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Contents contributed and discussions participated by rasheqrahman

rasheqrahman

ScienceDirect - Refocus : Energy for all : : Obstacles and success conditions for RE in... - 0 views

  • There are only a few market actors which often suffer from a lack of capital. On the other hand, the sale of RE systems in rural areas leads to high transaction costs, due to long travel distances, lack of market information, poor infrastructure, difficult access to customers and the lack of skilled personnel.
  • Especially in the field of maintenance, there is a widespread lack of information. In all developing countries, one can find the ruins of RE projects that have fallen into disrepair after they had been installed by foreign donors. This is also often due to a lack of skilled personnel in the field of RE technology. In general, awareness on the advantages and characteristics of RE is still rather scarce. Many households do not consider RE when planning their energy provision. Similarly, governments (as much as many international donors) tend to stick to the large-scale, centralised, conventional energy projects they are accustomed to.
  • First of all, many RE technologies are not yet competitive on a cost-basis with conventional forms of energy. In many cases, the advantage of conventional energy is still increased by subsidies. On the other hand, RE systems and their components are often subject to import duties or other taxes.
rasheqrahman

Technology Acquisition and Innovation in the Developing World: Wind Turbine Development... - 0 views

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    "Although China and India rely on coal to fuel most of their electricity generation, both countries are also home to burgeoning wind power industries. India currently leads the developing world in manufacturing utility-scale wind turbines, and China is close behind. This study examines the technology development strategies that have been pursued by the companies Suzlon and Goldwind, India and China's leading wind turbine manufacturers. While the institutional and other barriers present in large, developing countries such as China and India certainly challenge any simplistic notions of energy leapfrogging, an examination of wind turbine development in these countries has shown that substantial technical advances are possible in a relatively short time. While both Suzlon and Goldwind pursued similar licensing arrangements to acquire basic technical knowledge, Goldwind's technology development model lacks Suzlon's network of strategically positioned global subsidiaries that contribute to its base of industry knowledge and technical capacity. This examination of how two leading developing-country firms have acquired and assimilated advanced technologies provides crucial insights into facilitating international technology transfers, which will be an important component of any technological leapfrogging strategy to achieve lower greenhouse gas emissions in the developing world. "
rasheqrahman

Renewable energy in developing countries - Wikipedia, the free encyclopedia - 0 views

  • Renewable energy projects in many developing countries have demonstrated that renewable energy can directly contribute to poverty alleviation by providing the energy needed for creating businesses and employment. Renewable energy technologies can also make indirect contributions to alleviating poverty by providing energy for cooking, space heating, and lighting.[1]
  • In addition, the displacement of traditional fuels reduces the health problems from indoor air pollution produced by burning those fuels.[1
  • China and India, which are leaders in developing decentralized renewable sources such as small hydro, small wind, biogas, and solar water heating.[1] However, with the Kyoto Protocol, there is a program called the Clean Development Mechanism (CDM) that allows for industrialized nations to invest in projects that reduce emissions in developing countries as an alternative to more expensive emission reductions in their own countries
rasheqrahman

30 Under 30 2009 - Humdinger Wind Energy - Shawn Frayne - 1 views

  • "Our belief is that the future of power is going to be more distributed" and will come from a greater number of smaller sources, Frayne says. "Not meaning that there's going to be a wind turbine on every home, but inputs of 10 kilowatts here, 100 kilowatts there, all throughout cities."
  • The company was founded in Honolulu because of some enticing tax credits for start-ups, but Frayne opened the Hong Kong office because of the massive potential market in China, which boasts less red tape. "It can probably move a lot more quickly in the Chinese market than it could into a U.S. market," Frayne says.
  • "Everything about it is new," Frayne says. "The old constraints don't apply."
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  • the Windbelt was conceived with the developing world in mind, and the goal to "make wind power 10 times cheaper in future than it is today."
rasheqrahman

EIA - International Energy Outlook 2009-World Energy Demand and Economic Outlook - 0 views

  • but in 2030 their share falls to 41 percent in the reference case. OECD energy use grows slowly over the projection period, averaging 0.6 percent per year, as compared with 2.3 percent per year for the emerging non-OECD economies (Figure
  • hina and India together accounted for about 10 percent of the world’s total energy consumption in 1990, but in 2006 their combined share was 19 percent. Strong economic growth in both countries continues over the projection period, with their combined energy use increasing nearly twofold and making up 28 percent of world energy consumption in 2030 in the reference case.
  • In contrast to the OECD countries, hydroelectric power is expected to be the predominant source of renewable energy growth in the non-OECD nations. Strong growth of hydroelectric generation, primarily from mid- to large-scale power plants, is expected in China, India, Brazil, Vietnam, and Laos. Growth rates for wind-powered electricity generation also are expected to be high in the non-OECD countries, with the largest increment in China, which accounts for 88 percent of the total increase in non-OECD wind generation. From 2 billion kilowatthours in 2006, generation from wind plants in China increases to 315 billion kilowatthours in 2030. Still, the total increase in China’s wind-powered generation is only about one-half the expected increase in the country’s hydroelectric generation (Figure 18). 
rasheqrahman

Technology Acquisition and Innovation in the Developing World: Wind Turbine Development... - 1 views

  • Nevertheless, India and China are both home to firms among the global top-10 leading wind turbine manufacturing companies. India currently leads the developing world in the manufacturing of utility-scale (multikilowatt) wind turbines, and China is close behind. Initiatives by domestic firms, supported by national policies to promote renewable energy development, are at the core of wind power innovation in both countries. This study examines the technology development strategies pursued by Suzlon and Goldwind, respectively India’s and China’s leading wind turbine manufacturers. It examines how these companies acquired the technological know-how and intellectual property rights associated with their respective wind turbine designs; how the domestic and international contexts in which these companies operate shaped their technology development strategies; and whether differences in their respective technology development strategies contributed to differences in the performance of the companies in the marketplace.
  • Energy leapfrogging has been described as a strategy for developing countries to shift away from an energy development path that relies on traditional energy sources, such as fossil fuels, and onto a new path that incorporates the broad utilization of advanced energy technologies—generally those that have been developed within more industrially advanced countries. As a means of climate change mitigation, observers have argued that developing countries need not adopt the dirty technologies of the past—rather, they can “leapfrog” over them, opting instead for modern, clean technologies as an integral part of capacity additions (Goldemberg 1998).
rasheqrahman

Windbelt, Cheap Generator Alternative, Set to Power Third World - 1 views

  • Frayne hopes to help fund third-world distribution of his Windbelt with revenue from first-world applications—such as replacing the batteries used to power temperature and humidity sensors in buildings.
rasheqrahman

Blogging Innovation: Interview with Humdinger Wind Energy's Shawn Fayne - Innovation bl... - 0 views

  • He believes that optimal invention is still limited to small groups of people working together in person. Also for Humdinger to be financially viable he feels they must have some amount of protection around their ideas in wealthy countries. Here are some more of his thoughts:
  • There are 1000 different ways to address a problem, the bigger problem is how do you effectively select what to test. You can't test all the approaches. How do you pull out the right ones to test?"
rasheqrahman

REN21 - About REN21 - 0 views

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    "REN21 is a global policy network that provides a forum for international leadership on renewable energy. Its goal is to bolster policy development for the rapid expansion of renewable energies in developing and industrialised economies. Open to a wide variety of dedicated stakeholders, REN21 connects governments, international institutions, non-governmental organisations, industry associations, and other partnerships and initiatives. Linking the energy, development and environment sectors, REN21 strengthens the influence of the unique renewable energy community that came together at the "renewables 2004" conference in Bonn. REN21 is the network in which ideas are shared and action is encouraged to promote renewable energy worldwide."
rasheqrahman

Renewable energy options in developing countries - 0 views

  • In 2009 the world energy consumption was 11.3 billion tonnes of oil equivalent (toe). Energy consumption in industrialized countries has basically been stable in the last 10 years, but in the rest of the world it has been growing at approximately 5% per year. At this rate and based on present technologies, the world’s annual energy consumption could reach 20 billion toe by the year 2020.
  • Fortunately, this can be safely achieved by using a wide variety of renewable sources, some of which, such as hydropower and biomass, are already well-developed. Most developing countries are located in tropical areas where the existence of rivers and rain-fed, arable land provide the conditions for these energy sectors to flourish. While competition with food production and multiple water uses are important issues, more often than not the problems may be overestimated, and can be dealt with through appropriate logistical and land-use planning.
  • In this context, developing countries can today take advantage of a great opportunity. Rather than replicating the economic development process of industrialized nations, which went through a phase that was dirty and wasteful, and created an enormous legacy of environmental pollution, developing countries can leapfrog ahead by incorporating currently available, modern, and efficient technologies in the early stages of their development process.
rasheqrahman

http://www-wds.worldbank.org/external/default/WDSContentServer/IW3P/IB/2009/03/18/00015... - 0 views

  • Installed global wind generating capacity expanded rapidly from only 10 megawatts (MW) in 1980 to 94,124 MW of installed capacity by the end of 2007 (see Table 1). 2 At the end of 2007, Europe and North America accounted for 80.5% of global wind power capacity.
  • large extent on wind resources, in particular, mean wind speed at hub height, the cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
  • large extent on wind resources, in particular, mean wind speed at hub height, the cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
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  • large extent on wind resources, in particular, mean wind speed at hub height, the cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
  • he cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
  • he cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
  • he cost of turbines and related equipment, the proximity to a sufficiently strong transmission grid (i.e. the cost of grid extension and grid reinforcement), and the accessibility of the site. Other factors such as the existing generating mix, system load profiles, connections to grids in other countries/regions, electricity markets, system operating procedures, and land costs also have a significant impact on the costs of wind power generation. A large number of studies compare the costs of wind power with those of other electricity generation technologies (e.g., NEA/IEA, 2005; Kammen and Pacca, 2004; Lazard, 2008; CPUC, 2008; EIA, 2008; ESMAP/WB, 2008). Since electricity generation technologies vary significantly in terms of their investment requirements and operational characteristics, costs are converted to a level or base for comparison purposes, known as the levelized (or bus bar) cost of electricity generation. The levelized cost includes mainly investment or capital costs, operation and maintenance (O&M) costs, and fuel costs. While capital and fixed O&M costs are proportional to installed capacity, variable O&M and fuel costs are functions of electricity output.
  •  
    "Installed global wind generating capacity expanded rapidly from only 10 megawatts (MW) in 1980 to 94,124 MW of installed capacity by the end of 2007 (see Table 1). 2 At the end of 2007, Europe and North America accounted for 80.5% of global wind power capacity. "
rasheqrahman

WindDiesel Systems in Developing Countries - 0 views

  • A solution could be to export these wind turbines to developing countries so that the energy produced could substitute for diesel fuel. This would decrease the dependence of these countries on more and more expensive fuel imports.
    • rasheqrahman
       
      wind to replace diesel fuel
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