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Elon Musk and Tesla offer a gripping corporate tale and coveted electric cars, but when it comes to climate change, they are a rather minor subplot.

Why it matters: Numerous other factors and technologies influence whether electric cars are actually green. And no matter how green they are, they’re still just one, relatively small part of a many-sided, global problem.

Let’s put aside the whiplash news of Musk mulling via Twitter about taking Tesla private and then deciding not to over the weekend. Here are some basic numbers.

Tesla announced last month it had passed the 200,000 mark for total vehicles sold in the U.S. Third Way, a centrist think tank, crunched some numbers for me to put that figure into context.

Here’s how to think of the carbon dioxide emissions avoided by Teslas versus clean sources of electricity:

  • A nuclear reactor replacing coal = 541,353 Teslas.
  • A nuclear reactor replacing natural gas = 294,041 Teslas.
  • Natural gas replacing one coal plant = 98,940 Teslas.
  • 100-megawatt wind farm replacing natural gas = 8,267 Teslas.
  • Five-megawatt solar farm replacing natural gas = 320 Teslas.

It takes a lot of Teslas to equal the emissions savings of a carbon-free nuclear reactor, and to a lesser extent other clean energy sources.

Lindsey Walter and Josh Freed, the Third Way analysts who did this analysis, stressed that this doesn’t negate the importance of Tesla. But it does show how electric cars, and one company in that category, are but one highly dependent piece of the puzzle in addressing climate change. It also illustrates how difficult it is to green the transportation sector.

For the record, a Tesla spokesperson said in a statement: “Tesla exists for one reason: to accelerate the world’s transition to sustainable energy.”

  • The spokesperson went on to say that Tesla is moving the whole auto industry toward electrification.
  • “It would be a shame if anyone reading this article came away with the false impression that driving an electric vehicle or owning energy storage or solar products doesn’t have a meaningful effect on climate change.”

Electric vehicles have a green reputation, but an important reminder: they are only as green as the electricity they are using.

The International Energy Agency has found wide ranges in electric cars’ net climate benefits over internal combustion engines, according to its 2018 outlook. That’s after factoring in how carbon-intensive a country’s electricity is, as well as the emissions associated with batteries and other manufacturing of electric cars.

  • The carbon benefits of electric cars over petro-fueled ones drop from 50{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} to 30{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} in Europe when adding manufacturing emissions, and even lower in countries that get more electricity from fossil fuels, like the U.S.
  • When considering manufacturing emissions, electric cars could even result in a net increase in CO2 emissions in countries like India and China with heavy fossil-fuel power mixes, the IEA says.

Projections show electricity grids around the world getting greener in the decades to come, so electric cars are poised to offer bigger benefits. But it remains an open question how quickly that occurs in China, and to what degree it does at all in India — the two countries that matter most when it comes to future greenhouse gas emissions.

  • The avoided global carbon dioxide emissions of all electric cars in 2017 was 29.4 million metric tons, according to the IEA.
  • By 2030, the IEA predicts that number could increase to between 177 to 514 million metric tons.
  • That range depends on a number of factors, including government policies that support adoption of electric cars and how quickly electricity grids become cleaner.

These are significant savings coming from a single, nascent technology, but they’re still a relative small piece of the climate puzzle.

  • For example, the carbon dioxide emissions coming just from China’s industrial sector making cement, steel and other materials is around 3.3 billion metric tons, according to data compiled by the environmental group Clean Air Task Force.

Tesla is pivotally important to electric cars gaining steam in the U.S. and around the world. For Musk and others who own shares in Tesla, it’s probably a good investment.

That’s not the same as Tesla and Musk being pivotally important to addressing climate change. It’s like saying: I’m going to lose weight by eating healthier side dishes. You’re comparatively healthier for that side, but you’re not going to lose much weight without eating healthier for whole meals.

The puzzle of addressing climate change will need clean-energy technologies of all stripes. Musk is contributing with advancing battery technologies and SolarCity, a solar energy company that’s a Tesla subsidiary. But there are a lot of other companies doing big things with much lower profiles. Here are three:

  • NextEra, the world’s largest operator of wind and solar farms, per this recent WSJ profile.
  • NuScale Power, which is going through government permitting now to build what is poised to be America’s first advanced nuclear reactor.
  • NET Power, which is working to commercialize technology capturing carbon emissions from natural-gas plants.

The CEOs here — James Robo, John Hopkins and Bill Brown, respectively — may not be going to space like Elon Musk. But down here on Earth, they’re still having a pretty big impact with the planet.

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–  Atlas Renewable Energy and Bancomext announce US$88.5 million financing for the Guajiro plant

–  Guajiro will generate an estimated 300 GWh annually, equivalent to the electrical demands of about 120,000 homes

MEXICO CITY, Aug. 27, 2018 /PRNewswire/ — Atlas Renewable Energy and el Banco de Comercio Exterior (Bancomext) announced today the signing of a long-term financing agreement for Atlas Renewable Energy’s solar power plant in Mexico, located in the state of Hidalgo.

Bancomext will provide $88.5 million dollars to finance the construction of the project, along with a $17 million dollars line of credit for Value Added Tax (VAT). The plant will have an installed capacity of approximately 129.5 MWp.

The project was awarded a power purchase agreement (PPA) with the Federal Electricity Commission (CFE), Mexico’s federal electricity company, in the first long-term energy auction, carried out in 2016 as part of Mexico’s energy reform.

The Guajiro Solar project is expected to begin operations in the second quarter of 2019. The plant will span over 410 hectares in Nopala de Villagrán, located in the state of Hidalgo. Guajiro Solar estimates it will generate 300 GWh annually, equivalent to the demand of roughly 120,000 homes. Atlas Renewable Energy estimates that the operation of the project will prevent the annual emission of more than 215,000 tons of carbon dioxide, which is equivalent to eliminating more than 46,000 cars from circulation.

Carlos Barrera, CEO of Atlas Renewable Energy, stated that, “The financing of the Guajiro Solar project marks an important milestone for Atlas Renewable Energy and consolidates Mexico as one of our main markets. It also strengthens our track-record of successful renewable energy project financings throughout Latin America.” He recognized Bancomext’s management of this transaction and for the positive impact it has had in accelerating investment in renewable energy projects throughout Mexico. “As we continue to grow, we will look for other opportunities to partner again with leading financial institutions such as Bancomext and government entities such as CFE,” he concluded.

Camilo Serrano, general manager of Atlas Renewable Energy for Mexico, emphasized that, “This project demonstrates a collaboration of public and private interests to increase the presence of renewable energy in Mexico,” and commented that they will look for more opportunities to expand Atlas Renewable Energy’s footprint in Mexico.

Francisco N. González Díaz, general director of Bancomext, highlighted that, “The Guajiro Solar project positions Atlas Renewable Energy as a reliable partner for investment and infrastructure development within the Mexican energy sector.” This project will generate 300 GWh annually, while helping achieve the goal of generating 35{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of Mexico’s energy from renewable sources by 2024. Additionally, it provides an economic stimulus for the region. He added that, “This type of financing is intended to continue supporting the development of projects aligned to the Federal Government’s market strategy for renewable energy.”

As its first solar energy project in Mexico, Guajiro is part of Atlas Renewable Energy’s growth strategy to deepen its position in Mexico, a core market for Atlas Renewable Energy. The company launched its regional expansion in last year, with the inauguration of a plant in Chile that generates 110 MW, and the acquisition of an operating 70MW plant in the North of Chile. In July of this year, the company raised a green bond for two of its operating plants in Uruguay, and currently the company is in construction and advance development stage for several photovoltaic plants in Brazil with a total capacity of 450 MW.

Bancomext considers the energy sector strategic for the development of the country, so it has a program for the financing of renewable energy projects through the granting of long-term resources, in local currency or US dollars, to support companies during the construction, operation, and maintenance stages of the projects.

About Atlas Renewable Energy

Atlas Renewable Energy (Atlas) is a renewable energy generation company that develops, builds, and operates renewable energy projects with long-term energy contracts across Latin America. The current Atlas portfolio is 800MW+ of contracted projects in development, construction, or operational stages, and aims to grow an additional 1.5GW over the next decade. 

Launched in early 2017, Atlas includes an experienced team with the longest track record in the solar energy industry in Latin America. The company is recognized by its high standards in development, construction, and operation of large-scale projects.

Atlas Renewable Energy is part of the Energy Fund IV, founded by Actis, a leading private equity investor in the energy sector of emerging markets. Actis has allocated more than $600 million of equity in Atlas Renewable Energy to invest in long-term renewable energy contracted projects.

Atlas’s growth is focused on the main emerging markets and economies of Latin America, using its proven development, commercialization and structuring know-how to bring clean energy to the region. By actively engaging with the community and stakeholders at the center of its project strategy, Atlas works every day to provide the world with a cleaner future.

To more know more about Atlas Renewable Energy, visit: http://www.atlasrenewableenergy.com/.

Logo – https://mma.prnewswire.com/media/735310/Atlas_Renewable_Energy_Logo.jpg

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The energy required for a single Bitcoin transaction could power the … in 2020, California will require almost all new homes to have solar panels.

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The government department has allocated various months for enabling organisations to hold their tendering and bidding processes, but critics have pointed out states are free to formulate their own plans.

In an attempt to smooth passage to national solar targets, the Ministry of New and Renewable Energy (MNRE) has set a timetable for solar auctions and tendering, with specific months allocated to central and state governments, public sector undertakings (PSUs) and state-level enabling agencies.

The schedule is specific to large scale tenders, with rooftop PV left to its own devices.

According to the draft schedule, the Solar Energy Corporation of India (SECI) has been allocated December, March, June, and September for its tenders and auctions; the National Thermal Power Corporation (NTPC) and PSUs have January, April, July, and October; and state agencies can be active in February, May, August and November.

The MNRE laid out the draft schedule in a letter to state agencies, requesting them to stick to the plan.

Speaking to pv magazine, Pranav Mehta, founder and Chairman of the National Solar Energy Federation of India, and Chairman-elect of the Global Solar Council, described the timetable as a “very wise move”.

Manufacturers can plan output

“It will avoid [any] clash of dates, ensure sustained activity and also smoothly meet the announced target of tendering [and] auctioning 30 GW in the current and next financial years,” Mr. Mehta said.

Welcoming the move, Viren Choksi, Head of Business Development for Australian Premium Solar (India), said the timetable will ease avoidable pressure on the solar PV value chain and make it more sustainable.

“All PV manufacturers can now better plan their production and delivery, and make optimum utilisation of existing manufacturing capacities and facilities. On the other hand, developers can also plan their participation throughout the year,” Mr. Choksi told pv magazine.

Expressing concern over the implementation of the timetable, solar consultant H R Sreenivasa Rao, of Vineeti Consultants, said the states are not obliged to follow it.

“There is no coherent partnership between the centre and the state about solar policies and regulations. [The] MNRE can only issue guidelines to the states, it is not a regulatory authority. The states can choose to not stick to the timetable,” he told pv magazine.

At the end of the first half, India’s cumulative solar installations stood at 24.4 GW, representing 7.03{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the nation’s power capacity.

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The green energy is a really good idea but hundreds of solar power cells installed by municipalities in Denmark, are illegal, says the preliminary assessment by the Danish Energy Agency (DEA). As ScienceNordic understood, all of these panels do not live up to legal requirements.

The recent preliminary assessment by the DEA, up to 267 solar cells across Denmark do not comply with the law. In total, these solar panels have a combined capacity of 7.4 megawatts and this power is the equivalent to the annual consumption of 1,356 households. According to DEAreprt, these panels located in 73 different municipalities, and the failure to comply means that municipalities do not pay full tax for the energy generated by the units.

Denmark is known as the country with the multimillion green investments, consequently, the solar and wind energy is well developed over there. The legal issue with the cells is related to them not being administered as separate companies from associated buildings or fixtures, a legal requirement when solar panels are installed as part of new developments or major renovations.

Denmark Energy Agency investigates the illegally set solar panels

The energy and climate minister Lars Christian Lilleholt ordered to conduct the investigation in December last year that Silkeborg Municipality was one of the local councils using the illegal solar power generation.

“We are surprised that the resumption of our investigation has shown that there are so many such units in municipalities,”

the DEA’s section head Jakob Henrik Juul told the local newspaper.

Municipalities said that solar panel installations are less economically viable if municipal resources must be used to set up and run companies to manage the power generators, before then purchasing the resultant energy at the correctly taxed rates. Minister Lilleholt stressed he did not want to see the solar cells decommissioned but said that “municipalities’ green investments must not be driven by speculation in tax avoidance through illegally installed solar energy panels.”

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solar in Peru

It’s estimated that 22 million people or 6 million households in Latin America lack access to electricity. Solar powered mini-grids, micro-grids and off-grid standalone systems are offering solutions to power basic human needs provided by water pumps, lighting, cooking facilities and more. Here we look at a range of off-grid solar solutions, from mining to street lighting to basic home electricity.

Solar replacing diesel in mining industry

The mining industry is increasingly turning to solar power to meet its high energy needs in very remote locations, where they often have no grid access. Replacing diesel generators and augmenting unreliable grid power with local renewable energy sources has the potential to greatly reduce mining operation greenhouse gas emission as well as costs. More mine operators across Central and Latin America are increasingly turning to solar electricity to take advantage of the regions’ abundant sunshine and harvest electricity locally, cleanly and more cheaply. Added benefits are the reduction or elimination of production delays due to load shedding and power outages.

One firm specializing in renewable applications for mining is Trailers RD-Minas. Their engineered solutions are renowned for improving worker safety and performance while also reducing maintenance costs. Mobile radio repeater trailers provide customers with real-time view of the status of their solar panels, batteries, operating cycle and position, at remote locations. This greatly facilitates maintenance and avoids unnecessary shifting and/or allocation.

Solution

These specially designed and constructed trailers feed into the AC network and are mounted with a generator, air conditioning thermal insulation and battery banks.

Tower for mining

A typical trailer’s chassis can accommodate 8, 14 and up to 20 deep cycle batteries rated at 110AH to provide sufficient autonomy in remote applications. The trailers used Morningstar solar charge controllers, specifically the TriStar MPPT-60, TriStar Meter-2, ProStar MPPT-40 and the SunSaver-MPPT-15.

Lighting for safety

For on-site lighting, mining operations use mobile light trailer towers with high-efficiency LED spotlights powered by batteries recharged with solar panels and sometimes a wind turbine powered generator. These lighting trailers are automatic, and do not require an operator to turn on at night or turn off in the morning. When fully automated, a tower can operate for 28 hours without incident of sunlight, over a day of autonomy. They are ideally suited for use in mining, maintenance stations, workplaces and other locations that require illumination for safer work at night. Unlike conventional diesel lighting trailers, Trailers RD-Minas’ designs do not require fueling, filter replacements, belts, lubrication and other maintenance items—or even frequent bulb replacements, since the LED spotlights can last about 50,000 hours.

Illuminating the superhighway with solar

The Arco Metropolitano is a 145 KM arch of highway in the state of Rio de Janeiro stretching from the port city of Itagui to Duque de Caxias, a commercial and manufacturing center that boasts one of Brazil’s largest oil refineries. The arch skirts the booming metropolis of Rio de Janeiro city, providing a vital connection to the five major highways that crisscross the state.

One of the most strategic highway projects in Brazil, the Arco Metropolitano diverts commercial traffic out of the congested roads of Rio de Janeiro city, while serving as a lifeline to the less developed regions of rural Rio de Janeiro state. Commercial trucks transporting goods throughout the state have reduced transportation time by half, and development along the highway has brought economic growth to regions previously cut off from the city center.

Project

Solar lighting

Hazardous weather conditions and high crime made driving on the highway at night difficult and dangerous. To keep the highway open, the government needed a reliable lighting solution that would provide round-the-clock illumination on the most trafficked and dangerous stretches. In response, state government of Rio de Janeiro facilitated the largest solar highway project ever attempted in Brazil, and one of the largest in the world, a project locals called the Solar Superhighway. The project called for more than 4,300 free-standing streetlights to be installed along a 73 KM stretch of the highway connecting to Itagui, a critical port entry.

Solution

Japanese electronics firm Kyocera Solar, Inc. partnered with a Brazilian engineering company Soter to develop and install a street lighting system capable of producing 2.8 GWh of solar energy per year without burdening the already fragile local energy grid. The Kyocera streetlight kit creates a stand-alone streetlight independent of the local grid, or other supplementary energy sources. To accomplish this, the system depends on a lead battery system connected to a charge controller, capable of storing up to three days’ worth of energy. The Morningstar TriStar MPPT-45 serves as a critical component for this single-source energy solution.

Each streetlight kit, capable of producing more than 2.8 GWh of solar energy per year, consists of:

  • Morningstar TriStar MPPT-45
  • Four 240 Ah/12 Vcc batteries
  • 150 W LED lamp
  • Three solar modules
  • One photocell
  • One pole with mounting structures

To operate, the batteries are connected to the TriStar MPPT-45 and store solar energy during the day. Once the photocell detects that light levels have fallen and LED lamps are needed, the lights automatically switch on. The system is capable of storing enough energy to power a streetlight for up to three days without sunlight.

Solar home systems

In November of 2003, 10 million people residing in Brazil’s rural areas were without access to electricity. With approximately 90{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of them living below the poverty line. That meant they lived without basic amenities others take for granted, such as electronic devices, refrigeration, and lighting, in homes, schools and health clinics.  Worldwide, this lack of electricity in rural areas is the single biggest impediment to economic growth and contributes to isolation for many communities. For this reason, many countries have adopted ambitious rural electrification programs specifically designed to eradicate this “electrical poverty and lift rural residents into a higher standard of living than previously possible.”

Project 

The “Light for All” program was launched in 2003 by the Brazilian federal government.  Coordinated by the Ministry of Mines and Energy, the program was established to deliver electricity to families in rural areas. 

 “The success of the ‘Light For All’ project is paramount to the progress and prosperity of the citizens of Brazil.  The SureSine’s [inverter] rugged enclosure with no internal cooling fan ensures long-term reliability even in the harshest conditions,” said Sergio Beninca, President of Kyocera Solar Brazil.

Besides covering the equipment costs and installation fees, the program provides citizens with the necessary materials and training to operate and maintain the renewable energy installations in their communities.

The electrification program also reaches indigenous areas, including those difficult to access in the Amazon region. Challenges include transporting heavy equipment such as electrical mounting poles on boats to less accessible regions, as well as passing electrical cables through rivers.

Solution 

To convert the solar-generated electricity to AC and deliver off-grid AC power to run electrical loads in rural households in remote locations, 20,000 SureSine inverters from Morningstar were installed along with SunSaver solar controllers in systems with 160W solar photovoltaic modules. The SureSine inverter is a sealed design that requires no cooling fans. It’s ruggedized and encapsulated to withstand harsh conditions, as well as fault tolerant with built-in protection circuitry better able to resist damage caused by installer or user error—an important consideration in remote locations.

Solar in South America

Following these solar electricity residential installations, it is estimated that 81{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of these families who were now able to access AC power purchased new TV sets. In addition, 71{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of them bought refrigerators and 62{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} acquired cell phones.  For the first time, many rural residents experienced the relative luxury of being able to read at night, watch a TV show, listen to music on the radio or enjoy a cold drink.

The comprehensive Light for All electrification project enhanced and improved public services, education and welfare, employment and income.  By May 2016, 15.6 million Brazilians had benefited from the program and over 485,000 jobs were created.  This unqualified success led to the extension of the program into 2018 with the goal of bringing another million citizens literally out of the dark.

Written by Anne Fischer, Managing Editor, Solar Novus Today, with additional reporting by Rebecca Mellema and Donna Pizzullo of Morningstar Corp.

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August 27, 2018 Taxation in Denmark

solar power generationCOPENHAGEN – Local municipalities across Denmark are skipping out on taxes owing for the solar energy that they have generated.

A new report issued last week in Denmark indicates that a significant number of solar power cells installed by local municipalities around the country are not properly registered, and result in underpaid taxes.

Under the current legal requirements, if solar panels are installed for mass power generation as part of a new development or a significant renovation, then those panels must be administered in a corporate entity that is separate to the one administering the rest of the development.

The power generated using the panels must then be purchased by the first entity, and the appropriate tax rates must be applied to the sale.

By not separating out the administration of the solar panels, as many as 267 municipalities have underpaid their tax obligations thought out the country.

Some experts have claimed that the tax treatment of the solar cells will result in some of the sites being decommissioned due to the negative impact of the onerous taxes.

However, the Energy and Climate Minister Lars Christian Lilleholt said that he did not want to see any sites closed, but added that “…green investments must not be driven by speculation in tax avoidance through illegally installed solar energy panels.”

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Half of the electricity requirements of FrieslandCampina’s production locations and offices in the Netherlands now come from solar power, thanks to a growth of the company’s solar initiative.

The number of dairy farmers that will receive solar panels in the coming period through the FrieslandCampina solar programme has more than doubled compared to last year.

In total, the number of participants in the FrieslandCampina solar programme has reached 772 dairy farms.

Dutch company GroenLeven installs and manages the solar panels and through the deal and FrieslandCampina farmers are offered to the chance to hire out their shed roofs to install the panels.

GroenLeven wants to have finished 50 roofs by the end of 2018, and then speed up to install solar panels on 20 roofs per week.

FrieslandCampina said that in addition to the 772 dairy farms participating in the solar programme, in recent years over 2,200 of its members have already installed solar panels on their own initiative.

It added that recent research from students at the University of Amsterdam has shown that the solar power that can be generated on the roofs of FrieslandCampina members can provide 12{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the total Dutch domestic electricity needs.

Earlier this year, Hein Schumacher, CEO of Royal FrieslandCampina, said: “The ambition of FrieslandCampina is to fully cover the use of electricity within the chain with green electricity generated at the farm yards.”

He added:”We are making investments now in order to be able to work circularly in the future. This is perfectly in line with our objective to reward our member dairy farmers for their commitment to sustainability.”

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On the contrary, as panel costs have become a lower percentage of the total efficiency matters more in many cases.

They are still a commodity in most cases. An efficiency difference of a few percent isn’t a big deal. $/W is what everyone is looking at. Efficiency matters somewhat, but the US doesn’t have a secret sauce here. The physics needed to get better efficiency is pretty well known, it’s just a matter of scale. The really high efficiency stuff like multi-junction are still made in developed countries because they aren’t commodities.

You’ll note the US/Europe are still leaders in wind despite having the same policies as solar. They haven’t been commoditized yet because the Chinese ones are objectively inferior.

A study by NREL and MIT a few years ago concluded that China’s manufacturing cost advantage was in production scale and supply chain, not labor costs, pollution regulations or anything else country-specific. I think that’s just a stereotype.

Then why aren’t Germany and Japan leaders in this despite the huge incentives and subsidies they threw at it? Both had a 10-20 year head start on China and yet still lost. Why are all the new plants overwhelmingly in developing countries? Either the subsidies required are so massive that developed countries decided not to do it, or there is a definite cost advantage. And let’s even say it’s all policy: setting policy to compete on commodities is largely a bad idea because of what I wrote before. I can’t think of a single commodity item that the US successfully competed with in the world market (unless you count hollywood entertainment as a commodity). The US’ strength is in non-commodity items and services.

China has shown it is willing to go enormous lengths for economic wins, even if they are self-destructive (see ghost cities and their continued building of coal plants around the world).

Germany is known for leading in PV installations but I wasn’t aware its national strategy was to lead in manufacturing too. Any sources on that? Same for Japan.

Japan and Germany were world leaders in PV production until cheap Chinese panels came onto the scene. They simply couldn’t compete. I’d argue if it can’t succeed in Germany with the clear support they get, then it’s doubtful it’s going to work here.

Germany is known for leading in PV installations but I wasn’t aware its national strategy was to lead in manufacturing too. Any sources on that? Same for Japan.

Japan data is harder to find (probably because it’s all in Japanese) but Germany spent lots of R&D and manufacturing subsidies, and had the benefit of a head start. They also got EU support for it in terms of grants, loans, and guarantees. Also just to reinforce what I was saying before: you’ll notice that it says Germany exports a lot of PV manufacturing equipment to China. So again: non-commodity/speciality manufacturing stayed in Germany, the commodity stuff didn’t. This is a tale that has been told over and over again for over two centuries.

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MURMANSK, Russia — Along the shore of Kola Bay in the far northwest of Russia lie bases for the country’s nuclear submarines and icebreakers. Low, rocky hills descend to an industrial waterfront of docks, cranes and railway tracks. Out on the bay, submarines have for decades stalked the azure waters, traveling between their port and the ocean depths.

Here, Russia is conducting an experiment with nuclear power, one that backers say is a leading-edge feat of engineering but that critics call reckless.

The country is unveiling a floating nuclear power plant.

Tied to a wharf in the city of Murmansk, the Akademik Lomonosov rocks gently in the waves. The buoyant facility, made of two miniature reactors of a type used previously on submarines, is for now the only one of its kind.

Moscow, while leading the trend, is far from alone in seeing potential in floating nuclear plants. Two state-backed companies in China are building such facilities, and American scientists have drawn up plans of their own. Proponents say they are cheaper, greener and, perhaps counterintuitively, safer. They envision a future when nuclear power stations bob off the coasts of major cities around the world.

“They are light-years ahead of us,” Jacopo Buongiorno, a professor of nuclear engineering at the Massachusetts Institute of Technology, said of the Russian floating power program.

Rosatom, the Russian state nuclear company, has exported nuclear technology for years, selling plants in China, India and a host of developing nations. But smaller reactors effectively placed on floats can be assembled more quickly, be put in a wider range of locations and respond more nimbly to fluctuating supply on power grids that increasingly rely on wind and solar.

The Russian design involves using submarine-style reactors loaded onto vessels, with a hatch near the bow to plug them into local electrical grids. The reactors will generate a combined 70 megawatts of electricity, or enough to power about 70,000 typical American homes. Rosatom plans to serially produce such floating nuclear plants, and is exploring various business plans, including retaining ownership of the reactors while selling the electricity they generate.

The bulky, rectangular structure resembles a big-box store, only with a nuclear emblem of an atom emblazoned on its side. Inside, the floating reactor is a warren of tight corridors, steep staircases, pipes, wires and warning signs in Cyrillic letters.

Officials plan to tow the vessel to coastal cities in need of power, either for short-term boosts or longer-term additions to electricity supply. It can carry sufficient enriched uranium to power the two reactors for 12 years, before having to be towed, with its spent fuel, back to Russia, where the radioactive waste will be processed.

A rotating crew of about 300 Russians, including private security guards, will operate the plant. Rosatom is considering a work schedule where they will remain on board for four months at a time before taking a four-month break. The Akademik Lomonosov will start out serving Pevek, a remote port in Siberia about 500 miles from Alaska, next year.

While on the vessel, the civilian crew will have access to a host of amenities, making the structure a sort of cross between the set for “The Hunt for Red October” and a cruise ship. Those aboard can swim in a pool decorated with pictures of a tropical beach, play squash or strangely, given the seeming importance of sobriety on such a vessel, have a drink at a bar.

“Such a local source of electrical energy, which can easily be transported to difficult-to-access locations, is economically effective,” Vitaly A. Trutnev, the director of Rosatom’s floating reactor program, said in an interview in the captain’s cabin, a suite decorated with orange upholstered chairs and wood laminate tables.

Using nuclear reactors for marine propulsion, or on floating power plants, is not new. The United States used a barge-based reactor to generate electricity for the Panama Canal Zone from 1968 until 1976, and Westinghouse, the American reactor builder, planned — but never built — two floating plants off the New Jersey coast at around that time.

The idea of floating nuclear power won unexpected support after the 2011 Japanese tsunami. That disaster wrecked havoc on the Fukushima coastal power plant by flooding backup diesel generators intended to cool the plant in an emergency shutdown.

A floating reactor, supporters say, would survive tsunami waves at sea. And if an emergency shutdown were needed, it would retain access to cooling, something that is easier to do if it is already in the water, rather than relying on pumps. Rosatom, in a statement, insisted its plant was “invulnerable to tsunamis.”

Professor Buongiorno of M.I.T. has himself proposed floating either small or full-scale nuclear plants on platforms similar to those used in the oil and gas industry. That, he said, would improve the project’s economics and safety as the nuclear industry seeks to compete with cheap electricity from wind, solar and natural gas.

Placing nuclear reactors on vessels could also help reduce the costs of construction. Cost overruns, as well as political opposition, have all but halted nuclear plant construction in the United States. Assembly-line efficiencies at shipyards would help reduce costs.

And then there is the potential climate change benefit. Nuclear power stations generate electricity free of planet-warming greenhouse gases and, unlike other clean sources of energy like wind turbines and solar farms, run around the clock.

Rosatom has so far not disclosed the cost of building the barge, or which countries are interested in buying electricity. The company estimates each floating plant will take four years to build, compared with a decade or so for many nuclear plants. The Sudan Tribune has cited that country’s minister of water resources and electricity as saying the government in Khartoum has a deal to become the first foreign customer. A Sudanese government spokesman, Mujahid Mohammed Satti, declined to comment on the report.

Others are also exploring the technology. China wants to build 20 floating nuclear plants, the first of which will start within two years. A French company has designed a reactor called Flexblue that would not float but rather be submerged on the ocean floor.

But some environmental groups — even those open to a role for nuclear power as a substitute for traditional power plants — are skeptical.

For one, they are not persuaded by Rosatom’s assurances of safety. Critics worry that during a tsunami, the 21,000-ton steel structure might not ride out the wave. In a worst-case scenario, they say, it would instead be torn from its moorings and sent barreling inland, plowing through buildings until it landed, steaming and dented and with two active reactors on board, well away from its source of coolant.

In such a case, Rosatom says, a backup power source and coolant on board would prevent the reactors from melting down, at least for the first 24 hours. “During this time we would consider what to do,” said Dmitri Alekseyenko, the deputy director for Rosatom’s floating reactor program. Regulators in the United States, however, require on-land reactors to operate for 72 hours in an emergency shutdown without external water supplies.

And the fact that the technology is well tested in Russian ships gives critics little solace, given a long history of spills and accidents involving nuclear-powered submarines and icebreakers operated by the Soviet and Russian navies.

In the 1960s and 1970s, the Soviet Union dumped reactors in the Kara Sea, in the Arctic Ocean north of Kola Bay. Russian nuclear submarines sank in 1989 and 2000, while one Russian nuclear icebreaker caught fire in 2011 and the reactor on another leaked radiation that year, according to Bellona, a Norwegian environmental group.

“The question is, would clients of Russia be comfortable with something like this being parked right at a pier in a major city?” Matthew McKinzie, director of the nuclear program at the Natural Resources Defense Council in Washington, said in a telephone interview.

A Greenpeace sailboat tailed the Akademik Lomonosov on its maiden voyage from a shipyard in St. Petersburg to Murmansk, where it will be fueled, flying a banner in English saying: “Floating Nuclear Reactor? Srsly?”

“Like all designs,” Mr. Buongiorno acknowledged, “nothing is perfect.”

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