 million households providing at least some lighting (February, IDCOL, 2015). 
\section[{b) Greenhouse Gas Emission Reduction in Dhaka}]{b) Greenhouse Gas Emission Reduction in Dhaka}\par
Dhaka is one of the most polluted cities in the world. The concentration of CO 2 , other oxides of carbon, nitrogen, sulphur and other pollutants have already crossed the danger level in the sky of Dhaka Megacity.\par
Emission from industries, brick kilns and automobiles are the major sources of the city's pollutions. In Dhaka, there are around 5,000 slum and squatter clusters where more than 3.5 million people live  {\ref (CUS et al. 2006}). In most cases, the slum dwellers burn crop residues, wood, furnace oil, kerosene for cooking and domestic power, which cause massive indoor air pollution and poisonous gases including CO 2 . In order to reduce the emission from the automobiles, the two-stroke engine autos have already been banned from the city, but practically this is not enough to make the situation sustainable. Most of the non-renewable sources (petroleum, natural gas, coal) emit large extent of greenhouse gases. The renewable sources like solar PV system, wind turbines release very low greenhouse gases, which can play a significant role in improving the atmospheric condition of the Megacity of Dhaka. In order to reduce the greenhouse gases to global warming, there is an urgent need of the RETs utilization in Dhaka Megacity. One million ton of coal is to be extracted per year from Barapukuria coal mine in Bangladesh. This is equivalent to 0.03 tcft gas and should provide 240 MW generations by 2007. The following table  {\ref 6} shows the coal deposits discovered so far in Bangladesh. 
\section[{c) Conventional Energy Supply and Resources}]{c) Conventional Energy Supply and Resources}\par
Energy consumption per capita in Bangladesh is extremely low compare to neighbouring countries as shown in Table  {\ref below}  The consumption per capita is half of even Nepal and 1/10 th of the world. A much higher consumption must be made to raise GDP and to alleviate poverty in Bangladesh.\par
India has already achieved a remarkable progress in generating power from different renewable energy sources especially solar PV systems, and a substantial amount to budget is allocated in this sector on regular basis to promote the RETs . The country has an annual capacity of electricity generations of 140 GW, in which 32.1\% can be generated from renewable sources including large hydro-projects and the rest can be produced from nonrenewable sources (REN21, 2007). The Government of India has recently decided to electrify 67 million remote rural households with solar home systems, where kerosene is used as the major source of energy \hyperref[b15]{(Chaurey and Kandpal, 2009)}. By the year 2020, India has a target of achieving 20 GW of PV generated power. 
\section[{VI.}]{VI.} 
\section[{Energy Status in Bangladesh}]{Energy Status in Bangladesh}\par
About 90\% of the population in vast rural areas were practically without electricity. For the benefit of this vast rural people, REB (Rural Electrification Board) was established in 1977. It provides electricity to consumers in a selected area by forming a Rural Electric Cooperative called Pally Bidyut Samity (PBS). Activities of rural electrification co-operative are given below a) Imported Fossil Fuels Bangladesh transport system depends almost totally on imported liquid fuels, but good news is after 2008, CNG fuel is using from national source. Kerosene is used widely for lighting in villages while diesel generators are getting unavoidable. The amount of crude oil and petroleum products imported is shown above in Table \hyperref[tab_6]{7}. )\par
The Table \hyperref[tab_8]{8} shows cost imported petroleum products is huge in Bangladesh. The good news is now Bangladesh is using less polluting local CNG fuel in vehicles and it is popular there. However, natural gas reserves in Bangladesh are likely to be depleted before 2020 and electricity production from gas may stop. Therefore, more energy supplies using RETs must be developed and utilized. 
\section[{b) Electrical Energy}]{b) Electrical Energy}\par
During financial year 2005-06, per capita consumption was 136kWh whereas per capita electricity generation was reported to be 167kWh (SEWERA, RERC, 2007). At present, the electricity supply situation little better than previous. The Government installed several nuclear plants for generating electricity power. However, during peak season (agricultural irrigation season) 5 am-10 pm 600 Mw of load shedding is required  {\ref (CES, 2006)}. The World  {\ref Bank (2007)} estimates an annual loss of nearly 1 billion dollars in Bangladesh due to its unreliable power. \hyperref[b67]{Stromsta (2009)} reported that the power demanded in Bangladesh is increasing at the rate of 500 MW per year. The maximum electricity generation was 4,130 MW in 2007 and 4,036.7 MW in 2008.\par
The availability of the most useful form of energy, electricity, is again extremely small as shown below Table \hyperref[tab_9]{9}.  The shortfall in electricity generation continues till today mainly due to old inefficient generators requiring heavy maintenance.\par
The table below presents Bangladesh fossil fuel reserves. It is found Bangladesh gas reserve is around 1/250 th while coal reserve is 12/5000 th of the world reserves \hyperref[b68]{(SWERA, 2007)}. Per capita reserve of gas in Bangladesh is then around 1/5 th and of coal 1/100 th of world per capita. This situation is enough for Bangladesh. Fossil fuel reserves of Bangladesh are compared with world reserves in the Table \hyperref[tab_10]{10} below.  
\section[{c) Coal}]{c) Coal}\par
Bangladesh began its first significant coal production in April 2003 with the opening of the Barapukuria Coal Mine in Dinajpur area of north-west Bangladesh with an estimated reserve of about 300 million tons. It is planned that 85\% of its annual production of 1 million ton will be utilized to produce electricity; the rest will be used as fuel for brick making and other purposes. 
\section[{d) Oil}]{d) Oil}\par
Bangladesh contains small oil reserves of 56.9 million barrels and produces around 7000 barrels per day (bb1/d) of which 6000 bbl/d is crude oil  {\ref (Power Cell 2006)}.\par
Natural Gas: Natural gas is Bangladesh's only sizeable source of commercial energy with total production of 5.5 tcf. Estimates from Petrobangla put net reserves at 15.3 tcf as of mid 2004 (proven reserve is lower)  {\ref (Power Cell, 2006}). 
\section[{e) Hydro}]{e) Hydro}\par
At present only 230 MW of hydro power is utilized in Kanarfuli Hydro Station, which is the only hydro-electric power plant operated by Bangladesh Power Development Board (BPDB). Apart from Kaptai, two other prospective sites for hydro power generation at Sangu (100 MW) and Matamuhuri (75 MW) river are identified by BPDB (BPDB, 2009). 
\section[{f) Traditional Biomass Energy}]{f) Traditional Biomass Energy}\par
Biomass is the most used energy source in Bangladesh which accounts for 76\% of the total final energy consumption in Bangladesh. The main sources of biomass fuels are: Trees (wood fuels, twigs, leaves, and plant residues), agricultural residues (paddy husk, bran, bagasses, jute stick etc.) and livestock (animal dung). The biomass is used for mostly for cooking in rural areas and for rural industries. It forms 68\% of total energy supply while 32\% is supplied by commercial energy (including hydro power)  {\ref (Kabir \& Endliocherr, 2012)}. Inefficient cookers employed produce unhealthy oxides and particles from traditional ovens. Presently 12 million tons of coal equivalent biomass is consumed in the industrial and domestic sectors along with commercial energy. Fire wood forms only 10\% of the fuel supply that indicates in the Table-11 below.   
\section[{Renewable Energy Application in Bangladesh Until 1990s}]{Renewable Energy Application in Bangladesh Until 1990s}\par
Solar energy owns a share of more than 99.9\% of all the energy converted on earth (Kaltschmitt and Wiese, 2007). The amount of energy sent to the earth from the sun each year is equivalent to almost 15,000 times of the world's commercial energy consumption and more than 100 times the world's proven oil, gas, and coal reserves . The continuous supply of the solar energy to the earth's surface is equivalent to a power of about of 100,000 TW \hyperref[b56]{(Kuhne and Aulich, 1992)}. Solar energy is inexhaustible and available throughout the year all over the world.\par
Despite the availability of enormous potential of renewable energy, there has not been any significant progress in the promotion and development of RETs by public sector and other sectors until 2010 \hyperref[b48]{(Kabir, 2011)}. It is because highly expensive installation devices, high maintenance costs and lack of strong political commitment. Till to date, the large part of the energy demand of the country (Bangladesh) is fulfilled by traditional biomass, which is predominating particularly in the rural areas. Biomass is the source of energy supply to the rural villagers, but it is unhealthy. Hence there is immense potential in solar energy utilization across Bangladesh because Bangladesh is rich is sunshine whole year. Wind and tidal energy generation potentials exist in the coastal areas. Now huge solar home system is installing across Bangladesh rural areas by NGOs, private sector even public sector promote SHS in Bangladesh. 
\section[{a) Hydropower}]{a) Hydropower}\par
Bangladesh is a flat country does not possess extensive potential in hydropower resource except some small hydro-projects. Karnafuli Multipurpose Hydroelectricity Project (KMHEP) is the first renewable energy development project in Bangladesh setup in 1957  The major sources of energy of the country are natural gas, coal and a limited hydroelectric capacity.\par
The entire reserves of exploitative indigenous fossil fuels, with the exception of the coal reserve, are located in the eastern part of the country. This results in a gap of commercial energy supply between the east and the west (Hossain and Badr, 2005). This differentiation is because of indigenous gas fields are located in the Eastern part of Bangladesh and imported oil. In 2004, the shares of natural gas, oil, coal and hydroelectricity to total primary energy consumption were 70.8, 25, 24 and 1.8 percent, respectively  {\ref (British Petroleum, 2005)}.\par
The Government of Bangladesh declared new gas connections shall be no more in Bangladesh (Daily Promothom Allo, May 04, 2015), it is because scarcity of gas in Bangladesh. The entire urea fertilizer manufacturing is based on natural gas. Power plants, fertilizer factories, other industries (e.g. brick kilns, tea processing plants, steel mills, and textile factories), commercial organizations e.g. offices and business centres) and the domestic sector are the end users of natural gas in the country. The gas consumption in the year 2004-2005 was 487 bcf, which on a daily basis is 1,334 MMcfd (million cubic feet per day). This indicates that there has been a large increase in gas consumption. Captive power generation and CNG refuelling are the two demand areas that are responsible for the large increase  {\ref (Kabir \& Endlicher, 2012)}.\par
Petroleum Oil is one of the most important sources of energy in Bangladesh. The country utilizes mostly imported petroleum from the OPEAC for mainly transportation, some electricity generation and industrial heating. The major coal deposits of the country are located at Jamalgonj in Jaipurhat, Baropukuria and Phulbari in Dinajpur and Khalispur in Rangpur. It is estimated these coal fields could have 2.55 billion tons of reserves in Bangladesh (Energy and Power, 2009). 
\section[{VIII.}]{VIII.}\par
Bangladesh Renewable Energy Sources and Technology Practices Bangladesh though a small country it has numerous potential sources of renewable energy, for instance, biomass, solar energy, hydropower, wind and tidal energy. Rural people uses energy from traditional biomass-cow dung, domestic wastes, jute stick, rice straws, twigs, etc. Hydropower generates around 5\% of the total consumption. So solar and wind energy is find a great potential source of energy in Bangladesh. In Bangladesh, although very few biomass gasification plants have been installed, many biogas Projects Undertaken in Bangladesh. For example, over 24,000 biogas plants have been installed all over Bangladesh (Energy \& \hyperref[b60]{Power, 2007)}. Biogas plants in the rural areas are run mainly with animal dung and domestic wastes. The urban solid wastes include wastes from households, industries, hospitals are used in biogas production, but urban biogas production is very limited. 
\section[{a) Solar Energy Technologies}]{a) Solar Energy Technologies}\par
Generation of solar electricity from solar radiation is basically made with solar cell, which is mainly a silicon-made solid device. A solar cell is defined as a device that directly converts sun-light into electrical energy through the process of PV systems. In order to generate electricity from solar radiation, an offgrid stand-alone or island system generally needs several devices, such as, solar panel, battery, inverter, charge-controller and necessary cables and tools. Energy is generated by the solar panels as direct current (DC), and converted to alternating current (AC) by the inverter. The battery is needed for the off-grid PV systems to store power, and the charge controller maintains the battery at the highest possible state of charge (Grameen Shakti, 2015; SWERA, 2010). Solar cells are electrically connected and placed between glass and tedlar plate, and framed by an aluminum frame. Number of solar-modules and other components (batteries, charge regulators, inverters) can form large photovoltaic systems. 
\section[{Basic considerations of Solar PV Applications}]{Basic considerations of Solar PV Applications}\par
The angle of the sun throughout the year is important for the assessment of solar incoming radiation. Moreover, extreme wind speed, lightening, moisture and dust can harm to the panels. The temperature of a certain place is a very important factor to receive the optimum amount of solar energy. Normally in a geographical area with 25 o Celsius temperature, panels produce the maximum level of solar energy. The more and lesser the temperature than 25 o Celsius, the less is the generation of electrical power. It is important to assess the temperature throughout the year. The geophysical features of Bangladesh favours installations of solar home systems everywhere in Bangladesh \hyperref[b1]{(Alam et al.(2004)}; \hyperref[b21]{Eusuf (2005)}; SWERA (2010). It is appropriate areas with more than 25 O Celsius in most of the time a year, panels can be installed in the wall of the buildings so that enough wind to keep temperature close to 25 O Celsius. Solar tracking system can be effectively used between 23 O and 550 latitudes of both hemispheres  {\ref (Kabir \& Endlicher, 2012)}. Moreover site selection is very important for the installation of large-scale solar PV plants. Mounting of panels is essential to capture optimum level of electricity. The locations having more provision of having sun occurrence are likely to be most suitable areas. 
\section[{b) Solar Energy}]{b) Solar Energy}\par
Solar PV generated lighting program in Bangladesh primarily includes on rural houses, small businesses, and income generation activities in the remote rural areas which is being implementing by Grameen Shakti, and other NGOs in Bangladesh. Many SPV aimed at providing income generating opportunities through running motors, permitting longer working hours and facilitating longer selling hours by rural traders.\par
In Bangladesh, the private sector, commercial as well as non-profit organizations have chosen at least an important renewable energy source for the economic realization. In the initial promotion of SPV, Rahimafrooz, a private battery manufacturing company in Bangladesh played an important role despite having it an unprofitable business due to high tariffs and duties. Rahimafrooz continued to emphasize manufacturing solar grade deep cycle batteries to go with the imported systems. Other private companies like Microelectronics, First Bangladesh Technology and Bangladesh Energy Advanced Studies have also looked for a market share.\par
The government sponsored organization infrastructure Development Company Limited (IDCOL) in Bangladesh has been involved to a large extent in the promotion of SPV systems and has already installed around 450,000 solar home systems all over the country through the partner NGOs \hyperref[b31]{(Haque, 2008;} {\ref IDCOL, 2009)}. Grameen Shakti and Bangladesh Advancement Committee (BRAC) in Bangladesh initiated its solar program in 1997 to electrify remote locations too in Bangladesh. Many other NGOs have also involved in installing solar PV systems, biogas plants, wind turbines, hot box cookers and PV-diesel hybrid systems . 
\section[{c) Solar Tracking System}]{c) Solar Tracking System}\par
Among the PV systems, solar tracking system is considered as the latest and most advanced system. It is also known as solar tree or solar concentrator. This system produces additional generation of electricity than the roof mounted system allowing for more efficient convertors for electricity generation  {\ref ( Kuhne and Alulich, 1992)}. With the movement of the sun, the solar concentrator moves to receive the maximum solar radiation. However, this tracking system is very expensive around E25, 000 (twenty five thousand Euros  {\ref (Kabir \& Endlicher, 2012)}.  
\section[{e) Roof Mounted Solar PV System}]{e) Roof Mounted Solar PV System}\par
Compared to the solar tracking systems, rooftied PV system is a cheaper option for the households. Grid connected roof-mounted system appears to be very profitable and secured, although the initial investment is high. 
\section[{f) Building Integrated PV (BIPV) System}]{f) Building Integrated PV (BIPV) System}\par
Building Integrated PV (BIPV) system is installed on the surface of the buildings combining solar electricity generation with other functions of the building structure  {\ref (Bakos et al. 2003)}. Such systems usually consist of the PV module and waterproofing elements, a PV combiner, a grid inverter and an import /export meter. However, the application of PV systems on the urban building in Dhaka is absent. 
\section[{g) Ground Mounted Solar PV System}]{g) Ground Mounted Solar PV System}\par
Like roof mounted system, ground mounted grid connected PV system also produces satisfactory amount of electricity. However, here needs open space or land. However, this Ground Mounted Solar PV System is not popular in Bangladesh because scarcity land. 
\section[{h) Stand alone or Island SPV Systems}]{h) Stand alone or Island SPV Systems}\par
Stand alone or Island SPV System is known as an autonomous system. This system is very much popular in Bangladesh, India, Sri Lanka, Ethiopia Indonesia and many other Asian and African countries. The capacity of the solar homer system ranges between 300-2,400 watts. Grameen Shakti and few other agencies in Bangladesh have been installing solar home systems in the remote rural areas of Bangladesh since 1997, which are basically stand-alone PV systems. 
\section[{i) Wind Energy}]{i) Wind Energy}\par
Wind energy utilization in Bangladesh is still in the early stage. In the coastal areas, there is a very good potential of generating 20,000 MW of electricity (SEWRA/RERC, 2007). Recently in 2008, 50 wind turbines having capacity of 20kWh each has been installed in Kutubdia, a detached off-shore island of Cox's Bazar District with the self-funding of the BPDB ( Kabir \& Endlicher, 2012; The Daily Ettefaq, 2008). This wind-battery hybrid system has rarely helped in solving the electricity crisis in the island. 
\section[{j) Tidal Energy}]{j) Tidal Energy}\par
Tidal Energy is a form of hydropower that converts the energy of tides into electricity or other useful forms of power. Tidal power has the potential for future electricity generation although tide energy harnessing in the world is still very negligible. Tidal energy has an efficiency of 80\% in converting the potential energy of the water into electricity. In the coastal part of Bangladesh, the normal tidal head rise and fall between 2 m and 8 m (SWERA, 2007). This tidal range can easily be converted into pollution free clean renewable energy by using the simple low-cost technology of a "tidal Wheel" in the sluice gates. 
\section[{IX.}]{IX.}\par
Institutional Arrangement for Renewable Energy (RE) Exploitations in Bangladesh\par
The government has made its visionary statement to provide electricity to all by the year 2020  {\ref (MPERMR, 2008)}. In order to achieve this target, there are no so many options before the government except electricity generation through solar PV applications, proposed nuclear power plant and coal based power plants. SHSs can rapidly reach to rural areas with less infrastructure cost from the state. Nevertheless for electricity generation, even now, more than 80\% indigenous gas is used, while the reserve is rapidly declining due to over exploitation and misuse (IDCOL, 2014; SWERA, 2007). The other uses of indigenous gas include domestic, industrial (e.g., fertilizer production) and transportation. As result the only abundant source of the country's fossil fuel is reducing at a rapid pace. After 2015, the fuel share of gas reduces from 85\% to 61\% and only 1\% by the year 2030 (IDCOL, 2014; Kabir \& Endlocher, 2012). It can be disavowed that after natural gas exhaustion, the country has to heavily depend on coal based generations. But the exploitation of coal often creates social and environmental problems. In such s situation, the government can only encourage investment and other supports for solar power exploitation although only solar PV systems cannot solve the power crisis. In order to provide lighting to the inaccessible areas, the government owned company IDCOL has been assigned to develop installations of solar home systems under the Rural Electrification and Renewable Energy Development Project (REREDP). Grameen Bank is working by the support of IDCOL in Bangladesh.\par
The  
\section[{a) Affords to increase Energy in Bangladesh}]{a) Affords to increase Energy in Bangladesh}\par
Government of Bangladesh has declared its vision to provide electricity for all by the year 2020. To fulfill this target, utilization of renewable energy technologies could play a vital role for off-grid electrification with minimum fiscal cost. Currently Bangladesh has made an agreement with Russia to build thermonuclear fusion energy plant for generating electricity and installed nuclear reactors plant at Rupur for 1000-2000MW, there could less risks associated with modern nuclear reactor technology. However grid connection all over Bangladesh is very expensive. 
\section[{X.}]{X.} 
\section[{Scope of Renewable Energy use in Bangladesh}]{Scope of Renewable Energy use in Bangladesh}\par
The recent rapid rise in the growth of solar PV and wind based power generation capacity is not only to gradually replace the conventional power supply system but also to meet the obligations of global climate protection. The developing countries (China, India, and Bangladesh) which are still struggling to produce enough power for their growing industrialization as well as other sectors are focusing on power supplement from the alternative sources. Given the rapid decline of conventional fuels, countries round the globe have devised supportive policy strategies in order to enhance RES exploitation. Among the new renewable (solar, wind, modern biomass, geothermal heat etc.), the installed capacity of wind based power generation is dramatically rising in some of the developed (e.g. USA, Germany, Denmark and developing countries (e.g. China, India). However, the installed capacity in solar PV systems (mainly grid connected systems) takes place mostly in the developed countries (e.g. South Asian countries of India and Bangladesh  {\ref (Kabir \& Endlicher, 2012)}. Until the end of 2008, the global capacity of solar PV systems is just less than 17 GW, while grid connected system accounts for 13 GW and off-grid system is 4 GW. Until now (2010, Germany alone has already achieved an installed capacity of 7 GW, which is more than the existing power demand (5-6 GW) of Bangladesh \hyperref[b75]{(Weiss et al. 1998;}\hyperref[b76]{and Wengenmasyr, 2008)}. In Bangladesh until 2010, the exploitation of RES mainly apply solar home systems in the rural areas, a few wind based power generation plants and biogas plants.\par
Bangladesh has an enormous potential in solar energy, and therefore the installations of small and large-scale PV systems can help to reduce its current share of GHG emission. One family using a typical solar home system can save yearly 290 litres of kerosene by using solar lighting technology and can prevent the emission of 0.76 ton CO 2 per year (SWERA , 2007). 
\section[{a) Energy demand Scenarios in Bangladesh}]{a) Energy demand Scenarios in Bangladesh}\par
Two economic growth scenarios (Low Scenario and Reference Scenario) were considered to forecast future energy demands as presented in Tables \hyperref[tab_16]{13 \& 14}. Projected demands for commercial energy and electricity up to the year 2020 under both the scenarios are presented in tables below. Based on this estimation, the currently installed 450,000 solar home systems all over the country can save 130 million litters of kerosene and 342,000 tons of CO 2 annually (IDCOL, 2014). To consider as rural community based market (50 shops and a 10w florescent bulb each) with solar PV system for lighting that replaces diesel generator can mitigate 1.1 tons of CO 2 per year (Ibid, 2014).\par
The recently approved renewable energy policy sets targets to meet 5\% of the total power demand by 2015 and 10\% by 2020 (MPEMR, 2008). The Government of Bangladesh has a target of reducing 6.4 million tons of CO 2 emission through the generation of 2,200 Mw of electricity from renewable sources by 2020. SWERA/RERC (2007) calculated CO 2 reduction possibility with the applications of solar systems and wind turbines. \hyperref[b61]{Rahman (2009)} reported that on an average 1.8 kWp solar PV system can reduce 900 kg of CO2 emission annually. According to this estimation, the applications of SPV systems on the bright rooftops of Dhaka (in the case of 1,000 Mw of electricity generation) will roughly reduce 500 million tons of CO 2 per year. Although the target seems to be ambitious and farreaching given the country's RET application scenario, it can be treated as the positive indication towards the application of renewable energy technologies.\par
In Bangladesh, 60\% of the total population still depend on biomass based energy. Agricultural residues (rice straws, jute sticks, rice husks etc.), cow dung, twigs etc. have been being used as fuel for cooking by the rural households since time immemorial. But the inefficient use of traditional fuel sources produces immense indoor air pollution causing massive health hazards particularly to women and children. At the same time, there has been a decline in the supply of biomass mainly due to the high population pressure on agricultural production (Grameen  {\ref Shakti, 2015)}.\par
The major attention of the RE technology is still concentrated into the rural areas although the urban areas generate enormous solid wastes which can be used for power generation and to produce compost. By 2010, the renewable energy sources (especially hydropower) contribute only 4\% of the total power generation (4,000 MW) \hyperref[b32]{(Hussain \& Badr, 2005)}. The installed capacity of solar PV based power generation accounts for only 25 MW (by 2010) and the wind based generation capacity is still very insignificant (4MW) (IDCOL, 2014; SWERA, 2007).\par
However, the geophysical characteristics (Global horizontal irradiation, sun shine duration etc.) of Bangladesh are fully favourable to solar photovoltaic application. But there has been a very significant progress achieved, mainly due to the absence of supportive policy, strong political will and people's awareness. In Dhaka City mentioned earlier there is massive gap between power supplies (1000-1200 MW) and the demand is 2000 Mw. As a result of this huge deficit, there has been a growing interest among people about the solar PV installations for power supplement.\par
The country has potential in wind power generation particularly in the coastal areas, although there is still lack of reliable wind speed data. Bangladesh being an agrarian country produces enormous biomass energy which can be used to generate biogas for clean fuel for cooking and electricity for lighting in the rural areas. However, in spite of enormous potential biogas technology has not been well accepted due to initial expenditure.\par
In Dhaka Megacity, the application of solar PV systems on the bright roof-tops can generate more than 1,000 MW of electricity (at 105 efficiency with 75 Wp modules) preferably through grid connected PV systems.\par
Practically the slums are reported to have least attention from electricity supply point of view. Electricity demand for the informal housing is comparatively very low. The roof-tops of these informal settlements can be effectively used for stand-alone PV applications, which are popularly known as solar home systems in the rural areas. Therefore, solar home systems can effectively generate electric power for these settlements. the demand, nearly 3-5 MW electricity (600-1,000 Watt in each slum cluster) can be generated through the application of stand-alone PV systems. The electricity demand of the slums can sufficiently be met-up through stand-alone PV installations. 
\section[{b) Favourable Geophysical Situations in Bangladesh}]{b) Favourable Geophysical Situations in Bangladesh}\par
The geographical location of Bangladesh on the globe, space availability (land availability, available bright roof surface etc.), global horizontal irradiance (GHI), sunshine hours etc. have been identified as the geophysical situation. The receipt of solar radiation depends on the latitude of the area. The geographical location of Bangladesh (between 20034' and 26038' north latitude and between 88001' and 92041' east latitudes) lies in one of the best locations, which is wellsupportive to capturing enough solar radiation for electricity generation  {\ref Hossain and Badr, 2005)}. Bangladesh is grouped as the first category with best location for PV systems. However, due to lack of financial and technological support, political commitment, it fails to exploit the abundant solar energy at the optimum level. 
\section[{c) Sunshine Hours and Solar Radiation}]{c) Sunshine Hours and Solar Radiation}\par
From solar energy generation perspectives Bangladesh being located in the suitable global position receives very effective duration of sunshine. The period from November to May has the maximum sunshine duration, and the period from September-October is reasonable satisfactory. Due to the availability of sunshine throughout the year the GHI of Bangladesh is also satisfactory for solar power production. It is calculated that the total yearly amount of solar radiation received over the surface of Bangladesh is at least 2.4X 1014 kWh, while existing electricity generation is 2.0X1010 kWh. Therefore, the availability of solar radiation is 10,000 times of electricity generation (SWERA, 2007). The daily average GHI in Bangladesh is 4.29 kWh/m 2 and the annual receipt of solar radiation of 31 locations of the country is 1,566 kWh/m 2 . The SWERE project concluded that non-concentrating photovoltaic systems (stand alone or grid connected roof top) is feasible in the atmosphere of Bangladesh. Similar type of solar PV applications can be appropriate for the Megacity of Dhaka. 
\section[{XI.}]{XI.} 
\section[{Renewable Energy Applications and Businesses in Bangladesh}]{Renewable Energy Applications and Businesses in Bangladesh}\par
To achieve the target of making electricity for all citizens of Bangladesh by the year 2020, ensuring reliable and quality supply of electricity at a reasonable price is important. Many initiatives have being undertaken by public, private and NGOs. Nearly 2.5 million solar home systems have been installed in the remote off-grid areas all over Bangladesh through the government owned company IDCOL mainly with the financial assistance to local NGOs (IDCOL, 2014). Grameen Shakti is excelling in implementing solar home systems in Bangladesh. As of 2014, it has installed 1.7 million SHSs in Bangladesh. Like Grameen Shakti many NGOs are providing SHSs micro-loans to people for purchasing solar home systems in Bangladesh. More than 98\% return on loan instalment has been made by the consumers as reported by IDCOL's partner organizations \hyperref[b26]{(GEF, 2005)}. Although the installation capacity of solar PV system based electricity (currently around 25 MW and 50 MW by 2 million SHSs installed in Bangladesh) is still very negligible. However, solar PV systems like solar lanterns, solar home system, solar market electrification system, solar water pumping, solar refrigerator, and grid connected PV system; solar-wind hybrid system and solar-diesel hybrid system get popular in Bangladesh. 
\section[{a) Renewable Energy Service Promotions and Supports s by IDCOL in Bangladesh}]{a) Renewable Energy Service Promotions and Supports s by IDCOL in Bangladesh}\par
Bangladesh government promote and support renewable energy, saving energy and GH emission reduction have been the goals. The legal framework for the support of the renewable energy sources of the country from the government is the Infrastructure Development Company Limited (IDCOL), a project of the World Bank Bangladesh. IDCOL is providing financial support, technological support to the implementing RE projects in Bangladesh. For example GS, BRAC, Rahimaforz etc. get solar panel installation support from IDCOl Bangladesh.\par
Until 2010, IDCOL has installed nearly 450,000 home systems (mostly off-grid systems) through the partner organizations having a total installed capacity of nearly 25MW (IDCOL, 2014). Grameen Shakti leads the installation process providing more than 60\% of the systems alone. Solar home system normally used by the rural households consist of 4 florescent bulbs of 7 W each, 1 black-white TV of 15 W and a radio of 5W As mentioned earlier, one family using this small system can save yearly 290 litters of kerosene by using solar lighting technology and can prevent the emission of 0.76 ton CO 2 per year (SWERA/RERC, 32007). By installing 450,000 solar home systems all over Bangladesh can save 130 million litters of kerosene and 342,000 tons of CO 2 each year. However, the paper identifies has been identified that there is a large power deficit in Bangladesh, but there is a large untapped solar energy potential (favourable geographical situation geographical location on the globe, incidence of global horizontal irradiation, sunshine duration and day length, temperature, available bright roof tops) and the rising concerns of climate change. However CO 2 emission reduction can be done through clean energy (UNFCCC and Kyoto Protocol).\par
Wide scale used RETs in Bangladesh are shown in the following  
\section[{Barriers to greater utilization of renewable energy technologies in Bangladesh}]{Barriers to greater utilization of renewable energy technologies in Bangladesh}\par
There are plenty of barriers hindering (as of 2007) widespread development of potential RETs in Bangladesh. The main barriers are lack of information among the public and policy makers about the renewable energy resources, technical/economic information about RETs; assembly of renewable energy technology components and equipment are currently limited and the high upfront cost at the end user level for renewable energy is a major barrier in Bangladesh. According to the Power Cell (2006) of the Government of Bangladesh, the tentative target for renewable energy utilization by 2020 is shown below Table \hyperref[tab_19]{16} along with estimates for GHG reduction.  
\section[{GHG (Green House Gas) mitigation}]{GHG (Green House Gas) mitigation}\par
The following results for CO 2 reduction have been found for various proposed applications of RETs.  IDCOL's Financing to Various Renewable Energy Programmes in Bangladesh SHS is a convenient mode of supply power for small electrical loads such as lights, radio, and black \& white TV. The supply has proved to be reliable and the systems can be managed in rural areas with little training. The main components of an SHS are a solar panel, a battery, and a charge controller.\par
IDCOL starts its solar program in January 2003 with the support from International Development Association (IDA) and Global Environmental Facility (GEF) to fulfill basic electricity requirements in the rural areas of Bangladesh. IDCOL provides both grant and refinancing for 50,000 SHS over a period of five-andhalf years (January 2003-June 2008). The target was achieved in August 2006, three years ahead of the project completion period and US\$2.0 million below estimated project cost of US\$20 million. Therefore, the target was revised to finance a total of 200,000 SHS by the year 2009 with additional support from the World Bank, GTZ and KFW (IDCOl, 2014). There are 2, 12,481handlooms units and 5, 14,456 handlooms exist in Bangladesh. Here is an opportunity to install SHSs and support handloom people. SHS units may use in the public and private hospitals in Bangladesh. Total numbers of hospitals are 1383 (public hospitals number is 671, and nongovernment hospitals number is 712) (IDCOL, 2014; SWERA, 2007).\par
To reduce GHG emission in Bangladesh, IDCOL has massively financing to NGOs for Solar Home System installations. A typical Solar Home System often consists of 4 fluorescent bulbs of 7w each, 1 BW TV of 15 W and a radio of 5W. Normally a home uses Kerosene for Lanterns and charges battery from grid supply at far away locations. Table \hyperref[tab_19]{16} shows corresponding figures of saving kerosene and reducing CO 2 emission.   IDCOL now has a target of financing a total of 6 million SHS by 2017. Till August 2014, more than 3 million SHSs have been installed across Bangladesh (IDCOL, 2014). Around 60,000 SHS are now being installed every month under the program. The total number of beneficiaries is 15 million rural people which is more than 9\% of the total population of the country. The existing 2 million solar home systems have reduced consumption of approximately 230,000 tons of kerosene per year and hence, this contributed towards global drive of GHG emission reduction.\par
IDCOL provides three types of grant and concessionary refinancing support to its (POs): (a) the buy-down grant, provided to the customers to reduce the capital cost of HS; (b) the Institutional Development Grant, provided to Pos for their capacity development; and (c) the refinancing support (up to 80\% of the total credit), extended to customers by the POs.\par
IDCOL follows a unique sustainable business model with commercialization objective for dissemination of SHS ensuring ownership of each stakeholder. Under the structure, customers are required to pay minimum 10\% of the system cost net of grant as down-payment. The remaining 90\% is financed by a loan from PO (partner organization), which the customers pay over 3 years in monthly instalments. Subsequently, the POs apply to IDCL for refinancing and grant. These subsidy elements of the program are gradually being phased out and more commercial financing are being introduced.  {\ref Cost}   IDCOL has financed a 400 kW biomass gasification-based power plant along with precipitation silica production plant and 250 kW biomasses gasification based power plant. These plants use locally available agricultural residues i.e. rice husk as fuel for power generation. By 2016, IDCOL has a target of financing another 30 biomass gasification based power plants. IDCOL has financed to five biogas power plant, with capacity of 400 kW, 50 kW and others with 6kW capacity, have been financed by IDCOL. Poultry litter is used as feed material in the biogas digesters for gas production and this biogas is used for electricity generation as well as cooking and per boiling system. Electricity generated from the plant is consumed for running poultry farms. Bio-fertilizer produced from the plant is used in crop production and fish farms. IDCOL has a target of financing 450 biogas based plants by  {\ref 2016}.\par
IDCOL concessionary financing for energy efficient brick projects Thousands of traditional fixed chimney brick kilns emit an estimated 9.8 million tons of C 2 O per annum, making it one of the worst green-house gas emitters in the country. IDCOL plans to invest around BDT 4,000 million in the energy efficient brick manufacturing sector in Bangladesh by 2020 .\par
IDCOL Solar Powered Solution for Telecom BTS: IDCOL has financed solar powered solution for 138 telecom base transceiver stations (BTSs) in off-grid areas of Bangladesh. Solar powered solutions provide continuous power supply to ensure uninterrupted voice and data services. IDCOL has financed to Solar Mini-grid Projects in Bangladesh. IDCOL has financed one 100 kW solar mini-grid project in a remote island in the Bay of Bengal. IDCOL's participation in the Solar Minigrid projects not only supported the efforts of the Government to address the growing infrastructure demand in Bangladesh but also played a catalytic role for attracting private investment in infrastructure projects. In 2013, IDCOL plans to invest further BDT 1 billion in a number of power, telecommunication, transport, social infrastructure and urban environmental projects .\par
Through IDCOL more than 70,000 direct jobs have created in Bangladesh. Due to SHSs, students now benefit from extended hours of studies at night in better lighting condition, small businesses enjoy extended operating hours and women feel more secured at night. The existing SHSs installed under the program reduces approximately 528,000 ton of CO 2 annually (IDCOL, 2014). 
\section[{XIV.}]{XIV.} 
\section[{Grameen Shakti}]{Grameen Shakti}\par
Grameen Shakti is a non-profit organization established in 1996 to promote, develop and popularize renewable energy technologies in remote, rural areas of Bangladesh. Currently, GS is one of the largest and fastest growing rural based renewable energy company in the world. GS is also promoting Small Solar Home System to reach low income rural households. It enlighten houses by solar power, cook comfortably by bio-gas. Grameen Shakti is providing loans to SHS receivers both GB borrowers and to the non-GB members. Till February 2015, GS has alone installed 1,583,319 solar home systems covering 64 districts in Bangladesh. It is working at the grass roots village level and selling SHS to villagers with credit who pay their SHS prices at an instalment basis over three years. For the solar PV installation, GS selects areas where there is no availability of conventional electricity or areas with low coverage by Rural Electrification Board (REB) or areas with almost no possibility of the extension of rural electrification within 5-10 years period.\par
Grameen Shakti is working not as a charity rather follows social business model. It has successfully blended technology with social market forces to develop a market based approach to reach the rural people. It does not provide direct subsidies to RE users. It has developed an innovative micro-credit service to RE users to reduce costs and to reach economy scale. 
\section[{a) Installations of SPV Systems b y Grameen Shakti}]{a) Installations of SPV Systems b y Grameen Shakti}\par
Within a period of one and an half decade, it has been able to develop a large number (2500) trained technicians, (mostly women) and altogether 7,000 employees for preparing, installing and taking care of the home systems. It has targeted to empower 75 million people all over the country through renewable energy technologies by 2015 (Grameen  {\ref Shakti, 2009)}. It continues to provide solar home systems at a rate of 10,000 systems per month. The price of the SHS is still expensive for the rural poor; \hyperref[b29]{(Hackett, 2009)}. The application of solar PV systems by GS until now includes mostly stand-alone PV systems, SHSs to run CFL lights, black and white television, mobile chargers, refrigerators for vaccine preservation etc.\par
Grameen Shakti SHSs is used to light up homes, shops, fishing boats etc. People also used to charge cellular phones, run televisions, radios and cassette players. People also use for operating TVs cassettes, audios, VCPs etc., operational small fans and amplifiers, running computers and cellular phones, running computers and cellular phones and running DC motor driven equipments such as drill machines, soldering irons etc.\par
GS has introduced micro-utility model in order to reach the poorer people who cannot afford a SHS individually. GS has developed an effective strategy for reaching people in remote and rural areas with solar PV technology. It involves soft credit through instalments which makes SHSs affordable; community involvement and social acceptance; effective after sales service and blending Technology with Market Forces. Grameen Shakti SHSs users become the owner of an electric power generating and supply system. No need to pay monthly electricity bill in every month. SHSs life span is more than 20 years. There is no load shedding with SHSs. This technology is clean, safe and is environmental friendly \& health hazards free energy.  
\section[{b) GS PV Program Approach}]{b) GS PV Program Approach}\par
Grameen Shakti's PV program targets unprivileged masses who live in remote rural areas of Bangladesh in order to make it easier for rural people to buy a system, GS has designed four soft financing options: The most popular demand Grameen Shakti's SHSs packages are serial number 3, 4, and 5 items in Bangladesh as mentioned items in the Table \hyperref[tab_28]{25}. In order to reach the poor, GS has introduced a financial model, known as Micro-utility. Till now GS installed more than 10,000 micro utility systems. GS also focuses on demonstration, quality products, and a reliable maintenance service to build awareness and trust of the rural people.\par
GS has been successful in promoting and constructing both domestic and larger sizes biogas plants to rural villagers. GS Biogas Program has a unique financial mechanism based on credit, which makes biogas plants affordable to the villagers. People use cow dung in their bio gas plants. Biogas technology can be also used with the home wastes. Grameen Shakti provides free services after sales including monthly visits by GS engineers for two to three years. People uses slurry of Biogas plant for organic fertilizer.\par
Key features of the GS biogas program are: a financial mechanism based on credit, which makes biogas plants affordable to the villagers, plants designed and constructed after one to one consultation with clients. GS provides free consultations after sales service including monthly visits by GS engineers for two to three years. GS uses local masons for constructing biogas plants in the villages. GS links biogas technology to emerging poultry, livestock and agriculture business. GS supported biogas is also using for cooking like natural gas.\par
Biogas protects women and children from indoor air pollution and related diseases such as coughs, asthmas etc. It helps keep the environment clean and stops the spread of diseases by transforming pollutants into clean energy. It saves fire woods resulted stops deforestation. Grameen Shakti Bio-gas program has attractive financing system such as:\par
Option-1: 25\% of the total cost is down payment. The remaining 75\% is to b e paid in 24 monthly instalments with 8\% service charges (flat rate) in 2 years.\par
Option-2: The buyer can also build his plant by himself, under the supervision of GS Engineers. In this case, half of the technical and supervision fee will be paid as down payment and the rest will be paid after the instalment. 
\section[{d) GS Wind Energy Program}]{d) GS Wind Energy Program}\par
GS is also working in the field of solar thermal project, but it is still in pilot stage. GS installed 4 hybrid power stations (combination of wind turbine and diesel generator) in four cyclone shelters of Grameen Bank in the coastal areas in Bangladesh (Grameen Shakti 2015). The power generated from the wind turbines is connected to the four cyclone shelters. Appliances powered with this system are light, fan, water pump etc. 
\section[{e) Grameen Technology Centers}]{e) Grameen Technology Centers}\par
GS has set up 45 Grameen Technology Centers (GTC). These GTCs are producing SHS accessories by manufacturing these locally. GTCs are also contributing to women empowerment by developing Solar Technicians in the villages. Women members of 5000 SHSs user families are also trained on proper repair and maintenance of their systems. Besides these, 10,000 school students gain awareness about the renewable energy technologies and the environment. GS also trained 300 engineers in order to implement this project smoothly. GS these technicians sign annual contracts with GS for after sales maintenance and become entrepreneurs in the future. Women technicians have already been trained, many of them are assembling SHS accessories at local GTCs, others are providing after sales service.These GTCs train renewable energy entrepreneurs and link them up with different technical and financial institutions. 
\section[{Financing Solar Home Systems (Grameen Shakti 2015)}]{Financing Solar Home Systems (Grameen Shakti 2015)}\par
? The user has to pay 15\% of the total price as down payment. The remaining 85\% of the total cost is to be repaid within 36 months with 6\% (flat rate) service charges. ? The customer has to pay 25\% of the total price as down payment. The remaining 75\% of the cost is to be repaid within 24 months with 4\% (flat rate) service charge. ? Micro-utility: The customer has to pay 10\% of the total price as down payment. The remaining 90\% of the loan amount is to be repaid by 42 cheques.\par
There is no service charge. ? 4\% discount is allowed on printed price in case of cash purchase GS research and development intents to develop and fabricate the solar accessories (charge controller, lamps, DC to DC converters etc.) locally in order to reduce the total system cost. Grameen Shakti has already developed Charge Controller, DC-DC Converter, DC Ballast for fluorescent lamp, Mobile phone charger products at low cost f) GS Improved Cooking Stoves contributes GS improved cooking stoves contributes to 50\% less fuel cost, women protected from in-door air pollution, no blackening, no heat from stove. GS has become interested in ICS because it helps women and makes their lives easier. GS sees a potential market of at least 2 million ICSs in the first three years of the program. GS plans to depend on two types of local players for expanding Improved Cook Stoves -local technicians and local manufacturers. GS has already trained more than 1000 local youth especially women to make, sale and repair ICSs. GS plans to train more technicians in the next phase .These trained technicians train others as well as produce and commercialize improved cook stoves on behalf of Grammen Shakti. Many of them have started their own business in arrangement with GS.  
\section[{h) Social Business and Nabin Udoykta Program of Grameen Shakti-a new Dimension}]{h) Social Business and Nabin Udoykta Program of Grameen Shakti-a new Dimension}\par
All the activities of the organization Grameen Shakti executes are fully related to social business perspective. It is a new category of cause-driven business. The company must cover all costs and make profit, at the same time achieve the social objective. In a social business, the investors/owners can gradually recoup the money invested, but cannot take any dividend (profit) beyond that point. Grameen Shakti follows all seven principles of social business.\par
Grameen Shakti has been attached to 'Nobin Udyokta Program' of Nobel Laureate Prof. Muhammad Yunus, a very promising project to bring new young entrepreneurs in the light. Prof. Muhammad Yunus has given permission to include the children (2nd generation) of Grameen Bank Borrowers from Birulia, Ahshulia and Dhamshona Union under Savar Upazilla of Dhaka district in the Social Business as well as Nobin Udyokta (New Entrepreneurs) Program.\par
The activity of investment in the different promising project of Nobin Udyokta has already been started in the Grameen Bank Area of above mentioned unions under Nobin Udyokta program executed by Grameen Shakti. Till now, 6 Nobin Udyokta projects have been presented in Executive Design Lab and approval for investing. Tk. 1.4 million has been invested by GS. Four Nobin Udyokta have received Nine Hundred Thousand Taka till now. These projects include tailoring, textile business, telecom service, grocery shop, dairy farm etc (GS, June 2014). Rest of 2 projects is now in the process to be invested as early as possible. Moreover, more than 10 promising project are in pipe line to be presented in Executive Design Lab in near future. There is a plan to invest 5 million Taka among 20 Nobin Udyokta (New Entrepreneur) by December, 2014 and 50 million Taka among 250 Nobin Udyokta by 2015 (Grameen Shakti, April, 2015).  
\section[{National Energy Policy}]{National Energy Policy}\par
The first National Energy Policy (NEP) of Bangladesh completed and gazetted in 1996 was adopted mainly with the aim of achieving sustainable economic growth and developing sufficient energy for different sectors . The guidelines of the renewable energy were mentioned in the NEP document. Later, the government adopted Private Power Generation Policy in order to promote private sector participation in power generation. In 1996, import duty and value added tax from solar PV and wind turbines were withdrawn by the government. In April 2004, Bangladesh Energy Regulatory Commission (BERC) was established and started functioning. The major objectives of the renewable energy policy mentioned in the NEP 2004 are targeted to provide energy for sustainable economic growth to meet the energy needs of different zones of the country, ensure environmentally sound sustainable energy development programmes causing minimum damage to environment, encourage public and private sector participation in the development and management of the energy sector, to bring entire country under electrification by the year 2020, to ensure reliable supply of energy to the people at reasonable and affordable price and too develop a regional energy market for rational exchange of commercial energy to ensure energy security \hyperref[b59]{(MPEMR, 2004)}.\par
The Renewable Energy Program in Bangladesh has emphasized on the exploitation of solar, wind, biomass gasification, biogas and hydro energy. The major objectives of the renew able energy policy aim to exploit potential RES and disseminate RETs in the rural, peri-urban and urban areas; to inspire private sector investment in RE; to promote clear energy for CDM etc. The policy has targeted to develop RES to meet 5\% of the total power demand by 2015 and 10\%by the year 2020 (MPEMR, 2008). 
\section[{XVI.}]{XVI.} 
\section[{Recommendations}]{Recommendations}\par
RETs along with technologies for energy conservation and energy efficiency can help overcome energy shortages and lead the country to progress provided necessary steps are taken now without delays. Solar radiation is excellent for all locations of Bangladesh. Large scale utilization of solar and wind energy should help energy security in the face of impending energy crisis from dearth of conventional energy supply. Renewable energy public education could be included in the formal and non-formal adult education in Bangladesh. On going SHS program should be strengthen to enable installation of 500,000 units by 2020\par
The program for biogas project and biomass cooking stove can solve rural firewood cooking problems so these two technologies can be promoted through public extension agencies, and green NGOs in Bangladesh. For power supplement, the roof-top application of solar PV systems could be promoted in urban areas of Bangladesh. The government sponsored Infrastructure Development Company (IDCOL) has to initiate financing (micro-credit) for solar home systems in the urban slums (like off-grid remote areas). In order to promote sustainable wind power generation, an efficient management system and strong coordination among the respective authorities have to be ensured. For biogas plant installation, village cooperatives can be created to promote the technology among the villagers. Funds for renewable energy projects have to make available along with additional resources for innovative activities of RETs.\par
Many problems are suffering by the coastal energy users. Therefore, the community institutions could be engaged and financed for developing Wind Pump Energy infrastructure facilities around the coastal areas in Bangladesh.\begin{figure}[htbp]
\noindent\textbf{}\includegraphics[]{image-2.png}
\caption{\label{fig_0}}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{1}\includegraphics[]{image-3.png}
\caption{\label{fig_1}Figure 1 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{}\includegraphics[]{image-4.png}
\caption{\label{fig_2}}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{}\includegraphics[]{image-5.png}
\caption{\label{fig_3}}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{}\includegraphics[]{image-6.png}
\caption{\label{fig_5}}\end{figure}
      \begin{figure}[htbp]
\noindent\textbf{2} \par 
\begin{longtable}{}
\end{longtable} \par
 
\caption{\label{tab_1}Table 2 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{5} \par 
\begin{longtable}{P{0.2125\textwidth}P{0.1669642857142857\textwidth}P{0.23526785714285714\textwidth}P{0.23526785714285714\textwidth}}
Country/World\tabcellsep Gas Trillion cft\tabcellsep Oil million barrels\tabcellsep Coal million tons\\
Bangladesh\tabcellsep 20\tabcellsep 5.5\tabcellsep 2295\\
World\tabcellsep 5016\tabcellsep 1,30, 444\tabcellsep 10,967,373\end{longtable} \par
 
\caption{\label{tab_4}Table 5 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{66} \par 
\begin{longtable}{P{0.34\textwidth}P{0.159375\textwidth}P{0.17531249999999998\textwidth}P{0.17531249999999998\textwidth}}
Country/Region\tabcellsep Energy Consumption\tabcellsep Country/Region\tabcellsep Energy Consumption\\
Bangladesh\tabcellsep 157\tabcellsep India\tabcellsep 520\\
Nepal\tabcellsep 355\tabcellsep China\tabcellsep 1094\\
Sri Lanka\tabcellsep 422\tabcellsep World\tabcellsep 1688\\
Pakistan\tabcellsep 467\tabcellsep OECD\tabcellsep 4588\\
Source: IEA (2008)\tabcellsep \tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_5}Table 6 Table 6 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{7} \par 
\begin{longtable}{P{0.6188821752265862\textwidth}P{0.2311178247734139\textwidth}}
Description\tabcellsep Achievement\\
Area coverage/PBS\tabcellsep 2000 sq. Kms\\
No. Of PBS\tabcellsep 67\\
Number of villages energized\tabcellsep 41,125\\
Number of 33/11 KV sub-station constructed\tabcellsep 328\\
Length of power distribution lines\tabcellsep 1,73, 125 Km\\
Number of population in programme area Category wise connection\tabcellsep 9,25,13,296\\
Domestic\tabcellsep 45,42,099\\
Commercial\tabcellsep 6,06,666\\
Irrigation\tabcellsep 1,38,869\\
Industry\tabcellsep 95, 0559\end{longtable} \par
  {\small\itshape [Note: © 2015 Global Journals Inc. (US) -]} 
\caption{\label{tab_6}Table 7 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{7} \par 
\begin{longtable}{P{0.31710816777041945\textwidth}P{0.10132450331125828\textwidth}P{0.10132450331125828\textwidth}P{0.10695364238410596\textwidth}P{0.11445916114790286\textwidth}P{0.10883002207505517\textwidth}}
Category\tabcellsep 2000-01\tabcellsep 2001-02\tabcellsep 2002-03\tabcellsep 2003-04\tabcellsep 2004-05\\
Gas Production Gas (109cft\tabcellsep 372.16\tabcellsep 391.53\tabcellsep 421.16\tabcellsep 454.59\tabcellsep 486.75\\
Consumption (109cft)\tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \\
Electricity\tabcellsep 175.27\tabcellsep 190.03\tabcellsep 190.54\tabcellsep 199.40\tabcellsep 211.02\\
Captive\tabcellsep 0\tabcellsep 0\tabcellsep 0\tabcellsep 32.03\tabcellsep 37.87\\
Fertilizer\tabcellsep 88.43\tabcellsep 78.78\tabcellsep 95.89\tabcellsep 92.80\tabcellsep 93.97\\
Industrial\tabcellsep 47.99\tabcellsep 53.56\tabcellsep 63.76\tabcellsep 46.49\tabcellsep 51.68\\
Tea-garden\tabcellsep 0.65\tabcellsep 0.72\tabcellsep 0.74\tabcellsep 0.82\tabcellsep 0.80\\
Brick field\tabcellsep 0.44\tabcellsep 0.53\tabcellsep 0.52\tabcellsep 0.12\tabcellsep 0\\
Commercial\tabcellsep 4.06\tabcellsep 4.25\tabcellsep 4.56\tabcellsep 4.83\tabcellsep 4.85\\
Domestic\tabcellsep 31.85\tabcellsep 36.74\tabcellsep 44.80\tabcellsep 49.22\tabcellsep 52.49\\
CNG\tabcellsep 0\tabcellsep 0\tabcellsep 0.23\tabcellsep 1.94\tabcellsep 3.62\\
Total Consumption\tabcellsep 348.69\tabcellsep 364.61\tabcellsep 401.04\tabcellsep 427.65\tabcellsep 456.30\\
Source: BBS (2006)\tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_7}Table 7 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{8} \par 
\begin{longtable}{P{0.136\textwidth}P{0.36974999999999997\textwidth}P{0.051\textwidth}P{0.14450000000000002\textwidth}P{0.14875\textwidth}}
Year\tabcellsep Crude Oil\tabcellsep \tabcellsep \multicolumn{2}{l}{Petroleum Products}\\
\tabcellsep \multicolumn{3}{l}{Qty (Thousands Tons) Value (Million US\$) Qty (Thousands tons)}\tabcellsep Value (Million US\$\\
2001-02\tabcellsep 1225\tabcellsep 220\tabcellsep 2072\tabcellsep 2536\\
2002-03\tabcellsep 1331\tabcellsep 289\tabcellsep 2214\tabcellsep 3319\\
2003-04\tabcellsep 1252\tabcellsep 314\tabcellsep 2262\tabcellsep 4015\\
2004-05\tabcellsep 1063\tabcellsep 364\tabcellsep 2692\tabcellsep 7214\end{longtable} \par
  {\small\itshape [Note: Source: British Petroleum,(2005]} 
\caption{\label{tab_8}Table 8 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{9} \par 
\begin{longtable}{P{0.6729166666666666\textwidth}P{0.17708333333333334\textwidth}}
Item\tabcellsep Quantity\\
Installation Capacity\tabcellsep 5,275MW\\
Average demand\tabcellsep 4,300-4,500MW\\
Average generation\tabcellsep 3,200-3,300MW\\
Per capita generation\tabcellsep 167 kWh\\
Per capita consumption\tabcellsep 136 kWh\\
\multicolumn{2}{l}{Figure 1 below presents the fossil fuel supply}\\
\multicolumn{2}{l}{for electricity generation which shows that natural gas is}\\
the major energy source.\tabcellsep \\
Natural gas\tabcellsep 89\%\\
Oil\tabcellsep 7\%\\
Hydro\tabcellsep 4\%\end{longtable} \par
 
\caption{\label{tab_9}Table 9 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{10} \par 
\begin{longtable}{P{0.5243295019157088\textwidth}P{0.1954022988505747\textwidth}P{0.13026819923371646\textwidth}}
Coal Fields\tabcellsep Depth of coal seams in meter\tabcellsep Reserves in million tons\\
Jamalganj, Bogra\tabcellsep 640-1158\tabcellsep 1053\\
Barapukurias, Dinajpur\tabcellsep 118-506\tabcellsep 303\\
Khalaspir, Rangpur\tabcellsep 257-451\tabcellsep 147\\
Dighipara, Dinajpur\tabcellsep 250\tabcellsep 200\\
Phulbaria, Dinajpur\tabcellsep 152-246\tabcellsep 572\\
\multicolumn{2}{l}{Source: Energy \& Power, August 1, 2005 and May 1, 2006.}\tabcellsep \end{longtable} \par
 
\caption{\label{tab_10}Table 10 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{11} \par 
\begin{longtable}{P{0.2552805280528053\textwidth}P{0.11782178217821783\textwidth}P{0.11782178217821783\textwidth}P{0.12062706270627062\textwidth}P{0.12062706270627062\textwidth}P{0.11782178217821783\textwidth}}
Fuels\tabcellsep 1999-00\tabcellsep 2000-01\tabcellsep 2001-02\tabcellsep 2002-03\tabcellsep 2003-04\\
Cow-dung\tabcellsep 2441\tabcellsep 2471\tabcellsep 2471\tabcellsep 2471\tabcellsep 2502\\
Jute stick\tabcellsep 922\tabcellsep 966\tabcellsep 1010\tabcellsep 966\tabcellsep 922\\
Rice straw\tabcellsep 1375\tabcellsep 1429\tabcellsep 1409\tabcellsep 12418\tabcellsep 1218\\
Rice hulls\tabcellsep 2810\tabcellsep 2810\tabcellsep 2854\tabcellsep 2898\tabcellsep 2854\\
Bagasse\tabcellsep 314\tabcellsep 340\tabcellsep 366\tabcellsep 366\tabcellsep 392\\
Firewood\tabcellsep 1166\tabcellsep 1166\tabcellsep 1219\tabcellsep 1219\tabcellsep 1272\\
Twigs and Leaves\tabcellsep 1325\tabcellsep 1378\tabcellsep 1431\tabcellsep 1484\tabcellsep 1537\\
Other wastes\tabcellsep 1186\tabcellsep 1230\tabcellsep 1273\tabcellsep 1317\tabcellsep 1361\\
Total\tabcellsep 11539\tabcellsep 11790\tabcellsep 12033\tabcellsep 12139\tabcellsep 12258\end{longtable} \par
  {\small\itshape [Note: Source: BBS (Bangladesh Bureau of Statistics, 2006) g) Indigenous Fossil Fuels]} 
\caption{\label{tab_11}Table 11 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{} \par 
\begin{longtable}{}
\end{longtable} \par
 
\caption{\label{tab_12}}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{12} \par 
\begin{longtable}{P{0.20549450549450549\textwidth}P{0.3269230769230769\textwidth}P{0.31758241758241756\textwidth}}
RES Type\tabcellsep Capacity (up to December'08)\tabcellsep Theoretical Potential\\
Wind\tabcellsep 1 M\tabcellsep 2,000 MW\\
Hydro\tabcellsep 230 MW\tabcellsep 672 MW\\
Solar PV\tabcellsep 15 MW approx\tabcellsep 50,436 MW\\
Solar Thermal\tabcellsep 3,000 m3\tabcellsep 20<>106 m2\\
Biogas\tabcellsep .3 million m3\tabcellsep 3,675 <>106 m3\end{longtable} \par
  {\small\itshape [Note: Source: Based onAlam et al. (2003).]} 
\caption{\label{tab_13}Table 12 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{} \par 
\begin{longtable}{P{0.7993377483443709\textwidth}P{0.05066225165562914\textwidth}}
\multicolumn{2}{l}{Bangladesh Atomic Energy Commission (BAEC), Local}\\
\multicolumn{2}{l}{Government Engineering Department (LGED) and}\\
\multicolumn{2}{l}{Infrastructure Development Company Limited (ICOL, a}\\
state-owned non-banking financial\tabcellsep institution. These\\
\multicolumn{2}{l}{organizations are involved in Rural Energy and}\\
\multicolumn{2}{l}{Renewable Energy Development Programmes (RERED)}\\
in Bangladesh.\tabcellsep \end{longtable} \par
 
\caption{\label{tab_14}}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{13} \par 
\begin{longtable}{P{0.36753343239227343\textwidth}P{0.059361069836552746\textwidth}P{0.06062407132243684\textwidth}P{0.08462109955423476\textwidth}P{0.07830609212481426\textwidth}P{0.06693907875185735\textwidth}P{0.06567607726597326\textwidth}P{0.06693907875185735\textwidth}}
Year\tabcellsep 1990\tabcellsep 1995\tabcellsep 2000\tabcellsep 2005\tabcellsep 2010\tabcellsep 2015\tabcellsep 2020\\
\tabcellsep \tabcellsep \tabcellsep \multicolumn{2}{l}{Commercial Energy}\tabcellsep \tabcellsep \tabcellsep \\
Population (million)\tabcellsep 107\tabcellsep 118\tabcellsep 130\tabcellsep 141\tabcellsep 153\tabcellsep 165\tabcellsep 177\\
GNP Growth Rate ( \%)\tabcellsep 4.44\tabcellsep 5.25\tabcellsep 5.24\tabcellsep 5.24\tabcellsep 5.24\tabcellsep 6.65\tabcellsep 6.65\\
Per Capital (GNP \$)\tabcellsep 190\tabcellsep 214\tabcellsep 242\tabcellsep 276\tabcellsep 3177\tabcellsep 366\tabcellsep 424\\
Energy Coefficient\tabcellsep 1.62\tabcellsep 1.37\tabcellsep 1.37\tabcellsep 1.37\tabcellsep 1.08\tabcellsep 1.08\tabcellsep 1.08\\
Energy Growth Rate (\%)\tabcellsep 7.13\tabcellsep 7.19\tabcellsep 7.18\tabcellsep 7.18\tabcellsep 7.18\tabcellsep 7.18\tabcellsep 7.18\\
Per capita use (KgOE)\tabcellsep 56\tabcellsep 68\tabcellsep 92\tabcellsep 127\tabcellsep 157\tabcellsep 219\tabcellsep 272\\
Total Energy (MTOE)\tabcellsep 6\tabcellsep 8\tabcellsep 12\tabcellsep 18\tabcellsep 24\tabcellsep 36\tabcellsep 48\\
Total Energy (Pj)\tabcellsep 256\tabcellsep 342\tabcellsep 512\tabcellsep 769\tabcellsep 1025\tabcellsep 1537\tabcellsep 2050\\
Energy Productivity\tabcellsep 12.59\tabcellsep 13.54\tabcellsep 16.27\tabcellsep 19.76\tabcellsep 21.13\tabcellsep 25.45\tabcellsep 27.32\\
(MJé\$éGNP)\tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \\
\tabcellsep \tabcellsep \tabcellsep \tabcellsep Electricity\tabcellsep \tabcellsep \tabcellsep \\
Status in Energy mix (\%)\tabcellsep 35\tabcellsep 37\tabcellsep 39\tabcellsep 37\tabcellsep 33\tabcellsep 33\tabcellsep 33\\
Total GWh\tabcellsep 8205\tabcellsep 11584\tabcellsep 18315\tabcellsep 26063\tabcellsep 30994\tabcellsep 46491\tabcellsep 61988\\
Per Capita kWh\tabcellsep 77\tabcellsep 98\tabcellsep 141\tabcellsep 185\tabcellsep 203\tabcellsep 282\tabcellsep 351\\
Load factor (\%)\tabcellsep 55\tabcellsep 57\tabcellsep 57\tabcellsep 57\tabcellsep 58\tabcellsep 59\tabcellsep 60\\
Peak Load (MW)\tabcellsep 1703\tabcellsep 2320\tabcellsep 3668\tabcellsep 5220\tabcellsep 6100\tabcellsep 8995\tabcellsep 11794\\
Source: SWERA, 2007.\tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_15}Table 13 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{14} \par 
\begin{longtable}{P{0.28977272727272724\textwidth}P{0.06439393939393939\textwidth}P{0.06439393939393939\textwidth}P{0.17386363636363636\textwidth}P{0.06439393939393939\textwidth}P{0.06439393939393939\textwidth}P{0.06439393939393939\textwidth}P{0.06439393939393939\textwidth}}
Year\tabcellsep 1990\tabcellsep 1995\tabcellsep 2000\tabcellsep 2005\tabcellsep 2010\tabcellsep 2015\tabcellsep 2020\\
\tabcellsep \tabcellsep \tabcellsep \multicolumn{2}{l}{Commercial Energy}\tabcellsep \tabcellsep \tabcellsep \\
Population (million)\tabcellsep 107\tabcellsep 118\tabcellsep 130\tabcellsep 141\tabcellsep 153\tabcellsep 165\tabcellsep 177\\
GNP Growth Rate ( \%)\tabcellsep 4.5\tabcellsep 5,4\tabcellsep 6.4\tabcellsep 7.2\tabcellsep 7.7\tabcellsep 8.2\tabcellsep 8.7\end{longtable} \par
  {\small\itshape [Note: © 2015 Global Journals Inc. (US)]} 
\caption{\label{tab_16}Table 14 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{15} \par 
\begin{longtable}{P{0.85\textwidth}}
( B )\\
Global Journal of Human Social Science\end{longtable} \par
 
\caption{\label{tab_17}Table 15 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{15} \par 
\begin{longtable}{P{0.7091617933723197\textwidth}P{0.019883040935672513\textwidth}P{0.11101364522417154\textwidth}P{0.009941520467836256\textwidth}}
\tabcellsep \tabcellsep \tabcellsep XII.\\
Technology\tabcellsep \tabcellsep \multicolumn{2}{l}{Number of Units (by}\\
\tabcellsep \tabcellsep 2007)\tabcellsep \\
\multicolumn{2}{l}{Solar Home System}\tabcellsep Above 1000,000\tabcellsep \\
\multicolumn{2}{l}{Improved biomass cooker}\tabcellsep 3000,000\tabcellsep \\
Biogas plants\tabcellsep \tabcellsep 25,000\tabcellsep \\
\multicolumn{2}{l}{Biomass bracketing machines}\tabcellsep 100\tabcellsep \\
\multicolumn{2}{l}{Source: SWERA, 2010.}\tabcellsep \tabcellsep \\
RETS\tabcellsep technologies\tabcellsep demonstrated\tabcellsep in\\
\multicolumn{4}{l}{Bangladesh are solar water heaters, solar dryers, solar}\\
\multicolumn{4}{l}{cookers, water lifting wind turbine, wind electricity}\\
\multicolumn{4}{l}{generators, hybrid generators-solar wind/diesel, grid}\\
\multicolumn{4}{l}{connected wind turbine, micro hydro generator and LED}\\
\multicolumn{4}{l}{lamps. IDCOL has invited proposals for developing a 1-}\\
\multicolumn{3}{l}{2 MW solar panel assembly plant in Bangladesh.}\tabcellsep \end{longtable} \par
 
\caption{\label{tab_18}Table 15 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{16} \par 
\begin{longtable}{P{0.31260330578512396\textwidth}P{0.3547520661157025\textwidth}P{0.18264462809917356\textwidth}}
\tabcellsep \multicolumn{2}{l}{Tentative Target for RETs, 2020 and GHG reduction}\\
Resource\tabcellsep Expected utilization\tabcellsep GHG reduction (million tons of CO 2 )\\
Wind\tabcellsep 1000 MW\tabcellsep 5.0\\
Solar\tabcellsep 300 MW\tabcellsep 0.5\\
Biomass/Hydro\tabcellsep 600 MW\tabcellsep 0.6\\
Co-generation\tabcellsep 300 MW\tabcellsep 0.3\\
Total Renewable Energy\tabcellsep 3200 MW\tabcellsep 6.4\\
Source: Power Cell, 2006\tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_19}Table 16 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{17} \par 
\begin{longtable}{P{0.39357976653696497\textwidth}P{0.17363813229571984\textwidth}P{0.18521400778210118\textwidth}P{0.097568093385214\textwidth}}
\tabcellsep \multicolumn{2}{l}{mitigation by 2020}\tabcellsep \\
RET\tabcellsep Indicative\tabcellsep In place of conventional\tabcellsep CO 2 reduction potential\\
\tabcellsep Potential\tabcellsep generation using Grid\tabcellsep (MtCO 2 /year)\\
Hydr.o electricity (existing (230 MW)\tabcellsep 300 MW\tabcellsep Grid1.4\tabcellsep \\
Solar Home system\tabcellsep 50 W, 2 million\tabcellsep Kerosene \& Grid\tabcellsep 1.5\\
Solar lights for the poor\tabcellsep 10 w, 2 million\tabcellsep Kerosene\tabcellsep 0.6\\
Wind Diesel hybrid micro grids\tabcellsep 100 kW.300\tabcellsep Diesel genset\tabcellsep 0.1\\
PV Diesel hybrid micro grids\tabcellsep 100 kW. 300\tabcellsep Diesel\tabcellsep 0.1\\
Wind electricity generation (minimum)\tabcellsep 200 MW\tabcellsep Diesel genset\tabcellsep 2.1\\
Grid connected PV (if grid is stable)\tabcellsep 200MW\tabcellsep Grid\tabcellsep 0.8\\
Total\tabcellsep \tabcellsep \tabcellsep 6.6\\
Source: SEWRA, 2007\tabcellsep \tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_20}Table 17 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{18} \par 
\begin{longtable}{P{0.5709433962264151\textwidth}P{0.1411320754716981\textwidth}P{0.13792452830188678\textwidth}}
RET\tabcellsep Application of RET\tabcellsep CO2 reduction potential\\
\tabcellsep \tabcellsep (MtCO2/year\\
Solar Water Heaters\tabcellsep 1 sq. Km\tabcellsep 0.4\\
Improved biomass cookers 915\% more efficient than\tabcellsep Biomass\tabcellsep 1.9\\
conventional and biogas disasters\tabcellsep replacement\tabcellsep \\
Total\tabcellsep \tabcellsep 2.3\\
Notes: Wood/straw produces 3.8 ton CO 2 /ton fuel\tabcellsep \tabcellsep \\
Source: SEWRA, 2007\tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_21}Table 18 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{19} \par 
\begin{longtable}{P{0.5189473684210526\textwidth}P{0.3310526315789474\textwidth}}
Participating organization\tabcellsep Number of SHSs Installed\\
Grameen Shakti\tabcellsep 61,309 *GS start its SHS distribution in 1997, before IDCOL support to\\
\tabcellsep GS. It is also supplying SHSs to people with its own resources.\\
BRAC foundation\tabcellsep 22,115\\
Srizony Bangladesh\tabcellsep 3,387\\
COAST Trust\tabcellsep 1,270\\
TMSS\tabcellsep 994\\
Centre for Mass Education and Science\tabcellsep 1,263\\
Integrated Development Foundation\tabcellsep 1,255\\
Shubashati\tabcellsep 1,077\\
UBOMUS\tabcellsep 1,620\\
BRIDGE\tabcellsep 698\\
PMUK\tabcellsep 61\\
RSF\tabcellsep 1,600\\
PDBF\tabcellsep 121\\
HF\tabcellsep 139\\
Mukti Cox's Bazar\tabcellsep 76\\
Other\tabcellsep 77\\
Total\tabcellsep 97,062\\
Source: SWERA 2007.\tabcellsep \\
\multicolumn{2}{l}{Many job opportunities have created through}\\
\multicolumn{2}{l}{SHS program. Through GS, 11,230 people have}\\
employed in Bangladesh.\tabcellsep \end{longtable} \par
 
\caption{\label{tab_22}Table 19 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{20} \par 
\begin{longtable}{P{0.7759509202453987\textwidth}P{0.04171779141104295\textwidth}P{0.0041717791411042945\textwidth}P{0.02815950920245399\textwidth}}
\multicolumn{2}{l}{Total No. SHSs Savings}\tabcellsep of\tabcellsep Tons CO 2 /year\\
\tabcellsep Kerosene\tabcellsep in\\
\tabcellsep litters/year\tabcellsep \\
65,000\tabcellsep 19 million\tabcellsep \tabcellsep 49,000\\
1,00,000\tabcellsep 29 million\tabcellsep \tabcellsep 75,000\\
\multicolumn{2}{l}{Source: SWERA, 2007}\tabcellsep \\
\multicolumn{4}{l}{IDCOL renewable energy activities started in}\\
\multicolumn{4}{l}{2003 with the Solar Home System (SHS) program.}\\
\multicolumn{4}{l}{IDCOl also has been implementing solar irrigation pump}\\
\multicolumn{4}{l}{program, solar PV mini-grad project, solar-diesel hybrid}\\
\multicolumn{4}{l}{power system for telecom BTS, biomass gasification}\\
\multicolumn{4}{l}{project, biogas based power plant projects etc. Recently}\\
\multicolumn{4}{l}{ICOL has launched Improved Cook Stove (ICS)}\\
\multicolumn{4}{l}{program, with target to disseminate 1 million ICS by}\\
2017.\tabcellsep \tabcellsep \\
\multicolumn{4}{l}{IDCOL's Solar Home System Program is one of}\\
\multicolumn{4}{l}{the fastest growing off-grid Renewable Energy}\\
\multicolumn{4}{l}{Programs in the world. IDCOL, with support from the}\\
\multicolumn{4}{l}{World Bank (IDA), Global Environmental Facility (GEF),}\\
\multicolumn{4}{l}{German Technical Cooperation (GTZ), German}\\
\multicolumn{4}{l}{Development Cooperation (KFW), Asian Development}\end{longtable} \par
 
\caption{\label{tab_23}Table 20 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{21} \par 
\begin{longtable}{P{0.5267094017094017\textwidth}P{0.32329059829059825\textwidth}}
Program achievement:\tabcellsep 3 million SHS\\
Number of beneficiaries:\tabcellsep 13.5 million people\\
Power generation:\tabcellsep 150 MW\\
Fossil fuel saving:\tabcellsep 216,000 ton/yr\\
CO 2 reduction:\tabcellsep 503,000 ton/yr\\
Job creation:\tabcellsep 60,000\\
IDCOL investment:\tabcellsep USD\$ 500 million\\
Source: IDCOL, 2014.\tabcellsep \end{longtable} \par
 
\caption{\label{tab_24}Table 21 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{22} \par 
\begin{longtable}{P{0.7080448065173116\textwidth}P{0.10040733197556008\textwidth}P{0.012118126272912423\textwidth}P{0.003462321792260692\textwidth}P{0.010386965376782077\textwidth}P{0.015580448065173115\textwidth}}
\tabcellsep \multicolumn{5}{l}{Solar powered irrigation system is an innovative,}\\
\multicolumn{6}{l}{economic and environmentally friendly solution for the}\\
\multicolumn{6}{l}{agro-based economy of Bangladesh. ICOL has}\\
\multicolumn{6}{l}{financed 38 and approved financing of additional 76}\\
\multicolumn{6}{l}{solar PV based submersible water pump in different}\\
\multicolumn{6}{l}{locations of the country. IDCOL has a target to finance}\\
\multicolumn{6}{l}{1,550 pumps by 2016. IDCL provides subsidy, soft loan}\\
and\tabcellsep technical\tabcellsep support\tabcellsep to\tabcellsep ensure\tabcellsep effective\\
\multicolumn{6}{l}{implementation of the program. IDCOL also financed to}\\
\multicolumn{6}{l}{NGOs for biomass gasification based power plants}\end{longtable} \par
 
\caption{\label{tab_25}Table 22 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{23} \par 
\begin{longtable}{P{0.47542372881355927\textwidth}P{0.10084745762711865\textwidth}P{0.10084745762711865\textwidth}P{0.17288135593220338\textwidth}}
Description\tabcellsep This Month\tabcellsep This Year\tabcellsep Since Inception\\
No. of Solar Home System\tabcellsep 16,594\tabcellsep 33,184\tabcellsep 1,583,319\\
No. of Biogas Plants installed\tabcellsep 279\tabcellsep 556\tabcellsep 30,847\\
No. of Improved Cooking Stoves\tabcellsep 9,767\tabcellsep 19,299\tabcellsep 910,204\\
No. of Branches\tabcellsep 0\tabcellsep 0\tabcellsep 1,245\\
No. of Persons trained\tabcellsep 124\tabcellsep 238\tabcellsep 44,252\end{longtable} \par
 
\caption{\label{tab_26}Table 23 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{24} \par 
\begin{longtable}{P{0.24823008849557524\textwidth}P{0.22190265486725663\textwidth}P{0.24823008849557524\textwidth}P{0.1316371681415929\textwidth}}
Option\tabcellsep Down Payment\tabcellsep Instalments\tabcellsep Service charge (flat rate)\\
Option-1\tabcellsep 15\%\tabcellsep 36 months\tabcellsep 6\%\\
Option 2\tabcellsep 25\%\tabcellsep 24 months\tabcellsep 4\%\\
Option-3\tabcellsep 15\%\tabcellsep 36 months (with 36 post dated cheque)\tabcellsep 5\%\\
Option-4\tabcellsep 1005 cash payment with 4\% discount\tabcellsep \tabcellsep \\
\multicolumn{2}{l}{Source: Grameen Shakti, 2015}\tabcellsep \tabcellsep \end{longtable} \par
 
\caption{\label{tab_27}Table 24 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{25} \par 
\begin{longtable}{P{0.022020725388601035\textwidth}P{0.03670120898100172\textwidth}P{0.13359240069084627\textwidth}P{0.6018998272884283\textwidth}P{0.055785837651122626\textwidth}}
\multicolumn{2}{l}{SL. System}\tabcellsep Loads can be used\tabcellsep Equipments supplied by Grameen Shakti\tabcellsep Package\\
\tabcellsep Capacity (Watt)\tabcellsep \tabcellsep \tabcellsep price TK.\\
1\tabcellsep 10\tabcellsep 2X2.5 watt LED light\tabcellsep A 10 watt panel, 2X2.5 watt LED light, a 15 AH\tabcellsep 8,100\\
\tabcellsep \tabcellsep \tabcellsep battery, a charge controller, a frame and cables\tabcellsep \\
2\tabcellsep 15\tabcellsep 2X3 watt LED light\tabcellsep A 15 watt panel, 2X3 watt LED light, a 15 AH battery,\tabcellsep 9,400\\
\tabcellsep \tabcellsep \tabcellsep a charge controller, a frame and cables\tabcellsep \\
3\tabcellsep 20\tabcellsep 3X3 watt LED light\tabcellsep A 10 watt panel, 3X3 watt LED light, a 20/23 AH\tabcellsep 12,000\\
\tabcellsep \tabcellsep \tabcellsep battery, a charge controller, a frame and cables\tabcellsep \\
4\tabcellsep 20\tabcellsep 3X3 watt LED light\tabcellsep A 20 watt panel, 3X3 watt LED light, a 15 AH battery,\tabcellsep 13,000\\
\tabcellsep \tabcellsep \tabcellsep a charge controller, a frame and cables\tabcellsep \\
5\tabcellsep 30\tabcellsep \tabcellsep \tabcellsep \end{longtable} \par
  {\small\itshape [Note: 2x3 watt LD light and a A 10 watt panel, 2X2.5 watt LED light, a 30AH 15,500   ]} 
\caption{\label{tab_28}Table 25 :}\end{figure}
 \begin{figure}[htbp]
\noindent\textbf{26} \par 
\begin{longtable}{P{0.85\textwidth}}
Total Office\end{longtable} \par
 
\caption{\label{tab_29}Table 26 :}\end{figure}
 			\footnote{© 2015 Global Journals Inc. (US)} 		 		\backmatter  			  				\begin{bibitemlist}{1}
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\bibitem[Khadem and Hussain ()]{b50}\label{b50} 	 		\textit{A prefeasibility study of wind resources in Kutubdia Island},  		 			S K Khadem 		,  		 			M Hussain 		.  		2006. Bangladesh, Renewable Energy. 31 p. .  	 
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