Home Blog Page 14

Is China on the Brink of an Era of Maximum Nuclear Energy Development? – Where are New Reactors Emerging?

Photo-illustration: Pixabay
Photo-illustration: Unsplash (Ondrej Bocek)

When it comes to the state of energy in China, coal still dominates, accounting for more than half of the total electricity production. However, nuclear energy plays an increasingly significant role, especially in coastal areas where the fastest economic development occurs, primarily due to geographical advantages. For instance, in 2021, China produced 8,636 TWh of electricity, with coal contributing 5,432 TWh. But this picture is set to change.

As in other countries, the demand for electricity in China is also growing. The country has a modest net export balance of electricity, but its consumption is high, reflecting rapid industrial growth. To tackle environmental challenges, China has set ambitious goals for reducing carbon dioxide emissions and transitioning to renewable energy sources. According to WNA data, China plans to source 20 percent of its primary energy consumption from non-fossil sources by 2030.

China’s five-year plan (2021-2025) aims to reach 70 GWe of nuclear capacity by the end of 2025. Nuclear energy has a strategic role in China, especially, as mentioned, in coastal areas far from coal mines. China has collaborated with and utilized nuclear technology from several countries, including France, Canada, Russia, and the USA. The Westinghouse AP1000 technology from the USA has been particularly influential, leading to the development of the CAP1400 and CAP1000 reactors based on this technology. However, today, China has advanced nuclear technology after years of cooperation and technology transfer with the countries above, and it has implemented this experience in several domestic nuclear reactors and technologies. China has a policy of exporting nuclear technology, particularly the Hualong One reactors, which became a major export product in 2015, as the World Nuclear Association (WNA) noted.

More:

China’s nuclear energy capacities are on a significant growth trajectory, with 56 operational reactors and dozens more under construction. The country’s nuclear energy expansion is evident in the construction of several new nuclear blocks, marking a substantial increase in its nuclear capabilities.

Photo-illustration: Pixabay

Construction has begun on units 5 and 6 at the Ningde plant in Fujian province. These units are part of the second phase of the Ningde nuclear energy project and feature Hualong One reactors, a type of third-generation nuclear technology developed in China. Construction officially began on July 28 with the pouring of the first concrete. According to World Nuclear News, these new units will add to the four existing reactors at the site.

Construction has also started on units 1 and 2 at the Shidao Bay plant in Shandong province. The first concrete for Unit 1 was poured on July 28, marking the start of construction. The new units will be Hualong One reactors, entirely built with Chinese technology. The project will include four reactors, with the first two blocks expected to be operational by 2029.

In Liaoning province, construction has started on units 1 and 2 at the Xudabao plant. These units will use CAP1000 reactors based on the Westinghouse AP1000 design. China’s share of clean energy increases with each new reactor, ensuring a stable energy supply.

Energy Portal

Key Enablers to Triple Renewables by 2030: Skills and Capacities

Photo-illustration: Freepik (senivpetro)
Photo-illustration: Pixabay

The International Renewable Energy Agency (IRENA) has pointed out that reaching over 11 Terawatts of installed renewables capacity as set at COP28 would necessitate overcoming identified structural barriers. One of those barriers is related to the evolving energy transitions needs that demand skilled workforce.

Well-skilled workforce filling in a broad range of occupational profiles determines the success of renewables expansion. IRENA already estimated that with the efforts to triple installed renewables capacity under its 1.5°C Scenario, renewable energy sector jobs will also triple from 2021 levels to about 40 million worldwide by 2050.

These jobs will require matching skills and education. Today, many countries are already facing shortages in tradespeople such as electricians and grid engineers. The same applies to the workforce responsible for overseeing the energy sector; policy makers, energy planners, regulators and system operators.

More:

This situation calls for the development of institutional and human capacities through concerted action in education and skills building. To avoid significant skills gaps and to match the supply produced by the education sector with the projected demand of industries, countries pledging to reach the shared renewables target should proactively coordinate efforts.

IRENA suggests governments to take the following urgent actions: Anticipate labour market disruptions and address workforce gaps, prepare new labour market entrants; upskill and reskill existing workers and allocate greater resources and training to energy sector governance (e.g. policy makers, energy planners, regulators).

Source: IRENA

From Grass to Electricity with the Help of Digesters

Foto-ilustracija: Unsplash (Jonas Weckschmied)
Foto-ilustracija: Pixabay (JanNijman)

Over the years, growing dominant crops on land can lead to various environmental consequences, such as loss of biodiversity, soil erosion, and greenhouse gas emissions. Therefore, farmers are advised to revert parts of their land back to meadows, but whether this will bring them economic benefits is questionable.

Experts from Iowa State University offer a solution that, they say, will benefit everyone—farmers, businesses, and ultimately, society as a whole.

The solution involves using grass biomass to produce natural biogas, a subject the research team at the mentioned university has been studying for six years.

Professor of Ecology and Natural Resource Management Lisa Schulte Moore and her colleagues have modeled the economic feasibility of gas production from grass in various environments and from different perspectives.

Their work focuses on optimizing and expanding the use of anaerobic digesters—facilities where the natural process of organic matter biodegradation occurs without oxygen. Captured in tanks, the biogas can be processed into fuel that has the potential to replace petroleum-based natural gas and be used to power electric generators. “To replace natural gas with resources that revitalize sustainable agriculture, we must be able to quantify how much energy we can produce and demonstrate that it can be profitable and environmentally friendly,” said study co-author Mark Mba-Wright.

More:

Renewable Natural Gas as the Most Cost-effective Option

In a study published in the journal BioEnergy Research, researchers modeled how a network of digesters in Ames, Iowa, could meet the city’s heating and electricity needs. According to their estimates, installing 10 digesters at various locations using livestock manure, biofuel byproducts, food waste, wastewater, and grass as feedstock would be enough. The fact that renewable natural gas has proven to be the most cost-effective option can help city leaders make informed decisions, said Mba-Wright.

In another study, scientists analyzed two hypothetical digesters using grassy biomass. They concluded that these facilities would generate a combined profit of over $400 million under the best conditions over their expected 20-year lifespan. Researchers also claim that during these two decades, 45 million gigajoules of renewable natural gas—about 12.5 billion kilowatt-hours—would be produced, with an 83 per cent lower carbon footprint compared to natural gas derived from fossil fuels. Experts say emissions would also be lower than those from corn-based ethanol or soybean-based biodiesel.

Milena Maglovski

Germany: As Solar Capacity Grows, Equipment Production Declines

Photo-illustration: Pixabay (atimedia)
Photo-illustration: Freepik (freepik)

Germany is making significant progress in developing renewable energy sources. The German Federal Statistical Office—Statistisches Bundesamt—confirmed this by providing data on solar energy capacity.

As reported, in April 2024, about 3.4 million solar systems were installed on rooftops and parcels in Germany, with a total maximum capacity of approximately 81,500 megawatts. Compared to the same month in 2023, the number of systems increased by 29.8 percent, while the installed capacity grew by 20.5 percent.

This data includes nearly all solar installations contributing to public power grids and equipped with electricity meters that measure the amount of power generated. However, the statistics do not include smaller installations, such as so-called balcony solar systems. For clarification, these solar systems are designed for use in private households and are typically installed on balconies or small yards.

The success of these solar systems is truly remarkable, as evidenced by the record-breaking growth in solar-generated energy within the total electricity production. Last year, an astounding 53 million megawatt-hours of electricity were fed into the grid from solar sources, making up an impressive 11.9 percent of total production.

More:

Import, Export, and Production

Germany recorded a significant decline in solar system imports during the first five months of 2024. Specifically, from January to May, the value of imported solar cells and modules decreased by 66 percent, and the value of solar system exports also dropped by about 64 percent.

In 2023, China was Germany’s leading source of imports, accounting for 86.4 percent of the total. In comparison, the Netherlands and Vietnam followed with 5.4 percent and 2.6 percent, respectively, representing significantly smaller import shares. As for exports, most were to European countries, with Australia at the forefront with 17.8 percent, followed by Italy with 11.4 percent and Switzerland with 9 percent.

Germany also experienced a significant decline in the production of solar modules in the first quarter of 2024, dropping by over 50 percent compared to the same period in the previous year. Additionally, the production of solar collectors decreased by around 67 percent.

Energy Portal

Solar Energy in Serbia and the Countries of the Region

Photo-illustration: Unsplash (Michael Fortsch)
Photo-illustration: Freepik (senivpetro)

Solar energy has recorded significant development in recent years, with a 40 per cent growth rate in the European Union alone. Globally speaking, countries that participated in last year’s United Nations Conference on Climate Change (COP28) set an ambitious goal of tripling renewable energy capacity by 2030. Considering this, the results of the Renewable Energy Sources 2023 annual report published by the International Energy Agency (IEA) should be mentioned. The importance of solar energy for achieving this goal is validated by the fact that solar capacities make up three-quarters of the total renewable energy capacities.

In the Republic of Serbia, the Electric Power Distribution of Serbia’s official website contains registers that provide insight into information about connected solar power plants and consumers in our country. The register of connected power plants that use renewable energy sources (updated on May 15) shows that 375 such power plants have a total installed capacity of 254,936.09 kW. Of that number, over 160 are solar power plants. 814 are operated by prosumers who are not households or residential communities, and their total installed power is 33,558.23 kW. These are registered in the Prosumer Registry (updated on May 24). Regarding the Prosumer Registry, where prosumers are residential communities (updated on February 7), three residential communities operate RES plants, which have a total installed power of 69.5 kW. Finally, the Prosumer Registry of households (updated on May 24) consists of 2,278 households that operate RES plants with a total installed power of 18,489.16 kW. 

IN FOCUS:

The same website shows that the number of electricity prosumers has increased by about seven times in the past year and a half. Currently, the total installed power of RES power plants operated by prosumers is about 52 MW and many requests for new connections to the power grid are being processed. On May 21, 2024, there were 1,588 requests from industrial prosumers for connection to the grid, i.e. 415.6 MW of solar capacity, and 437 requests from households and four residential communities. Regarding solar power plants, the Ministry of Mining and Energy announced on May 28, 2024, that in that month alone, the total capacity on the grid exceeded 100 MW for the first time.

Regional countries 

Bosnia and Herzegovina – Available data indicate that 1,671 electricity production facilities have been set up. The registry of the Energy Regulatory Commission shows that in the Federation of Bosnia and Herzegovina, electricity production from solar power plants is done in 1,082  production facilities with a total installed capacity of 128,451  MW and an expected annual production of 231,517.66  MWh. According to the available data provided by the relevant power distribution operators, 589 small solar power plants are connected to the power grid in the Republic of Srpska. Of this number, 47 are prosumers, and the total power of these facilities is about 102 MW. 

Montenegro – At the moment, over 4,200 consumers in Montenegro operate 43,500 KWp or 43.5 MW of installed power worth of photovoltaic panels on the roofs of households and commercial buildings.

Prepared by Katarina Vuinac

Read the story in the new issue the Energy portal Magazine AGROSOLAR ENERGY AND RES.

The Global Climate Finance Centre and IRENA Join Forces to Accelerate Global Climate Finance

Foto ilustracija: Unsplash (Micheile Henderson)
Photo-illustration: Unsplash (Jason Blackeye)

The International Renewable Energy Agency (IRENA) and the Global Climate Finance Centre (GCFC), an independent entity focused on catalysing climate investments and solutions globally, announced a strategic partnership to scale-up climate finance and renewable energy initiatives globally.

The GCFC helps create an ecosystem that enables investments into low-carbon, sustainable and resilient projects by bringing together cutting-edge research, market innovations, capacity-building programs, and practical initiatives to scale up climate investments globally, particularly focusing on emerging and developing markets.

This collaboration will harness the synergies between IRENA and GCFC across various workstreams, including market intelligence, capacity building, practical platforms, and collaborative initiatives. Together with other key stakeholders in the climate space, the partnership aims to drive innovative solutions that enhance the scale, accessibility, and affordability of climate finance globally.

The partnership will include joint work along the following three work streams:

  • Research and innovation: The Parties will work together to conduct market research and analysis to produce thought leadership and innovative solutions for key topics driving present and future global climate finance flows, including de-risking mechanisms, green industrialization opportunities, carbon markets, and policy innovations, among others.
  • Capacity-building and technical assistance: Both institutions strive to increase the adoption of climate solutions by strengthening local capabilities. Their joint work will include building strong frameworks for renewable energy and associated infrastructure policies and regulations, and financial skills needed to develop project pipelines, among others.
  • Practical coalitions and project pipeline financing: The Parties will work jointly to advance partnerships and practical initiatives with natural synergies. This will include, but is not limited to, their respective work on supporting African countries in energy transition via IRENA’s Accelerated Partnership for Renewables in Africa (“APRA”) and the GCFC-hosted Africa Green Investment Initiative (“AGII”). The Parties will also collaborate to co-create and co-host events, including workshops and matchmaking ‘deal rooms’, to share knowledge, connect climate investors with investment opportunities, create and strengthen partnerships, and advance innovative renewable energy finance solutions to improve the uptake of global climate investments.

More:

Francesco La Camera, Director-General of the International Renewable Energy Agency, said: “Despite the remarkable political momentum established by the UAE Consensus and a universally compelling business case for renewables, progress on the energy transition remains uneven across regions, largely due to a lack of access to affordable financial resources. This strategic partnership with GCFC aims to address this disparity by strengthening finance flows, building capacities, and fostering innovation where it is needed most.”

Mercedes Vela Monserrate, CEO of the Global Climate Finance Centre, said: “By joining forces with IRENA, the Global Climate Finance Centre is taking a significant step forward in accelerating the flow of climate finance and propelling renewable energy initiatives around the world. United by a global vision for climate action, this collaboration seeks to empower countries and communities to implement effective climate solutions and build a more sustainable future.”

Source: IRENA

Maribor – Circular Economy Implementation Hub

Photo: Vid Ponikvar
Photo: Courtesy of Aleksander Saša Arsenovič

Back in the day, Maribor was one of the most developed cities in Yugoslavia. Today, it is the second largest city in Slovenia and the first in the region to apply the circular economy principles. Following the adoption of the Strategy for Maribor’s transition to a circular economy and the Action Plan that accompanies the Strategy, this idyllic tourist town defined the key development projects regarding the transition to the circular economy. Maribor also participates in the EU Pilot project for the bio-circular economy region of Podravje and is preparing an action plan and projects to be implemented by year-end. In an interview for Energy Portal Magazine, Maribor’s mayor, Aleksander Saša Arsenovič, discusses modern technologies, energy efficiency, climate change, sustainable development, and other current topics.

Q: What modern technological solutions do you use for the treatment of mixed municipal waste? Did waste incinerators in Maribor become operational? 

A: The Snaga public company, which operates under the Maribor Public Holding Group (JHMB), provides municipal waste management services. Mixed municipal waste is collected door-to-door. The exception is the collection of waste in the town centre, where there are four underground collection points for mixed municipal and other types of separately collected waste. Struja sorts the collected mixed municipal waste into different fractions in a modern, well-equipped, organized sorting plant. Out of 75,000 tons of municipal waste collected annually, 32 per cent is collected at the source as mixed municipal waste, and 68 per cent is collected separately, all of which goes to purchasers for further processing and recycling. A waste incinerator has not yet been installed in Maribor. We are currently in the process of finding a location for the incinerator while also preparing amendments to the waste incineration regulation.

Q: Are you developing the public-private partnership concept for implementing innovations? How many investments do such environmental protection projects attract? 

Photo: Marko Petrej

A: Energy renovation projects of public buildings are implemented in line with the public-private partnership model. In 2019, the Maribor municipal authorities fully renovated 14 and partially renovated 10 public buildings under a public-private partnership based on the energy contracting model. The municipality received cohesion grants for the comprehensive renovation. Thus, in 2019, the municipal authorities carried out the largest energy renovation in the region, with 24 public buildings (schools, kindergartens, sports halls) being renovated. 

The project value was 12 million euros. Annual energy consumption was reduced by 5,952 MWh, energy costs by 446,000 euros, maintenance costs by 28,500 euros and CO2 emissions by 1,305 tons. Working and living conditions have improved significantly, and the users are delighted. The project is regularly monitored, and savings are verified by the Energy and Climate Agency of Podravje – ENERGAP, which also participated in preparing the relevant documentation, obtaining cohesion funds and monitoring the investment implementation.

IN FOCUS:

Q: How much have you done to improve household energy efficiency so far?

Photo: Marko Petrej

A: Together with the municipal authorities, ENERGAP offers citizens energy consultations throughout the year. While providing these consulting services, ENERGAP actively cooperates with energy consultants who work with the ENSVET national network (network of energy consulting offices). At an ENSVET office, people receive free advice and information on investments in energy efficiency and renewable energy sources. They may also be able to obtain non-refundable financial incentives and favorable loans. All the necessary information and notifications about free energy consultations are available on the ENERGAP website and social networks. From time to time, they publish tips on saving electricity and heat, information on the carbon footprint and how to reduce it, tenders for grants, tips on cooling rooms in the summer months, and tips on staying safe in the sun. Various online lectures and seminars for citizens are also organized on the topics of savings, heating, self-sustainability, energy renovation, construction, investments in renewable energy sources, etc. ENERGAP also has an advisory office on its premises to promote using renewable energy sources, which is intended for all interested citizens, municipalities, and companies.

Q: What do you do to improve air quality, increase the use of renewable energy sources and work to develop mobility?

A: Air pollution in Maribor has been decreasing year-on-year. The largest pollution, especially during the heating season, comes from using very old and inefficient appliances. The values of pollutants, especially PM10 particles, have dropped significantly in the last six years. In 2018, at the Krekovo/Tirševa measuring point, there were as many as 21 days where the daily pollution limit was exceeded, and in 2023, not a single such day was recorded at the same measuring point. All reports with ambient air quality and condition monitoring at all measuring points are publicly available on the environmental website and a unique Interactive Map. Regarding renewable energy sources, we plan to install eight solar power plants (total power of 1 MW) that will create a local, energy-independent community. We are also planning new solar power plants on 14 public buildings with a power of 2 MW. Additional power plants are scheduled for the closed Porežje and Dogoše landfills, and discussions are ongoing for constructing a 5MW solar power plant at the railway trisection.

Interview by Mirjana Vujadinović Tomevski

Read the whole interview in the new issue of the Energy portal Magazine AGROSOLAR ENERGY AND RES.

IEA to convene major international energy security summit in London, hosted by UK government

Foto-ilustracija: Unsplash (Jaanus Jagomägi)
Photo: Pixabay

The IEA will convene an International Summit on the Future of Energy Security in the second quarter of 2025, hosted by the UK government in London, to assess the existing and future risks facing the global energy system and to prioritise the solutions and opportunities available for addressing them.

The IEA has been at the heart of international energy security for 50 years – helping avoid, mitigate and manage energy supply disruptions and crises. In recent years, the IEA has supported energy security with key actions during the global energy crisis such as twice releasing emergency oil stocks and issuing a 10 point plan for Europe to reduce reliance on Russian natural gas following Russia’s invasion of Ukraine.

As the world changes, so do the challenges around energy security. While risks around the availability of oil and natural gas show no signs of abating, new ones are emerging that could significantly hinder energy transitions and undermine the resilience of energy systems, if not addressed promptly and effectively. This calls for new and enhanced approaches to energy security – fit for today and the decades ahead – to ensure uninterrupted access to affordable energy.

More:

The Summit will examine the geopolitical, technological and economic factors affecting energy security at the national and international level. It will provide global decision makers and key actors with an opportunity to review the trends redefining global energy security. These include changes in energy demand, supply and trade; the adoption of clean and efficient energy solutions; the availability of the minerals and metals required for clean energy technologies – from wind turbines and solar panels to electric vehicles and battery storage; and the allocation of investment during the transition away from fossil fuels.

Photo-illustration: Pixabay (Michael_Pointner)

“The global energy crisis delivered a sobering reminder to countries around the world on the importance of energy security and its implications for our economies,” said IEA Executive Director Fatih Birol. “From its founding 50 years ago, the IEA has been a leader in safeguarding energy security and anticipating emerging risks. As the nature of energy security evolves amid looming threats, the IEA will continue to do all it can to ensure uninterrupted access to energy at affordable prices while honouring global climate commitments. I’m grateful to the UK government – under the leadership of Prime Minister Keir Starmer and Secretary of State Ed Miliband – for hosting this Summit, which will bring together leaders and decision- makers from around the world to ensure that we are taking the right actions today for stronger energy security tomorrow.”

UK Energy Secretary Ed Miliband said: “In an unstable world, the only way to guarantee our energy security and protect against volatile energy price spikes is to speed up the transition away from fossil fuels to clean, homegrown energy. Since the Russian invasion of Ukraine global energy security has become more important than ever. I am determined that the UK takes a global lead on clean energy and I look forward to working closely with the IEA as we host this crucial Future of Energy Security summit next year. Together we can mobilise international action for cheap, clean, secure energy as we drive forward the global energy transition.”

Source: IEA

Local Resistance Against Lithium Mines – A Global Phenomenon

Photo-illustration: Pixabay
Photo-illustration: Unsplash (Pedro Henrique Santos)

Lithium has been a major topic not only in our country but also in other countries around the world for some time. This is not a matter of days or months but years of unwavering activism. Several European countries have significant lithium reserves; one of these countries is Spain, which ranks among the top in terms of reserves.

In the Extremadura region of Spain, protests are taking place against exploitation. The regional government supports building a lithium mine near Cáceres, a city known for its beauty. The planned mine is located near a populated area and is expected to produce over 16,000 tons of battery-grade lithium hydroxide annually over 30 years. According to specific data, this mine could produce over half a million tons of this raw material over three decades. Despite the decisions of higher authorities, the local population opposes such a project. Environmental groups are particularly concerned about potential water and air pollution and the destruction of local flora and fauna, especially since this area is home to many protected plant and animal species. In 2020, the mayor of Cáceres rejected the possibility of opening the mine, but what will happen with one of Europe’s largest deposits remains a question.

Efforts have also been made to resist lithium mining in Latin America. Bolivia, Chile, and Argentina are among the largest lithium deposits in the world. In January 2023, the Indigenous People’s Council of Atacama (CPA) organized roadblocks to express dissatisfaction with the lack of consultation regarding an agreement between the state company and a mining company, and the lack of agreement is also a problem in other parts of the world. Although the blockades were lifted after reaching an agreement, tensions remain high. During 2024, protests against lithium mining continued throughout Latin America, particularly within this Lithium Triangle. In Chile, in addition to such protests, there were also demonstrations in ports this spring that disrupted the export of lithium and other raw materials, demanding better working conditions and greater safety.

More:

Lithium is also a current issue on the other side of the world. The Australian government has blocked the opening of a uranium mine at a site within a national park. This decision followed a long-standing dispute over exploiting one of the world’s largest high-quality uranium deposits. Energy Resources Australia (ERA), majority-owned by Rio Tinto, planned to resume mining but faced strong opposition from the local Mirrar community, and the government ended the long- standing issue with its decision. After massive protests, the original mine development plan was halted about 30 years ago, and the recent government decision confirmed the same. However, in Australia, there was an incident in 2020 when Rio Tinto destroyed 46,000-year-old Aboriginal sacred sites during mining, which is not the first time an indigenous community has protested against the impact of mining on their land.

Photo illustration: Pixabay

There are significant opportunities for lithium exploitation in the United States, as the country has rich, untapped reserves, with only one active commercial mine currently in Nevada. The U.S. plans to increase domestic production to reduce dependence on foreign sources. Earlier this year, we reported that the U.S. Department of Energy confirmed that the Salton Sea is a new major deposit. The lake in California covers about 820 square kilometers, and the Lawrence Berkeley.

National Laboratory in the U.S. predicts that this region could yield 3.4 million tons of lithium, enough for more than 375 million batteries needed for electric vehicles.

The U.S. is one of many countries increasing its efforts in lithium mining. Despite the recent decision, Australia is one of the world’s largest lithium producers and dominates the global market.

In Serbia, protests are again active and directed against the Rio Tinto project. The main reasons are ecological and health-related. Local residents and communities often feel excluded from the decision-making process about mining on their land, just like in other parts of the world. Protests have spread across the country, including in Valjevo, Loznica, Grocka, Negotin, Šabac, Aranđelovac, Kraljevo, Ljig, and Barajevo, bringing together people for the same reason—a significant social, community, and environmental issue.

Energy Portal

EBRD and EU to Mobilise Up to 100 Million Euros for Critical Raw Materials Investments

Photo-illustration: Unsplash (Shane McLendon)
Photo-illustration: Unsplash (Nicolas J Leclercq)

The European Bank for Reconstruction and Development (EBRD) and the European Union (EU) have launched a joint facility to provide equity investments for the exploration of critical and strategic raw materials, aiming to mobilise up to 100 million euros in investments. These raw materials are essential to the EU’s digital and green transition.

The EU is developing sustainable projects for critical raw materials to reduce the risk of potential supply-chain disruptions. This will ensure that industrial sectors have the necessary resources while maintaining EU environmental and social standards. The new joint facility will support the objectives of the EU’s Critical Raw Materials Act and the REPowerEU Plan.

The EBRD is providing 25 million euros and this will be matched by the EU’s contribution from the Horizon Europe Programme under the InvestEU umbrella. The facility aims to mobilise a further 50 million euros.

It will build on the EBRD’s extensive experience in financing mining projects, facilitating early-stage equity investments in operations in EU Member States where the Bank operates (Bulgaria, Croatia, Czechia, Estonia, Greece, Hungary, Latvia, Lithuania, Poland, Romania, the Slovak Republic and Slovenia), as well as EBRD economies outside the EU that are covered by the Horizon Europe programme (Albania, Armenia, Bosnia and Herzegovina, Georgia, Kosovo*, Moldova, Montenegro, North Macedonia, Serbia, Tunisia, Türkiye and Ukraine).

More:

As mining exploration activities do not yet generate revenue, the most suitable support instrument is equity. The EBRD expects to invest in 5-10 junior mining companies (small and medium-sized enterprises, medium-sized enterprises or small mid-caps) that undertake critical raw material exploration in eligible countries.

The facility will also contribute to one of the key priorities of the EBRD’s Mining Sector Strategy, to support the exploration and production of metals and minerals required for the green energy transition and digitalisation.

The facility will be used to fund responsible exploration activities, delivered to high climate, governance, environmental and social impact standards. The EBRD’s rigorous Paris Agreement alignment and Environmental and Social Policy screening will be applied to all projects.

The facility is part of the EBRD’s recently approved Junior Mining Framework worth 150 million euros for equity and quasi-equity investments in early-stage mining companies.

Source: EBRD

How NASA Has Been Contributing to the Conservation of Animals and Their Habitats for Half a Century

Photo-illustration: Freepik (evening_tao)
Photo-illustration; Freepik (vladimircech)

The rise in human population has led to the expansion of urbanization and the occupation of natural habitats. Perhaps the growth of the human population itself is not as significant a problem for preserving natural habitats as much as human greed to take more than necessary. So much life on Earth coexists, yet it seems only humans find it cramped and feel the need to expand more and more each day. There are various reasons why biodiversity is endangered, while habitat loss is currently the greatest threat.

The extent to which we as a species have contributed to the endangerment of others can be illustrated with the example of tigers. Data shows that Bengal tigers once roamed widely across Asia, but over the last 150 years, more than 90 per cent of their habitat has been lost.

In 1972, the National Aeronautics and Space Administration (NASA) launched the Landsat program, which captures images of our planet’s surface to study changes in habitats, climate conditions, and natural resource management.

After more than five decades of observation, this program has created an archive of data that has significantly enhanced our understanding of our planet, its natural resources, and dynamic processes. The program consists of a series of satellite missions, and according to NASA’s official website, Landsat Next is the next mission expected to be launched by the end of 2030. The advanced technology will enable improved monitoring and management of changing landscapes.

However, while we await this, I would like to highlight the significance of the missions conducted so far. Nine missions have been undertaken to date: the first launched in 1972, the second in 1975, the third in 1978, the fourth in 1982, the fifth in 1984, the sixth in 1993, the seventh in 1999, the eighth in 2013, and the most recent in 2021.

Landsat satellites play a crucial role in the protection of endangered animal species. One way they provide protection is through their ability to use infrared light to map and monitor the health of vegetation. Although infrared light is not visible to the human eye, it is beneficial for plants and studying their health. Depending on the health of the plant, it reflects infrared light differently, and Landsat sensors can accurately measure this reflection. Based on such collected data, scientists can more accurately assess the health of natural habitats. The vegetation of a particular area is important for both food and shelter and for the overall health of the ecosystem.

Landsat satellites can also precisely map ecosystems such as mangrove forests, coral reefs, and others. NASA has reported that thanks to these missions, scientists have identified 650 barrier islands worldwide that were previously unknown. Based on years of data collection, scientists can observe changes in habitats and monitor climate changes, water management, agricultural production, and forest fires or logging, all of which are significant for better managing natural habitats that have already been degraded but are crucial for the survival of endangered species.

For example, Landsat satellites have discovered the emergence of green areas in the Arctic, indicating increased vegetation due to climate change and ice melting. This has helped scientists understand how these ecosystems change and how that affects wildlife.

Last but not least, another good example concerns the mapping of new habitats for previously unknown endangered species, like the critically endangered marsh bird Yuma Ridgway’s Rail. This way, scientists can better plan measures for its protection and population restoration in its natural environment.

Katarina Vuinac

How Extreme Temperatures Affect the Global Economy and Workers’ Health

Photo-illustration: Freepik (rawpixel.com)
Photo-illustration: Freepik (freepik)

June 2024 was the thirteenth consecutive month of breaking global temperature records. A United Nations publication titled “United Nations Secretary-General’s Call to Action on Extreme Heat” notes that 2024 will likely be one of the hottest, if not the hottest, years in recorded history.

The publication highlights human activity and fossil fuels as the leading causes of the climate crisis. Extreme temperatures negatively impact all aspects of society and nature, including natural resources, biodiversity, the environment, agriculture, human health, and the economy. However, the impact is not uniform across all groups.

In social terms, poor communities and displaced individuals struggle to protect themselves from extreme heat. Specifically, the most vulnerable groups include the youngest, the elderly, people with disabilities, pregnant women, and outdoor workers.

More:

Global Economy and Workers’ Health

High temperatures, experienced almost globally, have serious negative consequences on the global economy. They significantly affect sectors such as agriculture, energy, and infrastructure. Healthcare, tourism, international trade, and supply chains are also impacted.

According to the publication, heat stress particularly impacts worker productivity. When temperatures exceed 26°C (79°F), productivity begins to decline, and at 34°C (93°F), it drops by up to 50 per cent. This so-called heat stress leads to losses of around 280 billion USD; by 2030, these losses are expected to rise to 2.4 trillion USD.

Workplace safety measures must be implemented to reduce these losses to prevent injuries caused by excessive heat. By doing so, over 360 billion USD could be saved globally. Outdoor workers, such as farmers and construction workers, are particularly exposed to these conditions.

In terms of workplace injuries, more than 22 million such injuries are due to excessively high temperatures. Additionally, prolonged exposure can lead to diseases that are not immediately noticeable, such as chronic kidney diseases. It is also important to note the mental health of employees, as these weather conditions lead to increased levels of stress, anxiety, and depression.

Katarina Vuinac

On the Way to the Energy Transition

Photo: Emilija Jovanović
Photo-illustration: Unsplash (Karsten Wurth)

The Energy Community recognized the Republic of Serbia as a leader in energy reforms in the region in 2023. Key steps have been taken to improve the legislative framework and set strategic goals for the future of the energy sector, which will contribute to the acceleration of the green transition and enhance the security of energy supply. We spoke with Dubravka Đedović Handanović, Minister of Mining and Energy, about the energy transition, investments in renewable energy sources (RES), boosting energy efficiency, and support for energy-challenged households.

Q: How is Serbia’s energy transition developing? What are the next steps in reforming the energy sector?

A: I believe that it will be best to talk about Serbia’s progress in the green energy transition in the previous two years with the help of numbers. The number of prosumers has increased from 400 to 3,000, the capacities of wind farms will be increased by nearly 40 per cent by the year’s end, and for the first time, we have exceeded 100 MW of solar capacity. We have a three-year auction plan for the allocation of market premiums, which provides for 1,300 MW, and we have already achieved 715 MW of electricity produced by wind farms and solar power plants (of which 425 are included in the incentive system). Every day, we work diligently to reduce consumption in the household sector, so in the space of just one year, around 10,000 households received state grants for boosting energy efficiency in their homes. If we look only at the results achieved through the Clean Energy Programme last year, energy savings were equaled to the production of the Niš heating plant, which is among the largest such plants in Serbia.

Photo-illustration: Unsplash (Mariana Proença)

Our ambition is to improve the legislative framework further. This, in addition to amending the Energy Law, implies the adoption this year of already prepared strategic documents, such as the Integrated National Energy and Climate Plan and the Energy Development Strategy.

As a large investor, the state plays an active role in the energy transition process. Key investments in the energy transition that we are implementing in cooperation with the Electric Power Industry of Serbia (EPS) include the construction of self-balancing solar power plants with a capacity of 1 GW, the Kostolac wind farm (66 MW) that will be included in the power grid next year, as well as the new reversible hydropower plants Bistrica and Đerdap 3. In late April, we commissioned a flue gas desulphurization plant in TENT A, the largest environmental project implemented in thermal power plants in Europe at the moment. We decided to conduct auctions and award market premiums as a key incentive for privately funded projects, which the EU also recognized as one of the key tools for increasing the share of renewable energy sources.

Our strategic documents say that we will consume more energy in the future, and we need stable energy sources when renewable energy, solar, and wind are unavailable. Therefore, we seriously and thoroughly considered using nuclear energy, which is the only type of energy that can generate electricity, while adhering to the zero CO2 emission concept. If we know that we now get more than 60 per cent of our energy from coal, it is clear that we cannot replace that amount of energy overnight. On the other hand, there are many uncertainties regarding the basic capacities that meet the condition of carbon neutrality, and we are aware that projects involving gas are exposed to numerous risks, from geopolitical and the willingness of international institutions to finance them to a possible change in the treatment of this energy source in the EU taxonomy. That is why we started to consider the option of including Serbia in the group of countries that use nuclear energy to generate electricity.

The energy sector reform began with transforming the Electric Power Industry of Serbia (EPS), the largest company in our country, which supplies all citizens and the largest part of the business sector with electricity. This process, which we started amid the energy crisis, is very complex and implies several challenges, which I believe we have adequately solved so far. Our goal is to protect workers in the energy transition, especially miners, and to create better conditions for employees.

IN FOCUS:

Q: Last year, we had the first auctions for allocating market premiums for renewable energy sources. How satisfied are you with these auctions, and when will the second round be announced?

A: By adopting a three-year auction plan covering the period from 2023 to 2025, we will provide at least 1,300 MW of new energy capacities generated from RES through private investments, auctions, and market premiums. Last year, we conducted the first auction for the allocation of market premiums, the result of which were nine new power plants, the achieved price of electricity twice lower than the market price at that time, a new 715 MW of electricity (of which 425 MW is included the incentive system) and more than a billion euros of private investments to be spent on the development of wind farms and solar power plants. This clearly indicates that Serbia has created an excellent environment and regulatory framework for the development of RES. We expect around 115 MW of wind and solar energy from auctions to be included in the power grid by the year-end.

The second round of auctions for around 400 MW of new green energy will be launched at the end of this year, as soon as we assess that the market is ready and that there are mature projects that can compete for incentives, which is something we analyze daily. Through auctions, we plan to encourage investors to keep the produced green energy in Serbia, which our citizens and the business sector will use. We will pay special attention to promoting the construction of solar power plants, and we will work to achieve the best possible price through good competition.

Photo-illustration: Unsplash (Milica Spasojević)

Q: The household energy renovation program is continuing this year, too. What is included in this program, and what awaits us by the year’s end?

A: We, in Serbia, consume three and a half times more energy compared to the European average, which is why we support individuals in their effort to improve energy efficiency in their households to achieve energy savings between 25 and 30 per cent, increase comfort and reduce the emission of harmful gases. We recently concluded contracts with 137 local governments, including municipalities from Kosovo and Metohija, to which we gave about two billion dinars for subsidies for about 12,000 households this year alone. Individuals will be able to apply for subsidies as early as June, as soon as the local governments launch relevant tenders, which, depending on the package of measures, can go up to 65 per cent of the total investment value for the replacement of doors, windows insulation, facades, roofs, inefficient boilers and installation of solar panels and collectors. All these measures actively involve citizens in the energy transition process. So far, about 30,000 households have received state subsidies, while by the end of 2027, we will have rehabilitated more than 70,000 households across the country. In cooperation with the World Bank, we provided 50 million dollars for subsidies to citizens.

Q: The household energy rehabilitation program has given special attention to financially vulnerable households. How is the project implementation going?

A: For now, those customers who are at risk can apply for subsidies in 44 towns. They are significantly higher than the other subsidies for citizens and amount to up to 90 per cent of the energy rehabilitation value. Thanks to minimal investments, energy-challenged customers will improve the comfort of their homes and significantly reduce their electricity bills. Translated into money, if the household changes doors and windows alone, for which a subsidy amount of, for example, 100,000 dinars is allocated, then the household is obligated to provide 10,000 dinars. We are dedicated to supporting the most vulnerable citizens, so this project is an excellent opportunity to remind all interested parties that they can apply to their local governments throughout the year to obtain this status.

Interview by Milica Radičevič

Read the whole interview in the new issue of the Energy portal Magazine AGROSOLAR ENERGY AND RES

How hybrid planes could make aviation more sustainable

Photo illustration: Unsplash (G-R Mottez)
Photo-illustration: Pixabay (geralt)

Aviation accounts for around percent of global annual CO2 emissions, but it is often regarded as one of the most challenging industries to decarbonize. This is because the number of people travelling by air is increasing every year and the technologies needed for decarbonization are far from ready for mass deployment.

As a result, a single technology or change in aircraft operations will not be enough to achieve net-zero emissions. A combination of different strategies, encouraged by appropriate incentives and policies, will be required. This could include upgrading airport infrastructure, producing sustainable fuels or adopting new propulsion technologies.

Electrification has been used to decarbonize the automotive industry and now it’s also being explored as a possible pathway for aviation. A battery-powered flight uses the energy stored in batteries to power electric fans for propulsion. Since it doesn’t involve burning fossil fuels, electrification could eliminate in-flight emissions of carbon, as well as other environmentally unfriendly gases.

But greenhouse gases could still be emitted while producing the battery and generating the electricity needed to charge it. So, sustainable sources of electricity must be used for charging, alongside sustainable battery manufacturing practices, to significantly reduce overall emissions compared to using fossil jet fuel.

Battery-powered planes present challenges, however. Today’s batteries weigh nearly 50 times more than a comparable amount of jet fuel. Aircraft must also carry more fuel – or battery power – than they need for a journey so they can continue to fly and land safely if diverted to a different airport. For short missions this is a significant percentage of the total fuel carried and the extra weight adds to the fuel the plane uses, reducing the distance it can travel.

More:

Helping hybrid planes take off

This is why hybrid aircraft could form part of the solution to aviation’s decarbonization challenge. Hybrid planes use an additional source of energy as well as battery power.

There are multiple options for the secondary fuel source and the way in which the propulsion systems are integrated: the secondary fuel could be burnt in its own separate engine or in a generator to power the same motors as the battery would, for example. Alternatively, a fuel cell could generate electricity from chemical reactions using hydrogen. The battery power and secondary fuel can be used to power the aircraft simultaneously or alternately.

Photo illustration: Unsplash (Sebastian Grochowicz)

One promising hybrid option is to use fossil fuels and a turbogenerator to provide the energy for the required reserves. Including an additional fuel source increases the complexity and weight of the aircraft, but an AIA analysis conducted for this article* showed that the increase could be smaller than the weight of the batteries that would otherwise be needed for reserves. And while the additional weight could also raise energy consumption, it would increase the range of the aircraft.

The performance of hybrid- and battery-powered aircraft could be improved even further by using electric motors. The jet engines typically used on passenger aircraft are more efficient if they are larger, but this is not the case for electric propellers. Positioning multiple small propellers along the length of the wing or using wingtip propellers could significantly improve aerodynamic efficiency.

Future hybrid plane designs could exploit these opportunities to lower greenhouse gases and extend their range.

Airports can also benefit from hybrid planes

Hybrid planes could also reduce an airport’s carbon footprint and improve local air quality. Aircraft can account for up to 95 percent of airport emissions. This could be reduced by using battery-electric planes to eliminate carbon emissions and other harmful pollutants.

A fully electric flight would require charging infrastructure at both the arrival and departure airports. On the other hand, hybrid-electric aircraft present a readily deployable solution while this charging infrastructure is built.

Hybrid aircraft batteries could be charged in-flight or on the ground by an on-board jet-fuelled powerplant if a destination airport has no charging infrastructure. This would reduce the environmental benefits of hybrid-electric operation, but it would expand the number of airports to which hybrid planes could fly while charging infrastructure is being rolled out.

Limitations of hybrid-electric aircraft

The emissions associated with battery charging depend heavily on the source of electricity used. Of course, grid emissions are expected to fall as renewable energy sources grow, but the AIA analysis* shows that using electricity from today’s power grid to power an aircraft could would, in certain locations and under certain circumstances, produce around 25% more carbon dioxide than using a jet-fuelled aircraft.

Producing batteries can also be more polluting than processing jet fuel as the mining and manufacturing processes involved are both energy intensive. These methods are likely to improve, but uncertainty remains and is dependent on the type of battery chosen for an aircraft.

This is why it’s important that a clear path to decarbonization is created for all industries – the benefits of building more renewable generation, for example, will extend beyond the energy sector.

Read the whole article here

Source: WEF

Greenpeace Studies Vulnerable Marine Mammals in Targeted Deep Sea Mining Area

Oil Drilling Platform in the Santa Barbara CA Channel. Ten of us docent types from Morro Bay, CA, take a 4-hour Whale Watching boat trip tour on the Condor Express http://www.condorcruises.com/ out of Santa Barbara, CA, to Santa Cruz Island in the Channel Islands in Central-Southern California, on Labor Day 07 Sept 2009. Organized by Rouvaishyana of the CA State Park Museum of Natural History in Morro Bay, CA. Photo by Michael "Mike" L. Baird, mike [at} mikebaird d o t com, flickr.bairdphotos.com; Canon 5D, Canon 100-400mm Lens with circular polarizer (which made a big difference) handheld on a moving boat.
Photo-illustration: Pixabay

As the Norwegian government is moving forward with the opening of Arctic waters to deep sea mining exploration, Greenpeace Nordic and Greenpeace Germany set sail with a group of scientists and campaigners heading to the mining area in the Norwegian Sea. Their aim is to learn more about the whale and dolphin species in the area that could be impacted by this destructive industry.

Arctic waters are one of the most fragile ecosystems in the world, rapidly undergoing environmental change due to pollution-fuelled climate damage. The Arctic mining area is punctuated by underwater mountains and deep sea ridges, offering rich habitat for foraging and migrating whales, among many other species. Over the coming weeks, scientists onboard the Greenpeace ship Witness will conduct a visual-acoustic survey for cetaceans living in the area, including for some species that are globally threatened.

Whales and dolphins live and feed in the same deep sea area that the Norwegian government is opening for mining, and are highly sensitive to industrial activities and noise pollution. We are interested in which species are present in the region and also in their behaviour. We hope our scientific data will complement other research ongoing in the area,” said Dr Kirsten Young, science lead from Greenpeace Research Laboratories at the University of Exeter, onboard the SY Witness.

More:

Whales and dolphins are known to use seamounts as feeding and breeding areas or even as navigational help during their migrations.

The Norwegian mining companies plan to cut the mineral-rich crust that has been shaped for millions of years, directly from the seamounts, risking centuries-old ecosystems that inhabit these underwater mountains. They are also exploring to mine hydrothermal vents, hot springs produced by volcanic activity beneath the seabed, where some scientists believe that life on earth emerged. Mining these structures would remove a key habitat in the deep sea and has the potential to do irreparable harm to the deep sea ecosystem.

The Norwegian plan to mine the seabed has already met huge criticism from the international community. More than 800 ocean scientists from across the world have already called for a pause on deep sea mining.

“For the first time in history, destructive mining companies are planning to mine the Arctic seabed. The Norwegian government is ignoring warnings from hundreds of concerned scientists, and is gambling with fragile ecosystems and future generations’ livelihoods. With this move Norway has lost all international credibility as a responsible ocean nation,” said Haldis Tjeldflaat Helle, political campaigner from Greenpeace Nordic onboard the SY Witness.

Until very recently, deep sea mining companies have justified their existence on the greenwash argument that deep sea mining is a necessary evil for the energy transition. However, growing concerns over environmental damage from deep sea mining, combined with recognition of the huge data gaps and questions as to whether such mining could ever be justifiable in terms of mineral demand, have contributed to the number of governments rejecting deep sea mining more than doubling in the past year.

Photo-illustration: Pixabay

The case for other types of deep sea mining, targeting metal-rich nodules on the deepest ocean plains, has been shaken further this week by the publication of a scientific study that reveals that polymetallic nodules in the Clarion-Clipperton Zone – the biggest area targeted for deep sea mining located in the Pacific Ocean – may be playing a key role producing oxygen in the deep sea without photosynthesis. This ground-breaking study has prompted even more concerns about the impact of this activity and calls for further investigation into this ‘dark oxygen’ phenomenon.

“It’s simple, the more we know about deep sea mining, the harder it is to justify it,” said Franziska Saalmann, marine biologist and oceans campaigner onboard for Greenpeace Germany.

The days before departure activists from Greenpeace Germany did a projection with the message for Norway to “Stop Deep Sea Mining” on a huge cliff in the Lysefjord near the iconic Norwegian landmark Pulpit Rock (Preikestolen).

The Greenpeace expedition will cover the mining area from Jan Mayen Island in the south, through international waters all the way up to Svalbard where they will arrive in mid August after almost 20 days at sea.

Source: Greenpeace

The role of development finance institutions in energy transitions

Photo-illustration: Unsplash (austin-distel)
Photo-illustration: Unsplash (markus-winkler)

Development finance institutions (DFIs) account for only around 1 percent of total financing for energy sector investment, but their importance goes well beyond this relatively small share. DFIs are specialised financial institutions set up to support a range of economic and social objectives by financing projects that may not otherwise get commercial funding. Beyond funding specific projects, DFIs play a crucial role in enabling investments by providing sector-specific policy support or technical assistance which lay the groundwork for long-term, transformative changes in emerging markets.

IEA analysis has highlighted the need for scaling up clean energy investments, particularly in emerging market and developing economies (EMDE). The recent World Energy Investment report (WEI) underscored the imbalances in capital flows, with 85 percent of today’s clean energy projects in advanced economies and China. DFIs can play a vital role in stimulating more of these projects in EMDE, helping to attract larger volumes of private capital.

This analysis follows a recent overview of the sources of finance for energy-related investments and explores in more detail the role of DFIs in financing secure, affordable and sustainable energy. It looks at three topics:

  • the instruments that are used by DFIs to meet the energy investment needs of different regions and project types
  • the impact of DFI interventions in mobilising additional capital for climate from private sector participants
  • what more can be done by DFIs to accelerate clean energy transitions.

More:

Financial arrangements tailored for development impact

From 2019-2022, DFIs disbursed on average around USD 24 billion each year in finance for energy sector projects. Africa, Asia and Latin America were the largest beneficiaries. Around 80 percent of this was for clean energy projects, with remaining financing for fossil fuels mainly going to the midstream, for refineries.

While the overall capital structure in the global energy sector has a relatively equal balance of debt and equity financing, DFIs operate in a different way — debt instruments account for over 90 percent of DFI financing, followed by small amounts of grants and even less equity. Their high reliance on debt instruments is driven by the need to ensure financial sustainability, manage risk, and leverage limited capital for significant impact. This reflects both the strategic priorities and the operational constraints within which DFIs operate.

DFIs are fundamentally driven by a specific logic of development. While EMDEs other than China are faced with large shortfalls in clean energy investment, accounting for only 15 percent of the global total, Africa, Asia and Latin America are the largest beneficiaries of DFI financing, demonstrating that it is a primary means of investment support in EMDE.

The development mandates pursued by DFIs are also visible in the mix of different financial instruments for each region. Sub-Saharan Africa, for instance, not only receives the largest amount of DFI financing but also has the highest Official Development Assistance (ODA) to Other Official Flows (OOF) ratio, with a significantly large amount of grants and higher than average equity. India, on the other hand, has the second-highest ODA to OOF ratio but receives most of its ODA in the form of debt rather than grants, while China has a significantly lower ODA ratio. This pattern shows that regions that have limited repayment capacities and depend on concessional financing are recipients of the most forgiving forms of financing, whereas other borrowers with stronger infrastructure and more commercially viable projects receive less concessional forms of financing.

In the past decade, DFI financing for clean energy is more than four times that of fossil fuels, with over half of the clean energy investments provided in a more concessional form of financing.

Read the whole article here

Source: IEA