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Advanced Marine Technology From ABB Pioneers Emissions Reduction On the Waterfront

Photo-illustration: ABB
Photo illustration: Pixabay

Thriving port cities and the vessels that serve them have been drivers of economic growth for decades, even centuries. Today the role played by ports and ferries in improving the environment of their home cities has become an increasingly significant topic in an era of climate-change concern. Thanks to technological advances such as electrified vessels, electrical propulsion systems and sustainably powered ship-to-shore charging, they are emerging as beacons of best practice in ‘smarter city’ thinking.

In the Unites States, for example, ABB technology is supporting Washington State Ferries, the largest ferry system in the country, in an ambitious program of achieving zero-emissions operation via a staged removal of diesel power from its fleet. From 2024, new ‘Olympic Class’ ferries, designed around hybrid-electric propulsion and a high-capacity energy storage system, will be introduced, each capable of carrying 144 cars and 1,500 passengers. Thanks to ABB’s Onboard DC Grid™ power distribution system and drive technology, the ferries will optimize the energy use on board, whether drawing on main engine power, operating in battery-only or in hybrid mode. Together, ABB’s technologies will contribute to significant reductions in greenhouse gas emissions and fuel use.

The introduction of the ferries is emblematic of Washington State’s 2050 goal to reduce emissions by 57.5 percent below 2019 levels, for the environmental benefit of the region. The combined fuel savings of this single project will be around 10 million gallons in 2040, with CO2 emissions expected to fall below 2050 reduction targets by 2034.

Additionally, in Washington State, and increasingly around the world, shore power will be used to further reduce the environmental footprint of vessels – not only at sea, but also while they are stationary in often dense population centers. ABB shore connection technology enables the type of emissions-free ship power that regulators, ports and local residents increasingly demand.

This practice of so-called ‘cold ironing’, pioneered on the U.S. West Coast for cruise liners, is now widespread in Scandinavian countries and increasingly so across Europe, Japan and China, as well as other parts of the world. It prevents air pollution in ports and, supplied by sustainable electricity, enables ships to operate carbon-free. Earlier this year, the Port of Tallinn installed the latest ABB shore power systems on five of its piers in Old City Harbour as part of the first shore power project in Estonia, enabling vessels with shore power technology to draw on land-based power in port.

Photo-illustration: Pixabay

Ship operators and port authorities are starting to see shore power as an operational necessity. There is also a growing corporate social responsibility imperative to cut emissions. Increasingly, says Marcus Martelin, ABB Marine & Ports VP for Electric Services, electrical shore connection is regarded as a ‘must-have’, thanks the immediate environmental benefits conferred: “The key criterion for a shore connection installation has traditionally been payback time,” he says, “that is: how many hours a day a ship was tied up in port. But now port executives are measuring landside benefits on the basis of sustainable operation and commitments to the environment, with payback time lower among priorities.”

And soon, Europe’s busiest commercial waterway, and the ports it serves, will benefit from the direct application of emissions-reducing ABB maritime technology. From 2023, two super-size hybrid ferries will become operational on the cross-channel route between Dover, England and Calais, France. Their daily shuttle route, in one of the world’s busiest shipping lanes, will be reliant on the full scope of ABB integrated solutions, making it pivotal, therefore, to the sustainability ambitions of operator P&O Ferries.

The unique maneuverability advantages inherent to the Azipod® propulsion units on the two ferries will further benefit the harborside environment at each terminal: the units’ ability to swivel 360 degrees below the hull means the ferries will no longer have to perform complex about-turns at the end of every crossing. This capability alone will save a ton of fuel per trip, along with an associated reduction in noxious emissions.

“Moving towards a zero-emission future relies on technologies that meet the environmental and cost needs of today – and offer flexibility to integrate future energy sources in the years ahead,” says Juha Koskela, Division President ABB Marine and Ports.

Source: ABB

Mongolia Receives New $23.1 Million Gcf Grant to Strengthen Climate Resilience

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The Green Climate Fund approved a new US$23.1million grant to UNDP supported project aimed at strengthening climate resilience in Mongolia. The grant comes at a time when the country is facing a range of natural disasters, climate change is multiplying the challenges with estimated economic costs around $10-15 million annually, and COVID-19 further exposing vulnerability of livestock sector.

Mongolia’s economy relies heavily on the agriculture and livestock husbandry sectors, with a high dependency on natural resources. Livestock accounts for 90 percent of the agriculture sector and represents the lion’s share of provincial economies (around 85 percent). Herder households are particularly vulnerable to climate change impacts. Adaptation needs are expected to increase significantly as climate change impacts intensify.

The new grant reinforces the importance of green recovery and resilient growth. Approximately 26,000 households (130,000 people) living across four of the country’s most remote and vulnerable Western and Eastern provinces are set to benefit, with a further 160,000 households (800,000 people) to benefit indirectly – which is about one quarter of Mongolia’s entire population.

The project’s design links closely with Mongolia’s National Action Program on Climate Change, vision 2050, and policies related to the livestock sector, as well as its Nationally Determined Contributions under the global Paris Agreement. Implementation of the project activities is expected to begin in mid-2021.

Photo-illustration: Pixabay

It is expected that the project will be able to bring together climate-informed natural resources management and sustainable livestock practices, building on traditional cooperative approaches while also introducing innovative technologies. It will enhance the use of climate prognosis data in decision-making; rehabilitate degraded land and catchment areas; improve herders’ water and grazing land management practices; and strengthen access to markets for herders. Crucially, it will also support the policy transformations needed to promote sustainable livestock and pasture management practices.

The new 7-year project will be led by the Ministry of Environment and Tourism, with the Ministry of Food, Agriculture and Light Industry as a key partner. UNDP is working with the Government of Mongolia on a range of climate change-related initiatives, including accelerating efforts to implement its Nationally Determined Contribution (NDC) under the global Paris Agreement, and, under the NDC Support Programme and ‘Climate Promise’, supporting Mongolia to develop an NDC implementation strategy and set up a south-south cooperation on NDCs with other Central Asian countries.

Source: UNDP

Tripling Renewables Investment to Reach Climate Goal

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Global renewable energy investment increased between 2013 and 2018, reaching its peak at USD 351 billion in 2017, according to a new report by the International Renewable Energy Agency (IRENA) and Climate Policy Initiative (CPI).”

The 2020 edition of Global Landscape of Renewable Energy Finance highlights however, that while a cumulative USD 1.8 trillion were invested during the five-year period, the amount falls short to achieve the global climate commitments.

Renewable energy investment slightly declined in 2018, with modest growth through 2019. Although this was largely due to the decreasing costs of renewables, the total installed capacity continued to grow.

The current level of investment is still insufficient however to keep the rise in global temperatures within the 1.5°C objective by mid-century. To achieve this climate goal, investment in diverse renewables technologies must almost triple annually to USD 800 billion by 2050.

Ambitious commitments from governments are needed, backed by supporting measures such as moving subsidies away from fossil fuels. Further investments are also needed in system integration and enabling technologies that increase system flexibility such as batteries and energy storage. To that end, policies that enable the integration of new renewables capacity additions into the energy systems are needed, leading to their decarbonisation and bringing wide socio-economic benefits.

“The investment trend in renewable energy before COVID-19 was a positive one,” said Francesco La Camera, IRENA’s Director-General. “But COVID-19 has shown us that much more effort is urgently needed to put us on a climate compatible pathway and help us recover better with a sustainable, resilient economy. Decision makers must design systemic approaches to policies that encourage and speed up the flow of investment into renewables, and away from fossil fuels, and doing so enable economic growth, social resilience and welfare.”

IRENA’s post-COVID agenda showed that average annual investments of USD 2 trillion in renewables and other energy transition-related technologies in the 2021-2023-recovery phase could create 5.5 million additional jobs in the sector.

An additional 19 million energy transition-related jobs would be created by 2030, following average annual investments of USD 4.5 trillion up to 2030.

The majority of these investments could come from private sources, if government funds are used strategically to nudge investment decisions and financing in the right direction. The capital is available, with a push from the governments to mobilise it. Public funds are able to leverage private investments by a factor of 3 to 4 if used strategically to steer investments toward clean energy solutions and away from fossil fuels. Greater participation of institutional investors – which hold about USD 87 trillion in assets – will help to reach the scale of global investment needed. To this end, it is key to promote the use of capital market solutions, such as green bonds, that address the needs of these investors. The potential role of institutional investors for the global energy transition is further explored in IRENA’s report, Mobilising Institutional Capital for Renewable Energy, published this month.

Foto-ilustracija: Unsplash (Science in HD)

“There is a very clear need for a rapid increase of investment in renewable energy coupled with a significant reduction and redirection of investment away from fossil fuel energy,” said Dr Barbara Buchner, CPI’s Global Managing Director. “We call for more effort and coordination among policy makers, public and private finance institutions, energy and non-energy producing corporations, and institutional investors to speed up the global energy transition. This action is fundamental to a more sustainable and resilient future.“

This year’s joint report analyses for the first time financial commitments to off-grid renewables technologies in developing markets, as they can bring the world closer to achieving Sustainable Development Goal 7 on universal access to affordable, reliable, sustainable and modern energy by 2030. Providing cost-effective energy solutions, off-grid renewables are essential in a time when energy access is crucial to power healthcare facilities, save lives and create jobs.

While investments in off-grid renewables solutions kept growing, reaching an all-time-high USD 460 million in 2019, additional capital must be unlocked especially for income-generating activities and productive uses to improve the livelihoods and resilience of billions of women and men globally and to promote socio-economic benefits.

Looking ahead, policy makers need to signal long-term political commitment and enhance partnerships with the private sector to boost investors confidence and attract additional private capital in the sector. To that effect, the report laid out five specific recommendations that policy makers should implement to engage private sector actors, including institutional investors, capital market players and non-energy producing companies, in the collective path to green recovery and climate objectives.

Source: IRENA

 

Four Lessons From Nature to Build a Circular Economy

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The circular economy is one of the few disruptive concepts with universal appeal – with business leaders, investors, activists, economists and environmentalists. While gaining in popularity, the concepts of circularity have been around for centuries – from regenerative agriculture and bartering, to repair and reuse, to renewable energy and plant-based meat alternatives.

The benefits to the planet are clearer than ever: by decoupling economic growth from the use of scarce, natural resources, we can consume without exhausting our planet. The business opportunities are massive: USD 4.5 trillion in opportunity over the next decade. And the benefits to society – by re-coupling growth with social progress – can be found in new jobs, access to products and services, and better health.

Why do we need a new model of production and consumption?

Since the first industrial revolution, we’ve had a one-to-one relationship between economic growth and use of natural resources. Today, we use almost twice as much of the earth’s resources than it can regenerate. By 2030, with a projected 8.5 billion people, global demand is expected to increase 35 percent for food, 40 percent for water and 50 percent for energy. Why is this an issue? Unconstrained consumption and production have severe negative implications: air and soil pollution, destruction of ocean life, drastic weather events, food shortages, energy shortages, and more.

The circular economy (CE) presents a compelling way to stop, and even reverse, the damaging relationship between economic growth, consumption and use of natural resources. CE business models imagine a world without waste. By eliminating sources of waste throughout our value chains (wasted resources, capacity, lifecycles and embedded value), we can stop the patterns that are harmful to our environment, realize trillions of economic value and promote access to healthier goods and services.

While compelling, only 8.6 percent of the world economy is today considered “circular.” Global demand for scarce, virgin resources continues to increase, despite the necessity and value of breaking this cycle. How can we accelerate the linear to circular transition, especially as we rebuild in a post-COVID world?

Nature is our best teacher to achieve balance

The answer is all around us. The natural world reproduces, grows and consumes while maintaining balance. Dr. Enric Sala, Explorer-in-Residence at National Geographic, explains this in The Nature of Nature. “Everything is reused or repurposed in nonhuman ecosystems. The natural world is the perfect circular economy, where everything, even after its lifetime, becomes a source for something else.”

Photo-illustration: Pixabay

Let’s explore four lessons from nature that are already being applied via CE business models and solutions.

1. Renew and regenerate. A classic example of circular economy in nature is the cycling of resources – water, carbon, minerals, etc. – back into new or existing systems.

The fast fashion industry struggles with waste. Today, less than 1 percent of clothing is recycled at end of use and more than USD 500 billion in value is lost annually. Textile innovation company Evrnu seeks to disrupt this waste through their NuCyl technology, which uses “repolymerization to convert the original fiber molecules into new high performing renewable fibers” – basically, turning discarded clothing into new materials, multiple times.

Another example: US-based Cambrian Innovation is using bioelectrochemical technologies – based on the generation of electricity from certain microbe and electrode interactions – to turn wastewater back into clean water and into energy.

2. Protect and extend. Plants and animals have long been studied for their ability to protect themselves and their environment.

Studying Bombyx mori silkworms, Mori developed a protective layer that prevents the main causes of food spoiling, while doubling shelf life and reducing packaging. With roughly one-third of food produced for humans wasted or lost, costing almost USD 1 trillion annually, the opportunities in tackling food waste are enormous.

3. Creating value from thin air. Air plays a critical role in our natural ecosystem, and innovative companies are starting to look at how the air can be a new source of value.

World Economic Forum Tech Pioneer Air Protein is transforming agriculture by using elements found in the air (carbon dioxide, oxygen, nitrogen) and turning them into meat-alternative proteins.

Started as a MIT Media Lab experiment, Graviky recycles carbon dioxide emission into ink, and is currently exploring ways to use its technology to transform packaging and advanced materials.

4. Turning even the most challenging waste into value. The concept of “waste” doesn’t really exist in nature. Dead leaves and animal droppings, for example, are critical fuel for new life. Innovative businesses are also looking at how we can tackle challenging “waste” at end-of-use.

HomeBiogas converts household waste – food scraps to human waste – into valuable fertilizer and clean cooking fuels, reducing waste, saving money and preventing deaths from dirty fuels.

Annually, 1.5 billion tires reach end-of-use and most are burned or sent to landfill. Ecore has a waste-free manufacturing process that turns used tires into new products. Since rubber can be continually recycled without degradation (common with paper and plastics), their products can be looped indefinitely.

Photo-illustration: Pixabay

It’s all about the ecosystem

Solutions inspired by nature are certainly encouraging. They benefit our economy, planet and society. They show us that we can combine nature, technology and human ingenuity to fuel our growing world, while progressing equality and protecting a thriving planet. Our planet also reminds us that these solutions cannot be implemented in isolation. Just like in the natural world, we need an ecosystem of business solutions that work in concert within a circular economy.

Take plastics, a hot issue with billions pledged by corporates to tackle plastic waste. If we develop new bio-based materials for packaging, we need collection systems and logistics to take them back at end of use. We need recycling infrastructure to ensure that the materials are separated. We need product design and manufacturing that makes new goods from these cycled inputs. Initiatives that look across the entire value chain, like Closed Loop Partners’ Beyond the Bag challenge and Forum’s Mission Possible Platform, are examples of how partners across sectors can be engaged to tackle end-to-end, systemic issues in the linear economy.

And, finally, we need people – consumers, innovators, investors, policymakers – that value and demand these circular systems. As with nature, balance can only be achieved when we all work together for a brighter, more prosperous future.

Source: World Economic Forum

 

How WHO is Working to Track Down the Animal Reservoir of the SARS-CoV-2 Virus

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The introduction of a new virus to the human population is one of the greatest mysteries an epidemiologist can hope to unravel.

Some of the most common and deadliest human diseases are caused by bacteria or viruses of animal origin.

In recent decades this trend has only increased, with an estimated 70 percent of emerging and re-emerging pathogens coming from animals.

This includes avian flu, Ebola virus disease, influenza, leprosy, lassa fever, MERS-CoV, rabies, SARS, smallpox, tuberculosis, Zika fever and other well-known diseases.

How an infectious disease crosses the animal-human barrier is a riddle that can take years to solve.

But understanding how an epidemic began is essential to preventing further introductions to the human population.

Ever since the first cluster of cases of atypical pneumonia was detected in Wuhan, China, WHO has been has been looking for evidence of how the virus that has turned the world upside down originally made the jump from animals to humans.

While the public health priority was, and remains, to mount a rapid, comprehensive and effective response to suppress human-to-human transmission of the virus in order to save lives, our ability to prevent and respond to future pandemics depends on identifying the natural reservoirs and intermediate hosts of SARS-CoV-2 and the natural events that propelled the novel coronavirus onto the world stage.

WHO’s first novel coronavirus press conference on January 14 highlighted the importance of finding the animal reservoir.

At the first Emergency Committee on COVID-19, one of the main questions was how to better understand the research that was underway in Wuhan on the epidemiology around the first detected cases and their source of infection.

Photo-illustration: Pixabay

The Director-General directly raised the matter of identifying the virus origins and intermediate hosts with President Xi Jinping during his visit to China in January.

The Emergency Committee’s recommendation to declare a Public Health Emergency of International Concern, which was accepted by the Director-General on January 30, referred to the virus origins.

A global research meeting held by WHO in February included this as priority research area.

WHO and partners have held discussions with Chinese scientists undertaking studies in Wuhan, and regularly reviewed the evidence with Chinese and other international scientists.

In May, the 73rdWorld Health Assembly passed Resolution WHA73.1 tasking WHO, the World Organisation for Animal Health (OIE), the Food and Agriculture Organization of the United Nations (FAO) and countries, as part of the One-Health Approach with:

“identify[ing] the zoonotic source of the virus and the route of introduction to the human population, including the possible role of intermediate hosts, including through efforts such as scientific and collaborative field missions, which will enable targeted interventions and a research agenda to reduce the risk of similar events occurring, as well as to provide guidance on how to prevent infection with severe acute respiratory syndrome coronavirus 2 (SARS-COV2) in animals and humans and prevent the establishment of new zoonotic reservoirs, as well as to reduce further risks of emergence and transmission of zoonotic diseases.”

This Resolution signifies the recognition of all 194 Member States of the importance of this work and provides WHO with a clear mandate to lead in this area.

In July, WHO experts travelled to China to define the role of the international investigative team: to explore the potential sources of infection amongst the first reported cases in Wuhan in December 2019, to attempt to identify earlier human cases through sero-epidemiologic studies, and to conduct further animal and environmental studies.

Photo-illustration: Pixabay

The findings will lay the groundwork for longer-term studies of intermediary animal host(s), the virus origin, and how it entered the human population. This initial research may lead to similar work in other countries.

The investigative team was formed in September to include scientists representing a broad range of expertise and nationalities.

The scientists are currently reviewing preliminary studies, developing study protocols and materials and planning in-country work.

The first virtual meeting of the team with their Chinese counterparts was held on October 30.

As we have seen in previous outbreaks, it can take years to find the origins of viruses that have made the zoonotic jump from animals to humans.

It took more than a year after the first human case of MERS-CoV was reported to identify the intermediate host as dromedary camels.

Given the scale and complexity of the COVID-19 pandemic, we need a sustained and comprehensive set of scientific investigations in China and elsewhere to find the intermediate host(s) and virus origins.

This rigorous meticulous work will require the trust and cooperation of many local, national and international actors to succeed.

Source: WHO

Institutional Capital: Closing the Energy Transformation Investment Gap

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The energy transformation is unstoppable. Renewable energy capacity additions have consistently outpaced the growth of traditional forms of energy over much of the last decade and in what has been dubbed the ‘decade of action’ the next 10 years are poised to be even more transformational. They will need to be.

To put the world on track to meeting Paris Climate and Sustainable Development Goals, the world needs to more than double the share of global energy supplied by renewables. By 2050, 65 percent of total power should be renewable – a figure that rises from 26 percent in 2019. An almost tripling of annual investment in renewables from around USD 300 billion per year to well over USD 800 billion per year will need to take place, with a total of USD 22.5 trillion invested in new renewable power capacity by 2050.

To achieve the acceleration necessary, all available sources of capital will need to be activated. And with institutional investors representing one of the largest capital pools-USD 100 trillion globally in securities, real property assets, insurance, pension funds and sovereign wealth funds-in the world, they are an indispensable part of the ongoing transition to a sustainable, low-carbon economy.

“Renewable energy assets provide institutional investors with relatively strong, stable, long-term ‘bond-like’ returns that match such investors’ long-term liabilities, while minimising the risk of stranded assets”

The International Renewable energy Agency’s (IRENA) report, “Mobilising Institutional Capital for Renewable Energy” (LINK), summarises the current state of institutional investment in renewables and provides actionable recommendations to scale them up. Institutional investment in renewables-focused funds is estimated at about USD 6 billion per year. Despite a growth in the number of direct renewable energy projects involving institutional investors, they represent only around 2 percent of the total renewable project investments in 2018. This means that the potential of institutional capital in renewable energy remains largely underutilised.

Institutional assets are often managed very conservatively, especially in the case of emerging and developing markets. Renewable energy assets provide institutional investors with relatively strong, stable and long-term ‘bond-like’ returns that match such investors’ long-term liabilities, while minimising the risk of stranded assets. The figure above shows that institutional investors have strong preference in utility-scale solar PV and wind projects, due to the proven technologies and large transaction sizes. 

With only 1 percent of the USD 87 trillion managed by over 5 800 institutional investors going directly to renewable energy projects in the past two decades, there is a lucrative and huge market gap that renewable energy could fill. This is particularly befitting with the current situation when the heightened unpredictability of oil investments returns make the business case for renewables even stronger. Not only can renewables meet institutional capital’s needs for more stable yields and better asset diversification, they can also meet the needs of a growing number of environmentally conscious investors and shareholders, who understand that countries need to achieve their climate goals with energy transformation.

Institutional investors new to renewable energy have the option to fund renewables through instruments that serve as alternatives to direct investments, such as infrastructure funds and green bonds. Evidence shows that such instruments, where available, are popular with investors new to the sector. 

Now more than ever is the time to mobilise institutional capital for renewable energy projects to accelerate the energy transition. By channeling capital to #renewables, institutional investors can become a significant contributor to the global capital shift towards low-carbon solutions, while yielding higher returns in the longer term.  Such a shift will, however, require combined efforts on multiple fronts with active engagement from all stakeholders; policy makers, institutional investors, public financiers, asset managers, and investors.

Source: IRENA

African Countries Agree to Enhance Cooperation on Geothermal Development

Photo-illustration: Pixabay
Photo-illustration: Pixabay

More than 500 experts, governments, civils society, academia and the private sector representatives from Africa and other regions agreed on the agenda of regional cooperation and accelerating geothermal development in Africa, as the Eighth African Rift Geothermal Conference (ARGEO C8) concluded on 6 November.

Participants recognized the need for capacity development for geothermal practitioners to ensure effective development of these projects through the newly established Africa Geothermal Centre of Excellence. To ensure successful exploration and development, it was agreed that geothermal resources must be anchored in knowledge-based exploration that informs decision makers to develop appropriate policy and regulatory framework.

The five-day virtual conference, held under the theme “Energy and sustainability, seizing the moment to invest in geothermal resources for sustainable development”, was hosted by the Government of Kenya in partnership with United Nations Environment Programme (UNEP), the African branch of the International Geothermal Association, the Kenya Electricity Generating Company, the Geothermal Development Company as well as the Geothermal Association of Kenya.

In his opening remarks, Charles Keter, Kenya’s Cabinet Secretary for Energy, emphasized the need for innovation and capacity building in geothermal development to power economic and social growth in the continent.

“This Conference provides Kenya with a platform to build partnerships with other African countries who are in various stages of geothermal development, and to deepen cooperation in skill, capacity and technology transfer,” Keter said.

Participants recognized direct use of geothermal resources as a potential game-changer for the economies and livelihoods of rural communities across the continent through meaningful participation of communities in the development and implementation of geothermal projects.

Juliette Biao Koudenoukpo, Director and Regional Representative for UNEP’s Africa Office, pointed out that the conference and its outcomes would contribute to the achievement of the Goal 7 of the SDGs, on affordable and clean energy

“Renewable energy can and will change the African energy challenges and narrative. Energy-use statistics in Africa reveal a worrying scenario; Africa has 13 percent of the global population, yet its share in global electricity consumption is less than 3 percent, and only 25 percent of Africans have access to electricity. More than 70 percent of Africa is dependent on traditional biomass fuels,” she said.

Photo-illustration: Pixabay

Delegates agreed to increase geothermal resources installed by a capacity of at least 2,500MW of electricity in the region by 2030. Geothermal stakeholderss will continue collaborating with UNEP under the ARGeo programme to create regional networking platforms to raise awareness about geothermal resource potential in Africa.

Ólafur Ragnar Grímsson, former President of Iceland, also addressed the conference, revealing that his country’s rapid industrial development was spurred by its investment in renewable energy projects from the development of geothermal energy.

“We advocate for food production to be part of the geothermal development dimension. Solar, wind power and geothermal energy is the foundation to help us fight the pandemic of fossil fuel pollution and dirty energy, which kills as many as approximately 7 million people around the world. We are determined to continue this geothermal cooperation with African countries,” he said.

In her remarks during the virtual conference, Amani Abu-Zeid, the African Union (AU) Commissioner for Energy and Infrastructure said the AU recognises the need for regional cooperation, as well as the participation of the private sector and international institutions to invest in order to accelerate the development of geothermal resources in the region. She affirmed the need to develop the skills of homegrown experts through regional institutions, and also emphasised the need for women to be present and visible throughout the geothermal value chain.

Delegates also agreed to work through the newly launched Africa Women Advancing Geothermal as well as the African Geothermal Association to enhance cooperation and information exchange in the region.

Source: UNEP

WHO Publishes Series of Profiles on Climate Change and Health in Island States

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Small Island Developing States (SIDS) are among the most vulnerable nations to climate change in the world. Yet, many island states are also leading in the global response to climate change, through ambitious emissions reduction targets, adaptation actions, and developing climate resilient health systems.

On 4 November 2020, WHO together with the Americas (PAHO) and Western Pacific (WPRO) regions published a series of SIDS Health and Climate Change Country Profiles.

Country profiles were published for: Antigua and Barbuda, Dominica, Grenada, Guyana, Saint Lucia, Trinidad and Tobago, and Tuvalu (in Tuvaluan). This is in addition to recently published profiles on the Solomon Islands and Tuvalu.

The WHO UNFCCC Health and Climate Change Country Profiles provide a vital snapshot of the health impacts of climate change and record progress in building climate resilient health systems. It is an ongoing project, with country profiles updated regularly in order to monitor progress in addressing the health threats of climate change.

The country profiles present national climate projections; indicators on health vulnerabilities to and health impacts of climate change; policy responses to health and climate change; and recommendations to address the national health threats posed by climate change.

The profiles form part of the WHO Special Initiative on Climate Change and Health in SIDS and the associated Caribbean and Pacific Action Plans. The SIDS Special Initiative aims to provide health authorities from island states with the political, technical, scientific and financial support to improve understanding and address the health impacts of climate change.

These states increasingly face a range of climate-related health risks, including sea level rise flooding inhabited land; livelihoods dependent upon oceans threatened by warming seas and ocean acidification; more extreme weather events (such as more intense tropical cyclones); food and nutrition insecurity and the spread of infectious and vector-borne diseases.

These country profiles demonstrate that these are not only future threats, but rather health impacts being felt now.

Limited access to international climate finance was frequently cited in the country profiles as a key barrier for island states to ramp up their response to the impacts of climate change.

Yet these country profiles show that despite these challenges, SIDS are setting ambitious targets and working to implement policies that will increase their adaptive capacity and resilience in the face of the health challenges posed by climate change.

Source: WHO

 

Renewable Energy Solutions for Climate-Safe Cities

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Renewable energy solutions can be the backbone of urban decarbonization efforts, a new report by the International Renewable Energy Agency (IRENA) and the International Climate Initiative (IKI) on the Rise of renewables in cities: Energy solutions for the urban future finds. Responsible for over 70 percent of total energy-related CO2 emissions, cities are increasingly relevant in addressing climate change, building a climate-resilient urban infrastructure on renewable energy. Home to 55 percent of the global population today, cities are also the planet’s economic engines, representing 80 percent of the global GDP. According to the UN estimates, cities will have to accommodate two-thirds of global population in a livable, low-carbon environment by 2050.

Integrating renewables into local energy systems has become part of the transformative action in many cities around the world. Still, their full potential remains untapped. While some 671 cities have set a renewable target and over half of them aim for 100 percent renewables, most of the cities with targets are in Europe and North America. However, an additional 2.5 billion people are expected to become urban dwellers in the next three decades, 90 percent of them in Asia and Africa. Yet, cities in these regions are falling behind in renewable target setting, the new report shows, even more so as their energy demand is expected to grow.

Furthermore, the majority of large and mega cities that have set renewable energy targets have pursued only a modest share of renewables in their energy mix. Only the megacity of Los Angeles with 10 million inhabitants has a 100 percent renewable target set for 2045. Other megacities show much lower levels of ambition, with all but São Paolo and Shenzhen targeting renewable shares below 30 percent. Only 4 cities in the population range of 5 to 10 million (Atlanta, Barcelona, Madrid and Toronto) and 33 cities in the population range of 1 to 5 million had targets for 100 percent renewables.

Hydropower, bioenergy and waste-to-energy already play a significant role in urban decarbonization strategies. And the use of solar and geothermal energy in cities is rising while the ability to harness wind power within cities is progressing but remains marginal. In view of the growing cooling demand in Africa and Asia, solar thermal energy in particular has the potential for gradually extending into the cooling sector, tripling from 2 000 to 6 000 terawatt hours by 2050.

The new report highlights the importance of urban planning and developing “smart” grids through innovation and the adoption of enabling technologies such as electric vehicles, energy storage systems and intelligent energy management systems to facilitate the integration of renewables. This also means coupling the power, buildings, transport, heating and industry sectors to achieve higher system efficiency and enhance climate resilience.

Source: IRENA

 

Global Food Prices Continue Rising in October

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Global food prices continued rising for the fifth consecutive month in October, led by cereals, sugar, dairy and vegetable oils, according to a new report from the Food and Agriculture Organization of the United Nations.

The FAO Food Price Index, which tracks international prices of the most traded food commodities, averaged 100.9 points in October 2020, up 3.1 percent from September and 6.0 percent above its value in October 2019.

The FAO Cereal Price Index climbed 7.2 percent from the previous month and 16.5 percent above its value in October 2019. The surge was mainly driven by wheat prices amid shrinking export availabilities, poor growing conditions in Argentina and continued dry weather affecting winter wheat sowings in Europe, North America and the Black Sea region. Maize, feed barley and sorghum prices also remained under upward pressure in October, while those of rice subsided.

The FAO Vegetable Oil Price Index gained 1.8 percent during the month, posting a nine-month high, led by firmer palm and soy oil prices. By contrast, rapeseed oil prices declined moderately amid increased uncertainty regarding demand in the European Union (EU) following the recent deterioration of the COVID-19 situation across the region.

The FAO Dairy Price Index rose 2.2 percent from September, with cheese rising the most, followed by skim milk powder, whole milk powder and butter. Price increases in October reflected market tightening for near-term deliveries, underpinned by robust import demand from Asian and Middle Eastern markets.

The FAO Sugar Price Index increased 7.6 percent from September ­- a move largely influenced by the prospects of a lower sugar output in both Brazil and India – the two largest sugar producing countries in the world.

Photo-illustration: Pixabay

The FAO Meat Price Index, by contrast, declined 0.5 percent from September, marking the ninth monthly decline since January, driven by drop in pig meat prices reflecting in part continued influence of the import restrictions imposed by China on Germany. Bovine and poultry meat prices also fell, while prices of ovine meat rose on steady internal demand and low export supplies.

Despite downward revisions, cereal output still expected to reach an all-time high

In its latest Cereal Supply and Demand Brief, also published today, FAO reduced the world’s 2020 cereal production for a second consecutive month, by nearly 13 million tonnes, largely on expectations of diminished world coarse grains production. However, global cereal output is still forecast at a record 2 750 million tonnes, surpassing the 2019 output by 1.6 percent.

The reduction in the world coarse grains production forecast reflects lower expectations for the maize output in the EU and Ukraine, where continued adverse weather has further reduced yield prospects.

The global wheat production forecast for 2020 is also trimmed slightly this month, on lower output expectations in Ukraine and Argentina due to the impact of dry weather.

Photo-illustration: Pixabay

Prospects for the 2021 winter wheat crop, which is already being sown in the northern hemisphere, are generally strong, reflecting the expectations of increased plantings in response to higher prices in several main producing countries, notably in the EU.

FAO slightly raised its estimate of world total cereal utilization in 2020/21 to 2 745 million tonnes, which would represent a 1.9 percent increase from the 2019/20 level, mostly driven by upward revisions for wheat consumption in the EU.

Cuts in world production forecasts this month for maize, wheat and rice, amidst a faster pace in exports in response to strong global import demand, are seen to result in lower inventories, especially among the major exporters. FAO has lowered its forecast for world cereal inventories by the end of seasons in 2021 by 13.6 million tonnes since October to 876 million tonnes, now falling below the 2017/18 record. The resulting global cereal stock-to-use ratio in 2020/21 stands at 31.1 percent, still highlighting relatively comfortable global supply prospects in the new season.

FAO expects world cereal trade in 2020/21 to increase by 3.0 percent from the 2019/20 level to 451 million tonnes, with expansions predicted for all major cereals, led by a 4.7 percent anticipated increase in global trade in coarse grains.

Source: FAO

EBRD supports green transition of Poland’s electricity producer Tauron

Photo-illustration: Pixabay
Photo-illustration: Unspash (Nazrin B-va)

Tauron Polska Energia, one of the largest energy firms in Poland, is moving from fossil fuels to renewable sources of energy with the support of the European Bank for Reconstruction and Development (EBRD).

The EBRD has invested PLN 240 million (equivalent to EUR 55.8 million) for 24 percent of a PLN 1 billion local currency bond issued by Tauron to support its decarbonisation strategy. 

At present Tauron still generates most of its electricity from coal-fired power plants, but in line with Poland’s overall energy strategy the company has committed to an ambitious reduction in its carbon intensity through the closure of coal plants and a large increase in the use of renewable energy. The bond represents an important statement of the company’s new trajectory. This strategy includes a gradual decommissioning of coal-fired units, an expansion of renewable energy sources and the reduction of CO2 emissions.

The proceeds of the bond will be used to expand Tauron’s portfolio of solar photovoltaic installations to up to 300 MW and its portfolio of onshore wind farms by another 720 MW by 2025, as well as to continue investments in the distribution grid to facilitate renewable energy generation. By 2030, the company aims to generate more than 65 percent of its energy from zero- and low-emission sources, while reducing greenhouse gas emissions by half. One innovative feature of the bond is that Tauron will face higher financing costs should it fail to meet these two objectives.

Grzegorz Zieliński, EBRD Regional Director for Central Europe and Head of Poland, said: “Projects such as this are crucial for Poland’s green transition. We have financed more than 1.5 GW of renewable capacity in Poland to date and we are proud to partner with Tauron in pioneering its shift from coal to renewable energy sources. This project is an example of how coal-reliant regions can be transformed, while providing new employment opportunities and driving green investment.”

In line with the EBRD’s just transition initiative, the company will develop a programme to address the potential social impact of closing its coal-powered plants in Silesia, one of Poland’s most carbon-dependent regions.

The EBRD’s investment is aligned with the Bank’s Green Economy Transition (GET) approach, its strategy for helping the economies where it invests become green, low carbon and resilient. It will also contribute to the development of the local currency bond market in Poland as the securities will be listed on the Warsaw Stock Exchange.

The EBRD started investing in Poland in 1991 and to date has provided  EUR 10.5 billion through 439 projects in all sectors of the economy.

Source: EBRD

 

Here’s Why the Business of Sustainability Has Come of Age

Foto-ilustracija: Pixabay
Photo- illustration: Unsplash (Adeolu Eletu)

In 2019, impact investing was a $715 billion global market. Looking beyond the pure financial heft of the market, the number accurately reflects the growing reality among corporates and investors who are seeking to deliver strong financial returns for their shareholders, while building a more equitable world for their stakeholders.

With a sharper corporate focus on achieving Environmental, Social and Governance (ESG) impact, the appetite for investments that address some of the world’s most pressing challenges has grown steadily in recent years. In seeking to address these challenges, business has an historic opportunity.

It cannot abdicate its responsibility in working for a more just and progressive society for one fundamental reason: such an environment is a prerequisite for a sustainable, resilient and market-oriented private sector.

Historically, investments in sustainability have always been regarded through a narrow return-on-investment lens – an approach that could be even more challenging in the current context. However, that thinking has evolved over the years as global investors, pension funds, and financial institutions are demanding that their investee companies incorporate, track and report ESG performance into the risk-adjusted returns that they deliver.

What is more, there is growing evidence that by focusing on ‘people, prosperity and the planet’, businesses can generate long-term business value. This could be achieved by strengthening health and safety measures in hospitality assets to ensure guest well-being and drive greater footfall; by saving energy costs and reducing carbon emissions; or by making property assets more liveable with the help of digitalization and automation, ultimately enhancing the underlying value of these assets.

The list goes on and the arguments are compelling. For real estate affordability, liveability and resilience, investing in ESG is a ‘trade-on’ – not a ‘trade-off’.

ESG and value creation

Enterprises large and small have one dominant goal for 2020: economic survival. Beyond just ‘making it’ and getting through the year, businesses must also plan for the long-term to get back onto a growth curve. However, the choice between ‘survival’ and ‘survival with more costs’ is challenging.

A report by real-estate expert Knight Frank in 2019 underlined that there is strong evidence that investors are increasingly looking to deploy capital into energy-efficient, sustainable buildings. While implementing new, often complex, technology requires upfront investments, these are more than offset by higher rental incomes and lower operating costs.

Majid Al Futtaim’s hotel portfolio in the UAE is a case in point: together with Siemens and facilities management firm Enova (a joint venture between Veolia and Majid Al Futtaim) we embarked on introducing energy conservation measures across 13 hotels. While the cost of AED22.5 million is significant, the measures will lead to guaranteed annual savings of AED5.5 million – with a payback period of just over four years.

Photo-illustration: Pixabay

With utilities representing one of the largest operational costs for real estate assets, this increased efficiency will have a direct financial impact over the long-term. Moreover, assets with recognized sustainability credentials such as LEED, command a favourable premium as this serves as reassurance to both investors and tenants, thereby lowering the perceived risk of their commitment to the asset.

Our experience has taken us from regarding ESG as a lever to reduce risk and liabilities to embracing it as an opportunity to increase business performance and strengthen valuations across the lifecycle of our assets.

A Market for ‘Green’

While the risks associated with sustainability and other ESG-related investments have been a considerable barrier in the past, the ‘business of sustainability’ is now truly coming of age.

This is apparent when we look at the shift in the financial industry toward green bonds and similar vehicles for funding ESG-related investments. For 2019, green bonds reached an unprecedented $255 billion globally, led by China, France and the US. The new President of the European Central Bank (ECB), Christine Lagarde, has stressed her commitment to combatting climate change and examining green changes to the ECB’s activities, including its €2.8 trillion asset purchase scheme.

Photo-illustration: Pixabay

Closer to home, when Majid Al Futtaim launched its Green Sukuk (bond) in 2019 valued at $600 million, it was oversubscribed more than six times, with an order book above $3 billion. The first corporate Green Sukuk in the Middle East, the investments will be used towards Majid Al Futtaim’s long-standing 2040 Net Positive targets that align with our objectives of creating a more sustainable future for our stakeholders and generating strong returns for our partners.

The recovery from the pandemic has been called the ‘Great Reset’ by Professor Klaus Schwab and calls have been made to ‘build back better’. Strategic investments in ESG must represent a fundamental tenet of this framework. In building this ‘reset’, a whole range of stakeholders from investors, corporates, governments, financial institutions and consumers must align to create an ecosystem through which we invest in a cleaner, greener future.

Today, there is a unique opportunity for the property industry to lead the way when it comes to sustainable investments. But we also need the support of Governments and regulators to mandate and incentivize such investments to create meaningful opportunities for the industry and the multiple stakeholders it serves.

This will require hard dollars and soft power. But by working together and seizing the opportunities that are ahead, we can not only create a more sustainable future, but also unlock significant long-term value, for business and for society.

Source: World Economic Forum

Sustainable Cities: Lessons from Nepal and Colombia

Photo-illustration: PIxabay
Photo-illustration: PIxabay

Cities have always had to conform to their natural surroundings. Traditional Moroccan housing was designed with open air courtyards to help with ventilation in the dry and hot climate. While in Iceland, turf houses covered in grass— the original “green buildings”— offered superior insulation in cold weather compared to those made only of wood or stone.

Nature-based solutions have played a crucial role in cities’ design for centuries, but rapid urbanization is putting natural resources to the test.

The UN estimates that over the next 30 years, an additional 2.4 billion people are likely to live in urban areas, 68 percent of the global population in 2050, with most of this shift occurring in the global south. Currently, a third of city inhabitants are estimated to live in slums and informal settlements, often without access to proper housing and basic services. Poor and unplanned urbanization impact resource use, biodiversity and climate.

The United Nations Environment Programme (UNEP) cities’ unit is releasing a new set of guidelines for policymakers and city practitioners for integrated and sustainable neighbourhood design with an emphasis on community needs. These guidelines aim at guiding policy development and practical application in new developments and in the regeneration of existing neighbourhoods.

“Sustainable cities and communities start with sustainable neighbourhoods,” said Martina Otto, head of the cities’ unit at UNEP. “By emphasising the importance of local context, design and integration, we aim to inspire stakeholders involved in urban planning to think sustainably about the daily needs of people in their neighbourhoods. In response to the COVID-19 pandemic and the climate, nature and pollution crisis, reconsidering present urban development paradigms is all the more important and mixed-use, green and interconnected neighbourhoods are a stepping stone for the needed transformation.”

An eco-city in Nepal

One of the cities that UNEP is working with is Lalitpur, in Nepal’s Kathmandu valley. When it was built about 1720 years ago, city planners ensured that open spaces, water availability and ground water recharge were inclusive.

But urbanization and inadequate growth management deteriorated the quality of life in new neighbourhoods. Today, Lalitpur is heavily dependent on fossil fuels, with many residents lacking basic facilities, like water supply and sanitation, and with few green spaces.

UNEP is working with the city government to reinstate Lalitpur as an eco-city. Starting with three neighbourhoods, the consort will construct seven parks, install smart, solar lights; reduce waste to landfill; cut down open burning; and give residents access to health facilities in their neighbourhoods, among other benefits.

Photo-illustration: PIxabay

“Lalitpur is restoring the resilient and resource-efficient forms of urbanism on the basis of its history and local knowledge, with the goal of becoming a clean and sustainable city,” said Lalitpur Metropolitan City Mayor, Chiri Babu Maharjan. “We have built 4.7 km of bicycle lanes to link the northern and southern parts of the city, and installed bicycle stands in the historic Patan Durbar Square. Thanks to this, the air pollution in the city center has greatly improved, and with that, the health and well-being of our citizens.”

On the move in Medellin

UNEP is also working with the city of Medellin in Colombia on the neighbourhood of Moravian the 1960s, millions of internally displaced Colombians set up homes in Moravia, which at the time held the municipal landfill site. The living conditions were dangerous and many residents suffered serious health consequences from the toxic fumes.

While the neighbourhood has made many advances in sanitation and urban planning since then, city authorities are determined to do more. Medellin is establishing “habitat and mobility corridors” that will simultaneously address mobility issues while creating green spaces and biodiversity. The corridors will be pathways for cyclists and pedestrians to access recreational places such as the local soccer field and cultural centres, but also provide habitats for native animals and plants. They should also have a positive impact on the microclimate by reducing heat and creating shade.

“Neighbourhoods are windows for immediate action,” said André Confiado, who works on Sustainable Cities for UNEP. “They are big enough to bundle interrelated components and give way to a coherent urban fragment, yet small enough to achieve results in a foreseeable time period. The approaches suggested in UNEP’s Integrated Guidelines for Sustainable Neighbourhood Design, and the training we propose to participating cities will contribute to the Global Environment Facility funded Sustainable Cities Impact Programme”.

Source: UNEP

Recycling Wind Turbine Blades

Photo illustration: Pixabay
Photo-illustration: Pixabay

Wind turbines have increased in size and quantity to meet clean energy capacity demands

Modern wind power converts the kinetic (movement) energy from wind into mechanical energy. This happens through the turning of large fiberglass blades, which then spin a generator to produce electricity. Wind turbines, as they are known, can be located onshore or offshore.

Wind power is projected to continue growing across the U.S. by 2050. The latest Wind Technologies Market Report prepared by Lawrence Berkeley National Laboratory found that wind energy prices are at all-time lows, and for 2019, 7.3 percent of utility-scale electricity generation in the U.S. came from wind. In this blog post, we will examine land-based wind turbines and the recycling opportunities that exist but are not yet widely implemented for the turbine blades.

Wind turbine designs have evolved over time to increase in size and efficiency, ultimately leading to greater generating capacity. The principle design of commercial turbines today are horizontal axis wind turbines consisting of a rotor with three fiberglass blades attached to a hub, which is itself attached to a central piece (the nacelle) that is mounted on a steel tower. Various other machinery and concrete foundations are also included in modern wind turbine design, which include over 8,000 parts per turbine.

Wind turbine blades in the existing U.S. fleet average around 50 meters in length, or about 164 feet (approximately the width of a U.S. football field). And with recent trends to use longer blades on bigger turbines and taller towers to increase electricity production, a few of the largest blades produced today reach 60–80 meters in length.

In terms of durability, wind turbines last an average of about 25 years. About 85 percent of turbine component materials — such as steel, copper wire, electronics, and gearing — can be recycled or reused. But the blades are different as they are made up of fiberglass (a composite material) to be lightweight for efficiency yet still durable enough to withstand storms. The mixed nature of the blade material makes separating the plastics from the glass fibers to recycle into a workable fiberglass material difficult — and the strength needed for the blades means they are also physically challenging to break apart.

Where do used wind turbine blades end up now?

Wind turbine blades require disposal or recycling when the turbines are decommissioned at the end-of-use stage, or when wind farms are being upgraded in a process known as repowering. Repowering involves keeping the same site and often maintaining or reusing the primary infrastructure for wind turbines but upgrading with larger capacity turbines. The blades might be replaced with more modern and typically larger blades. Either way, the fiberglass blades, once they’re no longer needed, pose the greatest challenge to end-of-use considerations for wind energy.

Photo-illustration: Pixabay

While it’s possible to cut the blades into a few pieces onsite during a decommissioning or repowering process, the pieces are still difficult and costly to transport for recycling or disposal. And the process of cutting the extremely strong blades requires enormous equipment such as vehicle mounted wire saws or diamond-wire saws similar to what is used in quarries. Because there are so few options for recycling the blades currently, the vast majority of those that reach end-of-use are either being stored in various places or taken to landfills.

Indeed, Bloomberg Green reported earlier this year on wind turbine blades being disposed of in landfills. Even though the waste stream represents only a tiny fraction of U.S. municipal solid waste, it’s clearly not an ideal situation. As wind turbines are being decommissioned or replaced, the necessity arises for more creative recycling solutions for used blades.

The good news is that some efforts at developing alternatives are underway. Two large utilities in the US, PacificCorp and MidAmerican Energy, for example, have recently announced plans to partner with the Tennessee company Carbon Rivers to recycle some of the utilities spent turbine blades instead of landfilling them. The technology used by Carbon Rivers is being supported through grant funding by the U.S. Department of Energy and will be used to break down and reuse fiberglass from used turbine blades.

Foto: Pixabay

While the composite nature of fiberglass turbine blades makes them notoriously difficult to deal with at the end-of-use stage, interest in finding alternatives can also spark creativity and innovation. For example, a partnership involving US, Ireland, and Northern Ireland Universities called Re-wind developed some interesting civil engineering project ideas for reusing and repurposing fiberglass blades. These include using decommissioned blades in civil engineering projects as part of powerline structures or towers, or roofs for emergency or affordable housing. In Northern Ireland, Re-wind is also considering piloting them for use in pedestrian bridges along greenways.

Further down the waste hierarchy, additional recycling options are beginning to emerge. Wind Europe, representing the European Union’s wind industry, is partnering with the European Chemical Industry Council (Cefic) and the European Composites Industry Association (EuCIA) to develop new methods to reuse blade materials. The organizations estimate that 14,000 wind turbine blades will be decommissioned over the next few years in Europe alone. In May 2020, the consortium produced Accelerating Wind Turbine Blade Circularity, a comprehensive report which details design, research, and technical solutions focused on the wind turbine life cycle.

A key consideration for recycling of composite materials is to ensure that the recycling process has a net positive result compared to the alternative of disposing in landfills. One example comes from Germany, where the concept of recycling turbine blades into cement was first developed about a decade ago through a plant built under a partnership between Geocycle, a business unit of the building materials corporation HolcimAG, and the company Zajons.

Photo-illustration: Pixabay

This form of recycling involves control of the disposal supply chain — including sawing the turbine blades into smaller pieces at the decommissioning site to decrease transportation logistics and costs. The process promises 100 percent recycling and reductions in carbon dioxide emissions from cement co-processing through replacing production of cement raw materials with the recycled blades, plus the use of biogas from organic remnants in place of coal as a fuel.

Other technologies such as mechanical recycling, solvolysis, and pyrolysis are also being developed, which will ideally provide the industry with additional options for handling fiberglass blades when they reach end-of-use.

Another creative recycling option produces pellets or boards that can be used in carpentry applications. In 2019, Global Fiberglass Solutions began producing a product called EcoPoly Pellets in the U.S. and will soon additionally produce a panel version. These products are certified as being recycled from decommissioned wind turbine blades through radio-frequency identification (RFID) tracking from the blade to the end-product. EcoPoly Pellets can be transformed into a variety of products such as warehouse pallets, flooring material, or parking bollards. Based on its demand forecasts, Global Fiberglass Solutions anticipates being able to process 6,000 to 7,000 blades per year at each of its two plants in Texas and Iowa.

An added approach to the blade recycling issue is to focus on the upfront piece — what the blades are made of. Additional research and development is looking into using thermoplastic resin instead of fiberglass or carbon fiber for wind turbine blades. The material may be easier and cheaper to recycle.

Photo-illustration: Pixabay

In the end, the goal of increasing innovation towards additional use applications for retired turbine blades requires having enough market demand to incentivize the creation of facilities that can recycle the blades. Alongside that challenge is a lack of policy in the U.S. regarding end-of-use considerations for turbine blades, further contributing to the status quo of storage or disposal as solid waste in landfills.

Achieving 100 percentage recyclability of wind turbine systems

As discussed above, it is currently less expensive to dispose of wind turbine blades in the closest landfill rather than the oftentimes long-distance transport required for recycling in the limited number of facilities that can process them efficiently. The industry, in addition, currently suffers from a lack of regulatory pressure or market incentives to fully develop other end-of-use options.

Two approaches to a more circular economy are greater communication along the wind turbine supply chain, and ambitious goals. For example, Vestas Wind Systems A/S, a wind turbine design, manufacturing, and global installation company, announced a bold commitment to produce zero waste wind turbines by 2040. The company plans to achieve this by increasing recyclability over the next 20 years through working closely with its partners along the supply chain to ultimately avoid any incineration or landfilling of its products. More partnerships like these between wind industry companies are needed to help fill the gap and make wind energy systems 100 percent recyclable.

Also, U.S. states should consider policy mechanisms to drive market development of alternative solutions, such as increased producer responsibilities, beyond the disposal of wind turbine blades in landfills. States could additionally contemplate ways to support construction of regional recycling infrastructure — particularly in states with larger portions of wind power such as Texas or Iowa — to address the end-of-use stage for wind turbine blades.

Source: CleanTechnica

Five Things You Need to Know About Cities on World Cities Day 2020

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Despite the pressure and disruption inflicted on urban centres and their citizens by the COVID-19 pandemic, cities remain vitally important parts of the global human ecosystem.

To help mark World Cities Day 2020 on 31 October, which this year takes the theme of Valuing Our Communities and Cities, here are five facts about city life and why cities are so important to us all.

1. Until 2007, more people lived in rural areas than in cities. Now, around 55 percentage of the world’s population lives in cities, according to the UN. By 2050, that’s likely to have gone up to 68 percentage. Most of that increase will occur in African and Asian countries.

2. By 2035, the world’s most populous city will be Jakarta, at which point it will push the current holder of that title, Tokyo, into second place. They will be followed by Chongqing, Dhaka and Shanghai, respectively. Together, the top five biggest cities will be home to around 165 million people.

3. Despite all that growth, urban areas actually only cover around 1 percentage of the surface of the Earth. The term ‘urban areas’ can be applied to include a multitude of built-up areas. But there is no internationally agreed definition of what an urban area is.

4. Cities could be responsible for as much as 70 percentage of global CO2 emissions. Most of that comes from urban transport and the energy consumption of buildings.

If a city is spread out and suburban, with limited public transport, its inhabitants will be more dependent on privately-owned vehicles. That situation can become worse if facilities like shops and medical care are not within easy walking distance, or there are insufficient transit options for getting to work. The good news is that addressing this problem can be done, at least in part, by better urban planning.

Photo-illustration: Pixabay

5. Around the world, there are 136 port cities that each have a population of more than one million. More than a quarter of them are in locations that are at a higher risk from coastal flooding.

In the next 50 years, the number of people living in cities with a high risk of coastal flooding could reach 150 million – a threefold increase on the approximately 40 million today.

On the World Cities Day website, the UN writes that although cities can be great places to live and work, they can also foster societal challenges. “Urbanization provides the potential for new forms of social inclusion, including greater equality, access to services and new opportunities, and engagement and mobilization that reflects the diversity of cities, countries and the globe.

“Yet too often this is not the shape of urban development. Inequality and exclusion abound, often at rates greater than the national average, at the expense of sustainable development that delivers for all.”

The UN also highlights that in 2020, cities have had to contend with the COVID-19 pandemic, which has put pressure on many local communities that have found themselves “on the frontline of the COVID-19 response”.

Source: World Economic Forum

Digital Hub Designed to Protect Coral Reefs Shortlisted for Global Award

Photo-illustration: Pixabay
Photo-illustration: Pixabay

A new digital platform to help dive professionals protect fragile coral reefs has been shortlisted as a finalist in the 2020 Con X Tech Prize, an award that provides seed funding to innovative conservation projects.

The Green Fins Global Hub by The Reef-World Foundation, which is being developed in partnership with the United Nations Environment Programme (UNEP), was shortlisted for what organizers called its potentially transformative approach to conserve biodiversity and ending human-induced species extinctions.

Once up and running, the hub aims to provide more than 30,000 dive and snorkel operators across 100 countries with practical information on how to reduce the impact that tourism has on coral reefs. Among other things, it will showcase low-cost alternatives to harmful practices, like anchoring and fish feeding, while helping operators limit chemical pollution.

“UNEP is proud to support the work of the Reef-World Foundation and Green Fins to promote sustainable tourism practices around the world,” said UNEP marine ecosystems expert Gabriel Grimsditch. “As tourism businesses recover from the impacts of the COVID-19 pandemic, it is important that they do so in an environmentally sustainable manner that does not harm the ecosystems that their businesses depend on.”

Found in over 100 countries and territories globally, coral reefs support a quarter of all marine life—up to 1 million species. They also provide at least 500 million people with jobs and food while protecting coastlines from storms and flooding. However,  the recently released fifth Global Biodiversity Outlook says coral reefs are at risk of extinction due to human-related pressures, including climate change.

Reef-World is one of 20 finalists for the Con X Prize and was shortlisted from 167 submissions from around the world. Each of the shortlisted teams received USD 3,500 to turn their idea into a prototype. In October, one project will be awarded the USD 20,000 grand prize.

James Greenhalgh, Digital Strategy Manager at The Reef-World Foundation, said: “There is no other product like the Global Hub on the market and our market research shows strong industry demand for a service providing this type of solution. The hub will enable operators to train and empower their staff to adopt better environmental behaviours and collaborate with other businesses. We’re excited about the project’s potential to benefit reefs globally.”

Photo-illustration: Pixabay

Reef-World has already secured funding for this project from UNEP, The Matthew Good Foundation and G-Research. It is continuing to fundraise to cover the remaining development costs.

Tom Quigley, Community Manager at Conservation X Labs, said: “The Con X Tech Prize is meant for opportunities just like this – where some funding and support through a prototyping sprint can help a product like Green Fins make a transformative leap in the scale of their impact. We’re excited to see what Reef-World builds over the prototyping period.”

The hub lends itself to the ongoing calls for global conservation to protect coral reefs. In May, the International Coral Reef Initiative, a long-standing partner of UNEP, adopted recommendations from the Convention on Biological Diversity Post 2020 Framework to safeguard the future of coral reefs. Meanwhile, the Glowing Gone Campaign is raising awareness about the plight of coral reefs by enlisting the support of companies, like Adobe, and several celebrities, including Jane Goodall.

Source: UNEP