
Apr. 17, 2023
NEWS
TOP
ENERGY TRANSITION & POLICY
ELECTRICITY MARKETS
OIL, GAS & MINING
ANALYSIS
JAPAN LOOKS TO A NEW TECHNOLOGY
TO KICKSTART ITS SOLAR COMEBACK
Almost 15 years ago, just as the sun began to set on Japan’s solar panel industry, a ray of light appeared that gave hope to dispel the pessimism. In 2009, Prof. Tsutomu Miyasaka of Toin University of Yokohama made the world’s first demonstration of a new solar tech known as PSC (perovskite solar cells). The path of PSC technology since then has been challenging. But if Japan were to achieve commercially viable PSC-based renewable power generation, it could be a game changer not only for the country but the energy transition as a whole.
JAPAN PREPARES TO BET BIG ON DEEP-WATER
OFFSHORE WIND GENERATION IN THE EEZ
Promoting floating wind power technology is a key part of the maritime strategy mapped out in the draft of the Fourth Basic Plan on Ocean Policy, soon to be approved by Prime Minister Kishida’s cabinet. The Basic Plan is updated every five years and the current draft was open to public comment until early April. It consists of policy measures and strategies to cover a range of issues from national security threats to natural disasters, as well as energy-related issues. One of the plan’s focus points is the utilization of Japan’s exclusive economic zone (EEZ).
GLOBAL VIEW
A wrap of top energy news from around the world.
EVENTS SCHEDULE
A selection of events to keep an eye on in 2023.
PUBLISHER
K. K. Yuri Group
Editorial Team
Yuriy Humber (Editor-in-Chief)
John Varoli (Senior Editor, Americas)
Mayumi Watanabe (Japan)
Yoshihisa Ohno (Japan)
Wilfried Goossens (Events, global)
Kyoko Fukuda (Japan)
Filippo Pedretti (Japan)
Regular Contributors
Chisaki Watanabe (Japan)
Takehiro Masutomo (Japan)
Events
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OFTEN USED ACRONYMS
|
METI |
The Ministry of Energy, |
mmbtu |
Million British Thermal Units | |
|
MOE |
Ministry of Environment |
mb/d |
Million barrels per day | |
|
ANRE |
Agency for Natural Resources and Energy |
mtoe |
Million Tons of Oil Equivalent | |
|
NEDO |
New Energy and Industrial Technology Development Organization |
kWh |
Kilowatt hours (electricity generation volume) | |
|
TEPCO |
Tokyo Electric Power Company |
FIT |
Feed-in Tariff | |
|
KEPCO |
Kansai Electric Power Company |
FIP |
Feed-in Premium | |
|
EPCO |
Electric Power Company |
SAF |
Sustainable Aviation Fuel | |
|
JCC |
Japan Crude Cocktail |
NPP |
Nuclear power plant | |
|
JKM |
Japan Korea Market, the Platt’s LNG benchmark |
JOGMEC |
Japan Organization for Metals and Energy Security | |
|
CCUS |
Carbon Capture, Utilization and Storage | |||
|
OCCTO |
Organization for Cross-regional Coordination of Transmission Operators | |||
|
NRA |
Nuclear Regulation Authority | |||
|
GX |
Green Transformation |

G7 Climate and Energy Ministers Meeting in Sapporo: Key Points
(Nikkei, Reuters, Japan NRG, April 16)
G7 members discuss joint action plans to stabilize critical minerals supplies
(NHK, Japan NRG, April 15)
TAKEAWAY: It’s too early to say how this commitment will translate into boosting the primary source of new raw materials (mines), since the sector’s problems go far beyond a shortage of finance. However, the G7 agreement to cooperate on recycling could prove to be significant since it seems to address some of the uncertainties around the movement of the secondary source of raw materials (old equipment).
As an example, the G7 commitment should help to resolve the years-long debate on whether to classify black mass – a material containing lithium, cobalt and nickel, and recovered from spent lithium-ion batteries — as hazardous waste or scrap metal.
The present scrap classifications system is broad and includes any material with impurities which cannot be used for batteries. This is not an effective tool to understand international battery material supply flow. So, if the G7 agreement adds clarity to classifications, it should help companies build more efficient battery supply chains.
Industry stakeholders say a new system of trade codes specifically for recycled battery materials is required.
What’s less clear is how this G7 policy trend will impact China, whose rare earths and silicon supplies underpin the global markets for clean tech.
If the Chinese metals sector becomes more vulnerable to demand uncertainties due to geopolitical de-coupling trends, it will cause broader concerns in Beijing. China has also traditionally suffered from the smuggling of mineral resources out of the country.
IEA moves to define clean hydrogen based on emissions intensity not colors
(Nikkei, April 11)
TAKEAWAY: Hydrogen is a clear, transparent gas, but how it is produced differs. The various energy sources used to make hydrogen have been assigned a color. Brown or grey hydrogen represents traditional hydrogen from fossil-fuels that emits a lot of CO2 during manufacture. Green hydrogen is generated through electrolysis using renewable energy. But the definitions of other colors such as blue, yellow, turquoise, pink, etc have no internationally agreed criteria.
Hokkaido’s renewable resources key to net zero: Renewable Energy Institute forum
(Japan NRG, April 13)
TAKEAWAY: Staging the G7 meeting in Hokkaido was clearly one way for Japan to signal the clean energy ambitions of that region. A Japan NRG survey found in the two months running up to the Sapporo meeting, at least six local municipalities announced plans to be carbon neutral by 2050.
Some unique renewable projects in Hokkaido
|
Bibai City |
White Data Center, using snow to cool servers |
|
Niki Town |
Vertical solar panel systems (demo phase) |
|
Tobetsu Town |
Geothermal road heating system |
|
Shakotan Town, Erimo Town, etc. |
Blue carbon from growing edible seaweed |
|
Shintoku Town |
Biogas to fuel greenhouses growing tropical fruits |
Source: Japan NRG
The NRA finds errors in Japan Nuclear Fuel application for earthquake equipment
(TBS, April 14)
TAKEAWAY: JNFL keeps pushing back the start of the reprocessing plant, which is one of the most important facilities for Japan’s nuclear industry. The original schedule was to complete construction in 1997. The latest deadline is for the first half of FY2024.
Exxon and Toyota partner to develop low-carbon fuels for gasoline cars
(Bloomberg, April 12)
TAKEAWAY: Toyota conducts R&D for a variety of vehicle fuels and technologies. While the company will roll out more EVs going forward, it also warns that EVs alone won’t be the sole solution for transport because of the lengthy time needed to green the global car fleet.
Chubu Electric, Chiyoda and Hazer to study building hydrogen production facility
(Company statement, April 12)

Idemitsu, H-Cycle to do a study on producing hydrogen from solid waste
(Company statement, April 13)
TAKEAWAY: The re-use of solid wastes as feedstock to produce power and hydrogen is spreading. In the Hokuriku region, portable hydrogen manufacturing equipment has been installed in public spaces. Residents can deposit aluminum cans that are converted into hydrogen for fuel cell vehicles. Local technology startup Alhytec made the equipment. (See also Analysis “Toyota-backed firm hopes to utilize aluminum to produce hydrogen-based energy” in the June 14, 2021 issue of Japan NRG)
Top sushi restaurant chain to supply used cooking oil for SAF
(Company statement, April 5)
Mitsubishi, Shikoku Electric to develop Namikata terminal as a hub for ammonia fuel
(Company statement, April 14)
Mitsubishi Ube Cement tests world’s first ammonia co-firing kiln
(Company statement, April 5)
TAKEAWAY: Cement production emits a lot of CO2, and substituting fossil fuels with ammonia for at 10% of the total mix helps to reduce emissions.
Toshiba ESS develops new CO2 absorbent
(Company statement, April 10)
JR West starts using fuel cell trains
(Kankyo Business, April 13)
TAKEAWAY: This is a first step towards increasing hydrogen consumption in Japan. Once JR West is successful, similar operations will be expected at other JR companies around Japan.

Itochu invests in shipping investment company focused on decarbonization infrastructure
(Company statement, April 12)
Osaka Gas, IHI and Petronas plan e-methane and CCS feasibility studies
(Company statement, April 10)
Consortium delivers Japan’s first negative-carbon concrete
(Company statement, April 13)
Toyota and Siam Cement collaborate towards carbon neutrality in Thailand
(Company statement, April 3)

Long-term decarbonizing power auction to promote modernization of thermal power plants
(Denki Shimbun, April 14)
TAKEAWAY: METI is skilled in political rhetoric and maneuvering. Recently, it was able to revive plans to build new nuclear power stations under the “Green Transformation” agenda. This time, a system ostensibly set up to support the building of “decarbonized” capacity seems to be deployed also to support new gas-fired facilities. Officials argue these are pragmatic solutions to short-term issues until more renewables capacity is available.
Power utility body to probe cartel charges, strengthen anti-monopoly compliance
(FEPC statement, April 14)
NRA ordered JAPC to reintroduce corrected application of Tsuruga NPP Unit 2 by Sept
(Denki Shimbun, April 13)
TAKEAWAY: If the company cannot convince the NRA that the station is not at risk from an earthquake, then it must be decommissioned. This will stop JAPC’s plans to add more reactors to the site. This debate has raged since 2013, when the NRA made its initial conclusion that the location is unsafe based on unofficial meetings with geologists. Evidence of JAPC tampering with data has already damaged its reputation and will make the restart of Unit 2, whatever the NRA final decision, extremely difficult.

Chubu Power Grid curtailed renewables operators, company’s first
(Nikkei, Tokyo Shimbun, April 11)
TAKEAWAY: In 2018, the Kyushu grid operator started to curtail some power generators due to excess supply in certain moments. In 2022, grid companies in Hokkaido, Tohoku, Chugoku, Shikoku, and Okinawa did the same. The Chubu area has only just joined this nationwide trend, but it could see more regular curtailments if the Hamaoka NPP is allowed to restart, which is unlikely in the near term.
Octopus Energy invests in Yotsuya Capital to develop 250 MW solar capacity
(New Energy Business, April 11)
Renova concludes financing for onshore wind power project in Kumamoto
(New Energy Business, April 10)
Mitsubishi begins construction of onshore wind farm in Laos, SE Asia’s largest
(Company statement, April 10)
Toshiba introduces VPPA for 100% renewable energy operation
(Company statement, April 12)

IHI and Sharing Energy to collaborate on creating environmental value from solar
(Company statement, April 13)
Marubeni and Taisei to build wood-fired biomass power plant in Hokkaido
(Company statement, April 13)
JRC developed access gangway for offshore wind station
(Company statement, April 11)

TAKEAWAY: Japan plans to build more offshore wind power plants in the next 20 years, and demands for safe transport from onshore to offshore and back to onshore is a must.

JERA forms LNG buyers’ alliance with Korea Gas to guarantee LNG supply stability
(Company statement, April 10)
TAKEAWAY: Nippon Steel and South Korea’s Posco formed a similar iron ore buyers alliance that later developed into joint upstream investments, long-term contract negotiations and cross-shareholding. The latter is something that is unlikely for JERA and KOGAS since the Korean company is state-owned. Meanwhile, expansion of the buyer’s alliance to other Japanese companies, notably the EPCOs (former regional power monopolies), may not be possible until the full separation of power generation units from other grid operating business and other assets.
Sumitomo Metal Mining to start lithium production overseas in 2028
(Japan NRG, Nikkei Asia, April 11)
TAKEAWAY: The success of SMM’s tech would depend on its cost and environmental impact. There are several technologies to extract lithium from raw materials and Sumitomo Corp invests in one of them, the U.S.-based Lilac Solutions. As SMM does not own any lithium mines, it will need to make new project investments if it plans to secure lithium production.
LNG developer Tellurian looks for Japanese investors for Gulf of Mexico facility
(Asia Nikkei, April 11)
Kobe Steel and Mitsui to study plans for a large low-CO2 iron factory in Oman
(Asia Nikkei, April 11)
ENEOS completely withdraws from Myanmar
(Jiji, April 13)
LNG stocks slip to 2.4 million tons
(Government data, April 12)
BY MAYUMI WATANABE
Part II: Japan looks to a new tech to kickstart its solar boom
Last week we published Part I of this article, which outlined the rise and decline of Japan’s solar panel manufacturing industry. This week, we focus on a new innovative technology, perovskite solar cells (PSC), which Japan is betting big on in order to stimulate domestic production in solar infrastructure.
Almost 15 years ago, just as the sun began to set on Japan’s solar panel industry, a ray of light appeared that gave hope to dispel the pessimism. In 2009, Prof. Tsutomu Miyasaka of Toin University of Yokohama made the world’s first demonstration of a new solar tech known as PSC.
While perovskite minerals had been discovered more than 150 years ago, Miyasaka was the first to incorporate their compound structure into a solar cell. The power conversion efficiency achieved by Miyasak was low, and the cell was stable for only a matter of minutes. But the experiment gave birth to a new solar technology. And since the research originated in Japan, the government fostered hope that it could help the country recover its position as a solar energy leader.
The path of PSC technology since then has been challenging as the cost of current solar panels has declined precipitously. But if Japan were to achieve commercially viable PSC-based renewable power generation, it could be a game changer not only for the country itself but the energy transition as a whole.
After years in the lab, the technology is now starting to see the light of day. Last month, Japan’s biggest power utility, JERA, launched a PSC demo at one of its thermal power stations. This high-profile experiment is deploying three mini-module prototypes developed by Osaka-based Sekisui Chemical. And while the scale of the demo is not large, JERA says it sees great potential in the technology, which can be installed along the walls and other parts of the power plant’s facilities.
According to the most optimistic prognosis, perovskite solar power may hit commercial scale as soon as by 2025.
JERA’s pilot PSC project

Source: JERA
The science behind PSC
What is a perovskite solar cell (PSC)? The cell is made of thin layers of chemicals and is only 1 micrometer thick, less than 1% that of a silicon solar panel. It is also far lighter. One of the layers has a crystal structure consisting of two positively charged and one negative ions. This layer is called perovskite. Similar to silicon, this layer absorbs light and converts it into electricity. Perovskite is sandwiched between two layers, which help electrons to flow and produce electric current.
Source: Molecular Materials and Nanosystems (M2N) research group
There are various metal oxides that can turn into perovskite structures. The main ones are lead, tin and titanium, all of which are widely available. Such abundance of raw material candidates makes the scale-up of PSC look promising.
Key properties of PSC
Other positive factors include production efficiency and low energy requirements. The PSC production process is short:
The process takes place at temperatures of 100 C, which is much less energy intensive than silicon. Since PSC is light and thin, it can be bent, shaped flexibly and installed upright in building walls. The layers are semi-transparent and can even be installed on windows, as well as in other areas with space constraints.
Upcoming PSC projects
Several domestic Japanese PSC projects could define whether this niche will have a future. In addition to JERA’s demo project, a number of outdoor field studies of PSCs will be launched, five years after the world’s first demo project in Poland.
Demo projects in 2023
|
Partners |
Cell specifications |
Installation |
Future plans |
|
Toshiba Energy Systems, Tokyu group, Yokohama City, Toin Gakuen |
703 cm2-sized film-based module, best power efficiency record 16.6% |
Public pathway to the Aobadai train station |
Tokyu group will install PSC systems on buildings, rail cars and bridges |
|
Sekisui Chemical, NTT Data |
Film-based module, 30 cm wide, best power efficiency recorded at 15% |
Building exterior |
Data centers with built-in PSC systems |
|
Sekisui Chemical, Tokyo metropolis |
Water processing facility |
Installations on water treatment systems | |
|
Sekisui Chemical, JERA |
Thermal power stations |
Commercialization of PSC-power supply |
Target date: 2025
Market observers say 2025 will be a milestone year for PSCs, when grants for many government-funded PSC research projects expire. Under the state scenario, this means PSC as a technology will need to move onto the stage of mass production, and by 2030 it should be available on a fully commercial basis in the market.
The New Energy and Industrial Technology Development Organization (NEDO) has financed six projects, including at Aisin and Tokyo University, which are developing 30 cm2 modules with a 20% power efficiency, with a target cost of ¥20/ kWh. They aim to beat silicon module production costs, which amount to about ¥50/ kWh.
Companies planning entry into the PSC market, whether as a supplier for perovskite chemical feedstock or manufacturer of building materials with embedded modules, are expected to make their final business decisions around 2025 as the practical specs around the technology become clearer.
NEDO-funded PSC projects
|
National Institute of Advanced Industrial Science and Technology |
Establishing performance measurement methodologies, data analysis |
|
Sekisui Chemical, Tokyo University, Ritsumeikan University |
Roll-to-roll production technology to enhance module endurance |
|
Toshiba, Tokyo University, Ritsumeikan University |
Inverted PSC structures and PSC ink for speedy mass production |
|
Kaneka |
Polyamide substrates and new materials for the module layers for higher performance |
|
EneCoat Technologies |
Coating and spraying of PSC materials on films for speedy production |
|
Aisin, Tokyo University |
Reducing hole transport material costs |
Cost challenges
PSC is promoted as a cheaper solar technology because its key raw materials are inexpensive iodine and lead. The most expensive chemicals involved are the Spiro-meOTAD compound powders used for the hole transport layers. According to Tokyo Chemical Industry, which has made perovskite materials since 2014, Spiro-meOTAD alone costs ¥50,000/ gram. While the chemicals involved are inexpensive, the processing is lengthy and complicated, which drives up costs.
All in all, the cost of producing one square meter of PSC module weighing 1,500 grams comfortably exceeds the ¥30,000 market price for the same-size silicon PV panel. This suggests that lower cost materials and production techniques are needed before PSC can move to commercialization.
Also, PSCs will likely require a power efficiency above 20% to be competitive. Recent reports describe some prototype PSC modules as hitting that target and even reaching 30% efficiency, but the units in question are tiny: one cm squared, or smaller. When enlarged, the same modules lose efficiency due to the difficulty of evenly distributing molecules.
In spite of all this, a dramatic cut in production costs will be essential for PSC to compete with silicon modules, the cost of which comes at around ¥40-50/ watt.
PSC modules also face durability and production scalability issues. While Toshiba Energy Systems holds the domestic record for PSC power efficiency (16.6%), the company told Japan NRG that it won’t use those 16.6% modules for the public pathway test outside the Aobadai train station.
Sekisui Chemical claims its prototype PSC modules can last 10 years. That’s an impressive number, according to Sekisui’s project partner, JERA. Earlier iterations of PSC technology lasted only a few years. But in comparison with silicon PV panels, which typically last 30 years, this is another minus. Many solar projects need at least 10 years to repay their financing.
Short lifespans mean PSC systems would require frequent replacements, which is especially problematic for modules embedded in walls or windows. Furthermore, many believe PSC to be vulnerable to changes in air pressure, moisture, and other physical shocks. PSC pioneers like Sekisui and Toshiba will need to find effective solutions for this through their outdoor trials.
One final issue to consider will be PSC’s reliance on lead. According to the University of Electro-Communications, lead accounts for 30% of the weight of current PSC modules. While Japan’s regulations on lead are less restrictive than the EU, lead content needs to be controlled especially for water and waste management.
Consumers will not be able to dispose of lead-heavy equipment without a specialist recycling system in place, which is another cost item. Alternatively, PSCs will need to switch to other metals.
Future of the PSC market
With such a list of challenges, the fate of JERA’s demo PSC project is of interest to many market players. While many are enthused by the properties of PSC, few see the new technology squeezing the market for silicon-based panels in the next two decades.
Instead, the thin, lightweight and flexible modules are likely to create entirely new market niches. The fact that PSC does not require racks could also spread its popularity for micro environments and tight spaces.
Since PSCs absorb a larger spectrum of light compared to silicon, in theory they can generate power in the absence of sun. One possibility is power generation in closed spaces, such as devices with built-in perovskite systems mounted on EVs. PSCs are transparent like cellophane tape, and they do not block out light.
This feature could be exploited at farms that install PSC systems above ground but still grow crops on the land. The University of Electro-Communications sees potential for a market that’s over ¥1 trillion in size for each of the three possible applications.
Competition for a better PSC future
At the end of the day, competition will foster better products and expand markets. Even high raw material costs should spur further efficiency breakthroughs.
One such industry optimist is a Japan-Sino joint venture that claims to have achieved cost cuts of several percentage points already thanks to improved project management and by allocating some processes to Chinese facilities, the company told Japan NRG. Of course, this could also be a disadvantage if manufacturing of the new tech moves to China and mirrors the trend of silicon PVs in the early 2000s.
Meanwhile, Chinese silicon PV makers are also innovating to make their panels thinner, lighter and cheaper. Perhaps this is the biggest lesson from the rise and fall of Japan’s silicon PV sector. Creating the best technology will not be enough. Japan will also need to create a profitable domestic market for the technology in order for it to take root.
BY CHISAKI WATANABE
Japan prepares to bet big on deep-water offshore wind in the EEZ
Japan is updating its ocean policy with an eye on utilizing its exclusive economic zone to expand the wind power generation. This should turbocharge the local deployment of floating turbines amid rising global competition for the technology.
Promoting floating wind power technology is a key part of the maritime strategy mapped out in the draft of the Fourth Basic Plan on Ocean Policy, soon to be approved by Prime Minister Kishida’s cabinet.
The Basic Plan is updated every five years and the current draft was open to public comment until early April. It consists of policy measures and strategies to cover a range of issues from national security threats to natural disasters, such as typhoons and high tides, as well as energy-related issues that concern ocean resources.
One of the plan’s focus points is the utilization of Japan’s exclusive economic zone (EEZ), which is an area extending 200 nautical miles (about 370 km) from the nation’s shore. Within the EEZ, countries have exclusive rights to explore and exploit natural resources under the United Nations Convention on the Law of the Sea (UNCLOS).
Expanding offshore wind into the EEZ means that available areas for development will dramatically increase. Current development is based entirely on Japan’s territorial waters, which limits projects to within 22 km from shore.
Setting targets for floating offshore
While Japan’s land area is relatively small, its maritime area and EEZ come in at some 4.47 million km2, the world’s sixth largest. This equals nearly 12 times Japan’s land mass.
According to an MoE database, Japan has the potential to install 783 GW of floating offshore wind capacity, more than twice the 337 GW potential for fixed-bottom turbine units.

Source: Maritime Boundary Office
In the Basic Plan, the government highlighted the importance of expanding offshore wind power generation. Installing turbines in the ocean is key to making renewables a main source of electricity and crucial for carbon neutrality goals.
The plan also noted that there’s a growing need to utilize the EEZ to further Japan’s wind power ambitions and that floating units will be the main turbine technology given the characteristics of the surrounding ocean. To that end, the government will now set specific targets for floating offshore wind and promote technology development. Legislation is to be prepared to deploy offshore wind in the EEZ starting with reviews of related laws such as UNCLOS, according to the plan.
This summer, the government will reconvene a public-private council on offshore wind to come up with industrial strategies and targets for floating installations in the EEZ by March 2024, according to an action plan released earlier this month by a task force chaired by PM Kishida. The new targets for floating turbines will be part of the government’s overall strategy to install up to 45 GW in offshore wind capacity by 2040.
Legal nuances
As for legal frameworks, the government has already taken its first steps. In January, an expert panel appointed by the Cabinet Office released a report after a series of discussions on legal issues for offshore wind farms in Japan’s EEZ and how to interpret the UN’s law of the sea.
This panel concluded that offshore wind turbines and related facilities can be categorized as “installations and structures” that the coastal State in the EEZ has jurisdiction over because their primary purpose is to produce wind energy, as per the UNCLOS (Article 56).
Other key points made by the panel:
1. So long as necessary procedures are taken under domestic laws, the coastal State can issue approvals for research and development, and conduct inspections during periods of construction, operation and maintenance, and the dismantling of offshore wind farms in the EEZ.
2. The coastal State may designate safety zones within 500 meters from the outer limits of offshore wind power stations in the EEZ.
The second point is important since ships must respect safety zones and need to comply with generally accepted standards for navigation near installations, structures and safety zones.
At least nine countries already have offshore wind power stations in their EEZ either in operation or in the pipeline. In East Asia alone, China and South Korea each have plans for nearly 10 GW of offshore wind capacity within their EEZs. South Korea plans for all but one of its projects to use floating turbines; China expects to rely only on bottom-fixed units.
Fig. 1: Offshore wind power in the EEZ as of 2021
|
Country (number of projects) |
Total MW (in the pipeline, operating; floating and bottom-fixed) |
Operating MW (floating and bottom-fixed) |
Floating MW |
|
Netherlands (8) |
3,871 |
2,352 | |
|
UK (24) |
24,131 |
4,453 |
30 (operating) |
|
Belgium (11) |
1,898 |
1,898 | |
|
U.S. (17) |
14,788 |
12 | |
|
Denmark, Norway (5) |
1,708 |
1,620 |
88 (pre-construction) |
|
Germany (29) |
10,237 |
7,367 | |
|
China (11) |
9,500 |
0 | |
|
South Korea (21) |
9,704 |
0 |
9,504 (in the pipeline) |
|
Taiwan |
0 |
0 |
Source: compiled by Japan NRG from ANRE data
Ocean synergies
Offshore wind power is not the only opportunity in the EEZ. The Basic Plan also sheds light on Japan’s marine resource development, saying that energy and a stable supply of mineral resources are essential for the national economy.
There are energy and mineral resources on the sea bottom in the EEZ, such as methane hydrate, oil, natural gas, cobalt-rich ferromanganese crusts, manganese nodules and deep-sea mud containing rare earths, according to the plan.
These are used in power generation from renewable sources and the manufacture of electric vehicles. Japan relies on their imports, and counts on a limited number of countries for processing and refining. While it may take years before such subsea resources become commercially available, floating offshore wind is a proven technology and could spur subsea resource development.
Expanding the wind deployment area into Japan’s EEZ comes with its own challenges. For example, installing turbines in the EEZ means equipment must be shipped further, requiring longer time for construction and O&M. Also, more copper is required for cables to carry electricity to shore.
Meanwhile, Japan will have to compete with neighboring countries, especially South Korea, to procure the equipment for floating wind power projects, as well as the vessels to transport and install it.
Setting targets for floating offshore wind is just the first step for Japan to show its commitment to this promising technology.
BY JOHN VAROLI
Below are some of last week’s most important international energy developments monitored by the Japan NRG team because of their potential to impact energy supply and demand, as well as prices. We see the following as relevant to Japanese and international energy investors.
China/ Critical raw materials
Beijing is expanding export restrictions on critical minerals, leading to higher prices of raw materials for the clean energy transition, according to an OECD report. More than 13,000 restrictions were passed by late 2020, and even more introduced since then.
Germany/ Nuclear power
The last of three nuclear power stations closed this weekend, ending a six-decade nuclear energy program. The closures were spurred on by Japan’s 2011 Fukushima NPP accident. Germany aims for fully-renewable electricity generation by 2035.
Gulf of Mexico/ Oil
BP started pumping crude through its new $9 billion Argos deepwater offshore platform in the U.S. Gulf of Mexico. This is the biggest new project in the region in more than a decade, and can pump 140,000 bpd from subsea oil and gas fields.
Indonesia/ Gas pipeline
By Q1 2024, national oil company Petroliam Nasional Berhad plans to restart a gas pipeline. In October, Petronas announced a force majeure on gas supply to Malaysia due to a leak on its Sabah-Sarawak Gas Pipeline.
Netherlands/ CO2 emissions
The government will support Shell to reduce CO2 and nitrogen emissions. Shell is one of the country’s largest polluters, and plans to cut 3.9 megatons of CO2 emissions from its Dutch plants by 2030. Shell’s plan equals 20% of Dutch industry’s total goal in cutting CO2.
Netherlands/ Russian LNG
The government plans to end all LNG imports from Russia, said Dutch energy minister Rob Jetten. The Netherlands stopped signing new contracts for Russian LNG imports this year and will wind down pre-existing contracts.
Russia/ Oil exports
Seaborne oil product exports rose in March by 17.3% month-on-month. Volumes increased to 12.374 million tons from 9.53 million in February. A full embargo of Russian oil product exports to the EU went into effect on Feb.5.
Thailand/ Green hydrogen
Saudi Arabian renewables developer ACWA Power signed a $7 billion agreement with two state-owned Thai companies to produce 225,000 tons of green hydrogen each year; that’s equal to about 1.2 million tons of green ammonia. Production will be in Thailand.
U.S./ Critical raw materials
General Motors will invest in lithium technology startup EnergyX to ensure long-term supplies for EV batteries. The global rush by automakers to electrify their cars has led to a push for stable supplies of lithium, copper, nickel and other critical minerals.
U.S./ EVs
Americans are more motivated by saving money on gas than climate change. Only 41% are somewhat likely to purchase an EV because they believe the upfront costs outweigh fuel and maintenance savings, according to the University of Chicago.
Wind and solar power
Wind and solar energy accounted for a record 12% of global electricity generation last year, up from 10% in 2021, said think tank Ember. It studied power sector data from 78 countries in its annual global electricity review, representing 93% of global power demand.
A selection of domestic and international events we believe will have an impact on Japanese energy
Disclaimer
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NEWS
・G7 meeting in Sapporo: vows to phase out unabated fossil fuels; sets major targets for solar and wind; renews support for nuclear
・G7 meeting in Sapporo: members commit to new mining and recycling action plans with joint spending on the table
・JERA forms LNG buyers’ alliance with Korea Gas to ensure supply stability; interested in adding more members