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Use of Climate-Warming Fluorinated Gases Continues to Drop Across EU

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Photo-illustration: Unsplash (Abigail Lynn

The EEA report ‘Fluorinated greenhouse gases 2020’ confirms the trend of continued reduction in the use of hydrofluorocarbons (HFCs) by European industry under both the EU-wide regulated phase-down of HFCs and the global HFC phase-down, which began in 2019 under the so-called Kigali Amendment to the Montreal Protocol.

F-gases are synthetic chemicals used in everything from refrigerators, heat pumps to air conditioners and as solvents and blowing agents for foams. They are considered potent greenhouse gases and have been regulated in the EU since 2006 in an effort to reduce their use and impact on global warming. The EEA report also details the different amounts of F-gases supplied for various industrial applications. These are expressed both in physical amounts (in tones) and in ‘global warming amounts’, i.e. physical amounts weighted by the global warming potential of hydrofluorocarbon gases and measured in CO2-equivalent tones (CO2e).

In 2019, the EU-wide quantity of HFCs placed on the market stayed below the overall market limit for the fifth year in a row, by 2 percent.

EU contribution to global phase-down

Photo-illustration: Pixabay

The EU’s HFC ‘consumption’ in 2019, as defined under the Montreal Protocol, was 55 percent below the first limit set for the EU for 2019 under the Montreal Protocol’s Kigali Amendment.

Other Key Findings:

In addition to reduced use and imports, a substitution is taking place in favour of less climate-harming F-gases:

The volume of total supply of F-gases in the EU measured in tones was 15 percent below 2018 and almost 25 percent below 2017. Expressed in carbon dioxide equivalent (CO2e), the reduction is even more significant at 20 percent below 2018 and 42 percent below 2017. Refrigeration and air conditioning continue to be key applications.
Total imports of F-gases to the EU in 2019 decreased by 14 percent compared with 2018 (19 percent if measured in CO2e). Most of this decrease is due to lower HFC imports, and the remainder is caused by decreases in imports of sulphur hexafluoride (SF6) and perfluorocarbons (PFCs).

Fluorinated greenhouse gas emissions have been decreasing in the EU since 2015, after 15 years of uninterrupted annual increases. In 2018, total fluorinated greenhouse gas emissions decreased by 11 percent from their peak in 2014.

Source: EEA

Alstom To Supply Italy’s First 6 Hydrogen Trains

Photo-illustration: Unsplash (Dan Senior)
Photo-illustration: Unsplash (Silver Ringvee)

Generally speaking, at best, i don’t get excited about hydrogen news. In the case of potential hydrogen-powered airplanes or large ships, i might be cautiously optimistic — or just attentive — since experts like Mark Z. Jacobson consider such transport methods to perhaps be a good fit for hydrogen fuel cell powertrains. However, generally, my understanding of the matter is hydrogen-powered vehicles are typically too inefficient (in terms of energy and cost) to compete with battery-electric vehicles.

The news below caught my attention, though. It’s about hydrogen-powered trains. Again, this seems like a transportation mode that would be more efficiently powered with other electric options. But perhaps I’m wrong.

Trains are certainly large vehicles with unique characteristics — in terms of needing a lot of power to get rolling but then not needing a great amount of energy as they roll on metal wheels and rails with little to no interruption. So, do hydrogen-powered trains have an opportunity to break into a free market or not? I’m inclined to think not, but we’ll see.

In the meantime, below is a fresh press release from European train giant Alstom about its newest order.

The board of FNM, Lombardy’s leading public transport group, approves major investment in green railway transportation.

Alstom will supply six hydrogen fuel cell trains, with the option for eight more, to FNM (Ferrovie Nord Milano), the main transport and mobility group in the Italian region of Lombardy, for a total amount of approximately EUR 160 million. The first train delivery is expected within 36 months of the date of the order.

The new hydrogen trains will be based on Alstom’s Coradia Stream regional train platform, which is dedicated to the European market and already being produced for Italy by Alstom’s main Italian sites. The hydrogen powered Coradia Stream for FNM, will be equipped with the same fuel cell propulsion technology that was introduced to the world by the Coradia iLint. The hydrogen Coradia Stream will maintain the high standards of comfort already appreciated by passengers of its electric version. The hydrogen version will match the operational performance of diesel trains, including their range.

“We are immensely proud to be introducing hydrogen train technology to Italy, and we recognise the trust placed in us by our Italian customer. This development confirms Alstom’s role in defining the future of mobility. These trains, together with the Coradia iLint that have already proven themselves in commercial service in Germany, represent another major step in the transition towards global sustainable transport systems. I take this opportunity to congratulate FNM for demonstrating that they are a leader in this area,” says Gian Luca Erbacci, Senior Vice President of Alstom Europe.

The Coradia iLint is the world’s first passenger train powered by a hydrogen fuel cell, which produces electrical power for traction. This zero-emission train emits low levels of noise, with exhaust being only steam and condensed water. The iLint is special for its combination of different innovative elements: clean energy conversion, flexible energy storage in batteries, and smart management of traction power and available energy. Specifically designed for operation on non-electrified lines, it enables clean, sustainable train operation while ensuring high levels of performance.

The Coradia Stream trains for FNM are manufactured by Alstom in Italy. Project development, most of the manufacturing and certification are performed at Alstom’s site in Savigliano. The on-board signaling systems are delivered by the Bologna site.

Source: Clean Technica

 

EU on Track to Meet Greenhouse Gas Emissions and Renewable Energy 2020 Targets

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Photo-illustration: Unsplash (Daniel Moqvist)

The EEA report ‘Trends and projections in Europe 2020’ tracks progress the EU’s 27 Member States (plus the United Kingdom) are making towards Europe’s climate and energy targets. The analysis is based on data on greenhouse gas emissions and energy up to 2019, officially reported in 2020, and complemented by the EEA’s own preliminary estimates for missing data.

The EU on track to its 2020 emission target, but national situations differ

In 2019, greenhouse gas emissions in the EU-27 decreased by almost 4 percent. This one-year drop was unprecedented over the last decade and occurred before the effects of the COVID-19 pandemic. The 2019 drop took place in a period of economic growth, reflecting the strong and steady growth of renewable energy in Europe and the result of cumulative long-term, sustained efforts toward lower emissions levels.

Since 1990, greenhouse gas emissions in the EU have been steadily declining, with emissions in the EU-27 falling to 24 percent below 1990 levels in 2019. This highlights the results of effective climate policies implemented across the EU and shows that it is clearly possible to achieve more ambitious reduction targets by 2030, paving the way for a climate neutral EU by 2050.

Photo-illustration: Unsplash (Sam Wermut)

The fast decarbonisation of the EU’s power sector has been driving major and sustained emission reductions in the sectors covered by the EU Emissions Trading System (ETS). In the other sectors (transport, buildings, agriculture), the achievement by Member States of their national annual ‘Effort Sharing’ emissions targets over the period 2013-2020 has been consistent, but the overall EU-level overachievement has been narrowing. In 2019, preliminary estimates point towards 12 countries with emission levels greater than their annual targets: Austria, Belgium, Bulgaria, Cyprus, Czechia, Estonia, Finland, Germany, Ireland, Luxembourg, Malta and Poland.

Renewable energy 2020 target on track

Preliminary EEA data suggest that the EU-27 achieved a total share of energy consumed from renewable sources of 19.4 percent in 2019. The EU is therefore on track to the 2020 target of a minimum 20 percent share. While the shares of electricity, heating and cooling provided by renewables helped meet the overall EU target, reaching the target of 10 percent energy needs for transport to be supplied by renewable sources by 2020 remains tenuous. The EEA’s estimate for 2019 indicates that 14 Member States need to make further efforts to reach their 2020 target levels. These countries are Austria, Belgium, France, Germany, Hungary, Ireland, Luxembourg, Malta, the Netherlands, Poland, Portugal, Slovakia, Slovenia and Spain.

Energy efficiency: risk of not meeting 2020 targets

Efforts to achieve the 2020 energy efficiency targets have not been enough. According to EEA estimates for 2019, final energy consumption in the EU-27 stabilised in 2019, but only nine Member States (Finland, Greece, Italy, Latvia, the Netherlands, Portugal, Romania, Slovenia and Spain) were on track toward their respective 2020 final energy efficiency targets. All other Member States need to make further efforts to curb their national energy demand and achieve their 2020 targets.

Photo-illustration: Pixabay

Impact of COVID-19?

The COVID-19 pandemic in 2020 is likely to make the 2020 targets easier to achieve. While not yet quantified, there are strong indications that the economic downturn in 2020 has sharply reduced overall energy consumption and greenhouse gas emissions in 2020, in particular in the transport sector, with the share of energy consumed from renewable sources likely having increased. The impact of COVID-19 related potential reductions might be short-lived and emissions might rebound as economic activities return to pre-COVID levels.

Reducing GHG emissions: much more work needed towards 2030, 2050

While recent trends suggest achievement or overachievement of the 2020 emissions reductions targets, remaining on track to meet the 2030 and 2050 objectives will demand sustained and long-term efforts. The latest national projections reported to the EEA, which do not yet fully reflect all indicate a rather conservative outlook, with relatively moderate emission reductions by 2030 in the absence of new measures. Further effort will be necessary to achieve the emission reduction targets that have already been set for 2030, and even more if their ambition level is increased in line with the proposed EU climate neutrality goal by 2050. The packages of recovery measures prepared at the national and European levels provide a unique opportunity to direct short-term and long-term investments towards activities fully compatible with Europe’s climate neutrality and sustainability objectives.

Source: EEA

WMO Welcomes Launch of New Ocean-Monitoring Satellite

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Photo-illustration: Unsplash (Jakob Owens)

The World Meteorological Organization has welcomed the successful launch of the Copernicus Sentinel-6 Michael Freilich ocean-monitoring satellite. Its high-precision measurements of Earth’s oceans from space will provide crucial information about sea level rise and critical inputs for weather forecasting.

The fundamental contribution from the new satellite will be ensuring continuity in the long-term climate data record on sea-level, supporting policy decisions on mitigation. adaptation and climate impacts – underpinned by science. Sea level rise is a key indicator of climate change and its monitoring is essential to for the protection of lives and property, which lies at the core of WMO’s mandate.

Copernicus Sentinel-6 Michael Freilich was launched on a SpaceX Falcon 9 rocket from the Vandenberg Air Force base in California, in the United States on 21 November. The partners in the mission are the European Commission, European Space Agency (ESA), European Organisation for the Exploitation of Meteorological Satellites (EUMETSAT), and the United States’ National Aeronautics and Space Administration (NASA) and National Oceanic and Atmospheric Administration (NOAA), with support from the French Space Agency (CNES).

Launch of Sentinel-6 Michael Freilich satellite (NASA)“Sentinel 6 Michael Freilich data will expand the unique record of mean sea level, whilst improving it further with measurements of unprecedented accuracy and closer to coastlines. The data will improve forecasts of high-impact weather and climate features that are strongly influenced by the ocean, like heat waves, tropical cyclones and unusually warm or cold summers and winters,” said EUMETSAT Director-General Alain Ratier.

Photo-illustration: Unsplash (marek-okon)

Dr Steve Volz, Assistant Administrator of the US National Oceanic and Atmospheric Administration’s (NOAA) Satellite and Information Service, added: “NOAA will use Sentinel-6 data in many ways, including using sea levels to estimate the heat stored in the upper layer of the ocean, which will help improve hurricane intensity forecasts.”

The satellite is named after the late Dr Michael Freilich, who was Director of NASA’s Earth Science Division and a champion of science and international cooperation.

ESA’s Space Operations Centre handed over flight operations of the Copernicus ocean-monitoring satellite to EUMETSAT on 24 November. With Sentinel-3A and Sentinel-3B, this is the third Copernicus ocean-monitoring satellite operated by the organisation on behalf of the European Union.

EUMETSAT will work with ESA, NASA, NOAA, CNES and scientists from Europe and the United States to calibrate the products and validate the end-to-end Sentinel-6 system.

This will be achieved in June 2021, with release to all users of near-real-time products equivalent to those of those of Jason-3. Another six months will be necessary to validate and release the highest accuracy sea level products used for climate monitoring. Then, Sentinel-6 Michael Freilich will replace Jason-3 as the reference high-precision ocean altimetry mission.

Photo-illustration: Pixabay

Sentinel-6 Michael Freilich plays an important role as a radar altimetry reference mission and continuing the long-term record of ocean topography and waves measurements started in 1992 by the French-US Topex Poseidon followed by the Jason satellites.

Sentinel-6 Michael Freilich will make a a vital contribution to the space-based component of the WMO integrated Global Observing System (WIGOS). It will enhance climate research and science and observations of phenomenon such as the El Niño/Southern Oscillation. It will also support WMO efforts to improve early warnings of tropical cyclones and hazards like coastal inundation.

With NASA’s Eyes on the Earth web-based app, you can tag along with the U.S.-European satellite as it orbits the globe, gathering critical measurements of our changing planet.

Source: WMO

Urgent Action Needed for the Energy Transition in Heating and Cooling

Photo-illustration: Unsplash (Sergei Akulich)
Photo-illustration: Unsplash (Marcin Jozwiak)

The transition to cleaner, more sustainable heating and cooling solutions can attract investment, create millions of new jobs and help to drive a durable economic recovery in the wake of the global COVID-19 crisis, says a new study by leading energy organisations.

The joint report by the International Renewable Energy Agency (IRENA), the International Energy Agency (IEA) and the Renewable Energy Network for the 21st Century (REN21), highlights the benefits, identifies investment barriers, as well as the policies to drive faster uptake of renewable heating and cooling worldwide.

Renewable Energy Policies in a Time of Transition: Heating and Cooling describes five possible transformation pathways, encompassing renewables-based electrification, renewable gases, sustainable biomass, and direct uses of solar thermal and geothermal heat.

“Energy efficient heating and cooling based on renewable sources has emerged as an urgent priority for countries striving to meet climate commitments under the Paris Agreement and to build resilient, sustainable economies,” said IRENA Director-General, Francesco La Camera.

“The transition to cleaner, more efficient and sustainable heating and cooling solutions can attract investments, create millions of new jobs and help to drive a durable economic recovery in the wake of the global COVID-19 crisis. It will make much needed heating and cooling services available to everyone, including to remote islands and least-developed countries of Africa and Asia.”

Heating and cooling demand accounts for around half of global final energy consumption, mostly for industrial processes, followed by residential and agricultural applications. Most of this energy now comes either from fossil fuels or inefficient, unsustainable uses of biomass. Heating and cooling, consequently, is a major source of air pollution and accounts for over 40 percent of global energy-related carbon dioxide (CO2) emissions. At the same time, around 2.8 billion people currently rely on wood fuel, charcoal, animal dung and other inefficient and polluting fuels for cooking.

The demand for heating and cooling is set to keep growing. Cooling demand has already tripled globally since 1990, and as climate change increases the number and severity of heat waves, so does the urgency for supplying air conditioning and refrigeration to billions of people.

Policy makers have so far given limited attention to the heating and cooling transition. By the end of 2019, only 49 countries – mostly within the European Union – had national targets for renewable heating and cooling, in contrast with 166 having targets for renewable power generation. To decarbonise the energy used for heating and cooling, aggressive and comprehensive policy packages that phase out the use of fossil fuels and prioritise renewable energy and efficiency are even more urgent amid the COVID-19 pandemic, which has cut demand for renewables-based heating and cooling services, including in households and small businesses. The health and economic crisis has also worsened conditions for energy access in many developing countries.

Transitioning to renewable sources will help to increase access to clean, affordable and reliable heating and cooling services, even on remote islands and in some of the least-developed countries of Africa and Asia. At the same time, renewable heating and cooling can create new jobs, stimulate local economies, and improve people’s livelihoods, while strengthening countries’ energy security and independence, the report notes.

Source: IRENA

 

 

Release of Naftogaz’s Gas Key for Continuation of Gas Market Reforms in Ukraine

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Photo-illustration: Unsplash (Quinten de Graaf)

Ukraine has achieved significant milestones towards gas market liberalization and the development of a stable gas hub in the last years. However, certain elements remain that hinder full market liberalization and competition and even threaten to reverse the progress achieved.

The Secretariat’s Position Paper on Gas Market Design in Ukraine, sent to Ukrainian stakeholders, analyses the current situation and provides market design options that would ensure fair competition in the Ukrainian gas market and provide the needed liquidity in the future gas exchange.

While the abolishment of the public service obligation (PSO) for households was a major step towards market liberalization, the country’s gas incumbent Naftogaz has absorbed the “unlocked’’ nationally produced gas volumes without other market participants having access to the national gas production.

The concept proposed by the Secretariat outlines a gas release programme which would allow all market participants to have access to the gas volumes by ensuring that it is traded on equal and transparent market segments, which are operated by the Ukrainian Energy Exchange (UEEX). These volumes would provide the crucial liquidity needed on the gas market to create a stable Ukrainian gas index.

This is not about fair treatment of private gas suppliers but about increasing benefits of Ukrainian gas consumers. Due to the fact that the country’s own production will be traded on transparent terms on the market and will be accordingly taken into account in the price formation mechanisms, the Ukrainian gas price could be lower than the TTF or NCG index price to which Ukraine is pegged to at the moment.  Besides this, the Ukrainian gas hub could, due to its size, become one of the top European reference hubs.

Additionally, the paper proposes a concept which could bring more transparency in the district heating segment, which is still covered by the PSO. In this sector, auctions in combination with a clear separation between indebted and profitable district heating companies could provide a first step towards market mechanisms.

The Energy Community Secretariat has continuously advised the Ukrainian government in the past in order to ensure that the PSO is compliant with the gas acquis and thus does not cause distortion of competition and market monopolization.

Source: Energy Community

 

Largest Train Station In Asia Gets Solar Roof

Foto-ilustracija: Unsplash (Biel Morro)

The Xiongan Railway Station is a new train station in China that is the largest in Asia, covering 680,000 square meters. It’s 2020, so, naturally, the train station is covered in solar panels — 6 megawatts (MW) worth of them.

 

The large rooftop solar system is expected to create 5.8 gigawatt-hours of electricity a year for the train station.

Mibet Energy provided the rooftop solar power system, including a steel tracking system. This seems to extend beyond the company’s normal work, as it is primarily a rack and tracker supplier. “This project has tested our overall ability, including sales, design, technical support, teamwork, manufacturing, logistics control, and etc.,” Leo Lin, the domestic sales director of Mibet Energy, said.” Mibet has been proved capable to meet requirements of customers in such a complex environment.

“This project is very important for us because Xiongan Station is a landmark building in North China, but it is also a great challenge to us,” said by Leo Lin. “Within only two months, our sales and technical team worked closely with the EPC and design consultant day and night. With our layout analysis and deep customization based on customer’s requirements, we provided the EPC with specially designed rack product which received high praise from them. With approval of the rack model we modified our production lines and finished all the production and delivery in short time.”

“The support structure designed particularly suitable to the rooftop of the station and has significantly improved the redundancy of roof load. We were very pleased to have Mibet as our partner of module support,” said David Wu, installation supervision manager of the installation contractor.

Source: Clean Technica

How to Overcome Water Challenges in Agriculture

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Photo-illustration: Unsplash (Kyle Szegedi)

More than three billion people live in agricultural areas with high to very high levels of water shortages and scarcity, and almost half of them face severe constraints. Furthermore, available freshwater resources per person have declined by more than 20 percent over the past two decades globally, underscoring the importance of producing more with less, especially in the agriculture sector, the world’s largest user of water.

Improved water management, supported by effective governance and strong institutions – including secure water tenure and rights, underpinned by sound water accounting and auditing – will be essential to ensure global food security and nutrition, and contribute to the Sustainable Development Goals (SDGs), according to The State of Food and Agriculture (SOFA) 2020 – a flagship report published today by the Food and Agriculture Organization of the United Nations.

“With this report, FAO is sending a strong message: water shortages and scarcity in agriculture must be addressed immediately and boldly,” FAO Director-General QU Dongyu said while presenting the report. “Water is essential, not only for agriculture but for livelihoods and civilizations to continue.”

Paths for action range from investing in water-harvesting and conservation in rainfed areas to rehabilitating and modernizing sustainable irrigation systems in irrigated areas. These must be combined with best agronomic practices, such as adopting drought-tolerant crop varieties, and improved water management tools – including effective water pricing and allocation tools, such as water rights and quotas – to ensure equitable and sustainable access. Water accounting and auditing must be, however, the starting point for any effective management strategy.

Achieving the internationally agreed SDG pledges, including the Zero Hunger target (SDG 2), “is still achievable,” the SOFA emphasizes – but only by ensuring more productive and sustainable use of freshwater and rainwater in agriculture, which accounts for more than 70 percent of global water withdrawals.

Photo-illustration: Unsplash (Jordan Opel)

FAO’s SOFA report in 1993 also focused on water issues, and today it is striking how the findings presented then remain valid and relevant today. While the previous report focused on irrigation, the new edition broadens its scope to cover water-related challenges in rainfed agriculture, which represents more than 80 percent of land under cultivation and 60 percent of global crop production.

Mapping the moisture

FAO is the custodian of SDG Indicator 6.4.2, which measures the pressure of human activities on natural freshwater resources, and SOFA offers the first spatially disaggregated representation of how things stand today – which, when meshed with historical drought frequency data, allows for a more holistic assessment of water constraints in food production.

About 1.2 billion people – 44 percent of them in rural areas and the remainder in small urban centers in the countryside – live in places where severe water shortages and scarcity challenge agriculture. Around 40 percent of them live in Eastern and South-eastern Asia, and a slightly higher share in Southern Asia. Central Asia and Northern Africa and Western Asia are also severely affected – about one of every five people live in agricultural areas with very high water shortages and scarcity, compared to less than 4 percent in Europe, Latin America and the Caribbean, Northern America and Oceania.

Photo-illustration: Pixabay

About 5 percent of people living in sub-Saharan Africa live in similar conditions, meaning that about 50 million people live in areas where severe drought has catastrophic impacts on cropland and pastureland once every three years.

About 11 percent of the world’s rainfed cropland, or 128 million hectares, face frequent drought, as does about 14 percent of pastureland, or 656 million hectares. Meanwhile, more than 60 percent (or 171 million hectares) of irrigated cropland is highly water stressed. 11 countries, all in Northern Africa and Asia, face both challenges, making it urgent and necessary to adopt sound water accounting, clear allocation, modern technologies and to shift to less thirsty crops.

Mathematics of water

“The inherent characteristics of water make it difficult to manage,” the SOFA report notes.

“Water should be recognized as an economic good that has a value and a price,” it says – a point emphasized by the Director-General – noting that customary practices leading it to be treated as a free commodity often create market failures. A price that reflects the true value of water, by contrast, sends a clear signal to users to use water wisely. At the same time, policy and governance support to ensure efficient, equitable and sustainable access for all is essential.

Three main points of entry for action are in the technical and management arena, in institutions and legal frameworks, and the overall policy environment, said FAO Chief Economist Maximo Torero during the virtual event to launch the report. “Strengthening trust between actors is central,” he added, noting that a robust and shared data base on water availability can facilitate reaching agreements on required trade-offs.

Photo-illustration: Pixabay

“Water management plans need to be problem-focused and dynamic,” the report recommends. SOFA notes that the rural poor can benefit substantially from irrigation and endorses its cautious expansion. Between 2010 and 2050, harvested irrigated areas are projected to grow in most regions of the world and to more than double in sub-Saharan Africa, potentially benefiting hundreds of millions of rural people.

The report notes that, in some cases, small-scale and farmer-led irrigation systems can be more efficient than large-scale projects. That’s a promising path for sub-Saharan Africa, where surface and underground water resources are comparatively undeveloped and only 3 percent of cropland is equipped for irrigation – and where expanding small-scale irrigation can be profitable and benefit millions of rural people. However, many factors impede adoption, including lack of secure water tenure and access to finance and credit. In Asia, declining large-scale state-funded surface irrigation have led to farmers tapping directly into groundwater, placing excessive pressure on the resource. Addressing these issues will require investing in modernizing old irrigation schemes, as well as effective policies.

Full-fledged water markets involving the sale of water rights are relatively rare. However, when water accounting and auditing is well performed, water tenure and rights are well established, and the active participation of beneficiaries and managing institutions is promoted, regulated water markets can induce efficient and equitable allocation of water, while promoting its conservation.

Photo-Illustration: Pixabay

Guest speakers at today’s launch event, Mohammed Ait Kadi, President of Morocco’s General Council of Agricultural Development, and David Zilberman, professor at the University of California, Berkeley, both expressed support for the SOFA recommendations, with the latter underscoring the need for pricing mechanisms and the former calling for strategies to achieve “more food security per drop of water.”

Robust calculations of water footprints should be developed and used, leveraging the process of developing the carbon footprint concept, FAO Chief Scientist Ismahane Elouafi said in her concluding remarks.

Did you know?

-The average amount of freshwater per person in 2017 was about 43 000 m3 in Oceania, while barely reaching 1 000 m3 in Northern Africa and Western Asia.
-Total water withdrawals per capita are highest in Central Asia, reaching almost 2 000 m3 per person in 2017, compared to less than 130 m3 in sub-Saharan Africa.
-In least developed countries, 74 percent of rural people do not have access to safe drinking water.
91 countries have national plans for rural drinking water, but only nine have allocated sufficient funding to implement them.
-Around 41 percent of current global irrigation occurs at the expense of environmental flow requirements, which are essential to sustain ecosystems that provide life-supporting functions.
-Biofuels require 70 to 400 times more water than do the fossil fuels they replace.
-Major forests in areas such as the Amazon, Congo and Yangtze river basins are important sources of water vapour for areas downwind and are, therefore, crucial to rainfed agriculture.

Source: FAO

IRENA and Pacific Community Announce Joint Efforts to Boost Recovery

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Photo-illustration: Unsplash (Vivint Solar)

The International Renewable Energy Agency (IRENA) and the Pacific Community (SPC) will work together to support Pacific island countries transition their energy systems to renewable energy sources as part of a drive support the post-pandemic recovery.

With around 64 percent of Pacific island residents living without access to reliable energy, and much of the region reliant on expensive and volatile fossil fuel imports, IRENA and SPC will renew their joint focus on reducing energy costs and improving energy security by increasing access to renewables. The partnership will also seek to deliver the broad socioeconomic benefits of the energy transformation for Pacific island communities.

Strengthening policy frameworks, attracting energy transformation investments and supporting project development aimed at driving this shift are of particular focus. IRENA has prioritised energy diversification efforts on Small Island Developing States (SIDS) as part of its UN Climate Action Summit commitment and its SIDS Lighthouses intiative has been recognised by the UN as an important catalyst for SIDS development.

“Pacific Islands are battling the adverse impacts of two major threats to stability and prosperity; the COVID-19 Pandemic and a warming planet,” said IRENA Director-General Francesco La Camera. “We can take meaningful action to address both of these threats if our efforts are coordinated, collaborative, and far-sighted. Central to efforts must be the prioritisation of a decarbonised and decentralised energy system. By working together we can make a sustainable future a reality for the Pacific Islands.”

Pacific economies have been significantly impacted by the pandemic, resulting job loss in the tourism and aviation sectors – primary contributors to regional gross domestic product.

“Through this partnership we are demonstrating our common commitment to supporting low cost, reliable and sustainable energy systems throughout the region,” said SPC’s Director-General Dr Stuart Minchin. “Renewable energy and energy efficiency initiatives will stimulate economic growth, create jobs, and contribute to a brighter future for all Pacific people.”

Recognising renewable energy’s ability to stimulate economic growth, cut energy costs and create local employment, IRENA and SPC have determined three transformative pathways that can catalyse the transition towards a more resilient, renewables-based energy system.

Photo-illustration: Pixabay

The first pathway will focus on creating effective national and regional energy policies, plans, legislation, and regulations. IRENA and SPC are already working closely with Pacific Island countries to develop renewable energy guidelines, enhance Nationally Determined Contributions (NDCs), and provide implementation support. SPC in collaboration with PRIF and other partners are currently developing the Framework for Energy Security and Resilience in the Pacific (FESRIP) 2021-2030, of which the Pacific SIDS has set a vision of 100 percent renewable electricity.

SPC and IRENA will also work together to support the development and implementation of renewable energy and energy efficiency projects that have been severely impacted by the COVID-19 pandemic, such as tourism, agriculture-food production, and fisheries. This second transformative pathway will support game-changing renewable energy and energy efficiency projects that create jobs, substitute imported fuels, and add value. Examples include e-mobility and solar PV projects.

The third area of cooperation between the two organisations will focus on attracting investments to the Pacific SIDS. IRENA’s calculations estimate that the Pacific will need to invest approximately USD 5.9 billion in driving this transition through installing an additional 1.8 GW to meet NDC targets. This will be supported through sustainable financing between project developed and investors to drive these priorities throughout this agreement.

SPC will host a dedicated IRENA-Pacific focal point to facilitate implementation of the collaboration.

Source: IRENA

 

 

What Is Servitisation, and How Can It Help Save the Planet?

Foto-ilustracija: Unsplash (Leman)
Photo-illustration: Unsplash (Pier Luigi Valente)

The rising global population and continuous economic growth are driving an increasing demand for energy. Global energy consumption is expected to nearly double by the year 2050, further enhancing the challenge to cope with climate change.

A report from the International Energy Agency shows that end-use energy efficiency alone could deliver 35 percent of the cumulative CO2 savings through 2050 required to meet the climate goals of the Paris Agreement.

Although energy-efficient technologies are available and their economic benefits are clear, there are several barriers that prevent these from being deployed, including high up-front costs, perception of greater performance risk, and other investment priorities.

The servitisation business model overcomes these barriers. It represents an effective way to accelerate the investments in energy-efficiency needed to deliver the Paris Agreement goals for achieving a low-carbon economy, while also helping the economy to recover faster from the COVID-19 pandemic.

What is servitisation?

With a servitisation model, the customer pays a fixed fee per unit of service consumed, while the ownership of the system remains with the technology provider, who remains responsible for all operation costs. As such, the model strongly incentivises the equipment owner – that is, the service provider – to think long-term when designing and selecting the technology. By offering state-of-the-art maintenance, the provider can minimise operating costs, in particular energy use, which is the largest cost component over the life cycle of the equipment. Keeping ownership of the equipment also encourages service providers to rethink the development of modular systems, which is key to a circular economy.

Servitisation is not new; its adoption is growing rapidly across many industries. The figure below illustrates some sectors where the model has already been applied. Examples include the printing company Xerox that offers ‘pay-per-copy’, and SunEdison, which has pioneered power purchase agreements (PPAs) for solar photovoltaics (PV); this enables rapid uptake of solar PV by allowing customers to purchase solar energy instead of investing in the panels themselves. Lighting company Signify has also adopted the model with their light-as-a-service product, which has been implemented at Amsterdam’s Schiphol Airport and other locations.

Mainstreaming servitisation for cooling

The Economist Intelligence Unit predicts the cooling market will grow from $135 billion to $170 billion annually by 2030. Air conditioning alone accounts for 10 percent of global electricity consumption – equivalent to 2.5 times the electricity used by the whole of Africa, and if inefficient systems are not replaced, demand is expected to triple in the next 30 years.

Photo-illustration: Pixabay

To tackle the latter, BASE – Basel Agency for Sustainable Energy, a Swiss not-for-profit foundation and a specialised partner of the United Nations Environment Program, launched the Cooling as a Service (CaaS) Initiative in collaboration with the Kigali Cooling Efficiency Program (K-CEP) in 2018. The initiative aims to mainstream the pay-per-use model around the world to accelerate market adoption of sustainable cooling solutions. In 2019, the model was endorsed by the Global Innovation Lab for Climate Finance as one of the most innovative tools for climate finance.

Through CaaS, the cooling industry is on the brink of a revolution that will help achieve global climate targets and sustainable economic growth. CaaS enables customers to leap-frog to the best solutions available in their markets. It can be applied to a wide spectrum of sectors from the manufacturing industry, real estate, hospitality and healthcare to the cold-chains necessary for food and health. In fact, its application has already demonstrated the significant benefits of the model. In Nigeria, the implementation of CaaS in solar off-grid refrigeration for the agriculture sector is providing cooling services to local farmers, yielding a 50 percent reduction in food waste, increased revenues and saving 460 tonnes of CO2 per year by removing the need for diesel generators and the bad refrigerants typically used in the region. Meanwhile, in India, CaaS enabled a large real estate complex to access state-of-the art cooling services while reducing their energy consumption by more than 30 percent without upfront investments.

Photo-illustration: Pixabay

Today, CaaS is saving more than 68 GWh of electricity and saving 36,000 tonnes of CO2 emissions annually – equivalent to more than 50,000 return flights from London to New York. This equates to more than 500,000 tonnes of CO2 equivalent over the 15-year contractual lifetime of these projects. Interest in the model has been growing significantly, and the CaaS Alliance – a group of organizations committed to pursuing the implementation and mainstreaming of the CaaS model worldwide – has today over 50 members, including major technology providers.

The servitisation model is a key contributor to the systemic efficiency approach to attain global energy decarbonization. Being applicable to any type of equipment required for the operation of buildings and other city infrastructure (such as e-mobility), the potential of servitisation as a facilitator for rapidly accelerating the transition to sustainable infrastructure is enormous. Furthermore, the deployment of energy efficient and state-of-the-art assets at scale stimulated by this pay-per-use model strengthens the existing synergies with renewable solutions and enables their accelerated deployment: peak demand on the electrical grid is curved by lower demand from more efficient equipment, while the latter increases the feasibility of renewables in comparison to fossil-fuel sources of energy.

Photo-illustration: Unsplash (Callum Shaw)

Servitisation strongly fosters innovation as well. Under a pay-per-use model, it makes business sense for a service provider to seek innovative ways to increase efficiency, maximise the use of equipment and reutilisation of components, thereby aligning the interests of people, businesses and the planet. These innovative approaches might take many forms, including improved preventive maintenance, rethinking system design, incorporation of IoT and AI technologies, and using a systemic approach when serving customers.

Letting market mechanisms, via servitisation, promote efficiency as a good business opportunity is especially important as the world recovers from a global pandemic. Servitisation can play a key role in helping cash-constrained businesses to regain momentum, while reducing operating expenses and climate impact.

Source: World Economic Forum

Global Tourism Plastics Initiative Welcomes 26 New Signatories

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The Global Tourism Plastics Initiative has welcomed 26 new signatories, including businesses and organizations from every part of the global tourism value chain. Led by the World Tourism Organization (UNWTO) and the United Nations Environment Programme (UNEP) in collaboration with the Ellen MacArthur Foundation, the Initiative unites the tourism sector behind a common goal of addressing the root causes of plastic pollution.

The new signatories include Booking.com, G Adventures, The Hongkong and Shanghai Hotels, Inkaterra, TUI Care Foundation, deSter part of gategroup, and International Aviation Waste Management Platform, among others. They feature suppliers of guest amenities, on-the-go packaging and waste-management platforms, as well as accommodation providers (both large groups and SMEs), leading online tourism platforms, tour operators, and associations working at the destination level.

The Global Tourism Plastics Initiative was launched in January 2020 and now counts on 46 signatories, illustrating how reducing plastics pollution in tourism remains a priority despite the challenges posed by the COVID-19 pandemic. The diversity of the signatories highlights the Global Tourism Plastics Initiative’s potential to promote systemic solutions that can be implemented locally and scaled up globally

Tackling plastic pollution remains a priority for sector

Within the current context of the COVID-19 pandemic, a circular approach to the management of plastic items and packaging can avoid any increase in the use of single-use plastics for hygiene purposes. It can also relieve pressure on waste management infrastructures and foster a more sustainable supply chain. In this sense, a circular economy for plastics is critical for the tourism sector to preserve and protect destinations and to recover responsibly from the current crisis.

UNWTO Secretary-General Zurab Pololikashvili said: “Moving towards the circular economy is a strategic approach for the tourism sector. The Global Tourism Plastics Initiative can lead to the reduction of pollution and waste across all parts of the tourism sector and support a responsible recovery from COVID-19 that leads to more sustainability and resilience.”

Photo-illustration: Pixabay

Elisa Tonda, Head of the consumption and production unit of UNEP, adds: “The COVID-19 pandemic has increased the need for urgent action on the climate, nature and pollution and waste crises which are driven by unsustainable consumption and production, but has also provided with a window of opportunity to prioritize sustainability as part of a green recovery. This new group of signatories of the Global Tourism Plastics Initiative reflects the continued commitment of the tourism value chain to increase circularity in the plastic system and maintain their ambition to tackle plastic pollution, moving forward in a post-COVID world.”

Recommendations informing recovery plans

Earlier this year, a series of recommendations for the tourism sector to continue taking action on plastic pollution throughout the pandemic were released. These serve as a basis to develop COVID-19 recovery plans, revise standard operating procedures, and define plastic management strategies. The recommendations are now available in English, French, Spanish, Arabic, Chinese and Russian.

Gerald Naber, Programme Manager, New Plastics Economy Global Commitment, Ellen MacArthur Foundation, adds: “The signatories of the Global Commitment are making encouraging initial progress on delivering their targets towards a circular economy, but a substantial acceleration of progress will be needed to achieve the 2025 targets.”

The Global Tourism Plastics Initiative forms part of the larger framework of the New Plastics Economy Global Commitment. Specifically, the Initiative acts as sectoral interface to the New Plastics Economy Global Commitment, which recently released its Progress Report for 2020.

About the Global Tourism Plastics Initiative

The Global Tourism Plastics Initiative unites the tourism sector behind a common vision to address the root causes of plastic pollution. Developed within the framework of the Sustainable Tourism Programme of the One Planet network, the Initiative is led by the United Nations Environment Programme and the World Tourism Organization, in collaboration with the Ellen MacArthur Foundation.

About the One Planet network Sustainable Tourism Programme

The One Planet Sustainable Tourism Programme enhances the sustainable development impacts of the tourism sector by 2030, with a special focus on sustainable consumption and production practices. The Sustainable Tourism Programme is part of the One Planet network, a multi-stakeholder partnership to implement SDG 12 on Sustainable Consumption and Production.

About the UN Environment Programme

The UN Environment Programme is the leading global voice on the environment. It provides leadership and encourages partnership in caring for the environment by inspiring, informing and enabling nations and peoples to improve their quality of life without compromising that of future generations.

Photo-illustration: Pixabay

About the World Tourism Organization

The World Tourism Organization (UNWTO) is the United Nations agency responsible for the promotion of responsible, sustainable and universally accessible tourism. As the leading international organization in the field of tourism, UNWTO promotes tourism as a driver of economic growth, inclusive development and environmental sustainability and offers leadership and support to the sector in advancing knowledge and tourism policies worldwide.

About the Ellen MacArthur Foundation

The Ellen MacArthur Foundation was launched in 2010 with the aim of accelerating the transition to the circular economy. Since its creation, the charity has emerged as a global thought leader, putting the circular economy on the agenda of decision-makers around the world. The charity’s work focuses on seven key areas: insight and analysis; business; institutions, governments, and cities; systemic initiatives; circular design; learning; and communications.

About the New Plastics Economy Global Commitment

The New Plastics Economy Global Commitment unites businesses, governments, and other organizations behind a common vision and targets to address plastic waste and pollution at its source. Signatories include companies representing 20 percent of all plastic packaging produced globally, as well as governments, NGOs, universities, industry associations, investors, and other organisations. The New Plastics Economy Global Commitment is led by the Ellen MacArthur Foundation, in collaboration with the UN Environment Programme.

Source: World Tourism Organization

 

Carbon Dioxide Levels Hit New Record; COVID Impact ‘a Tiny Blip’, Wmo Says 

Photo-illustration: Unsplash (Macau Photo Agency)
Photo-illustration: Unsplash (Macau Photo Agency)

“We breached the global threshold of 400 parts per million in 2015. And just four years later, we crossed 410 ppm. Such a rate of increase has never been seen in the history of our records. The lockdown-related fall in emissions is just a tiny blip on the long-term graph. We need a sustained flattening of the curve”, WMO Secretary-General Petteri Taalas said in a statement.

Reduced activity associated with COVID-19 lockdowns is expected to cut carbon emissions by 4-7 per cent this year, Professor Taalas said.

Oksana Tarasova, WMO Chief of Atmospheric and Environment Research Division, told a news conference in Geneva that although it looked like the pandemic had brought the world to a standstill, carbon emissions had continued almost unabated because lockdowns only reduced mobility, not overall energy consumption.

Steadily rising 

She compared to the carbon levels in the atmosphere to a bathtub that was filling up more and more every year, and even a single drop of carbon would cause the level to rise. The COVID-related lockdowns were equivalent to just slightly reducing the flow from the tap, she said.

“The CO2 which we have now in the atmosphere is accumulated since 1750, so it’s every single bit which we put in the atmosphere since that time that actually forms the current concentration. It’s not what happened today or yesterday, it’s the whole history of the human economic and human development, which actually leads us to this global level of 410”, Dr. Tarasova said.

Photo-illustration: Unsplash (Big Dodzy)

CO2 levels rose by 2.6 ppm in 2019, faster than the average rate for the last ten years, which was 2.37 ppm, and are now 48 per cent higher than the pre-industrial level.

Professor Taalas said that in order to meet the goals of the 2015 Paris Agreement, in which governments pledged to try to stop temperatures rising by more than 1.5 degrees Celsius above pre-industrial levels, the world needed to switch from coal, oil and gas-fired energy towards solar, wind, hydropower and nuclear power, as well as adopting less-polluting modes of transport, including electric vehicles, biofuels, hydrogen and bicycles.

Carbon commitments 

He said it was good news that a growing number of countries had committed to reaching carbon neutrality by 2050, which was required to meet the 1.5 degree target.

“So far we have 50 per cent of the global emissions which are coming from China, European Union and Japan and South Korea, and also 50 per cent of the global GDP behind this”, he declared.

Photo-illustration: Pexels

“And if the US with the Biden administration will have the same target that would mean we would have the majority of our emissions and also the majority of the global economy behind such a target. And we should bend this emissions growth curve in the coming five years, and then we should start seeing drops of the emissions of the order of six per cent per year until 2050 to reach that target.”

Election pledge  

He said US President-elect Joe Biden had indicated during his election campaign that he would initiate a big financial stimulus for carbon-friendly technologies.

“We are talking about a couple of trillion. And then he has indicated that he would like to have the same aim as many others, to become carbon neutral by 2050, and of course that would be good news globally, and it might have the domino effect that it might motivate also some other countries to join this kind of movement.”

Source: United Nations

EBRD and EU Advance Honey Producer’s Development in Moldova

Foto-ilustracija: Pixabay
Photo-illustration: Unsplash (Ergita Sela)

Nestled in the picturesque village of Costești, Moldova, Regina Naturii manufactures and trades jars of delicious natural delicacies. The honey producer may well have borrowed its work ethic from industrious bees in their hives since what initially started as a hobby soon turned into a profitable firm.

The EBRD and the European Union have their share in this success story, too: their joint programme allowed the company to invest in modern and green technologies, increasing volume and making production processes more efficient.

“Regina Naturii is a place where tradition and modern practices meet; it is where village beekeeping and state-of-the-art processing come together,” explains Nicanor Negru, the company director.

Regina Naturii initially began with 100 beehives. Now they have 500 of their own and an extremely effective network of local beekeepers who provide natural, additive-free honey.

And the company is just getting started: with help from the EBRD and the EU, Regina Naturii has scaled up its business to new heights.

The EU4Business-EBRD Credit Line supports companies wishing to upgrade their production processes to European standards, thus making themselves reliable trading partners and offering customers both at home and abroad products and services of the highest quality. The companies can receive EBRD financing through local partner financial institutions. In Regina Naturii’s case, it was ProCredit Bank.

Upon successful investment, companies are compensated with up to 15 percent cent cashback financed by the EU under its EU4Business initiative.

“Our investment covered Regina Naturii’s main operations. We invested in equipment to prolong the shelf life and quality of the honey, machines to clean the honey of impurities and preheat the raw product to liquefy it before further processing, transportation vehicles, storage facilities and more,” says Nicanor.

Photo-illustration: Pixabay

But refining production processes was not the company’s only goal:

“Our company was born from the love of nature. We produce a natural, delicious treat in a jar, and we want to be respectful of our bountiful environment”.

With a strong commitment to reducing its carbon emissions, Regina Naturii now prides itself on its solar panels, fully covering the energy needs for production. The EBRD’s Advice for Small Businesses programme, with funding from the EU, also supported the company in creating a memorable brand identity, smart packaging and flashy web design to boost its sales.

When the coronavirus pandemic first swept through Moldova back in early spring, Regina Naturii did not stop working, with employees remaining busy as bees. Firmly believing in the health benefits of their product, Regina Naturii distributed jars of honey to medics and patients in key Chișinău hospitals. 

“Honey is very important for our immune system and is a good source of antioxidants. We built our brand and are loved by our clients because our honey is delicious – a quality product – and we continue working and developing so that we do not let down our vast clientele base,” says Nicanor.

Last year, the company exported its products to Romania, Serbia, Germany and Poland. With enhanced production, Regina Naturii aims to expand its pool of trading partners in the EU and beyond. Currently, plans are in place to dive into north-western Europe and the United Kingdom with help from the EBRD’s international advisory services, funded by the Small Business Impact Fund.

Source: EBRD

 

Marked Improvement in Europe’s Air Quality Over Past Decade

Photo-illustration: Unsplash (Daphne Fecheyr)
Photo-illustration: Unsplash (Karl Janisse)

The EEA’s ‘Air quality in Europe — 2020 report’ shows that six Member States exceeded the European Union’s limit value for fine particulate matter (PM2.5) in 2018: Bulgaria, Croatia, Czechia, Italy, Poland, and Romania. Only four countries in Europe — Estonia, Finland, Iceland and Ireland — had fine particulate matter concentrations that were below the World Health Organization’s (WHO) stricter guideline values. The EEA report notes that there remains a gap between EU’s legal air quality limits and WHO guidelines, an issue that the European Commission seeks to address with a revision of the EU standards under the Zero Pollution Action Plan.

The new EEA analysis is based on the latest official air quality data from more than 4 000 monitoring stations across Europe in 2018.

Exposure to fine particulate matter caused about 417,000 premature deaths in 41 European countries in 2018, according to the EEA assessment. About 379,000 of those deaths occurred in EU-28 where 54,000 and 19,000 premature deaths were attributed to nitrogen dioxide (NO2) and ground-level ozone (O3), respectively. (The three figures are separate estimates and the numbers should not be added together to avoid double counting.)

Photo ilustration: Pixabay

EU, national and local policies and emission cuts in key sectors have improved air quality across Europe, the EEA report shows. Since 2000, emissions of key air pollutants, including nitrogen oxides (NOx), from transport have declined significantly, despite growing mobility demand and associated increase in the sector’s greenhouse gas emissions. Pollutant emissions from energy supply have also seen major reductions while progress in reducing emissions from buildings and agriculture has been slow.

Thanks to better air quality, around 60,000 fewer people died prematurely due to fine particulate matter pollution in 2018, compared with 2009. For nitrogen dioxide, the reduction is even greater as premature deaths have declined by about 54 percent over the last decade. The continuing implementation of environmental and climate policies across Europe is a key factor behind the improvements.

“The EEA’s data prove that investing in better air quality is an investment for better health and productivity for all Europeans. Policies and actions that are consistent with Europe’s zero pollution ambition, lead to longer and healthier lives and more resilient societies,” said Hans Bruyninckx, EEA Executive Director.

Photo-illustration: Pixabay

“It is good news that air quality is improving thanks to the environmental and climate policies that we have been implementing. But we can’t ignore the downside – the number of premature deaths in Europe due to air pollution is still far too high. With the European Green Deal we have set ourselves an ambition of reducing all kinds of pollution to zero. If we are to succeed and fully protect people’s health and the environment, we need to cut air pollution further and align our air quality standards more closely with the recommendations of the World Health Organization. We will look at this in our upcoming Action Plan,” said Virginijus Sinkevičius, European Commissioner for Environment, Oceans and Fisheries.

The European Commission has recently published a roadmap for the EU Action Plan Towards a Zero Pollution Ambition, which is part of the European Green Deal.

Air quality and COVID-19

The EEA report also contains an overview of the links between the COVID-19 pandemic and air quality. A more detailed assessment of provisional EEA data for 2020 and supporting modelling by the Copernicus Atmosphere Monitoring Service (CAMS), confirms earlier assessments showing up to 60 percent reductions of certain air pollutants in many European countries where lockdown measures were implemented in the spring of 2020. The EEA does not yet have estimates on the potential positive health impacts of the cleaner air during 2020.

The report also notes that long-term exposure to air pollutants causes cardiovascular and respiratory diseases, which both have been identified as risk factors for death in COVID-19 patients. However, the causality between air pollution and severity of the COVID-19 infections is not clear and further epidemiological research is needed.

Source: EEA

Concentrating Solar Power Gets Supercritical CO2 Makeover

Foto-ilustracija: Pixabay
Photo: CleanTechnica

Concentrating solar power may have finally found its one true love: supercritical carbon dioxide, aka sCO2, which is something that happens when carbon dioxide gas behaves like a liquid. The electricity generation field is all aflutter with the idea that sCO2 can ramp up power plant efficiency while cutting costs, and concentrating solar power could be just the ticket. Wait, how does that even make sense?

Why Concentrating Solar Power Even Makes Sense

Fuel efficiency is just one part of the sCO2 allure. The US Department of Energy also totes up reduced water use and a much smaller footprint (see illustration) among the bennies.

In the olden days, fossil fuels and nuclear energy would have been the go-to energy applications for sCO2, but nowadays the Energy Department’s Supercritical CO2 Tech Team is also exploring other options, including shipboard power, waste heat recovery, and geothermal energy as well as concentrating solar power.

The concentrating solar power angle is an interesting twist. The technology was championed by the Energy Department during the Obama administration. For those of you new to the topic, it involves collecting solar energy from fields of mirrors called heliostats, or from long troughs, and using it to heat a specialized oil or molten salt, which can then be used to generate electricity in a power station.

If that sounds both simple and complicated at the same time, it is. Concentrating solar power initially got a bad rap due to its relatively high cost, but the tradeoff is something that renewable energy fans dream about: the ability to replace conventional power plants with 24/7 clean electricity. The heated oil, salt, or whatever acts as built-in energy storage, enabling the plant to continue generating electricity at night.

Somewhat weirdly, the Trump* administration has also been pursuing concentrating solar power hand over fist and soup to nuts. That’s weird because if all goes according to plan, the technology will close down more coal power plants, and didn’t the soon-to-be former president promise to save coal jobs?

Bringing Down The Cost Of Concentrating Solar Power

“Ensuring low-cost, reliable electricity for all Americans while minimizing risk is a top priority for this department,” US Energy Secretary Dan Brouillette said when he introduced the new USD 130 million round of solar funding.

No kidding! With that send-off, Heliogen is tasked with overseeing a SETO initiative called “Integrated Thermal Energy STorage and Brayton Cycle Equipment Demonstration,” or Integrated TESTBED for short.

“The supercritical carbon dioxide (sCO2) Brayton cycle carries great potential for a high‐efficiency, low‐capital-cost option,” SETO explains. “This project team will develop, build, and operate an sCO2 power cycle integrated with thermal energy storage at temperatures in the range of 550°C to 630°C at a new or existing facility.”

“The goal of this topic is to accelerate the commercialization of the sCO2 Brayton cycle and provide operational experience for utilities, operators, and CSP developers,” SETO adds.

As the awardee, Heliogen will put up USD 31 million in cost sharing for the new system, which is expected to deploy readily available stainless steel alloys. That’s an important point because one of the challenges of sCO2 involves stress on system materials.

How Trump Could Help Kill The Global Fossil Fuel Industry

If all goes according to plan, concentrating solar could become another technology export industry for the US economy. The technology may be languishing in the United States, but it has taken hold in other parts of the world. In that case, the Heliogen project could end up making a significant impact on global decarbonization.

That’s bad news for US fossil fuel workers, whose jobs the Commander-in-Chief promised to save, and it’s not the only R&D area in which the Trump administration has fallen asleep at the fossil fuel wheel.

Not that we’re complaining or anything, but low-cost perovskite solar cell technology is another tech on which the Energy Department is eager to slap a Made in the USA stamp.

Photo-illustration: Unsplash (Sungrow Emea)

The Energy Department can also take credit for kickstarting a firm called Principle Power, which is emerging as a global leader in floating offshore wind technology, and now the agency is keen on promoting new floating solar panels as well.

Then there’s this new international pumped storage hydropower initiative and a new collaboration with the Netherlands that looks an awful lot like green hydrogen.

If President-Elect Joe Biden is serious about tackling climate change (spoiler alert: he is), it sure looks like he has a running start.

As for Heliogen, for those of you keeping score at home, that is yet another Bill Gates venture. That’s an interesting twist because Gates also has a nuclear energy firm called TerraPower in his fold. TerraPower launched with an apparent focus on the Chinese market, but it seems that the firm is shifting gears and taking a look at the potential for seagoing nuclear energy to power ships.

Interesting! Land-based opportunities for nuclear energy in the US are withering on the vine as renewable energy costs drop, and Gates’s own sCO2 venture through Heliogen could have a hand in that trend by pushing down the cost of concentrating solar power.

Oh well, water under the bridge. This is where the pieces fall into place. With its superior efficiency and the potential for lower costs, sCO2 could help make concentrating solar power more competitive in the sparkling green economy of the future.

Where The sCO2 Rubber Hits The Solar Power Road

The US Department of Energy has indeed been eyeballing the high efficiency of sCO2 to help reduce the cost of concentrating solar power, and that brings us to the latest coal-killing news. President Trump* has just a few weeks left in office, but it appears that he has left US coal workers a love letter (the bad kind, not the good kind) in the form of a USD 39 million Energy Department grant to a concentrating solar power firm called Heliogen.

The USD 39 million grant is a decent slice out of the Energy Department’s newly announced USD 130 million round of funding through its Solar Energy Technologies Office. That’s interesting because some energy industry observers are feeling like concentrating solar doesn’t make sense unless you apply it to oil and gas extraction, which kind of defeats the whole purpose of renewable energy.

Nevertheless, what’s sauce for the goose is sauce for the gander, as they say. Demand for oil and gas is set for a long, hard fall, meaning that the extraction market for CSP is going to dry up, eventually.

If and when it does, the Energy Department is already eyeballing the industrial market, as concentrating solar can produce the high heat needed in many processes that currently rely on fossil fuels.

Source: CleanTechnica

 

How to Turn Industrial Carbon Emissions Into Building Materials

Photo-illustration: Unsplash (Callum Shaw)
Photo-illustration: Unsplash (Timon Studler)

When Sophia Hamblin Wang flew to Davos, Switzerland, in January 2020, swathes of her home country, Australia, was on fire.

“So many of my communities were affected in profound ways. We could feel the impact on a day-to-day basis for a period of three months.

“I can’t begin to tell you how much living through a climate event really made me sure about my path,” she says.

Sophia was at the World Economic Forum’s Annual Meeting as a Global Shaper and the Chief Operations Officer of MCi, a technology platform that transforms CO2 into building materials and other valuable industrial products.

The company has designed and built three carbon reactor systems, including its flagship, a world-first global reference pilot plant in Newcastle, Australia – which transforms waste materials and emissions created by industrial processes – and hopes to lock away 1 billion tonnes of CO2 per annum by 2040.

On our video call, she holds up a piece of plasterboard made by combining CO2 with an abundant low-grade rock called serpentinite.

“This is actually a negative emissions building material – it’s locked away significantly more CO2 than was used to make it. So we’re embedding our emissions into our walls. And there are enough deposits of serpentinite in the world to lock away all of the emissions from fossil fuels that have ever and will ever exist.”

Back in Davos, as the panel discussed decarbonization, Sophia had a moment of realization, that as the youngest person there, she would have a key role to play in seeing the world meet its Paris Agreement targets – reducing emissions to zero by 2050 to limit global warming to 1.5C.

“I was the only person in the room who was still going to be working in 2050. It was the opposite of imposter syndrome. I realized that there was absolutely no other voice like me in this room – and it’s super-important to have diversity in these spaces.”

Ten months on, Sophia is speaking again at the World Economic Forum’s Pioneers of Change Summit, and in spite of the COVID-19 pandemic, the world has come a step closer in its race to zero emissions, with pledges from key economies in recent weeks.

Here, she discusses MCi’s Carbon Capture and Use process and why she’s a passionate advocate for seeing carbon as a valuable resource.

What is mineral carbonation?

Since the Industrial Revolution, we’ve been putting too much CO2 into the atmosphere. And so we know, based upon the IPCC report, and many of the intergovernmental organizations, that we need to reduce our emissions and reach net zero by 2050. But we also know that we’ll probably need to draw down CO2 out of the atmosphere and do something with it. So MCi is developing technology that turns CO2 into usable materials.

We use the Earth’s natural process of storing CO2, which is called mineral carbonation or weathering. Dissolved carbon dioxide reacts with the minerals in rock to produce carbonate, which is stable over a long period of time and can be used in construction. The White Cliffs of Dover in England are an example of Earth’s natural weathering process – over millions of years, CO2 has been absorbed into those cliffs and that’s why they’re white. We’ve just taken that process from millions of years into a matter of hours in an industrial setting.

Photo: Mineral Carbonation International

What products is MCi making?

Our technology is like a black box, where you can feed in industrial wastes like steel slags or incinerator bottom ash, or quarried local minerals, lots of different minerals and then a flue gas. We don’t actually need pure CO2, but any kind of gas that may come straight out of a stack pipe, and then we react that in our facility, and we create an output which can be processed into various things. At the pilot plant in Newcastle, Australia we’ve been building and creating carbonate products every day like this cement brick, and plaster board.

It’s a whole circular economy where you treat your waste and turn it into new products. Treating CO2 as a resource and embracing carbon capture and use will, we think, bring about change quicker in harder-to-abate industries in particular. Creating business models out of climate change is quite exciting and it may bring about change to emissions faster than waiting for some governments to legislate, and waiting for behaviour change in markets, which is also very important.

Where do the emissions come from for the process?

In the past decade, the global environment has really taken off with regard to renewable energy. Australia is a resource nation, but we have such a strong capacity for renewables, and we just see the trajectory of renewables to be so healthy, but there are other sectors that really do need decarbonization options that aren’t clear. For instance, the steel industry, the cement industry, chemicals, transition technologies for hydrogen also need options for CO2.

So we’re really looking at this transition medium-term, where we need to be decarbonizing rapidly, all industries, not just energy. And we can do it without a carbon price actually. At our next scale up, we’re already looking at making a profit and that’s quite a significant thing when you compare it to other ways of treating carbon dioxide, like underground storage and similar technologies.

How much progress have you seen in 2020 around decarbonization and does it make you hopeful?

I’ve been working with MCi since 2013 and we’ve been building this technology in commercial secrecy. Seeing a lot of change within global governments and attitudes towards targets, emissions trading schemes, other market-based incentives for carbon has definitely been volatile.

But at Davos this year, I was on a panel called ‘Building a New Carbon Economy’, and we had circular economy titans like Kenneth Rogoff saying carbon dioxide isn’t actually a villain. It can be something that can be used to create lots of valuable products, not just building materials, but chemical feedstocks and fuels and all kinds of things. So that was a real starting gun for technologies like mine.

A lot of the world’s largest companies used Davos to commit to net-zero, negative emissions pledges. Microsoft, Apple, BHP and Rio Tinto had all committed to net zero at that stage, and I just thought, wow, it’s no longer waiting for people and companies and countries to get up to speed, it’s now going to be a race. It’s a race to see which technologies are going to help us meet these ambitious targets. And it’s setting a new standard for what ambition actually is.

 

What more needs to happen?

Significantly in the last few weeks, Japan, China, South Korea, have all committed to net zero by 2050 – 50 percent of the world’s GDP has signed up to net zero, which is profound. As the world commits to these really crucial targets, it’s time for the technologies to line up, to develop, to accelerate, to run as quickly as we can, in order to get there. We know that we have less than eight years before we hit a tipping point, so the next eight years is the most critical in that trajectory.

MCi is really clear that we’re going to be one of a portfolio of important solutions that are going to help our world to decarbonize. We’re going to help the steel sector, the cement sector, the chemical sector, we’re going to be partnering with direct air capture, to draw down CO2 out of the atmosphere, and lock it back down into safe and inert materials that can help with the built environment.

The market for carbon capture and utilization has been estimated to be almost $6 trillion per annum and that will grow in the future. If we’re looking for support for technologies like ours for investment, for policy certainty, then it’s really helpful to have market estimations like that and they’re only starting to come out in the next three years. More than half of that is in building products.

What’s next for MCi?

MCi has completed a pilot phase, we are processing a few hundred tonnes of CO2 every year and we’re able to test it in a lot of different settings. Right now, we are focusing on decarbonizing settings like nickel, creating a pathway for sustainable nickel as well as cobalt and lithium and other mining operations, as well as steel, cement and hydrogen. We will be scaling up into a demonstration phase next to make a significant amount of carbonates.

But the real end-goal here is that we want to be locking away 1 billion tonnes of CO2 by 2040 and that is very achievable given the amount of applications where our technology can work. A lot of carbon capture and storage technologies rely on tax rebates and other incentives in order to be worthwhile. We absolutely need mechanisms and incentives. But our technology doesn’t need to wait for that. And in fact, we’ve had to develop our technology whilst having a high ROI because it wasn’t clear how long it would take for our markets to line up behind it. We expect that pension funds and ESG will want to fund our plants.

What advice do you give to business leaders?

Business leaders today know that they need to not only make ambitious climate targets in order to be market leaders, but they need to be thinking about a truly evolved way of considering emissions. So not just your own emissions and scope 1 [direct] and scope 2 [indirect] emissions of their business, but also looking at the way that their full supply chain and ecosystem are also decarbonizing [scope 3]. And we’re really seeing that with the largest companies in the world all starting to really look at decarbonizing these scope 3 emissions.

We’re really interested in that in Australia, because we’re a resource-based nation and we’ve got companies like Rio Tinto and BHP making net-zero-by-2050 pledges, and really considering their scope three. So that’s looking all the way down to the steel manufacturers when you’re an iron ore miner. We need to decarbonize, we need to be ambitious, but also you need to help your whole ecosystem also to do the right thing and reduce and remove our emissions starting now.

Source: Word Economic Forum