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IMO 2023 – Shipping Industry Sailing towards a Greener Future but Unsure of the Route by EOS Intelligence
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IMO 2023 – Shipping Industry Sailing towards a Greener Future but Unsure of the Route

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The shipping industry plays a vital role in global trade. The majority of goods are transported by sea, and most shipping vessels currently rely on marine fuels such as Marine Diesel Oil (MDO), Marine Gas Oil (MGO), and Heavy Fuel Oil (HFO). One of the main reasons is that these fuels are cheaper and readily available, however, they are not environmentally friendly. The shipping industry discharges a significant amount of carbon emissions, therefore, decarbonization and eventually reaching zero carbon emissions in this sector has become imperative. The United Nations agency responsible for regulating shipping, the International Maritime Organization (IMO), aims to reduce ocean-vessel emissions to half by 2050. To meet the target, the shipping sector is looking to switch to alternative fuels, however, the feasibility of this change still remains to be assessed.

The shipping industry accounts for a vast proportion of global trade as a result of rapid growth in cargo transportation due to increased globalization and e-commerce. According to the International Chamber of Shipping, 90% of global trade is transported by sea, hence perpetuating carbon emissions in the shipping industry. According to a study published by the European Parliament, the shipping industry could be responsible for up to 17% of global carbon emissions by 2050. In comparison, in 2021, the sector contributed to about 3% of worldwide greenhouse gases. This significant increase in carbon emissions by the sector is resulting in increased pressure on the shipping industry to reduce its carbon footprint.

In an attempt to reduce emissions, IMO has adopted the Energy Efficiency Existing Ship Index (EEXI) and the Carbon Intensity Indicator (CII) rating regulations. While the EEXI is a rating system that assesses the energy performance of existing ships based on speed, power, and engine size, the CII rating uses a ranking system to monitor the efficiency of individual ships. Under the CII rating system, each vessel will receive a ranking from A (good) to E (poor) starting in 2023. Ships receiving grade D for three years or Grade E for one year will have to put a corrective action plan in place. These new sets of regulations have been in effect since January 2023 and are a part of IMO’s Greenhouse Gas Strategy (GHG) that aims to reduce the carbon emissions from international shipping by 40% by 2030 and 70% by 2050 compared with 2008 levels.

Shipping is a highly capital-intensive industry with a great dependence on fossil fuels. Most vessels are still dependent on traditional marine fuels and would require significant investment in infrastructure to transition to zero-carbon emission fuels. A 2020 study by the University of Massachusetts estimated the total cost of decarbonization efforts would be about US$1.65 trillion by 2050 to create apt infrastructure to support zero carbon emission fuels. With shipping being the backbone of international trade, trade volumes are expected to grow continuously, resulting in an increase in carbon emission, which will further push industry players to invest in alternative carbon-efficient fuel.

IMO 2023 – Shipping Industry Sailing towards a Greener Future but Unsure of the Route by EOS Intelligence

Alternative fuels have limited availability and cost restrictions

Currently, there are three primary fuels that are used in ships – MDO, MGO, and HFO. All three fuels are made from crude oil and emit carbon when burnt. Hence, the sector is actively looking for alternative fuels to replace these fuels with the introduction of IMO 2023 regulations.

Methanol could be a suitable alternative, but availability could be a challenge

In pursuit of sustainable and greener fuel, the shipping industry is moving towards using other fuels – one of which is methanol. As per a Finland-based technology company Wärtsilä, methanol usage in ships, when compared to HFO, dramatically reduces carbon emissions and is easy to store. Considering this, the shipping giant AP Moller-Maersk, headquartered in Denmark, has ordered 19 methanol-powered vessels. The company estimated that they would require about one million tons of green methanol per year to run these vessels, which will generate annual carbon emission savings of about 2.3 million tons. Another shipping company based in Beijing, China Ocean Shipping Company (COSCO), has ordered 12 container ships worth US$2.87 billion, which use methanol as a fuel.

However, the availability of methanol is also to be considered while assessing it as an alternative fuel. As per the world’s largest methanol producer, Methanex, the shipping industry would require about three million tons of methanol annually to fuel vessels. Therefore, it is not enough to build vessels that run on methanol but also ensure its availability to fuel the vessels.

Keeping such requirements in mind, Maersk has partnered with six companies across the globe to source at least 730,000 tons of methanol annually by the end of 2025. The six companies are CIMC ENRIC (China), European Energy (Denmark), Green Technology Bank (China), Orsted (Denmark), Proman (Switzerland), and WasteFuel (USA). Additionally, in 2018, COSCO partnered with the US-based IGP Methanol and China-based and Jinguotou (Dalian) Development to construct two methanol plants in IGP Methanol’s Gulf Coast Methanol Park. The plants are planned to have a capacity of 1.8 million tons of methanol per year each. COSCO is ensured to fuel its 12 newly ordered vessels through these two partners

Most methanol produced today is derived from fossil fuels. There are primarily three kinds of methanol – grey or brown methanol derived from natural gas, green methanol made from biomass gasification, and blue methanol derived from natural gas combined with carbon capture and storage technology (CCS). With the help of CCS technology, the carbon emitted is captured and later transported and stored deep underground permanently, hence reducing carbon emissions.

Both green and blue methanol are considered to be the most environmentally friendly. However, most methanol available and used currently is either grey or brown. The availability of blue and green methanol is estimated to be less than 0.5 million tons annually in 2022, which is considered to be severely inadequate to power the current fleet of vessels. While Washington-based Methanol Institute estimated that renewable methanol production might increase to over 8 million tons annually by 2027, it is still unlikely to be sufficient to replace diesel as the go-to fuel.

Methanol as a fuel also has its challenges in terms of cost. Depending on the type of methanol consumed, traditional bunker fuels can be up to 15 times more expensive. Assuming the limited availability of methanol, the cost is likely to increase. Further, industry players need to ensure methanol availability and feasibility before switching away from traditional marine fuel.

LNG – most likely a transitional fuel

While some players are looking at methanol as an alternative fuel, other players are considering LNG. LNG is 20-25% less carbon intensive than HFO and emits fewer nitrogen oxides and sulfur oxides.

Rio Tinto, a mining company based in London, announced plans to add nine LNG dual-fueled Newcastlemax vessels in their fleet that transport bulk cargo, such as coal, iron ore, and grain, in 2023. The company started a one-year trial and is already seeing a reduction of about 25% in carbon emissions.

The main driver to convert to LNG fuel is the reduction in fuel costs. According to S&P Global, an energy company based in the UK, LNG prices vary from US$213-$353 as compared with MGO prices, which vary from US$550-$640. While LNG is cheaper, bunkering LNG to the vessel could be a challenging operation as there is a lack of LNG bunkering infrastructure. Another significant drawback in the usage of LNG is methane slip, which is the discharge of unburned methane from an engine that could poison aquatic life.

As per the World Bank, LNG as a marine fuel is most likely to play a limited role, given its drawbacks. However, a combination of lower prices and the increasing number of LNG dual-fueled vessels might support bunkering demand in the future.

Ammonia at the nascent stage of adoption

Unlike LNG, ammonia is turning out to be a viable option as infrastructure is already taking shape. As per a 2020 report by Siemens, a German industrial manufacturing company, 120 ports are already dealing with the import and export of ammonia worldwide. However, even with the infrastructure, only green ammonia is a zero-carbon fuel and it is not produced anywhere at the moment.

Looking at the fuel as an alternative option, Grieg Maritime and Wärtsilä (Norwegian and Finnish shipping companies, respectively) are jointly running a project to launch an ammonia-fueled tanker producing no greenhouse gas emissions by 2024. The project is also being supported by the Norwegian government with a funding of US$46.3 million. The partnership aims to build the world’s first green ammonia-fueled tanker. The partners plan to distribute green ammonia from a factory based in Norway to various locations and end-users along the coast.

There is a wide range of alternative fuels that are yet to be examined from the point of sustainability. Hydrogen is also one of the fuels that is considered an option for shipping vessels.

Read our related Perspective:
 Hydrogen: Future of Shipping Industry?

Other synthetic fuels combining hydrogen and carbon monoxide are also present and are already used extensively in other industries such as agriculture. However, their viability is yet to be tested in the shipping industry. Moreover, transitioning to alternative fuels is not easy. Several factors need to be considered before switching. To be a practical replacement for diesel, it needs to be readily available and price-competitive with traditional fuels.

EOS Perspective

The global shipping sector was already on its toes since the IMO’s 2020 sulfur regulation that limited sulfur content in a ship’s fuel oil to a maximum of 0.5% (from the previous 3.5%). After the IMO’s sulfur regulation, players started to gradually switch to other fuels and phased out high-sulfur fuel oil from their operations. The new 2023 regulation again brings the shipping industry to heel. The key challenge the marine industry faces in decarbonization is the limited availability and high cost of alternative fuels. Additionally, infrastructural changes are also required while adapting to these new fuels. Ship modifications require major capital investments, while construction of new vessels takes several years.

MGO is shipping’s primary fuel today and is hard to match in terms of existing scale and commercial attractiveness as it already is a well-established fuel and has been in use for decades. Other viable fuels, such as methanol, LNG, hydrogen, and ammonia, although present themselves to be better options for achieving IMO’s 2050 target, are likely to be costly and would require a much higher supply to meet the demand to power the vessels. Future fuel scenarios are likely to be determined by both supply and demand side dynamics.

For now, the key question for the players remains the availability of cleaner fuels at a cost that is acceptable and has the potential to replace traditional fuels. This further opens up the scope for partnerships between the players and fuel producers to jointly build a roadmap to ascertain fuel availability and bunkering infrastructure. With the players already moving towards adopting cleaner fuels, it is safe to infer that more partnerships between the fuel producers and the players are likely to be seen in the sector in the years leading towards meeting IMO’s 2050 target.

Nuclear Fusion – Reality or a Fairy Tale by EOS Intelligence
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Commercial Nuclear Fusion – Reality or a Fairy Tale?

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Nuclear fusion has recently gained attention as a potential source of clean energy. It was a result of the US National Ignition Facility in California achieving a major milestone in December 2022 in which researchers were able to produce more energy than was used to ignite it for the first time. Several countries are cooperating in the world’s largest fusion experiment project called ITER, focused on the construction and operation of an experimental fusion reactor located in France. Large-cap companies such as Google and the ministries regulating energy policies across the globe are also investing in fusion energy projects and start-ups to promote fusion energy generation. Despite huge investments, commercializing fusion energy still has a long way to go due to certain technological and operational challenges associated with the generation of this type of energy.

Ever-increasing carbon emissions due to the ongoing rise in energy consumption are driving the need for accelerating energy generation from renewable sources. As of October 2022, over 40% of global carbon emissions were caused by power generation. As per the International Energy Agency, carbon emissions from energy generation increased by 0.9% in 2022, in comparison with 2021, to reach 36.8GT.

Additionally, the energy crisis caused by the Russia-Ukraine war, particularly in Europe, further augmented the need for energy generation using renewable sources. The surge in energy demand from households and industries is putting pressure on the existing energy supplies, thus resulting in high energy prices.

So far, solar and wind energy sources have been prominently used across countries to meet the rapidly increasing energy demand. Nuclear fusion is another alternative renewable source as it does not emit carbon emissions or produce long-lived radioactive waste products, unlike nuclear fission.

Nuclear fusion is an energy-intensive process and requires high temperatures for fusion reaction. In the nuclear fusion process, energy is released by combining two atomic nuclei into one heavier nucleus. The released energy is then captured and converted into electricity by a fusion machine. This process is also the key source of energy in the sun and other stars.

Nuclear fusion releases around four million times more energy as compared to coal, gas, or oil, and four times more than nuclear fission technology. Nuclear fusion can provide energy to an extent that can power up homes, cities, and whole countries.

Current state of the nuclear fusion energy

The potential of generating nuclear fusion energy has been recognized since the 1950s. Countries across geographies have been involved in nuclear fusion research, led by the EU, USA, Russia, and Japan, along with vigorous programs underway in China, Brazil, Korea, and Canada. Various experimental fusion devices have been designed and constructed to advance and transform the way fusion energy is generated. These include tokamaks, stellarators, and laser-based technology devices. Tokamaks and stellarators have been used more commonly for fusion energy research experiments.

Some of the tokamaks and stellarators built across countries for generating fusion energy include the Joint European Torus (JET), started in the UK in 1978, the Wendelstein 7-X stellarator, started in Germany in 1994, Korea Superconducting Tokamak Advanced Research (KSTAR) started in South Korea in 1995, the Mega Amp Spherical Tokamak- (MAST) initially started in the UK in 1997 and further upgraded to MAST-U in 2013, and Experimental Advanced Superconducting Tokamak (EAST) started in China in 2000, among others. Six countries, including China, India, Japan, Korea, Russia, the USA, as well as the EU, are cooperating in the world’s largest fusion experiment, ITER, an experimental fusion reactor currently under construction in France through EURATOM, the European Atomic Energy Community. ITER idea was first launched in 1985 and established in 2007. Its first experiment was scheduled to start in 2025 but is delayed due to Covid-19 disruptions. It is aimed at producing 500MW of fusion power from 50MW of input heating power.

Further, in 2017, China launched the China Fusion Engineering Test Reactor (CFETR) project as a follow-up to the ITER. This tokamak device is aimed at producing an extremely powerful magnetic field to confine plasma and generate fusion energy. This magnetic field can contain and control hydrogen gas ten times hotter than the core of the sun. CFETR is aimed at producing a peak power output of 2GW once completed in 2035, bridging the gap between scientific experiments and commercial use.

Extensive progress has been noticed in studying laser-based technology for fusion energy generation. Some of the facilities that use laser technology to produce fusion energy include the National Ignition Facility (NIF) at the Lawrence Livermore National Laboratory (LLNL) in the USA and the Laser Mégajoule (LMJ) in France.

The International Atomic Energy Agency (IAEA) also supports its member states in research activities related to fusion energy generation. It also organizes various workshops on fusion power plant concept demonstrations, technical meetings, and coordinates research activities.

Nuclear Fusion – Reality or a Fairy Tale?by EOS Intelligence

Nuclear Fusion – Reality or a Fairy Tale? by EOS Intelligence

Some of the breakthroughs achieved in fusion energy experiments to date

There has been significant progress in the research and development activities focused on nuclear fusion energy generation. Researchers are continuously emphasizing optimizing the condition of plasma through changes in density, temperature, and confinement time to achieve the required level of performance for a power plant. Several nuclear reactors were able to sustain high temperatures during the fusion process. For instance, in January 2022, the EAST reactor in China sustained temperatures of 126 million degrees Fahrenheit, which is nearly five times hotter than the sun, for 17 minutes, and thus, broke the record for longest sustained nuclear fusion.

In February 2022, the Joint European Torus (JET) achieved a record performance for sustained fusion energy of 59MJ over five seconds.

Also, in September 2022, the Korea Superconducting Tokamak Advanced Research (KSTAR) experiment achieved plasma temperatures of 120 million kelvins for up to 20 seconds, a key demonstration of simultaneous high temperatures and plasma stability.

Recently, in December 2022, a major breakthrough was achieved at the US National Ignition Facility in California by using inertial confinement fusion, which released more energy than was pumped in by the lasers for the first time in the world. The laser shot released 3.15MJ of energy in comparison with the 2.05MJ pumped to the hydrogen isotope pellet by lasers. This breakthrough is likely to pave the way for abundant clean energy in the future.

Breakthroughs driving further investment in fusion energy R&D

Breakthroughs achieved over the past years in various projects have attracted significant investment by both the government and private sector in the research and development of fusion energy. For instance, in February 2023, Israel’s Ministry of Energy (MoE) proposed to provide US$11.5 million to establish a national nuclear fusion institute in Israel. This initiative includes major universities of Israel, namely the Hebrew University of Jerusalem, Ben-Gurion University of the Negev, the Technion and Tel Aviv University, the Weizmann Institute of Science, as well as NT-Tao, an Israel-based start-up which is engaged in the development of a compact system for nuclear fusion.

Similarly, in October 2022, the UK government announced to provide US$249.6 million of funding for the Spherical Tokamak for Energy Production (STEP) project’s first phase, which will include concept design by the UK Atomic Energy Authority by 2024. STEP is a program aimed at designing and constructing a prototype fusion energy plant by 2040.

In March 2022, the US Department of Energy (DOE) proposed to provide around US$50 million of federal funding to support US scientists involved in conducting experimental research in fusion energy science. Of this, US$20 million was to support tokamak facilities and US$30 million to support fusion research to improve the performance of fusion and increase the duration of burning plasma. In addition to this, the US government’s budget for the financial year 2023 included US$723 million for the Office of Science Fusion Energy Sciences research in enabling technologies, materials, advanced computing and simulation, and new partnerships with private fusion efforts. This amount included US$240 million for the ongoing construction of ITER tokamak. Also, the budget for the financial year 2024 includes US$16.5 billion to support climate science and clean energy innovation, including US$1 billion to advance fusion energy technology.

Private funding in fusion companies has also increased significantly in the recent past. As per the Fusion Industry Association Report 2022 published in July, private sector funding amounted to about US$4.8 billion in total, witnessing an increase of 139% since 2021. Fusion companies also received an additional US$117 million in grants and other funding from governments. Big resource groups such as Equinor, based in Norway, Google, and Chevron, based in the USA, have also invested in fusion energy research. For instance, in July 2022, Chevron, together with Google and Japan-based Sumitomo Corporation, invested in TAE Technologies, a US-based nuclear fusion start-up, in a US$250 million fundraising round to build its next-generation fusion machine.

In addition to this, entrepreneurs, including Bill Gates and Jeff Bezos, are also providing financial support. In December 2021, Commonwealth Fusion Systems (CFS) raised around US$1.8 billion in series B funding from various key investors, including Bill Gates, DFJ Growth, and Emerson Collective, among others, to commercialize fusion energy.

Companies engaged in nuclear fusion energy generation

More than 35 companies are engaged in fusion energy generation for commercial use, such as Tokamak Energy, General Fusion, Commonwealth Fusion Systems, Helion Energy, Zap Energy, and TAE Technologies, among others. These fusion companies are increasingly emphasizing collaborations and experimenting with new technologies to produce fusion energy and make it available for commercial use.

In March 2023, Eni, an energy group based in Italy, and Commonwealth Fusion Systems (CFS) based in the USA, a spin-out of the Massachusetts Institute of Technology (MIT), signed a collaboration agreement aimed at accelerating the industrialization of fusion energy.

In February 2023, TAE Technologies achieved a breakthrough in its hydrogen-boron fusion experiment in magnetically confined fusion plasma. This experiment was a collaboration between Japan’s National Institute for Fusion Science (NIFT) and TAE Technologies.

Also, in February 2023, Tokamak Energy proposed to build a new fusion energy advanced prototype at the United Kingdom Atomic Energy Authority’s (UKAEA) Culham Campus, UK, using power plant-relevant magnet technology. It also built the first set of high-temperature superconducting magnets for testing nuclear fusion power plants. This supermagnet can confine and control extremely hot plasma created during the fusion process.

Certain breakthroughs achieved over the years in the nuclear fusion energy field have encouraged the entry of various start-ups across geographies. For instance, Princeton Stellarators, a US-based start-up focused on building modular, utility-scale fusion power, was founded in 2022. Another start-up named Focused Energy, a Germany-based fusion company, was founded in 2021 to develop a fusion power plant based on laser and target technology. In September 2021, the company raised US$15 million in seed funding led by Prime Movers Lab, along with additional investment from various entrepreneurs.

Start-ups are also emphasizing raising funds to create new fusion technologies and make a significant impact on the industry. In February 2023, NT-Tao, an Israel-based nuclear fusion start-up founded in 2019, raised US$22 million in a series A funding round aimed at developing a high-density, compact fusion reactor to provide clean energy.

Additionally, in January 2023, Renaissance Fusion, a France-based start-up founded in 2020, raised US$16.4 million in a seed funding round led by Lowercarbon Capital. The company is engaged in the development of a stellarator reactor for fusion energy generation.

Challenges to nuclear fusion energy generation

Although a lot of companies and governments across geographies are investing in nuclear fusion energy generation experiments, building full-scale fusion-generating facilities requires advanced engineering, advanced vacuum systems, and superconducting magnets. One of the key challenges in the fusion process is the requirement of extremely high temperatures to produce energy. Also, it becomes difficult to control plasma at such high temperatures.

Additionally, the lack of availability of materials that can extract heat more effectively while withstanding their mechanical properties for a longer duration is another challenge affecting the fusion energy generation process.

Moreover, fusion research projects are also facing capital and financing challenges due to high upfront costs, return uncertainty, and long project duration. The capital investment involved in building and operating a fusion reactor is high due to complex technology that requires significant investment in R&D, high energy requirements, use of advanced materials, and regulatory requirements aimed at ensuring the safety and low environmental impact of the fusion reactor. The cost of building a fusion reactor ranges between tens to hundreds of billions of dollars. It can vary depending on various factors such as size, design, location, materials, and technology used.

Since fusion energy is a new technology, there is uncertainty about when nuclear fusion will become a viable and cost-effective energy source, such as other energy sources, including wind and solar. This makes it difficult for investors to invest in fusion projects and predict the return on investment.

However, ongoing research and development activities aimed at building advanced, highly efficient, and cost-effective fusion reactors and commercializing fusion energy generation at a large scale are likely to overcome these challenges in the long term.

EOS Perspective

Accelerating climate crisis is driving the investment in nuclear fusion research and development as it does not create carbon emissions and long-lasting nuclear waste products. Over the past several years, various fusion research projects, university programs, and start-ups have achieved breakthroughs in the fusion energy field. The most recent breakthrough at the US National Ignition Facility in California, which released more energy than was pumped in by the lasers, has paved the way to the nuclear fusion gold rush and sparked excitement among investors, companies, and researchers.

Many fusion companies, such as Commonwealth Fusion Systems and TAE Technologies, are claiming to exceed breakeven by 2025 and commercialize fusion energy by 2030. Billions of dollars have been invested in nuclear fusion energy generation experiments but no company or projects have been able to achieve breakeven yet.

Several new fusion projects are planning on using advanced materials and putting a new generation of supercomputers to tweak the performance of ultrahigh-temperature plasma, but commercializing fusion energy is still far from reality. Moreover, the fusion process is very complex, requires extreme temperatures for fusion reactions, and involves huge energy costs. Thus, alternative clean energy sources such as wind and solar will likely remain the near-term methods to meet sustainable energy demand. At the same time, it should be expected that the increasing government support and investment by large cap organizations and entrepreneurs are likely to help set up viable fusion power plants in the future.

Upcycling A New Trend in the Food Industry by EOS intelligence
by EOS Intelligence EOS Intelligence No Comments

Upcycling: a New Trend in the Food Industry

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Upcycling, a growing trend in the food industry, uses surplus food and food by-products to produce products such as dietary supplements, beauty products, nutraceuticals, or animal feed. Food businesses are looking at upcycling as one of the strategies to reduce the amount of food waste they generate. However, they face continued challenges around unmarketable ingredients, process costs, and consumer acceptance. To ensure success of this niche sector, fostering partnerships to collect food by-products, collaborating with government institutions for technical know-how along with initiatives that promote upcycled food waste products could go a long way.

Burgeoning need for upcycling food waste

UN estimates that nearly 33% of the food produced globally each year is either lost (in the form of any edible food that goes uneaten, crops left in the field, food that gets spoiled in transportation or does not make it to the stores) or wasted (food discarded by retailers due to color or appearance, food left on the plate at restaurants, and scraps from food preparation at home). This accounts for 1.3 billion tons of food worth approximately US$1 trillion, enough to feed 3.5 billion people.

Moreover, food wastage contributes to 10% of global greenhouse gas emissions and is a huge burden on the environment and natural resources. As more and more food waste ends up in landfills, it produces methane, considered to be eight times more harmful than carbon, thus contributing more to global warming than automobile emissions.

Upcycling is one way that can help mitigate the ill effects of food waste, to a certain extent. Upcycling uses food by-products, produce with visual imperfections (produce often unattractive to sell due to color or appearance), food scraps, and surplus food to make new products. It is forecast that, in 2022, the market size for products made from food waste will be approximately US$53 billion and is expected to reach US$83 billion by 2032, growing at a CAGR of 4.6%.

Upcycling – A New Trend in the Food Industry by EOS Intelligence

Repurposing food waste into value-added products

Driven by sustainability, repurposing food waste offers a plethora of opportunities for start-ups and other players to make value-added products such as beverages, food products, dietary supplements, nutraceuticals, animal feed, cosmetics, and personal care products. Companies are coming up with innovative solutions to convert food by-products and surplus produce into something reusable and resalable.

Upcycled food

In 2021, Nestle Australia launched a carbonated soft drink called “Nescafe Nativ Cascara”, which uses cascara, the husk of the coffee berry fruit which is discarded in coffee production. Another interesting upcycling initiative taken by Nestle Japan is “Cacao Fruit KitKat” which uses the white pulp surrounding the cacao beans (70% of the cacao fruit is wasted and only the beans are used to produce chocolate). Moreover, in June 2022, Barry Callebaut, a Belgian-Swiss chocolate manufacturer, also launched whole fruit chocolate made from 100% pure cacao fruit.

Taking a step ahead, companies are also investing to set up research centers and business verticals that focus entirely on food waste upcycling. Nestle invested approximately US$4 million and expanded its R&D center in Singapore to focus on upcycling food waste and plant-based innovation. Another American-Irish agricultural corporation, Dole, is partnering with the Singapore Economic Development Board and has formed “Dole Specialty Ingredients”, a new business arm that uses food waste to produce specialty ingredients such as enzymes, seed oils, fruit extracts, etc.

Bakery industry is another sector that holds significant potential for upcycled food waste products. For instance, ReGrained, a food technology company, based in the USA, is using leftover spent grain from brewing beer and turns it into nutritious flour called ReGrained Supergrain+, which is then used to produce snacks bars. The company also sells this flour to other food producers. Another US-based food company Renewal Mill, uses byproducts of plant-based milk to develop high fiber, gluten-free flours which are used in cookie mixes.

Food waste is also used in beverage processing. WTRMLN WTR, a food processing firm based in the USA, uses watermelons that are discarded due to aesthetic reasons and upcycle them to make flavored water. WTRMLN WTR is currently available at 35,000 retail stores across the USA. Another UK-based brewing company, Toast Ale, uses surplus bread from bakeries to brew beer. To date, the company has salvaged approximately 2.6 million surplus bread slices that would have otherwise gone to waste.

Several companies also upcycle the not-so-appealing fruit or vegetables to produce food products such as sweet and savory snacks, condiments, etc. For instance, Barnana, a US-based banana snack company, uses bruised bananas and produces snacks such as dehydrated banana bites, plantain chips, and crisps. The company has used roughly 50 million metric tons of not-so-good-looking bananas and plantains since its inception in 2013. Rubies in the Rubble, a UK-based company, produces condiments such as plant-based mayo, apple relish, and spicy tomato relish from imperfect produce rejected due to size and aesthetics.

While most of the applications for upcycled food waste ingredients have been in baking, beverages, and snacks, other interesting applications are also emerging. For instance, Scraps, a start-up based in New York, USA, uses excess or bruised basil leaves and odd-shaped peppers to make frozen pizzas. Unilever uses ice cream, not used in the primary production process, and mixes it with chocolate sauce and white chocolate chips to create a new flavor called “Cremissimo”. White Moustache, a US-based yogurt company, makes probiotic tonics from whey, a by-product of yogurt. Austria-based Kern Tec, a fruit seed producer and processor, uses the pits of cherry, apricot, and plum, and transforms them into protein powders and oils.

Beyond food

Food waste can also be used to make products beyond food. Wastelink, a food upcycling start-up based in India, collects food waste from 300+ distributors and factories across India and converts it into nutritional-rich feed for animals. Over the past two years, the company has upcycled over 5,000 metric tons of food waste. Wastelink raised over US$1.2 million in seed funding in June 2022.

Food by-products are also finding its acceptance in the textile industry. Orange Fibre, a sustainable textile company based in Italy, has partnered with Lenzing Group, a producer of wood-based specialty fibers, to produce Lyocell fiber made from orange juice and wood pulp.

Japan-based PEEL Lab started in 2021, is another innovative start-up that upcycles plant and fruit waste into plant-based leather. The company’s products include bags and wallets (made from apple and pineapple leather), yoga mats (made from bamboo leather), and apple leather coasters.

TripleW, a biotech company based in Israel, utilizes food waste for the production of polymer grade lactic acid, which is further used to make Polylactic acid (PLA) bioplastics used in food and beverage packaging, car parts, toys, textiles, and kitchenware, among others.

Upcycling food waste has also found applications in the beauty industry. Circumference, a New York-based skincare brand started in 2018, sources unused olive leaves from California-based olive oil company Brightland, to produce an antioxidant extract, which is used in the brand’s cleanser. The company previously launched a moisturizer using leftover grape leaves. Another US-based skincare company, Farmacy, uses left-over apple extract in its cleansing balm. Klur, a US-based beauty brand, utilizes avocado and tomato seed oils discarded by the food businesses to produce cuticle oil. Another interesting use of food waste in the beauty industry is adopted by France-based beauty brand Kadalys, wherein they extract bio-actives from bruised bananas to be used in their skincare products.

Challenges concurrent with upcycling food waste

Upcycling food waste poses many challenges. Most companies in this space are small and have limited product mix due to lack of consistent supply of upcycled ingredients. Another concern is maintaining the quality or freshness of the ingredients throughout the product lifecycle. Since these are mainly by-products or scraps, doubts on how these are stored (whether in a temperature-controlled environment or what sort of hygiene procedures are followed, if any), transported, and handled prevail.

Consumer acceptance is another challenge pertaining to upcycled foods. Consumers are often reluctant to buy upcycled food products owing to concerns about the quality of the ingredients used. Educating consumers that upcycled food is not just made from food scraps or leftovers but also from by-products which are nutritious and safe to consume is a daunting task. Moreover, the general perception that upcycled products are often priced higher further reduces consumers’ willingness to buy them.

EOS Perspective

Upcycling food waste is slowly but surely gaining acceptance, but still needs to go a long way to get established as a mainstream market. Owing to its environmental and economic benefits, the trend of upcycling is here to stay. ReFed, a non-profit organization in the USA, which strives to reduce the food loss and waste across the USA, claims that just by converting food by-products such as spent grains, fruit or vegetable pulps, and rinds into a new ingredient or an edible food product could save nearly 1.87 million tons of food waste diverted to the landfills resulting in financial benefits of US$ 2.69 billion each year.

Food waste industry offers multitude of opportunities for partnerships and cross-sector collaborations among start-ups, established food brands, food producers, philanthropic organizations, and technology and supply chain solution providers. For instance, ReGrained, in partnership with USDA (United States Department of Agriculture) developed a patented technology to convert spent grain into flour.

Several companies are also partnering with food producers for a consistent supply of raw materials. For instance, Barnana is partnering with farmers across Latin America to procure bananas and plantains on a large scale. Food producers are also working together in order to reduce food waste. An example of this is Kellogg’s UK’s partnership with Seven Bro7hers Brewing, a brewery company based in the UK, to turn its waste corn flakes into beer. Moreover, retail stores such as MOM’s Organic Market, an organic grocery chain in the USA, have also started dedicating shelf space for upcycled food products.

In addition to partnerships, philanthropic organizations such as Upcycled Food Association (UFA) also play an important role in reducing food waste by educating and connecting upcycled food companies globally to become a part of the growing upcycled food economy. Formed in 2020, UFA strives to improve the upcycled food supply chain. Currently, the association is a network of more than 180 businesses from over 20 countries. Credited with launching the world’s first third-party certification program for upcycled food ingredients and products, “The Upcycled Certified Standard” in 2021, UFA has received preliminary approval (in February 2022) from USDA FSIS (The Food Safety and Inspection Service), to include their certification mark in the FSIS-regulated ingredients and products. As of February 2022, nearly 400 products are waiting to be certified by the UFA. This initiative aims at educating consumers about the impact of upcycled food on environment and the economic potential it holds.

Furthermore, in 2021, UFA together with ReFed also launched the “Food Waste Funder Circle”, a network platform for private, public, and philanthropic funders for educating, collaborating, and investing to raise capital needed to reduce food waste by 50% by 2030 within the USA. Such initiatives highlight that the upcycling food waste industry has immense growth potential.

In the long run, it seems that upcycled products made from food waste could become a part of day-to-day life. Global appetite for sustainability is increasing and so is the upcycled food waste industry. Eventually, it is all about building an all-inclusive food system for a sustainable future.

Africa’s Mining Industry Gaining Momentum by EOS Intelligence
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Africa’s Mining Industry Gaining Momentum

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Africa is home to 30% of the world’s mineral reserves, 8% of the world’s natural gas, and 12% of the world’s oil reserves. Despite being endowed with abundant resources, the continent accounts for only 5% of the global mining production. Mining in Africa was often overlooked because of the unstable political environment, opaque regulations, and poor enforcement capacity. Despite these challenges, investments in Africa’s mineral wealth have been steadily increasing in recent years. The massive swings in mineral demand due to the accelerated clean energy transition along with the rising geopolitical tensions have made countries across the globe diversify their sources of minerals and venture into highly challenged regions such as Africa.

Clean energy – A major force driving mineral extraction in Africa

The globally accelerating clean energy transition is set to unleash unprecedented mineral demand in the coming decades. Demand for minerals such as lithium, copper, cobalt, nickel, and zinc is expected to increase exponentially since they are required in the production of batteries, electric vehicles, wind turbines, and solar photovoltaic plants, all of which are the cornerstone of clean energy development. Among all clean energy technologies, electric vehicle manufacturing and energy storage are likely to account for about half of the global mineral demand over the next two decades.

Lithium

The African continent hosts many of the global mineral reserves required for manufacturing electric vehicles and batteries. Zimbabwe and the Democratic Republic of the Congo are among the top ten countries with the largest lithium reserves in the world. Lithium is a crucial component of lithium-ion batteries, which are used in smartphones and electric vehicles. In Zimbabwe, a mine named Bikita holds more than 11 million tons of lithium ore. Despite being bestowed with massive lithium reserves, the region is largely unexplored due to the lack of investment. However, as the lithium demand is on the rise, the government of Zimbabwe has been actively promoting the development of lithium mines to attract foreign investments. At the same time, an increasing interest in electric vehicles and lithium-ion batteries is driving the lithium demand, pushing many global economies to invest in lithium mining. One such example is an investment from December 2021, when a Chinese-owned mineral production and processing company, Zhejiang Huayou Cobalt, acquired a 100% stake in the Zimbabwean Arcadia lithium mine.

Cobalt

Cobalt is another important metal, used in energy storage technologies and electric vehicle production. Most lithium-ion batteries depend on cobalt, which is a by-product of copper and nickel production. The Democratic Republic of the Congo supplies almost 70% of global cobalt, while Australia and the Philippines supply 4.2% and 3.3% of global cobalt, respectively. The growth of the electric vehicle industry has driven major cobalt producers to ramp up the output at multiple mine sites in the Democratic Republic of the Congo.

Graphite

Like lithium and cobalt, graphite is another significant mineral used in electric vehicle manufacturing. A lithium-ion battery needs 10 times more graphite than lithium. China produces around 82% of the global graphite, followed by Brazil at 7%. Due to the increasing demand, many countries with graphite reserves are launching their graphite mining projects. Mozambique is expected to increase its flake graphite 2021 production levels fivefold by 2030. The country has around 20% to 40% of total global graphite reserves.

Copper

Copper also holds a significant position in a range of minerals used in renewable energy technologies. It plays a vital role in grid infrastructure due to its efficiency, reliability, and conductivity. Around 60% of copper demand is driven by wind turbines, solar panels, and electric vehicle manufacturing. Increasing copper demand along with the rising global copper shortage has made many global producers expand their production and venture into new regions for mining. Consequently, Africa’s Zambia, one of the largest copper producers in the world, has attracted a significant number of investments recently. The country aims to take its annual copper production levels from 830,000 metric tons in 2020 to 3 million metric tons in the next ten years.

Africa also hosts many other mineral reserves such as platinum, manganese, nickel, and chromium, which are used in a variety of clean energy technologies. The continent is poised to take advantage of the growing demand for these minerals and has already started to attract significant foreign investments.

Africa’s Mining Industry Gaining Momentum by EOS Intelligence

High commodity prices and rising geopolitical tensions favor Africa’s mining

Africa has experienced a boom in mining since 2000 when the commodities super cycle (a phenomenon where commodities trade for higher prices for a long period) began. Along with the commodity boom, the African mining industry has grown substantially, attracting investments in exploration, acquiring new concessions, and opening new mines. The recently spiking prices of commodities such as aluminum, zinc, nickel, copper, gold, and coal are further fueling investments across the continent.

The Russian war on Ukraine further benefits Africa as many countries started to diversify their supply chains away from Russia. In March 2022, the USA and the UK imposed a ban on Russian oil imports. Europe also has plans to cut its Russian gas imports by two-thirds before the end of 2022. These could lead to supply shortages of oil and gas in many countries. Russia also supplies 7% of the world’s nickel, 10% of the world’s platinum, and 25-30% of the world’s palladium, which are critical to the globally accelerating clean energy transition. The US and European governments are looking closely at further sanctions against Russia which could disrupt these critical minerals supply. The situation has made many developed countries diversify and secure their sources of minerals. This will be a huge opportunity for Africa to promote its resources.

Massive African gold reserves attract global gold producers

Gold is often perceived as a safe haven asset and its demand is constantly rising, pushing major global gold producers to ramp up their production. Additionally, as many of the global gold reserves are depleting, mining companies find it imperative to explore new gold deposits across the world. Interestingly, the Birimian greenstone belt of West Africa hosts huge deposits of gold but remains highly underexplored. Many leading global gold producers started exploring the region due to the favorable mining regulations and mining codes implemented recently. Between 2009 and 2019, approximately 1,400 metric tons of gold reserves were discovered in West Africa, while about 1,000 metric tons and 680 metric tons were found in Canada and Ecuador, respectively. A total of US$470 million was invested in West Africa’s gold resource exploration in 2020. This was the third-largest global gold exploration expenditure in 2020, behind that of Australia and Canada.

Investments in Africa’s mining

Countries such as Australia, China, Canada, the UK, and the USA have invested heavily in Africa’s mineral extraction over the years. Emerging economies such as India, Russia, and Brazil also have sizeable investments in Africa’s mining, creating more competition for resources. Among all the countries that have invested, China has demonstrated a significant presence across the continent. The rise of industrialization in China has driven increased demand for mineral exploration and extraction in Africa over the past decades. China’s investment in exploring African mineral resources multiplied to a remarkable extent between 2005 and 2015. In 2021, China’s total outbound foreign direct investment (FDI) was US$145.2 billion, of which a quarter was dedicated to African mining.

Many of the mining projects in Africa are funded by international stock exchanges. For instance, in 2015, Deloitte analyzed the funds of 29 major mining projects which were in development across the continent. The Toronto Stock Exchange funded 28% of these projects, followed by the Hong Kong Stock Exchange funding 17%, and the National Stock Exchange of India funding 10% of the projects.

A 2019 report published by PricewaterhouseCoopers states that, in 2018, total mining deals in Africa amounted to US$48 billion. Out of this, West Africa received the largest share of investment worth US$16.2 billion for its oil, gas, and gold reserves, followed by Southern Africa, which received US$14.7 billion worth of investment for its gold, platinum, nickel, and cobalt. East Africa and Central Africa received the least amount of mining investment.

Challenges

Asia constitutes approximately 60% of the world’s total mining production, followed by North America (14%). Africa, despite being endowed with abundant mineral reserves, constitutes only 5% of the global mining production. The continent has failed to achieve real mining expansion due to many challenges prevailing in the continent. One of the prime challenges is the poor infrastructure (rail and port) that causes trade blockages. High levels of political instability, unstable regulations, and corruption are other significant challenges hindering mining across Africa. Other challenges impacting the African mining industry include poor geological data management, illegal mining, lack of mineral processing facilities, unreliable power supply, and weak local markets.

EOS Perspective

With the world’s increasing appetite for clean energy, Africa has a chance to establish itself as a key player in the mining industry. Significant investments in extraction and exploration are required to get the most out of the continent’s resources, and this is happening to a certain extent. Most significantly, the countries involved must build a robust value chain to promote industrialization and boost their economies, instead of just supplying raw materials. Governments should consider fostering joint ventures and partnerships with foreign companies to bridge the technical skill gaps that prevail in the continent. The industry itself must ensure that it shares the mining benefits with the people, thereby improving their welfare.

The African countries must also address challenges such as poor infrastructure to participate effectively in the value chain. Many projects are already underway to boost the transport infrastructure. China has built significant inroads in Africa under its Belt and Road Initiative. Deloitte estimates approximately US$50 billion would be invested in over 830 infrastructure projects between 2003 and 2030.

Along with infrastructure development, strong governance, and a stable and reliable regulatory environment are critical to attracting foreign investments. Several governments across Africa are revising mining codes and regulations and providing tax incentives to stimulate manufacturing. The mining industry is at a critical stage where it needs to satisfy an increased demand for minerals while also curbing the environmental impact of mining operations. This process seems to be complex, but it also provides many opportunities. For instance, mining companies can utilize the adoption of renewable, energy-efficient systems for power generation. Technologies such as artificial intelligence, automation, and big data could be adopted to mitigate rising costs.

There is still a long way for the region to achieve the desired mining growth and economic development, with multiple challenges across the entire value chain. However, with stronger governance, more stable regulations, and considerable foreign investments, Africa could position itself as one of the largest mining economies in the world. The opportunity for Africa is huge, but it needs to be utilized properly.

UK Paves The Way for A Greener and Carbon-Free Future
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UK Paves The Way for A Greener and Carbon-Free Future

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The UK is working to create a policy for building a more sustainable future for itself through the New Green Industrial Revolution, aiming to attain net-zero emissions in the UK by 2050. As the country separated itself from the EU through Brexit, it is also setting its own environmental goals and in that, its own version of the EU’s 2019 Green Deal (we wrote about it in The EU Green Deal – Good on Paper but Is That Enough? in March 2020). With highly ambitious targets, the proposed investments are worth GBP12 billion, creating 250,000 jobs in the process. While this seems like a promising funds allocation, the plan’s success will actually depend on significant investments in next-generation technologies, which have currently not been proven commercially. Moreover, a lot will depend on an equal involvement from the private sector that might be more cautious with investments than the public sector.

The UK is in a bid to position itself at the forefront of global markets for green energy and clean technologies. To achieve this, it proposed a 10-point Green Industrial Revolution in November 2020, which aims to mobilize GBP12 billion funds and create 250,000 jobs in the UK. Through this plan, the UK aims to achieve net zero carbon emissions by 2050. The key areas covered under the plan include offshore wind, hydrogen, nuclear, electric vehicles, public transport, jet zero and greener maritime, homes and public buildings, carbon capture, nature, and innovation and finance.

UK Paves The Way for A Greener and Carbon-Free Future

Offshore wind

The new Green Industrial Revolution outlines the UK government’s commitment to put offshore wind energy at the forefront of the country’s electricity needs. It has increased the offshore wind targets from previous 30GW to 40GW by 2030, aiming to produce enough energy to power all homes in the UK by 2030.

In addition to this, the government plans investments of about GBP160 million to upgrade ports and infrastructure in localities that will accommodate future offshore wind projects (e.g. Teesside, Humber, Scotland, and Wales).

This investment in developing offshore wind energy is expected to support about 60,000 direct and indirect jobs by 2030 in construction and maintenance of sites, ports, factories, etc.

While the government’s plan is great on paper, meeting the 40GW target will require 4GW of offshore wind projects to be commissioned every year between 2025 and 2030, which is extremely ambitious and challenging. Moreover, just developing offshore wind projects will not be enough until works are also done to update the electricity grid. Further, the target 40GW generation is calculated based on current electricity demand by households, which in reality is bound to increase as a shift towards electric vehicles is being encouraged.

Hydrogen

With the help of industry partners, the UK government plans to develop 5GW of low carbon hydrogen production capacity by 2030 for industries, transport, and residences. The government is expected to publish a dedicated Hydrogen Strategy in 2021, to position the UK as a front runner in production and use of clean hydrogen. It plans to develop 1GW (of the planned 5GW) hydrogen production capacity by 2025.

A central part of the UK’s Hydrogen Strategy is expected to have hydrogen potentially replace natural gas for the purpose of heating. The government is undertaking hydrogen heating trials, commencing with building a ‘Hydrogen Neighborhood’ and potentially developing a plan for the first town to be heated completely using hydrogen by 2030.

In addition to this, works with industry partners are under way to develop ‘hydrogen-ready’ appliances in 2021, such that new gas boilers can be readily converted to hydrogen if any future conversion of the gas network is commissioned. To facilitate this, the government is working with Health and Safety Executives to enable 20% hydrogen blending in the gas network by 2023. However, this is subject to successful trials.

In transportation, an investment of GBP20 million in 2021 is planned to test hydrogen and other zero emission freight truck technologies in order to support the industry in developing zero-emission trucks for long-haul road freight.

To achieve these targets, a GBP240 million Net Zero Hydrogen Fund is planned to be set up. It will provide capital co-investment along with the investment from private sector to develop various technologies. These will include carbon capture and storage infrastructure for the production of clean hydrogen that can be used in home, transport, and industrial requirements. The policy is expected to support 8,000 jobs by 2030 and push private investment worth GBP4 billion by 2030.

However, the government’s ambitious 2030 hydrogen policy requires significant investment and participation from the private sector. While several global companies such as ITM Power, Orsted, Phillips 66, etc., have come together to collaborate on the Gigastack project in the UK (which aims to produce clean hydrogen from offshore wind), such private participation will be required on most projects to make them feasible and meet the targets.

Nuclear power

In search of low-carbon electricity sources, UK plans to invest in nuclear energy. In addition to development of large-scale nuclear plants, the investments will also include small modular reactors and advanced modular reactors.

To this effect, the government has set up a GBP385 million Advanced Nuclear Fund. Of this, GBP215 million is to be used towards small modular reactors, i.e., to develop a domestic smaller-scale nuclear power plant technology that could be built in factories and assembled on site. Apart from this, GBP170 million is to be used towards research and development of advanced modular reactors. These are reactors that could operate at over 800˚C, and as a result, unlock efficient production of hydrogen and synthetic fuels. These are also expected to complement the government’s other investments and initiatives with regards to hydrogen and carbon capture.

While the government expects the design and development of small modular reactors to result in private sector investment of up to GBP300 million, these next generation small reactors are currently considered a long shot as no company has created them yet. While Rolls Royce has offered the government to design one, it is conditional on them receiving a subsequent order worth GBP32 billion for 16 such reactors as well as the government paying half of the GBP400 million design cost.

Moreover, nuclear power plants are expensive and long-term investments and are considered to be one of the most expensive sources for power. Thus it is very important to evaluate their economic feasibility. While the government is bullish on the role of nuclear power in decarbonizing electricity, it is very important for large-scale projects to be economical, while small-scale projects still remain at a conceptual stage.

Electric vehicles

It is estimated that cars, vans, and other road transport are the single largest contributor to the UK’s carbon emissions, making up nearly one-fifth of all emissions emitted. Thus the government is committed to reducing carbon emissions produced by automobiles. To achieve this, the country plans to ban the sale of all new petrol and diesel cars and vans by 2030 (10 years earlier than initially planned). However, hybrid cars will be allowed to be sold till 2035.

The government has planned a support package of GBP2.8 billion for the country’s car manufacturing sector, which in turn is expected to create about 40,000 employment opportunities up till 2030. Of this, GBP1 billion will be used towards the electrification of vehicles, including setting up factories to produce EV batteries at scale. In addition to this, GBP1.3 billion is planned to be spent to set up and enhance charging infrastructure in the country by installing a large number of charge points close to residential areas, office and commercial spaces, highways, etc., to make charging as convenient as refueling. The government plans to have a network of 2,500 high-power charging points by 2030 and about 6,000 charging points by 2035. Lastly, grants are planned to the tune of about GBP582 million up till 2023 to reduce the cost of EVs (cars, vans, taxis, and two-wheelers) for the consumer. In addition to the investment by the government, private investment of about GBP3 billion is anticipated to trickle into the sector by 2026.

While this is considered to be a very important step in the right direction, it is estimated that it will still leave about 21 million polluting passenger vehicles on the UK roads by 2030 (in comparison to 31 million in 2020). Moreover, the government continues to allow the sale of hybrid cars for another five years beyond 2030, which means that carbon emissions-producing vehicles will still be added to UK roads even after the target dates set in the New Green Industrial Revolution plan.

Green public transport

In addition to reducing carbon emissions from passenger cars, the government also wants to make public transport more approachable and efficient. It plans to spend about GBP5 billion on public transport buses, cycling- and walking-related initiatives and infrastructure.

In addition, funding of GBP4.2 billion is planned on improving and decarbonizing the cities’ public transport network. This will include electrifying more railway lines, integrating train and bus network through smart ticketing, and introducing bus lanes to speed up the journey. The plans also include investment in about 4,000 new zero-emission buses in 2021, as well as funding two all-electric bus towns (Coventry and Oxford) and a completely zero-emission city center. While York and Oxford have shown interest in becoming the UK’s first zero-emission city center, the government has not yet formally announced the city for the same.

Improvements in public transport networks in other cities are also planned to bring them on par with London’s system. A construction of about 1,000 miles of segregated cycle lanes is in plans to encourage people to take up this mode of transportation for shorter distances.

While it is expected these investments will encourage people to use public transport more, the current COVID pandemic has created apprehensions when considering such shared transportation. Although this is expected to be a short-term challenge, it may be a slight damper to the government’s plan for the next year or so.

Jet zero and green ships

Apart from road transport, the government also aims at decarbonizing air and sea travel. It plans to invest GBP15 million in FlyZero – a study by Aerospace Technology Institute (ATI) aimed at identifying and solving key technical and commercial issues in design and development of a zero-emission aircraft. Such an aircraft is expected to be developed by 2030. In addition to this, the government plans to run a GBP15 million competition for the development of Sustainable Aviation Fuel (SAF) in the UK. The plans also include investing in upgrading airport infrastructure so that it can service battery and hydrogen fueled aircrafts in the future.

In addition to aviation, the government is also investing GBP20 million in the Clean Maritime Demonstration Programme to develop clean maritime technology.

While the plans to develop greener fuel for aircraft and ships is a step in the right direction, it is still somewhat of a long shot as a lot more investment is required into this than proposed. Moreover, the shipping industry in particular has shown little interest in wanting to reform in the past and it is likely that both the sectors will continue to follow international standards (that are high in carbon emissions) to remain competitive globally.

Greener buildings

The UK has a considerable number of old and outdated buildings that the government wants to put in the center of its Green Industrial Plan, thus making existing and new buildings more energy efficient. The plan is to slowly phase out carbon-heavy fossil fuel boilers currently used for heating buildings and instead promote the use of more carbon efficient heat pumps. For new buildings, an energy efficiency standard is to be developed, known as the Future Home Standard. To achieve this, the domestic production of heat pumps needs to be ramped up, so that 600,000 heat pumps are installed annually by 2028. This is expected to support about 50,000 jobs by 2030. In addition to this, the government is providing GBP1 billion to extend the existing Green Home Grant (launched in September 2019) by another year, which is aimed at replacing fossil fuel-based heating in buildings with more energy efficient alternatives.

While the subsequent shift to heat pumps from gas boilers will definitely help reduce the buildings’ carbon footprint, heat pumps are currently much more expensive and more difficult to install. Thus, the government must provide ongoing financial incentives for consumers to make the switch.

Carbon capture, usage, and storage

Carbon capture, usage, and storage (CCUS) technology captures carbon dioxide from power generation, low carbon hydrogen production, and industrial processes, and stores it deep underground, such that it cannot enter the atmosphere. In the UK, it can be stored under the North Sea seabed. A the technology has a critical role to play in making the UK emission free, a GBP1 billion investment is planned to support the establishment of CCUS in 4 industrial clusters by 2030 to capture 10Mt of carbon dioxide per year by 2030. Developed alongside hydrogen, these CCUS will create ‘SuperPlaces’ in areas such as the North East, the Humber, North West, Scotland, and Wales. The development of the CCUS is expected to create 50,000 jobs by 2030.

CCUS is a very new technology, with no large-scale or commercially successful projects operational across the world. While the technology has been proved in pilot projects, its feasibility is yet to be seen. Also, a significant amount of private investment will be required to carry through the proposed project. While some private players, such as Tata Chemicals Europe have begun constructing the first industrial-scale CCU plant (expected to capture 40,000 tons of CO2 per year) in Northwich, the government needs several more private players to step up to meet its ambitious targets.

Nature

In addition to the above mentioned programs, the government plans to safeguard and secure national landscapes as well as restore several wildlife habitats to combat climate change. To achieve that, it plans to reestablish several of the nation’s landscapes under National Parks and Areas of Outstanding Beauty (AONB), as well as create new areas under these two heads. The National Parks and AONB program is expected to add 1.5% of natural land in the UK and will help the government in reaching the target of bringing 30% of the UK’s land under protected status by 2030.

In addition to this, the government plans to invest GBP40 million in nature conservation and restoration projects, which in turn is expected to create several employment opportunities across the country. Moreover, it plans to invest GBP5.2 billion over six years into flood defenses, which will help combat floods and damage to homes as well as natural environment. This is also expected to create about 20,000 jobs up till 2027.

Green finance and innovation

The last agenda on the 10-point Green Industrial Revolution entails developing new sources of financing for supporting innovative green technologies. To this effect, the government has committed an R&D investment of 2.4% of its GDP by 2027. This will extensively be used towards developing high risk, high reward green technologies, which will help the UK attain net zero emissions by 2030.

Additionally, the government launched a GBP1 billion Net Zero Innovation Portfolio that will focus on commercialization of low-carbon technologies mentioned in the 10-point agenda, including development of floating offshore wind, nuclear advanced modular reactors, energy storage, bioenergy, hydrogen, greener buildings, direct air capture and advanced CCUS, industrial fuel switching, and other disruptive technologies. In November 2020, the government launched the first phase of this investment, GBP100 million, towards greenhouse gas removal and in the coming year it plans to invest another GBP100 million towards energy storage. It also plans to invest GBP184 million for fusion energy technologies and developing new fusion facilities. Moreover, GBP20 million will be directed towards development and trials of zero emission heavy goods vehicles.

Apart from this the government plans to issue the UK’s first Sovereign Green Bonds in 2021. These bonds, which are likely to be first of many, are expected to finance sustainable and green projects and facilitate the creation of ‘green jobs’ in the country. Furthermore, similar to the EU Green Deal, the government plans to implement a green taxonomy, which helps define economic activities into two categories – the ones that help limit climate change and others that are detrimental to the environment – to help investors make better investment choices.

EOS Perspective

The UK’s Green Industrial Revolution seems to be a comprehensive policy with a multi-pronged approach to tackle climate change, promote green technology and investments, and achieve net zero emissions by 2050. With Brexit in action, it seems like a worthy counterpart to the EU’s Green Deal, which the UK was initially a part of. Moreover, it is an important framework for the UK to show its commitment towards controlling climate change, especially with the country hosting the upcoming 26th session of the Conference of the Parties (CoP 26) to the United Nations Framework Convention on Climate Change summit in Glasgow in 2021.

However, currently the UK’s Green Industrial Revolution is not a legally binding policy document but more of a proposal, which would need to go through several legislative procedures to become binding. Moreover, while the plan is ambitious, it depends heavily on next generation innovative technologies that require hefty investments to achieve the targets. Thus, its success depends on whether the government is seriously committed and prepared to spend heavily on commercializing these technologies along with managing to attract significant amount of private investment to complement own efforts. While few aspects of the 10-point approach have already received investment from the private sector and first phase of funding from the government, it is yet to be seen if the UK’s ambitious net zero emission goals are truly feasible.

Beyond the Low-cost Price Tags – the Real Price of Fast Fashion by EOS Intelligence
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Beyond the Low-cost Price Tags – the Real Price of Fast Fashion

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Gone are the days when consumer bought a pair of jeans and wore it for years. Fast fashion culture has conditioned consumers to expect a constant stream of new clothing that feeds their desire to buy more in order to keep up with the changing trends. Owing to fast fashion, affordable clothes are being manufactured at a warp speed, worn, and quickly discarded, making clothes disposable commodities rather than keepsakes. About 100 billion clothing items are manufactured globally each year and consumption has increased by 400% in the last two decades. Fast fashion has undeniably democratized high fashion by providing affordable apparel for everyday shoppers but it comes at an enormous cost, not reflected in its bargain-basement price tags.

Fast fashion is the fashion now

Selling large quantities of inexpensive clothing has made fast fashion a dominant business model in the garment industry. Another reason for its popularity is the taste of luxury clothing that it offers to shoppers without paying the full price. Fast fashion brands, such as Zara and H&M, are able to produce low-cost mimics of high-end fashion brands. The moment a model walks down the ramp wearing clothes of luxury brands such as Louis Vuitton, fast fashion brands mass produce replicas of a similar design and sell them at astonishingly low prices.

While established luxury clothing brands take months to design and distribute a clothing item, Zara is able to design, produce, market, and distribute a new piece of clothing to its stores located across 93 countries in mere two weeks. This enormous efficiency in producing mass clothing at an economical format provides an edge to fast fashion companies that traditional clothing brands will always struggle to replicate.

Fast fashion has transformed dynamics of the whole fashion industry, changing the traditional four-season fashion calendar to 52 micro-seasons. Fast fashion companies such as Missguided launch about 1,000 new products monthly, while Fashion Nova rolls out 600 to 900 new styles every week.

The blindingly fast pace at which clothes are being manufactured and discarded has its consequences. The manufacturing process is environmentally damaging and speedy supply chains depend on underpaid and overworked factory workers.

Environmental cost of fast fashion

The environmental menace linked to manufacturing and consuming fast fashion is hidden across the lifecycle of each piece of clothing. The production process is tremendously polluting to begin with, as factories indiscriminately dump toxic chemical-laden wastewater into rivers and tonnes of greenhouse gases are emitted while manufacturing – about 1.2 billion tonnes of CO2 is emitted annually by the global textile industry, which is more than aviation and shipping industries combined.

Even the choice of fabric for manufacturing fast fashion garments is posing environmental risks. Proportion of synthetic materials, such as polyester in our clothing has increased two-fold since 2000, rising to 60% in 2019. These fibers are oil-based and a single polyester shirt has 5.5 kg of carbon footprint, as compared to 2.1 kg from a cotton shirt. Moreover, polyester generates vast amounts of greenhouse gases, sheds microfibers that cause plastic pollution in oceans, and when disposed, it does not naturally decompose, compounding the waste problem.

A major ramification of fast fashion is that clothes move from consumer’s wardrobes to garbage as fast as they are manufactured. It is likely that within 7-8 uses, a jeans or shirt would be discarded for clothing that is newer and trending. The shorter lifespan of garments is not only generating enormous amount of waste but is also putting strain on production resources such as water that is extensively used in the manufacturing process.

Globally, about US$ 400 billion worth clothing is discarded prematurely and 21 billion tons of textile is sent to landfills annually. The ecological cost associated with these garments is tremendous – 3,000 liters of water is required to manufacture one cotton shirt and a pair of jeans needs about 8,000 liters of water, almost the amount of water an average person drinks over two years is utilized in production of garments that will be quickly discarded.

Social cost of fast fashion

With rise of globalization, supply chains have become international, which has led to increased outsourcing of textile production to countries that offer low-cost labor. Fast fashion’s low price tags largely depend on even lower production costs. Hence, countries such as USA produce only 3% of its garments, while the rest is outsourced to developing countries, such as Bangladesh, India, Vietnam, etc.

Low-cost production means factory owners need to cut down costs, which is usually done at the expense of safety and results in providing appalling working conditions for factory workers. Fast fashion production uses 8,000 synthetic chemicals, several of those chemicals are carcinogenic affecting health of factory workers. Moreover, workers are constantly exposed to fumes of toxic chemicals, which pose serious threat to their lives.

Fast fashion frenzy has led retailers to indulge in unfair labor practices in an attempt to keep production costs low and simultaneously increase production. About 85% of textile factory workers are women, who work overtime and are highly underpaid. Lack of regulation has given way to exploitation of labor in countries such as Bangladesh, where retailers pay as little as US$ 2-3 per day to garment workers, a larger portion of them are engaged by fast fashion brands. Even in developed economies such as the USA, companies such as Fashion Nova have been found to pay employees far below the minimum wage – the brand was reported to pay US$ 2.77 an hour to its workers in Los Angeles.

Additionally, cases of child labor have been registered in countries including Bangladesh, Brazil, China, India, Indonesia, Philippines, Turkey, and Vietnam.

A move towards sustainable production

In the past decade, changing consumer attitudes associated with sustainability and corporate transparency have propelled fast fashion retailers to rethink impact of their production processes.

Notable steps have been taken by some of the largest fast fashion brands such as Zara and H&M. Zara aims to use 100% organic, sustainable or recycled material in its clothing line by 2025. Also, it has plans for its facilities not to produce any landfill waste by 2025. Currently, Zara has a sustainable clothing collection, Join Life, which uses sustainable raw materials such as organic cotton, tencel (cellulose fiber), or recycled polyester.

H&M also has a similar vision of using 100% sustainably sourced or recycled materials in its garments. It also aims to reduce water consumption and CO2 emissions in production processes. The company already has a clothing line, Conscious, which uses sustainable materials for manufacturing garments.

Both companies also claim to be striving to provide better working conditions for workers and pay fair wages.

Beyond the Low-cost Price Tags – the Real Price of Fast Fashion by EOS Intelligence

EOS Perspective

Thanks to fast fashion, for many consumers, what used to be a thoughtful and occasional purchase, has turned into a series of impulse buys at shorter intervals. The rate at which garments are being produced is not environmentally sustainable and putting profits ahead of workers’ welfare has led to abuse and exploitation of laborers globally.

Fortunately, the number of eco-conscious consumers is on the rise, a fact that has pushed fast fashion retailers to reevaluate strategies and focus on sustainable production. However, a question still remains how much of those sustainability pledges and greener production goals actually hold true.

Can fast fashion really be sustainable?

The fundamental problem lies in the business model of fast fashion that is based on selling more products. The industry’s profitability hinges on luring consumers to fresh stream of new clothes and designs that are launched almost weekly. A business model that is based on over-production is far from being sustainable.

Fast fashion companies are often criticized for greenwashing and distracting consumers from their harmful practices. For instance, H&M’s recycle program encourages shoppers to donate their old clothes, which H&M claims to recycle to create new textile. However, only 0.1% of all collected clothing is believed to be actually recycled, while the rest is most likely dumped in landfills. H&M’s clever marketing tactics make shoppers believe that it is a green company, but in reality, H&M offers discount vouchers to shoppers in exchange of their donated clothes, which pushes consumers to buy even more clothes.

Claims made by fast fashion companies on using 100% sustainable fabric have been questioned by various experts and critics, as all fabrics utilize enormous amount of natural resources and energy in the production process. Fast fashion companies might be shifting to fabrics with lower environmental profile but it cannot be completely sustainable, as claimed.

Moreover, H&M and Zara’s sustainable clothing lines, Conscious and Join Life, have been called out for misleading consumers with vague sustainability claims. It is unclear to consumers why these companies are labelling their clothing lines as sustainable. The companies have never defined terms such as ‘sustainably sourced’ or ‘sustainable materials’, used to describe their clothing lines. Hence, it is ambiguous how they source the materials, what is meant by sustainable materials, and what portion of garments they actually constitute.

While making an effort to use environmentally-friendly materials is definitely a step towards better production practices, it is not enough to compensate for the overall damage that fast fashion companies impose on the environment, hence, consumers also need to do their part.

Time to slow the fast fashion

Fast fashion thrives because companies create demand for clothing. To curb this demand, consumers need to make changes in shopping behavior to reduce their own environmental footprint.

A conscious choice needs to be made to purchase less clothes and to use the existing ones for longer time period. Solely wearing a garment for nine months longer can reduce carbon footprint of that garment by 30%.

Buying used clothes is another way to reduce environmental impact. Wearing used garments is a sustainable way to recycle clothes which would otherwise be discarded in landfills. If every shopper purchased one used item in a year, it could save CO2 emission equivalent to pulling out half a million cars from roads for a year.

Nonetheless, if consumers make mindful choices and fast fashion brands commit to doing business differently, we would be able to produce and consume less.

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Decarbonization of Steel Industry: A Rocky Road Ahead

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Continuously rising carbon dioxide (CO2) emission is a leading cause of climate change which is considered to be one of the most pressing issues the world is facing today. Being one of the biggest contributors to CO2 emission, steel industry has garnered wide-spread criticism over the years. Several alternatives to conventional steelmaking process have been developed in an effort to reduce CO2 emission, however, the question is whether the producers of this shining grey alloy are ready to face the challenges in implementation of cleaner technologies.

Steel industry strives to move towards a low-carbon future

Global crude steel production increased from 1,808.6 million tons in 2018 to 1,869.9 million tons in 2019, registering 3.4% year-on-year growth. World Steel Association indicated that, on average for 2018, for every ton of steel produced, 1.82 tons of CO2 were emitted. In the same year, steelmaking accounted for 7% of the total CO2 emissions globally.

UN Paris agreement on climate change, inked in 2015, outlines a global framework to ensure global temperatures do not rise above 2 degrees Celsius compared to pre-industrial levels. To align with the goals set out in the Paris agreement, the steel industry will be required to reduce its CO2 emissions by 65% by 2050, as compared to 2014 emission levels.

Leading steel producers along with other stakeholders in the value chain, including automotive giants, banking and financial institutions, raw materials suppliers, and environmental organizations, came together in 2016 to establish ResponsibleSteel, an initiative to develop global standards and certification program aimed at reducing carbon emission in the steelmaking process and improve sustainability. Besides ArcelorMittal, the biggest steel producer in the world and one of the founding members of the ResponsibleSteel initiative, other steel producers such as Aperam, BlueScope Steel, Outokumpu, VAMA, and Voestalpine have also joined the initiative.

Alternative technologies to reduce CO2 emission at every stage of steelmaking process

Steel is produced either from iron ore or scrap. Conventionally, ore-based steel is produced in blast furnace-basic oxygen furnace (BF-BOF) which is undoubtedly the most carbon-intensive steelmaking process. This is because BF-BOF route uses coking coal as reducing agent as well as source of energy. World Steel Association indicated that, in 2018, coal accounted for about 90% of a BF-BOF’s energy input, while 7% energy input came from electricity, and remaining from natural gas and other sources. Overall, for every ton of steel produced through BF-BOF route, about 2.3 tons of CO2 is emitted.

To reduce CO2 emission in BF-BOF route, it has been proposed to substitute coking coal with biofuel. Biofuel is also carbon-based but it does not contribute to greenhouse gases upon combustion. Hence, its impact on the environment is comparatively lower. By using biofuels in BF-BOF, the CO2 emissions can be almost halved.

Moreover, combining BOF route with Carbon Capture and Storage (CCS) technology can also help to reduce CO2 emission

by almost 60%. CCS technology allows to capture the CO2 emissions pro­duced from the use of fossil fuels in steelmaking process, thus preventing the CO2 from entering the atmosphere. CCS technologies are quite advanced and can be retrofitted with the existing infrastructure used for BF-BOF production processes.

Direct reduced iron (DRI) is another steelmaking technology in which the metal is reduced directly from the ore in solid state without the need to melt it. DRI route generally uses natural gas as reducing agent, which reduces the carbon emission by about 50% as compared to BF-BOF route. About 5% of the global steel production is done through DRI route.

Electric Arc Furnace (EAF) is a dominant technology used to produce recycled steel from scrap. EAF are smaller and less expensive than BF-BOF. Moreover, in case of EAF route, coking coal is not consumed as a reducing agent, and thus the CO2 emission is much lower. Further, as per World Steel Association estimates, in 2018, for EAF route, electricity was the main source of energy accounting for 50% of the total energy input, followed by natural gas which accounted for 38% of energy input. In the same year, coal represented only for 11% of the total energy input for EAF route. EAF emits only about 0.4 ton of CO2 per ton of steel produced. The CO2 emission can be further reduced in the EAF route by using zero-carbon sources for electricity.

There are a few other technologies which are still in the research phase, but have the potential to provide a breakthrough in future. For instance, research is ongoing on use of hydrogen in place of coking coal, as reaction of hydrogen with the iron ore generates water vapor as a by-product instead of CO2. Several leading steel companies including SSAB, ArcelorMittal, and Thyssenkrupp Steel are exploring and conducting feasibility studies to test this new concept. Another technology being explored involves reduction of iron ore through direct electrolysis at temperatures of about 1,600 degrees Celsius. This technology is already being widely used in aluminum production, but it is still in early phase of research for steel production.

Challenges in implementation

Eco-friendly steelmaking process is technically achievable but there are several challenges in implementation at commercial scale. Thus, steel industry lacks the incentive to adopt environment-friendly low-carbon technologies in the current business environment.

Even though a number of alternatives to BF-BOF route have been developed for ore-based steel production, about 95% of the ore-based steel is still being produced through BF-BOF route. The industry has been making constant efforts to make changes and improvement in BF-BOF process with a view to reduce carbon emissions. For instance, the replacing of coking coal with biofuel in BF-BOF route is a mature technology, but feasibility to implement this on large-scale depends on availability of biofuel, which varies from region to region. Thus, countries such as Brazil that have large biofuel resources have commercial-scale biofuel-based BF-BOF steel production, but it is not feasible for countries that do not have sufficient biofuel resources.

Similarly, DRI technology uses mainly natural gas as input and as the natural gas availability varies significantly from region to region, the feasibility of implementing DRI technology depends on the location.

CCS seems to be a promising alternative but it demands a large investment in construction of infrastructure for storage and transportation of CO2. A study released by Global Carbon Capture and Storage Initiative (GCCSI) in 2017 indicated that costs for capturing CO2 from steel furnaces could be estimated around US$65-US$70 per ton of CO2. For steel producers operating on competitive margins, this is a significant cost; thus, they seek strong incentives or policy reforms from their governments to support their investment in CCS. At present, only a handful of countries including, the USA, UK, Canada, Australia, and Denmark have CCS-specific policies and these policies vary significantly from country to country. Since steel is a globally traded commodity, the difference in government policies and framework may impact the competitiveness of the steel producers. Thus, lack of global regulatory framework for CCS is a major barrier in wide-scale implementation of the technology.

Scrap-based steel produced using EAF technology accounts for over one-fourth of the total global steel production and it is less carbon-intensive than ore-based steel. Hence, in order to keep the CO2 emissions in check, it is essential to increase the contribution of scrap-based steel in fulfilling the overall steel demand. But the quality of recycled steel is low compared to primary steel produced directly from iron ore, which makes it unsuitable for some specific applications such as construction. Moreover, steel scrap generally has high copper content which becomes problematic during the recycling process because it causes cracks. Application of such type of recycled steel is extremely limited. In order to give a boost to production of recycled steel over ore-based steel, it is important to overcome these downcycling problems.

Decarbonization of Steel Industry A Rocky Road Ahead by EOS Intelligence

EOS Perspective

While there are several challenges in implementation of alternative technologies in steelmaking process to reduce CO2 emission, steel producers are under pressure to act in wake of rising carbon prices. 86% of the industry’s production comes under the purview of existing or planned carbon pricing markets.

A study published in July 2019 by CDP, a non-profit environmental advocacy group, pointed out that the world’s 20 largest publicly-listed steel companies, which together account for over 30% of the global steel production, could suffer an average loss of 14% if the carbon price rise to US$100 by 2040. The report also indicated that about 60% of the companies have set some target for carbon emission reduction, of which, target of only two companies align with the Paris agreement goals. The 20 companies under study are expected to cumulatively reduce the CO2 emissions by less than 50% by 2050, which is much less than the target of 65% reduction in CO2 emission required to meet the Paris agreement goals. This clearly shows that the steel producers are underprepared to align with the global climate change goals. The need of the hour is to embrace radical technology changes, but high cost, limited resources, and lack of unified and global policy framework are the main barriers disincentivizing the steel industry to move towards low carbon future.

However, with the support of the governments, technology innovators, and other stakeholders, some steel giants are working on several green initiatives to reduce the CO2 emissions. Most pilot projects are concentrated in Europe, as companies in this region are receiving immense support from the European Commission in view of its goal to make EU carbon neutral by 2050. The table highlights key projects undertaken by the leading steel companies to move towards low-carbon future.

Decarbonization of Steel Industry A Rocky Road Ahead - projects by EOS Intelligence

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The EU Green Deal – Good on Paper but Is That Enough?

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The EU, which has always been ahead of the curve in tackling climate change and ensuring emission control, has rolled out a new EU Green Deal in December 2019. The Green Deal is the most ambitious environmental policy devised by the EU and encompasses several targets and policy measures that will require a complete overhaul in how business across sectors is currently done in the region.

In the beginning of December 2019, European Commission President, Ursula von der Leyen, unveiled a suite of policies known as the EU New Green Deal and called it Europe’s ‘man on the moon moment’. EU’s Green Deal is aimed at decarbonizing the economy and encompasses a host of policy measures including a plan to ensure EU reaches net-zero emissions by 2050.

To this effect, it has also increased its carbon emission reduction targets from 40% to 55% for 2030. This is the ubiquitous goal for the Commission and all its measures and policies are to be aligned to achieve this objective. Thus, the EU Commission is expected to review and align laws and regulations, such as the Renewable Energy Directive, Energy Efficiency Directive, and Emissions Trading Directive among many others, over the next couple of years to ensure that they are tuned to support the ambitious climate goals. Moreover, taxation will also be aligned with climate objectives to ensure effectiveness.

Policy measures

In order to achieve this objective of carbon neutrality, the EU Commission is focusing on energy efficiency since the production and use of energy across the EU states accounts for 75% of EU’s greenhouse gas emissions. The EU member states are revising their energy and climate plans to ensure higher dependence on renewable sources (especially offshore wind energy production) and phasing out coal and gas-based energy. Moreover, the Commission has also guided member states to review and update their energy infrastructure to ensure the use of innovative and energy-efficient technologies such as smart grids and hydrogen networks.

The Commission is also working towards adopting a new EU industrial strategy along with a new circular economy action plan. The plan will focus on decarbonizing and modernizing several energy-intensive industries, such as steel, chemicals, and cement. It will also include a ‘sustainable product policy’ that will prioritize reducing and reusing materials before recycling them. Moreover, while the circular economy action plan will be applied across all sectors, it will be most relevant for resource-intensive sectors such as textiles, construction, electronics, and plastics.

The plan will focus on fostering new business models that drive sustainable use of resources, set regulations and minimum standards to prevent environmentally harmful products from being sold in EU markets, as well as set a regulatory framework to ensure that all packaging in the EU is reusable or recyclable in an economically viable manner by 2030. In addition to this, the Commission aims at achieving ‘clean steelmaking’ by 2030 by using hydrogen for the process and introduce new legislation by 2020 to ensure that all batteries are reusable and recyclable.

Understanding that construction, use, and renovation of buildings account for a significant part (about 40%) of energy consumed in the EU, the Commission aims at improving energy efficiency in this sector by focusing on more frequent renovations. A quicker renovation rate helps improve the energy performance of buildings and is effective in lowering energy bills and reducing energy poverty. Currently, the annual renovation rate of buildings in the EU states ranges between 0.4% and 1.2%. However, the Commission is looking to at least double the renovation rate to reach its energy efficiency and climate objectives.

In addition to this, the Commission is also working towards curbing carbon emissions from transportation, which accounts for about 25% of EU’s total greenhouse gas emissions. In order to achieve carbon neutrality by 2050, the current transport emission levels would be needed to be cut down by about 90%. To attain this, the Commission has planned for significant investment in boosting electric vehicles and plans to deploy 1 million public recharging stations across the EU states by 2025. Moreover, in July 2021, the Commission plans to revise the legislation on CO2 emission performance standards for cars and vans to achieve its target of zero-emission mobility by 2025.

With regards to commercial transport, the EU Commission aims at pushing automated and digitized multimodal transport. It aims at shifting 75% of inland freight currently carried by road to rail and inland waterways. Moreover, it aims at deploying smart traffic management systems and sustainable mobility services that will facilitate a reduction in congestion and pollution.

The EU Green Deal – Good on Paper but Is That Enough by EOS Intelligence

The Commission also plans to align agriculture and food production with its climate goals. To this effect, the Commission is expected to present a ‘Farm to Fork’ strategy in spring 2020, which aims to introduce and strengthen policies in the agriculture and fisheries space so that they are well equipped to tackle climate change and preserve biodiversity. As per the Commission’s new proposal, 40% of the agricultural policy’s budget and 30% of the maritime fisheries fund within the EU 2021-2027 budget will contribute to climate action and objectives. In addition to this, the ‘Farm to Fork’ strategy aims at significantly reducing the use of chemical pesticides, fertilizers, and antibiotics and in turn increase the area under organic farming.

In addition to agriculture, the EU Commission also aims at preserving and restoring biodiversity. To this effect, the Commission will present a new ‘Biodiversity Strategy’ by March 2020, which will be shared at the UN Biodiversity Summit to be held in China in October 2020. The biodiversity strategy is expected to be brought to action in 2021 and will cover measures aimed to address the key drivers of biodiversity loss such as soil and water pollution. The policy will also encompass a new EU forest strategy that will focus on afforestation, forest preservation, and restoration, which in turn will increase CO2 absorption and aid EU’s ambitious climate goals.

Lastly, the EU Commission plans to reach a ‘pollution-free environment’ by 2050. For this purpose, it plans to review and revise measures that monitor pollution from large industrial installations. Moreover, to ensure a toxic-free environment, the Commission will present a sustainable chemicals strategy that will protect the environment (and citizens) against hazardous chemicals and encourage innovation for the development of safe and sustainable alternatives.

Global trade

The EU’s Green Deal is ambitious, with measures in place to achieve this goal. However, the economic bloc cannot realize this goal in isolation. To get other countries to act on climate change and also prevent the influx of cheaper imports from countries that do not have similar strict policies on carbon emissions, the EU plans to propose a border adjustment carbon tax. This carbon tax is expected to be introduced by 2021 with an initial focus on industries such as steel, cement, and aluminum. The tax may hamper imports from the USA and China as well as smaller countries that cannot afford such climate-based policy measures. However, there is still some ambiguity regarding the tax as it may breach WTO rules, which require equal treatment for similar products, whether domestic or international.

Investment

To achieve this arduous goal, the EU will require a significant amount of additional investment. For starters, the Commission will require additional investment of about EUR260 billion (~US$288 billion) per annum only to achieve the 2030 goal (of reducing carbon emissions by 55%). This is about 1.5% of the EU’s 2018 GDP. Thus it is safe to assume that the investment required for achieving zero emissions by 2050 will be much higher.

The magnitude of the investment requirement will call for participation from both the public and private sector. To achieve this, the commission will present a Sustainable Europe Investment Plan, which will help meet the additional funding needs. The Plan will provide dedicated financing to support sustainable projects in addition to building a proposal for an improved regulatory framework. The commission has also proposed to dedicate at least 25% of the EU’s long-term budget towards achieving climate-based objectives. Moreover, the European Investment Bank (EIB), which has about EUR550 billion funds in its balance sheet, has also pledged to increase its lending towards green projects, thereby becoming a climate bank of sorts. While EIB is already in the process to phase out financing fossil fuel dependent projects by 2021, the bank aims for 50% of its financing to go towards green projects by 2025 (up from 28% in 2019).

In order to ensure an easy and fair transition to climate neutrality, the Commission plans to mobilize a EUR100 billion fund to help regions most dependent on fossil fuels or carbon-intensive sectors. The fund, also called the ‘Just Transition Mechanism’ fund will be funded from the EU’s regional policy budget as well as the EIB. The fund will be used primarily to support and protect citizens most vulnerable to the transition by providing access to re-skilling programs, technical assistance, jobs in new sectors, or energy-efficient housing.

Moreover, the Horizon Europe research and innovation program will also contribute to the Green Deal. As per a new agreement between the EU members in May 2019, 35% of the EUR 100 billion (US$110 billion) research budget for 2021-2027 will be used for funding clean tech and climate-related projects.

With regards to the private sector participating in this green transition, the commission will present a Green Financing Strategy in Q3 2020, which is expected to incentivize the private sector to invest in sustainable and green projects.

To this effect the Commission has created a classification system that for the first time defines what is considered as ‘green projects’ or ‘sustainable economic activities’. This classification is also termed as the ‘green list’ or ‘taxonomy’. This will help redirect private and public capital to projects that are actually sustainable and in turn help the transition to climate neutrality and prohibit ‘greenwashing’, i.e. the practice of marketing financial products as ‘green’ or ‘sustainable’ when actually they do not meet basic environmental standards.

Moreover, it will be made mandatory for companies and financial institutions to provide full disclosure on their climate and environmental impact to clearly lay out how their portfolio stands with regards to the set taxonomy criteria. This is expected to not only increase the transparency of the financial markets but also steer more private investments towards financing an economy that is aligned towards a green transition.

 

The Taxonomy Criteria

The EU Commission set out a basic framework to define what can be termed as a sustainable economic activity. It sets out six environmental objectives and four requirements that need to be complied with in order to make it to the green list.

Six objectives are as follows:

1.       Climate change mitigation

2.       Climate change adaptation

3.       Sustainable use and protection of water and marine resources

4.       Transition to a circular economy

5.       Pollution prevention and control

6.       Protection and restoration of biodiversity and ecosystems

 

Four requirements that need to be met to qualify are as follows:

1.       Must provide a substantial contribution to at least one of the six environmental objectives

2.       Must not provide ‘any significant harm’ to any of the other environmental objectives

3.       Must have compliance with robust and science-based technical screening criteria

4.       Must have compliance with minimum social and governance safeguards

While this provides a general framework, detailed rules and thresholds along with a list of sustainable economic activities will be assessed and developed based on recommendations from a ‘Technical Expert Group on Sustainable Finance’, which is advising the European Commission on this matter.

 EOS Perspective

The Green Deal makes EU the world’s largest economic bloc to adopt such ambitious measures that aim to cease or offset all emissions created by them by mid-century. As per climate scientists, this is necessary to ensure that global temperatures do not rise by more than 1.5-2˚C above the 1990 levels.

While these goals sound promising, they are rarely achieved because they are usually not binding. However, in this case the commission announced that the net-zero emission target would be made legally binding. While that does make achieving the Green Deal objectives more promising, many experts still remain skeptical about the bloc’s capability to achieve it. This is given the fact that the EU has failed to meet 29 (out of 35) environmental and climate targets for 2020. These include energy savings, air, water, and soil pollution, etc.

Moreover, the plan can only be achieved if the EU Council, Commission, and the Parliament, come together and work in tandem and in a timely manner and also work individually with member states to ensure guidelines are converted into actions. For instance, currently CO2 are taxed at different levels across member states (EUR 112 (US$123) per ton in Sweden, EUR 45 (US$50) per ton in France and tax-exempt in Germany). To get all member states to agree at a common point and have a pan-EU strategy is a difficult task. Thus, while the EU has devised an all-encompassing strategy and dedicated significant funds to the same, results will only materialize if there is inclusive and credible implementation of the plans.

In addition to this, there is also some criticism of the policy at a global level, with some nations indicating that it has more to do with protectionism rather than climate goals, owing to its policy on border adjustment carbon tax. Since the EU has more measures and flexibility to cut emissions in its own region, it creates an unfair disadvantage for its trade partners (some of who are still in the developing stage and cannot afford such measures). Moreover, given the technical and political complexities of the carbon tax (with regards to WTO and other trade treaties), it is unlikely that it will be implemented before 2024, which is when the current President Ursula von der Leyen’s term gets over. This will further make its implementation dicey.

However, all being said, the EU Green Deal is a policy in the right direction. With the blueprints being laid down, now it all depends on the implementation. While few measures may be difficult to achieve, there is a lot of unanimous backing for green finance. An increasing number of investors is moving away from ‘brown’ assets towards climate-friendly investments. Irrespective of the outcome or success of the Green Deal, green investments are definitely the future. Thus companies, both within the EU as well as globally, must look at innovating their processes as well as products/services to align them with climate goals to lure both public and private funding in the long run.

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