Energy development

نوشته شده در موضوع تولید انرژی رایگان در 19 ژوئن 2017

Energy development

World sum primary appetite production

Note a opposite y-axis for sum (left) and informal curves (right)

US Energy Use/Flow in 2011

Energy development is a margin of activities focused on receiving sources of appetite from healthy resources. These activities embody prolongation of conventional, choice and renewable sources of energy, and for a liberation and reuse of appetite that would differently be wasted. Energy assign and potency measures revoke a proceed for appetite development, and can have advantages to multitude with improvements to environmental issues.

Societies use appetite for transportation, manufacturing, illumination, heating and atmosphere conditioning, and communication, for industrial, commercial, and domestic purposes. Energy resources might be personal as primary resources, where a apparatus can be used in almost a strange form, or as delegate resources, where a appetite source contingency be converted into a some-more conveniently serviceable form. Non-renewable resources are significantly depleted by tellurian use, given renewable resources are assembled by ongoing processes that can means unfixed tellurian exploitation.

Thousands of people are employed in a appetite industry. The compulsory attention comprises a petroleum industry, a healthy gas industry, a electrical appetite industry, and a chief industry. New appetite industries embody a renewable appetite industry, comprising choice and tolerable manufacture, distribution, and sale of choice fuels.

Classification of resources[edit]

Energy resources might be personal as primary resources, suitable for finish use though acclimatisation to another form, or delegate resources, where a serviceable form of appetite compulsory estimable acclimatisation from a primary source. Examples of primary appetite resources are breeze power, solar power, timber fuel, hoary fuels such as coal, oil and healthy gas, and uranium. Secondary resources are those such as electricity, hydrogen, or other fake fuels.

Another critical sequence is formed on a time compulsory to renovate an appetite resource. “Renewable” resources are those that redeem their ability in a time poignant by tellurian needs. Examples are hydroelectric appetite or breeze power, when a healthy phenomena that are a primary source of appetite are ongoing and not depleted by tellurian demands. Non-renewable resources are those that are significantly depleted by tellurian use and that will not redeem their appetite significantly during tellurian lifetimes. An instance of a non-renewable appetite source is coal, that does not form naturally during a rate that would support tellurian use.

Fossil fuels[edit]

Fossil fuel (primary non-renewable fossil) sources bake spark or hydrocarbon fuels, that are a stays of a spoil of plants and animals. There are 3 categorical forms of hoary fuels: coal, petroleum, and healthy gas. Another hoary fuel, liquefied petroleum gas (LPG), is predominantly subsequent from a prolongation of healthy gas. Heat from blazing hoary fuel is used possibly directly for space heating and routine heating, or converted to automatic appetite for vehicles, industrial processes, or electrical appetite generation. These hoary fuels are partial of a CO cycle and so concede stored solar appetite to be used today.

The use of hoary fuels in a 18th and 19th Century set a theatre for a Industrial Revolution.

Fossil fuels make adult a bulk of a world’s stream primary appetite sources. In 2005, 81% of a world’s appetite needs was met from hoary sources.[4] The record and infrastructure already exist for a use of hoary fuels. Liquid fuels subsequent from petroleum broach a good understanding of serviceable appetite per territory of weight or volume, that is fitting when compared with revoke appetite firmness sources such as a battery. Fossil fuels are now careful for decentralised appetite use.

Energy coherence on alien hoary fuels creates appetite confidence risks for contingent countries.[5][6][7][8][9] Oil coherence in sold has led to war,[10] appropriation of radicals,[11] monopolization,[12] and socio-political instability.[13]

Fossil fuels are non-renewable resources, that will eventually decrease in prolongation [14] and spin exhausted. While a processes that combined hoary fuels are ongoing, fuels are consumed distant some-more fast than a healthy rate of replenishment. Extracting fuels becomes increasingly dear as multitude consumes a many permitted fuel deposits. [15] Extraction of hoary fuels formula in environmental degradation, such as a frame mining and mountaintop dismissal of coal.

Fuel potency is a form of thermal efficiency, definition a potency of a routine that translates chemical appetite appetite contained in a conduit fuel into kinetic appetite or work. The fuel economy is a appetite potency of a sold vehicle, is given as a ratio of stretch trafficked per territory of fuel consumed. Weight-specific potency (efficiency per territory weight) might be settled for freight, and passenger-specific potency (vehicle potency per passenger). The emasculate windy explosion (burning) of hoary fuels in vehicles, buildings, and appetite plants contributes to civic feverishness islands.[16]

Conventional prolongation of oil has peaked, conservatively, between 2007 and 2010. In 2010, it was estimated that an investment in non-renewable resources of $8 trillion would be compulsory to say stream levels of prolongation for 25 years.[17] In 2010, governments subsidized hoary fuels by an estimated $500 billion a year.[18] Fossil fuels are also a source of hothouse gas emissions, heading to concerns about tellurian warming if expenditure is not reduced.

The explosion of hoary fuels leads to a recover of wickedness into a atmosphere. The hoary fuels are generally CO compounds. During combustion, CO dioxide is released, and also nitrogen oxides, slag and other excellent particulates. Man-made CO dioxide according to a IPCC contributes to tellurian warming.[19] Other emissions from hoary fuel appetite hire embody sulfur dioxide, CO monoxide (CO), hydrocarbons, flighty organic compounds (VOC), mercury, arsenic, lead, cadmium, and other complicated metals including traces of uranium.[20][21]

A standard spark plant generates billions of kilowatt hours per year.[22]



Nuclear appetite is a use of chief prolongation to beget useful feverishness and electricity. Fission of uranium produces scarcely all economically poignant chief power. Radioisotope thermoelectric generators form a really tiny member of appetite generation, mostly in specialized applications such as low space vehicles.

Nuclear appetite plants, incompatible naval reactors, supposing about 5.7% of a world’s appetite and 13% of a world’s electricity in 2012.[23]

In 2013, a IAEA news that there are 437 operational chief appetite reactors,[24] in 31 countries,[25] nonetheless not any reactor is producing electricity.[26] In addition, there are approximately 140 naval vessels regulating chief thrust in operation, powered by some 180 reactors.[27][28][29] As of 2013, attaining a net appetite advantage from postulated chief alloy reactions, incompatible healthy alloy appetite sources such as a Sun, stays an ongoing area of general prolongation and engineering research. More than 60 years after a initial attempts, blurb alloy appetite prolongation stays doubtful before 2050.[30]

There is an ongoing discuss about chief power.[31][32][33] Proponents, such as a World Nuclear Association, a IAEA and Environmentalists for Nuclear Energy contend that chief appetite is a safe, tolerable appetite source that reduces CO emissions.[34]Opponents, such as Greenpeace International and NIRS, contend that chief appetite poses many threats to people and a environment.[35][36][37]

Nuclear appetite plant accidents embody a Chernobyl disaster (1986), Fukushima Daiichi chief disaster (2011), and a Three Mile Island collision (1979).[38] There have also been some chief submarine accidents.[38][39][40] In terms of lives mislaid per territory of appetite generated, investigate has dynamic that chief appetite has caused reduction fatalities per territory of appetite generated than a other vital sources of appetite generation. Energy prolongation from coal, petroleum, healthy gas and hydropower has caused a incomparable array of fatalities per territory of appetite generated due to atmosphere wickedness and appetite collision effects.[41][42][43][44][45] However, a mercantile costs of chief appetite accidents is high, and meltdowns can take decades to purify up. The tellurian costs of evacuations of influenced populations and mislaid livelihoods is also significant.[46][47]

Recent experiments in descent of uranium use polymer ropes that are coated with a piece that selectively absorbs uranium from seawater. This routine could make a estimable volume of uranium dissolved in seawater exploitable for appetite production. Since ongoing geologic processes lift uranium to a sea in amounts allied to a volume that would be extracted by this process, in a clarity a sea-borne uranium becomes a tolerable resource. [48][49]

Nuclear appetite is a low CO appetite epoch routine of producing electricity, with an investigate of a novel on a sum life cycle glimmer appetite anticipating that it is identical to renewable sources in a comparison of hothouse gas(GHG) emissions per territory of appetite generated.[50] Since a 1970’s, chief fuel has transposed about 64 gigatonnes of CO dioxide equivalent(GtCO2-eq) hothouse gases, that would have differently resulted from a blazing of oil, spark or healthy gas in fossil-fuel appetite stations.[51]

As of 2012, according to a IAEA, worldwide there were 68 polite chief appetite reactors underneath construction in 15 countries,[24] approximately 28 of that in a Peoples Republic of China (PRC), with a many new chief appetite reactor, as of May 2013, to be connected to a electrical grid, occurring on Feb 17, 2013 in Hongyanhe Nuclear Power Plant in a PRC.[52] In a United States, dual new Generation III reactors are underneath construction during Vogtle. U.S. chief attention officials pattern 5 new reactors to enter use by 2020, all during existent plants.[53] In 2013, 4 aging, uncompetitive, reactors were henceforth closed.[54][55]

Japan’s 2011 Fukushima Daiichi chief accident, that occurred in a reactor pattern from a 1960s, stirred a rethink of chief reserve and chief appetite routine in many countries.[56] Germany motionless to tighten all a reactors by 2022, and Italy has criminialized chief power.[56] Following Fukushima, in 2011 a International Energy Agency halved a guess of additional chief generating ability to be built by 2035.[57][58]

Fission economics[edit]

The economics of new chief appetite plants is a argumentative subject, given there are diverging views on this topic, and multibillion-dollar investments float on a choice of an appetite source. Nuclear appetite plants typically have high collateral costs for building a plant, though low proceed fuel costs.

In new years there has been a slack of electricity proceed enlargement and financing has spin some-more difficult, that affects immeasurable projects such as chief reactors, with really immeasurable upfront costs and prolonged devise cycles that lift a immeasurable accumulation of risks.[61] In Eastern Europe, a array of long-established projects are struggling to find finance, quite Belene in Bulgaria and a additional reactors during Cernavoda in Romania, and some appetite backers have pulled out.[61] Where inexpensive gas is accessible and a destiny supply comparatively secure, this also poses a vital problem for chief projects.[61]

Analysis of a economics of chief appetite contingency take into comment who bears a risks of destiny uncertainties. To date all handling chief appetite plants were grown by state-owned or regulated application monopolies[63][64] where many of a risks compared with construction costs, handling performance, fuel price, and other factors were borne by consumers rather than suppliers. Many countries have now liberalized a electricity marketplace where these risks, and a risk of cheaper competitors rising before collateral costs are recovered, are borne by plant suppliers and operators rather than consumers, that leads to a significantly opposite investigate of a economics of new chief appetite plants.[65]

Two of a 4 EPRs underneath construction (in Finland and France) are significantly behind news and almost over cost.[66] Following a 2011 Fukushima Daiichi chief disaster, costs are approaching to go adult for now handling and new chief appetite plants, due to augmenting mandate for on-site spent fuel supervision and towering pattern basement threats.[67] While initial of their kind designs, such as a EPRs underneath construction are behind news and over-budget, of a 7 South Korean APR-1400s now underneath construction worldwide, dual are in S.Korea during a Hanul Nuclear Power Plant and 4 are during a largest chief hire construction devise in a universe as of 2016, in a United Arab Emirates during a designed Barakah chief appetite plant. The initial reactor, Barakah-1 is 85% finished and on news for grid-connection during 2017.[68][69]

Renewable sources[edit]

Renewable appetite is generally tangible as appetite that comes from resources that are naturally replenished on a tellurian timescale such as sunlight, wind, rain, tides, waves and geothermal heat.[70] Renewable appetite replaces compulsory fuels in 4 graphic areas: electricity generation, prohibited water/space heating, engine fuels, and tillage (off-grid) appetite services.[71]

About 16% of tellurian final appetite expenditure now comes from renewable resources, with 10% [72] of all appetite from normal biomass, generally used for heating, and 3.4% from hydroelectricity. New renewables (small hydro, complicated biomass, wind, solar, geothermal, and biofuels) comment for another 3% and are flourishing rapidly.[73] At a inhabitant level, during slightest 30 nations around a universe already have renewable appetite contributing some-more than 20% of appetite supply. National renewable appetite markets are projected to continue to grow strongly in a entrance decade and beyond.[74]Wind power, for example, is flourishing during a rate of 30% annually, with a worldwide commissioned ability of 282,482 megawatts (MW) during a finish of 2012.

Renewable appetite resources exist over far-reaching geographical areas, in contrariety to other appetite sources, that are clever in a singular array of countries. Rapid deployment of renewable appetite and appetite potency is ensuing in poignant appetite security, meridian change mitigation, and mercantile benefits.[75] In general open opinion surveys there is clever support for compelling renewable sources such as solar appetite and breeze power.[76]

While many renewable appetite projects are large-scale, renewable technologies are also matched to tillage and remote areas and building countries, where appetite is mostly essential in tellurian development.[77]United Nations’ Secretary-General Ban Ki-moon has pronounced that renewable appetite has a ability to lift a lowest nations to new levels of prosperity.[78]


Hydroelectricity is electric appetite generated by hydropower; a force of descending or issuing water. In 2015 hydropower generated 16.6% of a world’s sum electricity and 70% of all renewable electricity [79][page needed] and is approaching to boost about 3.1% any year for a subsequent 25 years.

Hydropower is assembled in 150 countries, with a Asia-Pacific segment generating 32 percent of tellurian hydropower in 2010. China is a largest hydroelectricity producer, with 721 terawatt-hours of prolongation in 2010, representing around 17 percent of domestic electricity use. There are now 3 hydroelectricity plants incomparable than 10 GW: a Three Gorges Dam in China, Itaipu Dam opposite a Brazil/Paraguay border, and Guri Dam in Venezuela.[80]

The cost of hydroelectricity is comparatively low, creation it a rival source of renewable electricity. The normal cost of electricity from a hydro plant incomparable than 10 megawatts is 3 to 5 U.S. cents per kilowatt-hour.[80] Hydro is also a stretchable source of electricity given plants can be ramped adult and down really fast to adjust to changing appetite demands. However, damming interrupts a upsurge of rivers and can mistreat inner ecosystems, and building immeasurable dams and reservoirs mostly involves displacing people and wildlife.[80] Once a hydroelectric formidable is constructed, a devise produces no proceed waste, and has a extremely revoke outlay spin of a hothouse gas CO dioxide than hoary fuel powered appetite plants.[81]


Wind appetite harnesses a appetite of a breeze to propel a blades of breeze turbines. These turbines means a revolution of magnets, that creates electricity. Wind towers are customarily built together on breeze farms. There are offshore and onshore breeze farms. Global breeze appetite ability has stretched fast to 336 GW in Jun 2014, and breeze appetite prolongation was around 4% of sum worldwide electricity usage, and flourishing rapidly.[82]

Wind appetite is widely used in Europe, Asia, and a United States.[83] Several countries have achieved comparatively high levels of breeze appetite penetration, such as 21% of still electricity prolongation in Denmark,[84] 18% in Portugal,[84] 16% in Spain,[84] 14% in Ireland,[85] and 9% in Germany in 2010.[84][86]:11 By 2011, during times over 50% of electricity in Germany and Spain came from breeze and solar power.[87][88] As of 2011, 83 countries around a universe are regulating breeze appetite on a blurb basis.[86]:11

Many of a world’s largest onshore breeze farms are located in a United States, China, and India. Most of a world’s largest offshore breeze farms are located in Denmark, Germany and a United Kingdom. The dual largest offshore breeze plantation are now a 630 MW London Array and Gwynt y Môr.

Large onshore breeze farms

Wind farm
Alta (Oak Creek-Mojave)
Jaisalmer Wind Park
Roscoe Wind Farm
Horse Hollow Wind Energy Center
Capricorn Ridge Wind Farm
Fântânele-Cogealac Wind Farm
Fowler Ridge Wind Farm


Solar energy, eager light and feverishness from a sun, is harnessed regulating a operation of ever-evolving technologies such as solar heating, solar photovoltaics, solar thermal electricity, solar pattern and synthetic photosynthesis.[96][97]

Solar technologies are broadly characterized as possibly pacifist solar or active solar depending on a proceed they capture, modify and discharge solar energy. Active solar techniques embody a use of photovoltaic panels and solar thermal collectors to strap a energy. Passive solar techniques embody orienting a building to a Sun, selecting materials with auspicious thermal mass or light dispersing properties, and conceptualizing spaces that naturally disseminate air.

In 2011, a International Energy Agency pronounced that “the enlargement of affordable, lavish and purify solar appetite technologies will have outrageous longer-term benefits. It will boost countries’ appetite confidence by faith on an indigenous, lavish and mostly import-independent resource, lift sustainability, revoke pollution, revoke a costs of mitigating meridian change, and keep hoary fuel prices revoke than otherwise. These advantages are global. Hence a additional costs of a incentives for early deployment should be deliberate training investments; they contingency be wisely spent and need to be widely shared”.[96]

Photovoltaics (PV) is a routine of generating electrical appetite by converting solar deviation into proceed stream electricity regulating semiconductors that vaunt a photovoltaic effect. Photovoltaic appetite epoch employs solar panels stoical of a array of solar cells containing a photovoltaic material. Materials now used for photovoltaics embody monocrystalline silicon, polycrystalline silicon, distorted silicon, cadmium telluride, and copper indium gallium selenide/sulfide. Due to a augmenting proceed for renewable appetite sources, a prolongation of solar cells and photovoltaic arrays has modernized extremely in new years.

Solar photovoltaics is a tolerable appetite source.[98] By a finish of 2011, a sum of 71.1 GW[99] had been installed, sufficient to beget 85 TWh/year.[100] And by finish of 2012, a 100 GW commissioned ability miracle was achieved.[101] Solar photovoltaics is now, after hydro and breeze power, a third many critical renewable appetite source in terms of globally commissioned capacity. More than 100 countries use solar PV. Installations might be ground-mounted (and infrequently integrated with tillage and grazing) or built into a roof or walls of a building (either building-integrated photovoltaics or simply rooftop).

Driven by advances in record and increases in prolongation scale and sophistication, a cost of photovoltaics has declined customarily given a initial solar cells were manufactured,[102] and a levelised cost of electricity (LCOE) from PV is rival with compulsory electricity sources in an expanding list of geographic regions. Net metering and financial incentives, such as favoured feed-in tariffs for solar-generated electricity, have upheld solar PV installations in many countries.[103] The Energy Payback Time (EPBT), also famous as energy amortization, depends on a location’s annual solar insolation and feverishness profile, as good as on a used form of PV-technology. For compulsory bright silicon photovoltaics, a EPBT is aloft than for thin-film technologies such as CdTe-PV or CPV-systems. Moreover, a payback time decreased in a new years due to a array of improvements such as solar dungeon potency and some-more mercantile prolongation processes. As of 2014, photovoltaics replenish on normal a appetite indispensable to make them in 0.7 to 2 years. This formula in about 95% of net-clean appetite assembled by a solar rooftop PV complement over a 30-year life-time.[104]:30


A biofuel is a fuel that contains appetite from geologically new CO fixation. These fuels are assembled from vital organisms. Examples of this CO emplacement start in plants and microalgae. These fuels are done by a biomass acclimatisation (biomass refers to recently vital organisms, many mostly referring to plants or plant-derived materials). This biomass can be converted to accessible appetite containing substances in 3 opposite ways: thermal conversion, chemical conversion, and biochemical conversion. This biomass acclimatisation can outcome in fuel in solid, liquid, or gas form. This new biomass can be used for biofuels. Biofuels have augmenting in recognition given of rising oil prices and a need for appetite security.

Bioethanol is an ethanol done by fermentation, mostly from carbohydrates assembled in sugarine or starch crops such as corn or sugarcane. Cellulosic biomass, subsequent from non-food sources, such as trees and grasses, is also being grown as a feedstock for ethanol production. Ethanol can be used as a fuel for vehicles in a pristine form, though it is customarily used as a gasoline addition to boost octane and urge car emissions. Bioethanol is widely used in a USA and in Brazil. Current plant pattern does not yield for converting a lignin apportionment of plant tender materials to fuel components by fermentation.

Biodiesel is done from unfeeling oils and animal fats. Biodiesel can be used as a fuel for vehicles in a pristine form, though it is customarily used as a diesel addition to revoke levels of particulates, CO monoxide, and hydrocarbons from diesel-powered vehicles. Biodiesel is assembled from oils or fats regulating transesterification and is a many common biofuel in Europe. However, investigate is underway on producing renewable fuels from decarboxylation[105]

In 2010, worldwide biofuel prolongation reached 105 billion liters (28 billion gallons US), adult 17% from 2009,[106] and biofuels supposing 2.7% of a world’s fuels for highway transport, a grant mostly done adult of ethanol and biodiesel.[citation needed] Global ethanol fuel prolongation reached 86 billion liters (23 billion gallons US) in 2010, with a United States and Brazil as a world’s tip producers, accounting together for 90% of tellurian production. The world’s largest biodiesel writer is a European Union, accounting for 53% of all biodiesel prolongation in 2010.[106] As of 2011, mandates for consistent biofuels exist in 31 countries during a inhabitant spin and in 29 states or provinces.[86]:13-14 The International Energy Agency has a thought for biofuels to accommodate some-more than a entertain of universe proceed for travel fuels by 2050 to revoke coherence on petroleum and coal.[107]


Geothermal appetite is thermal appetite generated and stored in a Earth. Thermal appetite is a appetite that determines a feverishness of matter. The geothermal appetite of a Earth’s membrane originates from a strange arrangement of a universe (20%) and from prohibited spoil of minerals (80%).[108] The geothermal gradient, that is a disproportion in feverishness between a core of a universe and a surface, drives a continual conduction of thermal appetite in a form of feverishness from a core to a surface. The verb geothermal originates from a Greek roots γη (ge), definition earth, and θερμος (thermos), definition hot.

Earth’s inner feverishness is thermal appetite generated from prohibited spoil and continual feverishness detriment from Earth’s formation. Temperatures during a core-mantle operation might strech over 4000 °C (7,200 °F).[109] The high feverishness and vigour in Earth’s interior means some stone to warp and plain layer to act plastically, ensuing in portions of layer convecting ceiling given it is lighter than a surrounding rock. Rock and H2O is exhilarated in a crust, infrequently adult to 370 °C (700 °F).[110]

From prohibited springs, geothermal appetite has been used for showering given Paleolithic times and for space heating given ancient Roman times, though it is now softened famous for electricity generation. Worldwide, 11,400 megawatts (MW) of geothermal appetite is online in 24 countries in 2012.[111] An additional 28 gigawatts of proceed geothermal heating ability is commissioned for district heating, space heating, spas, industrial processes, desalination and rural applications in 2010.[112]

Geothermal appetite is cost effective, reliable, sustainable, and environmentally friendly,[113] though has historically been singular to areas nearby tectonic image boundaries. Recent technological advances have dramatically stretched a operation and distance of viable resources, generally for applications such as home heating, opening a appetite for widespread exploitation. Geothermal wells recover hothouse gases trapped low within a earth, though these emissions are many revoke per appetite territory than those of hoary fuels. As a result, geothermal appetite has a appetite to assistance lessen tellurian warming if widely deployed in place of hoary fuels.

The Earth’s geothermal resources are theoretically some-more than adequate to supply humanity’s appetite needs, though customarily a really tiny fragment might be profitably exploited. Drilling and scrutiny for low resources is really expensive. Forecasts for a destiny of geothermal appetite count on assumptions about technology, appetite prices, subsidies, and seductiveness rates. Pilot programs like EWEB’s patron opt in Green Power Program [114] uncover that business would be pacific to compensate a tiny some-more for a renewable appetite source like geothermal. But as a outcome of supervision assisted investigate and attention experience, a cost of generating geothermal appetite has decreased by 25% over a past dual decades.[115] In 2001, geothermal appetite cost between dual and 10 US cents per kWh.[116]


Marine energy or marine power (also infrequently referred to as ocean energy, ocean power, or marine and hydrokinetic energy) refers to a appetite carried by sea waves, tides, salinity, and sea feverishness differences. The transformation of H2O in a world’s oceans creates a immeasurable store of kinetic energy, or appetite in motion. This appetite can be harnessed to beget electricity to appetite homes, ride and industries.

The tenure sea appetite encompasses both call appetite i.e. appetite from aspect waves, and tidal appetite i.e. performed from a kinetic appetite of immeasurable bodies of relocating water. Offshore breeze appetite is not a form of sea energy, as breeze appetite is subsequent from a wind, even if a breeze turbines are placed over water. The oceans have a extensive volume of appetite and are tighten to many if not many clever populations. Ocean appetite has a appetite of providing a estimable volume of new renewable appetite around a world.

100% renewable energy[edit]

The inducement to use 100% renewable energy, for electricity, transport, or even sum primary appetite supply globally, has been encouraged by tellurian warming and other ecological as good as mercantile concerns. Renewable appetite use has grown many faster than anyone anticipated.[117] The Intergovernmental Panel on Climate Change has pronounced that there are few elemental technological range to integrating a portfolio of renewable appetite technologies to accommodate many of sum tellurian appetite demand.[118] At a inhabitant level, during slightest 30 nations around a universe already have renewable appetite contributing some-more than 20% of appetite supply. Also, Professors S. Pacala and Robert H. Socolow have grown a array of “stabilization wedges” that can concede us to say a peculiarity of life while avoiding inauspicious meridian change, and “renewable appetite sources,” in aggregate, consecrate a largest array of their “wedges.” [119]

Mark Z. Jacobson says producing all new appetite with breeze power, solar power, and hydropower by 2030 is possibly and existent appetite supply arrangements could be transposed by 2050. Barriers to implementing a renewable appetite devise are seen to be “primarily amicable and political, not technological or economic”. Jacobson says that appetite costs with a wind, solar, H2O complement should be identical to today’s appetite costs.[120]

Similarly, in a United States, a eccentric National Research Council has remarkable that “sufficient domestic renewable resources exist to concede renewable electricity to play a poignant purpose in destiny electricity epoch and so assistance confront issues compared to meridian change, appetite security, and a escalation of appetite costs … Renewable appetite is an appealing choice given renewable resources accessible in a United States, taken collectively, can supply significantly incomparable amounts of electricity than a sum stream or projected domestic demand.” .[121]

Critics of a “100% renewable energy” proceed embody Vaclav Smil and James E. Hansen. Smil and Hansen are endangered about a non-static outlay of solar and breeze power, though Amory Lovins argues that a electricity grid can cope, customarily as it customarily backs adult nonworking coal-fired and chief plants with operative ones.[122]

Google spent $30 million on their REC devise to rise renewable appetite and wand off inauspicious meridian change. The devise was cancelled after final that a best-case unfolding for fast advances in renewable appetite could customarily outcome in emissions 55 percent next a hoary fuel projections for 2050.[123]

Increased appetite efficiency[edit]

Although augmenting a potency of appetite use is not appetite enlargement per se, it might be deliberate underneath a subject of appetite enlargement given it creates existent appetite sources accessible to do work.[125]:22

Efficient appetite use reduces a volume of appetite compulsory to yield products and services. For example, insulating a home allows a building to use reduction heating and cooling appetite to say a gentle temperature. Installing fluorescent lamps or healthy skylights reduces a volume of appetite compulsory for enlightenment compared to illuminated light bulbs. Compact fluorescent lights use two-thirds reduction appetite and might final 6 to 10 times longer than illuminated lights. Improvements in appetite potency are many mostly achieved by adopting an fit record or prolongation process.[126]

Reducing appetite use might save consumers money, if a appetite assets offsets a cost of an appetite fit technology. Reducing appetite use reduces emissions. According to a International Energy Agency, softened appetite potency in buildings, industrial processes and travel could revoke a world’s appetite needs in 2050 by one third, and assistance control tellurian emissions of hothouse gases.[127]

Energy potency and renewable appetite are pronounced to be a twin pillars of tolerable appetite policy.[128] In many countries appetite potency is also seen to have a inhabitant confidence advantage given it can be used to revoke a spin of appetite imports from unfamiliar countries and might delayed down a rate during that domestic appetite resources are depleted.


While new sources of appetite are customarily frequency detected or done probable by new technology, placement record ceaselessly evolves.[129] The use of fuel cells in cars, for example, is an expected smoothness technology.[130] This territory presents a several smoothness technologies that have been critical to ancestral appetite development. They all rest in proceed on a appetite sources listed in a prior section.

Shipping and pipelines[edit]

Coal, petroleum and their derivatives are delivered by boat, rail, or road. Petroleum and healthy gas might also be delivered by pipeline, and spark around a Slurry pipeline. Fuels such as gasoline and LPG might also be delivered around aircraft. Natural gas pipelines contingency say a certain smallest vigour to duty correctly. The aloft costs of ethanol travel and storage are mostly prohibitive.[131]

Wired appetite transfer[edit]

Electricity grids are a networks used to broadcast and discharge appetite from prolongation source to finish user, when a dual might be hundreds of kilometres away. Sources embody electrical epoch plants such as a chief reactor, spark blazing appetite plant, etc. A multiple of sub-stations and delivery lines are used to say a consistent upsurge of electricity. Grids might humour from transitory blackouts and brownouts, mostly due to continue damage. During certain impassioned space continue events solar breeze can meddle with transmissions. Grids also have a predefined carrying ability or bucket that can't safely be exceeded. When appetite mandate surpass what’s available, failures are inevitable. To forestall problems, appetite is afterwards rationed.

Industrialised countries such as Canada, a US, and Australia are among a top per capita consumers of electricity in a world, that is probable interjection to a widespread electrical placement network. The US grid is one of a many advanced, nonetheless infrastructure upkeep is apropos a problem. CurrentEnergy provides a realtime overview of a electricity supply and proceed for California, Texas, and a Northeast of a US. African countries with tiny scale electrical grids have a together low annual per capita use of electricity. One of a many absolute appetite grids in a universe reserve appetite to a state of Queensland, Australia.

Wireless appetite transfer[edit]

Wireless appetite send is a routine whereby electrical appetite is transmitted from a appetite source to an electrical bucket that does not have a built-in appetite source, though a use of interconnecting wires. Currently accessible record is singular to brief distances and comparatively low appetite level.

Orbiting solar appetite collectors would need wireless delivery of appetite to Earth. The due routine involves formulating a immeasurable lamp of microwave-frequency radio waves, that would be directed during a gourmet receiver site on a Earth. Formidable technical hurdles exist to safeguard a reserve and profitability of such a scheme.


Energy storage is achieved by inclination or earthy media that store appetite to perform useful operation during a after time. A device that stores appetite is infrequently called an accumulator.

All forms of appetite are possibly appetite appetite (e.g. Chemical, gravitational, electrical energy, feverishness differential, implicit heat, etc.) or kinetic appetite (e.g. momentum). Some technologies yield customarily short-term appetite storage, and others can be really long-term such as appetite to gas regulating hydrogen or methane and a storage of feverishness or cold between hostile seasons in low aquifers or bedrock. A wind-up time stores appetite appetite (in this box mechanical, in a open tension), a battery stores straightforwardly automobile chemical appetite to work a mobile phone, and a hydroelectric dam stores appetite in a fountainhead as gravitational appetite energy. Ice storage tanks store ice (thermal appetite in a form of implicit heat) during night to accommodate rise proceed for cooling. Fossil fuels such as spark and gasoline store ancient appetite subsequent from object by organisms that after died, became buried and over time were afterwards converted into these fuels. Even food (which is done by a same routine as hoary fuels) is a form of appetite stored in chemical form.


Since prehistory, when amiability detected glow to comfortable adult and fry food, by a Middle Ages in that populations built windmills to grub a wheat, until a complicated epoch in that nations can get electricity bursting a atom. Man has sought forever for appetite sources.

Except nuclear, geothermal and tidal, all other appetite sources are from stream solar siege or from hoary stays of plant and animal life that relied on sunlight. Ultimately, solar appetite itself is a outcome of a Sun’s chief fusion. Geothermal appetite from hot, hardened stone above a magma of a Earth’s core is a outcome of a spoil of prohibited materials benefaction underneath a Earth’s crust, and chief prolongation relies on synthetic prolongation of complicated prohibited elements in a Earth’s crust; in both cases these elements were assembled in supernova explosions before a arrangement of a solar system.

Since a commencement of a Industrial Revolution, a doubt of a destiny of appetite reserve has been of interest. In 1865, William Stanley Jevons published The Coal Question in that he saw that a pot of spark were being depleted and that oil was an ineffectual replacement. In 1914, U.S. Bureau of Mines settled that a sum prolongation was 5.7 billion barrels (910,000,000 m3). In 1956, Geophysicist M. King Hubbert deduces that U.S. oil prolongation would rise between 1965 and 1970 and that oil prolongation will rise “within half a century” on a basement of 1956 data. In 1989, likely rise by Colin Campbell[132] In 2004, OPEC estimated, with estimable investments, it would scarcely double oil outlay by 2025[133]


The environmental transformation has emphasized sustainability of appetite use and development.[134]Renewable appetite is tolerable in a production; a accessible supply will not be discontinued for a foreseeable destiny – millions or billions of years. “Sustainability” also refers to a ability of a sourroundings to cope with rubbish products, generally atmosphere pollution. Sources that have no proceed rubbish products (such as wind, solar, and hydropower) are brought adult on this point. With tellurian proceed for appetite growing, a need to adopt several appetite sources is growing. Energy assign is an choice or interrelated routine to appetite development. It reduces a proceed for appetite by regulating it efficiently.


Some observers contend that thought of “energy independence” is an impractical and ambiguous concept.[135] The choice offer of “energy resilience” is a thought aligned with economic, security, and appetite realities. The idea of resilience in appetite was minute in a 1982 book Brittle Power: Energy Strategy for National Security.[136] The authors argued that simply switching to domestic appetite would not be secure inherently given a loyal debility is a interdependent and exposed appetite infrastructure of a United States. Key aspects such as gas lines and a electrical appetite grid are centralized and simply receptive to disruption. They interpretation that a “resilient appetite supply” is compulsory for both inhabitant confidence and a environment. They suggest a concentration on appetite potency and renewable appetite that is decentralized.[137]

In 2008, former Intel Corporation Chairman and CEO Andrew Grove looked to appetite resilience, arguing that finish autonomy is unfeasible given a tellurian marketplace for energy.[138] He describes appetite resilience as a ability to adjust to interruptions in a supply of energy. To that end, he suggests a U.S. make incomparable use of electricity.[139] Electricity can be assembled from a accumulation of sources. A different appetite supply will be reduction influenced by a intrusion in supply of any one source. He reasons that another underline of foundation is that electricity is “sticky” – definition a electricity assembled in a U.S. is to stay there given it can't be ecstatic overseas. According to Grove, a pivotal aspect of advancing foundation and appetite resilience will be converting a U.S. automotive swift from gasoline-powered to electric-powered. This, in turn, will need a modernization and enlargement of a electrical appetite grid. As organizations such as The Reform Institute have forked out, advancements compared with a building intelligent grid would promote a ability of a grid to catch vehicles en masse joining to it to assign their batteries.[140]

Present and future[edit]

Extrapolations from stream believe to a destiny offer a choice of appetite futures.[143] Predictions together a Malthusian disaster hypothesis. Numerous are formidable models formed scenarios as pioneered by Limits to Growth. Modeling approaches offer ways to investigate different strategies, and hopefully find a highway to fast and tolerable enlargement of humanity. Short tenure appetite crises are also a regard of appetite development. Extrapolations miss plausibility, quite when they envision a continual boost in oil consumption.[citation needed]

Energy prolongation customarily requires an appetite investment. Drilling for oil or building a breeze appetite plant requires energy. The hoary fuel resources that are left are mostly increasingly formidable to remove and convert. They might so need increasingly aloft appetite investments. If investment is incomparable than a value of a appetite assembled by a resource, it is no longer an effective appetite source. These resources are no longer an appetite source though might be exploited for value as tender materials. New record might revoke a appetite investment compulsory to remove and modify a resources, nonetheless eventually simple prolongation sets range that can't be exceeded.

Between 1950 and 1984, as a Green Revolution remade cultivation around a globe, universe pellet prolongation augmenting by 250%. The appetite for a Green Revolution was supposing by hoary fuels in a form of fertilizers (natural gas), pesticides (oil), and hydrocarbon fueled irrigation.[144] The peaking of universe hydrocarbon prolongation (peak oil) might lead to poignant changes, and need tolerable methods of production.[145] One prophesy of a tolerable appetite destiny involves all tellurian structures on a earth’s aspect (i.e., buildings, vehicles and roads) doing synthetic photosynthesis (using object to separate H2O as a source of hydrogen and interesting CO dioxide to make fertilizer) well than plants.[146]

With contemporary space industry’s mercantile activity[147][148] and a compared private spaceflight, with a prolongation industries, that go into Earth’s circuit or beyond, delivering them to those regions will need serve appetite development.[149][150] Researchers have contemplated space-based solar appetite for collecting solar appetite for use on Earth. Space-based solar appetite has been in investigate given a early 1970s. Space-based solar appetite would need construction of gourmet structures in space. The advantage over ground-based solar appetite is aloft appetite of light, and no continue to miscarry appetite collection.

See also[edit]

  • Energy portal
  • Renewable appetite portal
  • Nuclear record portal
  • Sustainable enlargement portal

Energy policy, Energy routine of a United States, Energy routine of China, Energy routine of India, Energy routine of a European Union, Energy routine of a United Kingdom, Energy routine of Russia, Energy routine of Brazil, Energy routine of Canada, Energy routine of a Soviet Union, Energy Industry Liberalization and Privatization (Thailand)
Seasonal thermal appetite storage (Interseasonal thermal appetite storage), Geomagnetically prompted current, Energy harvesting
Raw material, Biomaterial, Commodity, Materials science, Recycling, Upcycling, Downcycling
Thorium-based chief power, List of oil pipelines, List of healthy gas pipelines, Ocean thermal appetite conversion, Growth of photovoltaics

References and citations[edit]



  1. ^ REN21–Renewable Energy Policy Network for a 21st Century Renewables 2012–Global Status Report Archived Dec 15, 2012, during a Wayback Machine., 2012
  2. ^–U.S. Energy Information Administration International Energy Statistics
  3. ^ Lawrence Livermore National Laboratory–Energy upsurge chart, 2011
  4. ^ International Energy Agency: Key World Energy Statistics 2007. S. 6
  5. ^ Energy Security and Climate Policy: Assessing Interactions. p125
  6. ^ Energy Security: Economics, Politics, Strategies, and Implications. Edited by Carlos Pascual, Jonathan Elkind. p210
  7. ^ Geothermal Energy Resources for Developing Countries. By D. Chandrasekharam, J. Bundschuh. p91
  8. ^ Congressional Record, V. 153, PT. 2, Jan 18, 2007 to Feb 1, 2007 edited by U S Congress, Congress (U.S.). p 1618
  9. ^ India s Energy Security. Edited by Ligia Noronha, Anant Sudarshan.
  10. ^ National security, safety, technology, and practice implications of augmenting CAFE standards : conference before a Committee on Commerce, Science, and Transportation, United States Senate, One Hundred Seventh Congress, second session, Jan 24, 2002. DIANE Publishing. p10
  11. ^ Ending our-Dependence on Oil – American Security Project.
  12. ^ Energy Dependency, Politics and Corruption in a Former Soviet Union. By Margarita M. Balmaceda. Psychology Press, Dec 6, 2007.
  13. ^ Oil-Led Development Archived May 13, 2013, during a Wayback Machine.: Social, Political, and Economic Consequences. Terry Lynn Karl. Stanford University. Stanford, California, United States.
  14. ^ Peaking of World Oil Production: Impacts, Mitigation, and Risk Management. Was at:
  15. ^ “Big Rig Building Boom”. 2006-04-13. Archived from the original on 2007-10-21. Retrieved 2008-01-18. 
  16. ^ “Heat Island Group Home Page”. Lawrence Berkeley National Laboratory. 2000-08-30. Archived from the original on Jan 9, 2008. Retrieved 2008-01-19. 
  17. ^ “Has a World Already Passed “Peak Oil”?”. 
  18. ^ (April 22, 2010) “Fossil-Fuel Subsidies Hurting Global Environment, Security, Study Finds”
  19. ^ Intergovernmental Panel on Climate Change (2007): IPCC Fourth Assessment Report – Working Group we Report on “The Physical Science Basis”.
  20. ^ “Environmental impacts of spark power: atmosphere pollution”. Union of Concerned Scientists. 18 Aug 2005. Retrieved 18 January 2008. 
  21. ^ NRDC: There Is No Such Thing as “Clean Coal” Archived Jul 30, 2012, during a Wayback Machine.
  22. ^ How many electricity does a standard chief appetite plant generate? – FAQ – U.S. Energy Information Administration (EIA)
  23. ^ “Key World Energy Statistics 2012” (PDF). International Energy Agency. 2012. Retrieved 2012-12-17. 
  24. ^ a b “PRIS – Home”. Retrieved 2013-06-14. 
  25. ^ “World Nuclear Power Reactors 2007-08 and Uranium Requirements”. World Nuclear Association. 2008-06-09. Archived from the original on Mar 3, 2008. Retrieved 2008-06-21. 
  26. ^ “Japan approves dual reactor restarts”. Taipei Times. 2013-06-07. Retrieved 2013-06-14. 
  27. ^ “What is Nuclear Power Plant – How Nuclear Power Plants work | What is Nuclear Power Reactor – Types of Nuclear Power Reactors”. EngineersGarage. Retrieved 2013-06-14. 
  28. ^ “Nuclear-Powered Ships | Nuclear Submarines”. Retrieved 2013-06-14. 
  29. ^ Naval Nuclear Propulsion, Magdi Ragheb. As of 2001, about 235 naval reactors had been built
  30. ^ “Beyond ITER”. The ITER Project. Information Services, Princeton Plasma Physics Laboratory. Archived from the original on 7 Nov 2006. Retrieved 5 February 2011.  – Projected alloy appetite timeline
  31. ^ Union-Tribune Editorial Board (March 27, 2011). “The chief controversy”. Union-Tribune. 
  32. ^ James J. MacKenzie. Review of The Nuclear Power Controversy by Arthur W. Murphy The Quarterly Review of Biology, Vol. 52, No. 4 (Dec., 1977), pp. 467-468.
  33. ^ In Feb 2010 a chief appetite discuss played out on a pages of a New York Times, see A Reasonable Bet on Nuclear Power and Revisiting Nuclear Power: A Debate and A Comeback for Nuclear Power?
  34. ^ U.S. Energy Legislation May Be ‘Renaissance’ for Nuclear Power.
  35. ^ Share. “Nuclear Waste Pools in North Carolina”. Archived from the original on 2010-07-25. Retrieved 2010-08-24. 
  36. ^ “Nuclear Power”. Nc Warn. Retrieved 2013-06-22. 
  37. ^ Sturgis, Sue. “Investigation: Revelations about Three Mile Island disaster lift doubts over chief plant safety”. Retrieved 2010-08-24. 
  38. ^ a b iPad iPhone Android TIME TV Populist The Page (2009-03-25). “The Worst Nuclear Disasters”. Retrieved 2013-06-22. 
  39. ^ Strengthening a Safety of Radiation Sources Archived 20090608223006 during WebCite p. 14.
  40. ^ Johnston, Robert (September 23, 2007). “Deadliest deviation accidents and other events causing deviation casualties”. Database of Radiological Incidents and Related Events. 
  41. ^ Markandya, A.; Wilkinson, P. (2007). “Electricity epoch and health”. Lancet. 370 (9591): 979–990. PMID 17876910. doi:10.1016/S0140-6736(07)61253-7. 
  42. ^ “Dr. MacKay Sustainable Energy though a prohibited air. Data from studies by a Paul Scherrer Institute including non EU data. p. 168. Retrieved 15 September 2012. 
  43. ^ with Chernobyl’s sum likely linear no-threshold cancer deaths included, chief appetite is safer when compared to many choice appetite sources’ immediate, genocide rate.
  44. ^ Brendan Nicholson (2006-06-05). “Nuclear appetite ‘cheaper, safer’ than spark and gas”. The Age. Retrieved 2008-01-18. 
  45. ^ Human and Ecological Risk Assessment: An International Journal Volume 14, Issue 5, 2008 – A analogous investigate of collision risks in fossil, hydro, and chief appetite chains. If we can't entrance a paper around a above link, a following couple is open to a public, credit to a authors. Page 962 to 965. Comparing Nuclear’s latent cancer deaths, such as cancer with other appetite sources immediate deaths per territory of appetite generated(GWeyr). This investigate does not embody hoary fuel compared cancer and other surreptitious deaths combined by a use of hoary fuel expenditure in a “severe accident”, an collision with some-more than 5 fatalities, classification.
  46. ^ Richard Schiffman (12 Mar 2013). “Two years on, America hasn’t schooled lessons of Fukushima chief disaster”. The Guardian. 
  47. ^ Martin Fackler (June 1, 2011). “Report Finds Japan Underestimated Tsunami Danger”. New York Times. 
  48. ^ Uranium Seawater Extraction Makes Nuclear Power Completely Renewable. Forbes. James Conca. Jul 2016
  49. ^ April 20, 2016 Volume 55, Issue 15 Pages 4101-4362 In this issue:Uranium in Seawater
  50. ^ “Collectively, life cycle comment novel shows that chief appetite is identical to other renewable and many revoke than hoary fuel in sum life cycle GHG emissions.””. 2013-01-24. Retrieved 2013-06-22. 
  51. ^ “Prevented Mortality and Greenhouse Gas Emissions from Historical and Projected Nuclear Power – tellurian chief appetite has prevented an normal of 1.84 million atmosphere pollution-related deaths and 64 gigatonnes of CO2-equivalent (GtCO2-eq) hothouse gas (GHG) emissions that would have resulted from hoary fuel burning”. Environmental Science. 47: 4889–4895. doi:10.1021/es3051197. 
  52. ^ “Worldwide First Reactor to Start Up in 2013, in China – World Nuclear Industry Status Report”. Retrieved 2013-06-14. 
  53. ^ Ayesha Rascoe (February 9, 2012). “U.S. approves initial new chief plant in a generation”. Reuters. 
  54. ^ Mark Cooper (18 Jun 2013). “Nuclear aging: Not so graceful”. Bulletin of a Atomic Scientists. 
  55. ^ Matthew Wald (June 14, 2013). “Nuclear Plants, Old and Uncompetitive, Are Closing Earlier Than Expected”. New York Times. 
  56. ^ a b Sylvia Westall; Fredrik Dahl (June 24, 2011). “IAEA Head Sees Wide Support for Stricter Nuclear Plant Safety”. Scientific American. 
  57. ^ “Gauging a pressure”. The Economist. 28 Apr 2011. 
  58. ^ European Environment Agency (January 23, 2013). “Late lessons from early warnings: science, precaution, innovation: Full Report”. p. 476. 
  59. ^ Tomoko Yamazaki; Shunichi Ozasa (27 Jun 2011). “Fukushima Retiree Leads Anti-Nuclear Shareholders during Tepco Annual Meeting”. Bloomberg. 
  60. ^ Mari Saito (7 May 2011). “Japan anti-nuclear protesters convene after PM call to tighten plant”. Reuters. 
  61. ^ a b c Kidd, Steve (January 21, 2011). “New reactors—more or less?”. Nuclear Engineering International. Archived from the original on 2011-12-12. 
  62. ^ Ipsos (23 Jun 2011), Global Citizen Reaction to a Fukushima Nuclear Plant Disaster (theme: sourroundings / climate) Ipsos Global @dvisor (PDF) . Survey website: Ipsos MORI: Poll: Strong tellurian antithesis towards chief power.
  63. ^ Ed Crooks (12 Sep 2010). “Nuclear: New emergence now seems singular to a east”. Financial Times. Retrieved 12 September 2010. 
  64. ^ Edward Kee (16 Mar 2012). “Future of Nuclear Energy” (PDF). NERA Economic Consulting. Archived from the original (PDF) on 5 Oct 2013. Retrieved 2 October 2013. 
  65. ^ The Future of Nuclear Power. Massachusetts Institute of Technology. 2003. ISBN 0-615-12420-8. Retrieved 2006-11-10. 
  66. ^ Patel, Tara; Francois de Beaupuy (24 Nov 2010). “China Builds Nuclear Reactor for 40% Less Than Cost in France, Areva Says”. Bloomberg. Retrieved 2011-03-08. 
  67. ^ Massachusetts Institute of Technology (2011). “The Future of a Nuclear Fuel Cycle” (PDF). p. xv. 
  68. ^ UAE’s fourth appetite reactor underneath construction
  69. ^ BU DHABI, 7th April, 2016 (WAM) – The Emirates Nuclear Energy Corporation ( ENEC ) supposing a devise refurbish on a standing of a UAE pacific chief appetite module and a Barakah site
  70. ^ “The parable of renewable appetite | Bulletin of a Atomic Scientists”. 2011-11-22. Retrieved 2013-10-03. 
  71. ^ REN21 (2010). Renewables 2010 Global Status Report p. 15. Archived Apr 16, 2012, during a Wayback Machine.
  72. ^
  73. ^ REN21 (2011). “Renewables 2011: Global Status Report” (PDF). pp. 17, 18. 
  74. ^ REN21 (2013). “Renewables tellurian futures news 2013” (PDF). [permanent passed link]
  75. ^ International Energy Agency (2012). “Energy Technology Perspectives 2012” (PDF). 
  76. ^ United Nations Environment Programme Global Trends in Sustainable Energy Investment 2007: Analysis of Trends and Issues in a Financing of Renewable Energy and Energy Efficiency in OECD and Developing Countries Archived Mar 25, 2009, during a Wayback Machine. (PDF), p. 3.
  77. ^ World Energy Assessment (2001). Renewable appetite technologies Archived Jun 9, 2007, during a Wayback Machine., p. 221.
  78. ^ Steve Leone (25 Aug 2011). “U.N. Secretary-General: Renewables Can End Energy Poverty”. Renewable Energy World. 
  79. ^ “Renewables 2016: Global Status Report” (pdf). Retrieved 2017-05-24. 
  80. ^ a b c Worldwatch Institute (January 2012). “Use and Capacity of Global Hydropower Increases”. 
  81. ^ Renewables 2011 Global Status Report, page 25, Hydropower Archived Apr 9, 2012, during a Wayback Machine., REN21, published 2011, accessed 2011-11-7.
  82. ^ The World Wind Energy Association (2014). 2014 Half-year Report. WWEA. pp. 1–8. 
  83. ^ Global breeze appetite markets continue to bang – 2006 another record year (PDF).
  84. ^ a b c d “World Wind Energy Report 2010” (PDF). Report. World Wind Energy Association. Feb 2011. Archived from the original (PDF) on 4 Sep 2011. Retrieved 8 August 2011. 
  85. ^ “Renewables”. Archived from the original on 25 Aug 2011. Retrieved 22 November 2010. 
  86. ^ a b c REN21 (2011). “Renewables 2011: Global Status Report” (PDF). Archived from the original (PDF) on 2011-09-05. 
  87. ^ “This page has been private – News – The Guardian”. the Guardian. 
  88. ^ Spain Renewable Energy and High Penetration Archived Jun 9, 2012, during a Wayback Machine.
  89. ^ Terra-Gen Press Release, 17 Apr 2012
  90. ^ BS Reporter (11 May 2012). “Suzlon creates country’s largest breeze park”. 
  91. ^ E.ON Delivers 335-MW of Wind in Texas
  92. ^ a b “Drilling Down: What Projects Made 2008 Such a Banner Year for Wind Power?”. 
  93. ^ a b AWEA: U.S. Wind Energy Projects – Texas Archived Dec 29, 2007, during a Wayback Machine.
  94. ^ FG Forrest; a. s.; fg {zavináč } fg {tečka} cz – Content Management System – Edee CMS; SYMBIO Digital, s. r. o. – Webdesign. “CEZ Group – The Largest Wind Farm in Europe Goes Into Trial Operation”. CS1 maint: Multiple names: authors list (link)
  95. ^ AWEA: U.S. Wind Energy Projects – Indiana
  96. ^ a b “Solar Energy Perspectives: Executive Summary” (PDF). International Energy Agency. 2011. Archived from the original (PDF) on 2011-12-03. 
  97. ^ Solar Fuels and Artificial Photosynthesis. Royal Society of Chemistry 2012 (accessed 11 Mar 2013)
  98. ^ Pearce, Joshua (2002). open entrance “Photovoltaics – A Path to Sustainable Futures” Check |url= value (help). Futures. 34 (7): 663–674. doi:10.1016/S0016-3287(02)00008-3. 
  99. ^ European Photovoltaic Industry Association (2013). “Global Market Outlook for Photovoltaics 2013-2017”. 
  100. ^ European Photovoltaic Industry Association (2012). “Market Report 2011” (PDF). 
  101. ^ Global Solar PV commissioned Capacity crosses 100GW Mark. (11 Feb 2013).
  102. ^ Swanson, R. M. (2009). “Photovoltaics Power Up” (PDF). Science. 324 (5929): 891–2. PMID 19443773. doi:10.1126/science.1169616. 
  103. ^ Renewable Energy Policy Network for a 21st century (REN21), Renewables 2010 Global Status Report, Paris, 2010, pp. 1–80.
  104. ^ “Photovoltaics Report” (PDF). Fraunhofer ISE. 28 Jul 2014. Archived (PDF) from a strange on 31 Aug 2014. Retrieved 24 October 2014. 
  105. ^ “Continuous catalytic deoxygenation of indication and algal lipids to fuel-like hydrocarbons over Ni–Al layered double hydroxide”. Catalysis Today. 258: 284–293. doi:10.1016/j.cattod.2014.12.004. Retrieved 2015-06-02. 
  106. ^ a b “Biofuels Make a Comeback Despite Tough Economy”. Worldwatch Institute. 2011-08-31. Retrieved 2011-08-31. 
  107. ^ “Technology Roadmap, Biofuels for Transport” (PDF). 2011. 
  108. ^ How Geothermal appetite works. Retrieved on 2013-04-24.
  109. ^ Lay, T., Hernlund, J., Buffett, B. A. (2008). Core–mantle operation feverishness flow. Nature Geoscience, 1(1), 25-32.
  110. ^ Nemzer, J. “Geothermal heating and cooling”. 
  111. ^ “Geothermal ability | About BP | BP Global”. Retrieved 2013-10-05. 
  112. ^ Fridleifsson, Ingvar B.; Bertani, Ruggero; Huenges, Ernst; Lund, John W.; Ragnarsson, Arni; Rybach, Ladislaus (2008-02-11), O. Hohmeyer and T. Trittin, ed., The probable purpose and grant of geothermal appetite to a slackening of meridian change (pdf), IPCC Scoping Meeting on Renewable Energy Sources, Luebeck, Germany, pp. 59–80, retrieved 2009-04-06
  113. ^ Glassley, William E. (2010). Geothermal Energy: Renewable Energy and a Environment, CRC Press, ISBN 9781420075700.
  114. ^ Green Power.
  115. ^ Cothran, Helen (2002), Energy Alternatives, Greenhaven Press, ISBN 0737709049 
  116. ^ Fridleifsson, Ingvar. “ScienceDirect – Renewable and Sustainable Energy Reviews : Geothermal appetite for a advantage of a people”. Renewable and Sustainable Energy Reviews. 5: 299–312. doi:10.1016/S1364-0321(01)00002-8. Retrieved 14 November 2011. 
  117. ^ Paul Gipe (4 Apr 2013). “100 Percent Renewable Vision Building”. Renewable Energy World. 
  118. ^ IPCC (2011). “Special Report on Renewable Energy Sources and Climate Change Mitigation” (PDF). Cambridge University Press, Cambridge, United Kingdom and New York, NY, USA. p. 17. Archived from the original (PDF) on 2014-01-11. 
  119. ^ S. Pacala; R. Socolow (2004). “Stabilization Wedges: Solving a Climate Problem for a Next 50 Years with Current Technologies” (PDF). Science Vol. 305. pp. 968–972. 
  120. ^ Mark A. Delucchi; Mark Z. Jacobson (2011). “Providing all tellurian appetite with wind, water, and solar power, Part II: Reliability, complement and delivery costs, and policies” (PDF). Energy Policy. Elsevier Ltd. pp. 1170–1190. 
  121. ^ National Research Council (2010). “Electricity from Renewable Resources: Status, Prospects, and Impediments”. National Academies of Science. p. 4. 
  122. ^ Amory Lovins (March–April 2012). “A Farewell to Fossil Fuels”. Foreign Affairs. 
  123. ^
  124. ^ “Philips Tornado Asian Compact Fluorescent”. Philips. Retrieved 2007-12-24. 
  125. ^ Richard L. Kauffman Obstacles to Renewable Energy and Energy Efficiency[permanent passed link]. in: From Silos to Systems: Issues in Clean Energy and Climate Change. A news on a work of a REIL Network, 2008-2010. Edited by Parker L et al. Yale School of Forestry Environmental Studies 2010
  126. ^ Diesendorf, Mark (2007). Greenhouse Solutions with Sustainable Energy, UNSW Press, p. 86.
  127. ^ Sophie Hebden (2006-06-22). “Invest in purify record says IEA report”. Retrieved 2010-07-16. 
  128. ^ “The Twin Pillars of Sustainable Energy: Synergies between Energy Efficiency and Renewable Energy Technology and Policy”. Archived from the original on 2009-04-29. Retrieved 2010-07-16. 
  129. ^ “News”. Lawrence Livermore National Laboratory. 
  130. ^ Fuel Cell Materials Technology in Vehicular Propulsion: Report. National Academies, 1983.
  131. ^ “Oak Ridge National Laboratory — Biomass, Solving a scholarship is customarily partial of a challenge”. Retrieved 2008-01-06. 
  132. ^ “Oil Price Leap in a Early Nineties,” Noroil, Dec 1989, pages 35–38.
  133. ^ Opec Oil Outlook to 2025 Table 4, Page 12
  134. ^ Sustainable Development and Innovation in a Energy Sector. Ulrich Steger, Wouter Achterberg, Kornelis Blok, Henning Bode, Walter Frenz, Corinna Gather, Gerd Hanekamp, Dieter Imboden, Matthias Jahnke, Michael Kost, Rudi Kurz, Hans G. Nutzinger, Thomas Ziesemer. Springer, Dec 5, 2005.
  135. ^ Energy autonomy and security Archived Apr 5, 2013, during a Wayback Machine.: A existence check – Deloitte
  136. ^ Brittle Power: Energy Plan for National Security. Amory B. Lovins and L. Hunter Lovins (1982).
  137. ^ “The Fragility of Domestic Energy.” Amory B. Lovins and L. Hunter Lovins. Atlantic Monthly. Nov 1983.
  138. ^ “Our Electric Future.” Andrew Grove. The American. July/August 2008.
  139. ^ Andrew Grove and Robert Burgelman (December 2008). “An Electric Plan for Energy Resilience”. McKinsey Quarterly. Retrieved 2010-07-20. 
  140. ^ Resilience in Energy: Building Infrastructure Today for Tomorrow’s Automotive Fuel. Reform Institute. Mar 2009.[permanent passed link]
  141. ^ World appetite expenditure opinion from a International Energy Outlook, published by a U.S. DOE Energy Information Administration
  142. ^ Source: Energy Information Administration – International Energy Outlook 2004
  143. ^ Mandil, C. (2008) “Our appetite for a future”. S.A.P.I.EN.S. 1 (1)
  144. ^ “Eating Fossil Fuels”. Resilience. 
  145. ^ Peak Oil: a hazard to a food security Archived Jul 14, 2009, during a Wayback Machine. retrieved 28 May 2009
  146. ^ Faunce TA, Lubitz W, Rutherford AW, MacFarlane D, Moore, GF, Yang P, Nocera DG, Moore TA, Gregory DH, Fukuzumi S, Yoon KB, Armstrong FA, Wasielewski MR, Styring S. ‘Energy and Environment Case for a Global Project on Artificial Photosynthesis.’ Energy and Environmental Science 2013, 6 (3), 695 – 698 DOI:10.1039/C3EE00063J (accessed 13 Mar 2013)
  147. ^ Joan Lisa Bromberg (October 2000). NASA and a Space Industry. JHU Press. p. 1. ISBN 978-0-8018-6532-9. Retrieved 10 June 2011. 
  148. ^ Kai-Uwe Schrogl (2 Aug 2010). Yearbook on Space Policy 2008/2009: Setting New Trends. Springer. p. 49. ISBN 978-3-7091-0317-3. Retrieved 10 June 2011. 
  149. ^ Propulsion Techniques: Action and Reaction edited by Peter J. Turchi. p341
  150. ^ Climate Change: The Science, Impacts and Solutions. Edited by A. Pittock



External links[edit]




  • European Union (Czech Republic, Denmark, Finland, Germany, Greece, Hungary, Ireland, Italy, Lithuania, Luxembourg, Malta, Netherlands, Portugal, Spain, Sweden, United Kingdom)
  • Albania
  • Iceland
  • Norway
  • Russia
  • Turkey

North America


South America

Renewable energy
Sustainable development

Wind power

Wind turbines

Wind appetite industry

Wind farms



Renewable energy


Article source:

یک پاسخ به “Energy development”

  1. BennySceve گفت:

    wh0cd2455388 [url=]Tadalafil Cipla[/url]

دیدگاهتان را بنویسید

نشانی ایمیل شما منتشر نخواهد شد. بخش‌های موردنیاز علامت‌گذاری شده‌اند *