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Meta Powers Towards Net Zero with Carbon Removal Projects

Meta Powers Towards Net Zero with Carbon Removal Projects

Any organisation worth their sustainability salt knows that reaching net zero emissions in operations alone is not enough

Decarbonization must extend beyond offices and factories to include Scope 3, from the emissions caused by suppliers to those created by employees.

For Meta, the world’s fifth-biggest tech company, this challenge is being met with ambitious targets and bold, meaningful action.

Having already hit net zero emissions in global operations in 2020, the social media giant now has its sustainability sights set on achieving net zero value chain emissions by 2030.

This is quite the challenge, given 99% of Meta’s carbon footprint came from Scope 3 in 2022 – and this continues to rise.

“We know that reaching net zero emissions across our value chain will not be an easy task,” Rachel Peterson, Vice President of Data Centre Strategy at Meta said in the company’s 2023 Sustainability Report.

“Right now, our Scope 3 emissions are increasing and will continue to do so as we work to support the global demand for the services we provide.”

 

Meta Tackles Hard-to-Abate Sectors with Carbon Removal Projects

Meta acknowledges that reaching this goal requires a significant shift in how it builds infrastructure and operates its entire business – and the 20-year-old company is prioritising efficiency and circularity in its business decisions and embracing low-carbon technology to operate with a lower emissions footprint.

For example, through its supplier engagement programme, Meta is working to decarbonise its supply chain and enable at least two-thirds of its suppliers to set SBTi-aligned reduction targets by 206.

However, there are some emissions from hard-to-abate sectors the Facebook owner knows will be difficult to reduce by the end of the decade.

And so to tackle this, Meta has turned to carbon removal projects, the third pillar in its high-level emissions reduction strategy.

In a white paper outlining its Net Zero Strategy, the company says investing in value chain emissions reductions projects is necessary to address sources it can’t directly influence – like companies or processes used to extract and process the copper in data centre hardware or mechanical electrical equipment.

“These projects offer a significant opportunity to decarbonise our business at pace and scale require to achieve our 2030 reduction target,” the paper states.

For Meta, a diverse approach to carbon removal that includes both nature-based and technological approaches is crucial – not only to ensure near-term climate impact but to support carbon removal solutions for the future.

This strategy involves the purchase of credits from projects that align with Meta’s principles, from reforestation to investment in direct air capture technology.

 

Nature-Based Solutions in Mitigating Carbon Emissions

Since 2021, the social media giant has supported numerous nature-based carbon removal projects, from Australia to Kenya, including increasing forest carbon stock of community ejido forests in Oaxaca and increasing stored carbon via protection of forests that provide habitat for mitigating salmon in California.

And demonstrating its continued commitment to investing in nature-based solutions to mitigate carbon emissions, Meta recently signed a major carbon credits deal for 6.75 million carbon credits with Aspiration, a leading provider of sustainable financial services.

These credits hail from a myriad of ecosystem restoration and natural carbon removal approaches, including native tree and mangrove reforestation, agroforestry, and the implementation of sustainable agricultural practices.

Meta’s role in the voluntary carbon market extends beyond purchasing credits from projects to supporting new project development through financing and encouraging the evolution of standards that bring more certainty to the market.

Among the ways Meta is driving development in the sector is through collaborative action that will “aggregate the resources of multiple companies to create rapid change at scale”.

This includes a collaborative pledge to develop carbon projects that centre Indigenous leadership.

Through 1t.org, the National Indian Carbon Coalition and Meta have pledged to support and promote a model of carbon projects that centre on the leadership, traditional ecological knowledge, and vision of Indigenous Peoples for themselves and their land.

Among other collaborative projects:

  • Participation in the Business Alliance to Scale Climate Solutions (BASCS), which provides a platform for businesses and climate experts to meet, learn, discuss and act together to improve climate solutions.
  • Collaboration with the World Resources Institute to develop a method to map forest canopy height↗ at individual tree-scale using a new Meta AI training model. We have mapped forest canopy in California and São Paulo, Brazil, and are making the data public and freely available

 

 

Meta’s Role in Scaling Carbon Removal Technologies

In further driving development in the sector, Meta joined forces with other big tech companies in 2022 to accelerate the development of carbon removal technologies by guaranteeing future demand.

While some say focusing on carbon capture is a distraction to the real goal of reducing greenhouse gas emissions, Meta argues that both emissions reductions and carbon dioxide removal are needed.

And climate science backs this up.

Scientists say removing the carbon emissions that we have already pumped into the atmosphere is necessary if we are to avoid the 1.5-degree rises in global temperature set out in the Paris Agreement.

Launched in 2022, Frontier is a US$925 million joint commitment between Meta, Stripe, Shopify, McKinsey Sustainability and Alphabet – more recently bolstered with four new companies – Autodesk, H&M Group, JPMorgan Chase and Workday – committing a combined US$100 million.

Frontier helps its member companies purchase CO2 removal via pre-purchase agreements or offtake agreements. The goal is to spur the development of a new industry by providing a novel source of funding that isn’t based on debt or equity investments, but on actual product purchases before the technology is fully available at scale.

So far, Frontier has spent $5.6 million buying nearly 9,000 tonnes of contracted carbon removal from 15 different carbon dioxide removal startups.

Among these, RepAir uses electrochemical cells and clean electricity to capture carbon dioxide from the air, while Living Carbon is a synthetic biology startup working on engineering natural systems to remove carbon dioxide.

With this strategy, Meta is helping to expand the voluntary carbon market, overcome barriers to scale, and at the same time achieve its own ambitious net zero goals.

 

 


 

 

Source

Can we really fuel planes with fat and sugar?

Can we really fuel planes with fat and sugar?
As the politician next to him took out his phone for a selfie, Virgin Atlantic chairman Richard Branson peered into the camera, grinned, and did a double thumbs-up. The world’s first commercial airliner to cross the Atlantic using 100% biofuel had just landed in New York.

Virgin Atlantic’s Boeing 787 was powered not by fossil fuels, but plant sugars and waste fats – a form of so-called Sustainable Aviation Fuel, or SAF. A British Conservative MP posted his smiling selfie with Branson to the social media site X, formerly known as Twitter, and declared the flight “a significant UK aviation achievement”. (The flight was partly funded by the UK government.)

But not everyone is so sure that this represents the future of flying. The biomass required to make biofuel can come from a broad range of sources – plant material, food waste or even algae. While biofuels release CO2 when burned, some consider them a sustainable option because they are renewable and biomass removes some CO2 from the atmosphere as it grows.

The problem is the sheer volume of biomass needed to power an industry as fuel-hungry as aviation. One academic paper published in August estimated that, if you were to grow sugar cane and use that to make biofuels for commercial jets, you’d need 125 million hectares (482,000 sq miles) of land – roughly equivalent to the surface area of the states of California, Oregon, Washington, Nevada and Louisiana combined.

That’s a lot of land. And if you tried using waste sources of biomass alone, you wouldn’t have nearly enough to keep all the world’s planes in the air, say some experts. The airline industry is currently responsible for about 3.5% of greenhouse gas emissions, roughly the same as the entire country of Japan, which is one of the world’s highest emitters.

Proponents of SAF argue that the fuel could make flying much greener than it is currently. It’s just that scaling SAF production up is a gigantic challenge.

“What they’re doing is quite important, they’re just demonstrating that the flight is perfectly safe, there are no problems with the fuel,” says David Lee, a professor of atmospheric science at Manchester Metropolitan University, who studies the impact of aviation on the climate, and who was a co-author of the paper that investigated the feasibility of transitioning to SAF. By switching to SAF over fossil fuels, you can achieve carbon savings of around 70%, says Lee, though this depends on the specific source of biomass you choose.

Lee notes that international regulations don’t actually allow for flights using more than 50% SAF as fuel at the moment, so Virgin Atlantic’s hop across the pond required a special permit from the UK’s Civil Aviation Authority.

It all adds up to a successful proof-of-concept. But it would be difficult to power more than one glitzy flight with 100% SAF today. “You just can’t get hold of the damn stuff,” says Lee. “If we want to do engine tests, we have difficulty purchasing the fuel.”

It’s an issue that Virgin Atlantic itself acknowledges. SAF accounts for just 0.1% of all aviation fuels consumed. The International Air Transport Association predicts that the airline industry will require 450 billion litres of SAF by 2050 – only 300 million litres were produced in 2022. However, to date, SAF has helped to fuel hundreds of thousands of flights – at least as part of a blend with fossil fuels. In the US, SAF production is estimated to reach 2.1 billion gallons (7.9 billion litres) annually by 2030 – well below President Biden’s target of producing 3 billion gallons (11.3 billion litres) of the fuel annually by that year.

Ramping up SAF production is difficult. In a Royal Society report published earlier this year, Lee and colleagues analysed the UK’s potential to produce its own SAF for commercial flights. “We concluded that there wasn’t really enough land,” he says. Around the world, competition for land is fierce. We will need an additional 70-80 million hectares of cropland by 2030 globally, estimates management consultants McKinsey & Company – that’s an area bigger than the state of Texas. The vast majority of this new cropland (70% ) is needed to grow crops for feeding livestock. Only 10% of the total area required would go towards biofuel production in McKinsey’s scenario.

Some SAF comes from waste fats, for example, from food production processes. Relying on such sources could, in theory, lessen the need for expanding crop cultivation just to make biofuels. But there’s far too little waste available, says Hannah Daly at University College Cork, in Ireland. Even if you gathered up all the biomass waste available in the Republic of Ireland, she says, it would only allow you to replace about 4% of fossil fuels consumed by the country. The calculation would be similar in other countries, she suggests.

“There’s substantial risk that that ‘waste cooking oil’ could be fraudulently relabelled virgin palm oil,” says Daly. “That could be contributing to deforestation.”

Some alternatives to SAF, including hydrogen fuel and electrification, are not currently viable options for large commercial flights.

Chelsea Baldino, senior researcher at the International Council on Clean Transportation and her colleagues have calculated that SAF made from waste sources in the UK would only be able to meet a maximum of 15% of UK jet fuel demand in 2030. The ICCT also estimates that just 3.3-4.2 billion gallons of SAF could feasibly be produced domestically in the US by 2030, while in 2019, US airlines used 23 billion gallons of jet fuel.

“Biofuels providing the significant greenhouse gas savings needed to decarbonise jet fuel will not be available at scale,” she says. E-fuels – synthetic versions of fossil fuels made using renewable energy – will be “essential”, according to Baldino. E-fuels require a lot of energy to produce but they have the advantage of not introducing additional carbon into the atmosphere, as would be the case with newly extracted fossil fuels.

Josh Moos, an economist at Leeds Beckett University in the UK, lambasts Virgin Atlantic’s 100% SAF flight as “greenwashing”.

“The science would suggest that there really is no such thing as sustainable aviation,” he says. It would be better to reduce demand for flights globally, perhaps by placing a levy on frequent flyers or by increasing taxes on the airline industry, he argues. Moos acknowledges that such measures are “politically and socially unpalatable”, though both he and Daly suggest they might be necessary if we are to meet net zero goals.

A spokeswoman for Virgin Atlantic says, “We are committed to achieving Net Zero 2050 and have set interim targets on our pathway to get there, including 10% Sustainable Aviation Fuel by 2030.”

She notes that the 100% SAF flight from London to New York relied entirely on waste biomass and that the demonstration was “an important step, but not the end goal” in the firm’s efforts to scale up its use of SAF in the coming years.

Some sceptics remain unconvinced. Daly, for one, points out that even if SAF does replace an increasing proportion of fossil fuels for aviation purposes, the overall benefit could be wiped out by the rapidly growing airline industry. Eurocontrol, a European air safety organisation, predicts that the annual total number of flights worldwide will reach 16 million by 2050 – an increase of 44% on 2019’s figure.

“I would love guilt-free flying myself – but it’s just not possible,” says Daly.

 

 


 

 

Source   BBC