Carbon Capture to Urgently Scale to 7 Billion Tonnes/Year to Hit Net Zero

To achieve global net zero goals by 2050, the world has to urgently fast track capturing 7 billion tonnes of carbon dioxide per year, according to Wood Mackenzie research. 

According to their analysis, the current pace of carbon removal is on course to reach only 2 billion tonnes of CO2 by 2050 (base case scenario). This carbon capture capacity aligns with the 2.5°C global warming scenario. 

Current and Planned Carbon Capture and Removal 

Achieving the critical 1.5°C warming threshold requires 7 billion tonnes of carbon capture and removal by midcentury.

Speaking for Wood Mackenzie during their Carbon Capture, Utilization and Storage (CCUS) Conference, the research head Mhairidh Evans said that:

“We need a huge amount of carbon to be captured out of our industries and the power sector to decarbonise the last miles that can’t be easily reached by green electrification or alternatives… To come close [to 1.5°C], we need to get shovels in the ground quickly.”

Wood Mackenzie is currently monitoring planned global CCUS capacity at 1,400 million tonnes of CO2 per annum. This includes all kinds of projects: carbon capture, transportation, and storage, with the U.S. leading the way with 33%.

The UK comes second with 14% of the projects, followed by Canada with 12%, with the rest shown in the chart below.

Evans further noted that the U.S. Inflation Reduction Act 45Q tax credit provides significant support for polluters to decarbonize. Moreover, the Infrastructure Investment and Jobs Act also helped companies in developing the infrastructure essential for CO2 transport and storage. 

Add to this the vast geological carbon storage resources available in the country for companies to tap. All these make the U.S. well-positioned for strong growth in the CCUS market. 

Still, the analysis suggests that delaying actions or waiting for CCUS projects to become economically viable can make it more difficult to meet climate goals. This can further cause more economic implications due to the climate crisis.  

Key CCUS Opportunities and Challenges

The United Nations’ IPCC and other renowned organizations believe that CCUS has a big role in avoiding carbon emissions that warm the atmosphere. The panel argues that capturing carbon and locking it away for good is key to achieving the Paris Agreement targets. 

CCUS is one of the carbon removal technologies that’s getting the most attention from private and public investors in previous years.

Source: CBInsights.com

To date, the U.S. Department of Energy has been investing billions of dollars in carbon capture projects. The agency is supporting both early-stage (R&D) and commercial carbon capture initiatives. 

Additionally, with the new rules proposed by the Environmental Protection Agency, which regulate emissions from coal and new gas-fired facilities, CCUS technologies became an attractive solution for hard-to-decarbonize sectors. 

Other governments are also keeping pace with the U.S. Canada, the UK, and the EU have also committed large sums of money to advance these climate technologies. 

What Makes it Hard to Expand CCUS?

But the global research and consultancy firm highlighted some key challenges that hinder the industry to grow more and expand. These include nascent policy and regulations, unfit business models, and most particularly, high costs. 

Costs remain the biggest concern for businesses in the sector. Despite the 45Q tax credit, companies still have to wait for prices to go down to scale up their projects.

Furthermore, most technologies available today for carbon capture, transport and storage are still evolving. They have yet to demonstrate that they can deliver as promised. Majority are startups, needing large capital investments to develop and scale their carbon capture and removal technologies.

RELATED: Carbon Capture Startup Secures $80M from Shell, JetBlue

Some scientists and industry leaders even question the technology’s feasibility and efficacy. They claim that it detracts from the more urgent call to transition to renewables and other cleaner energy alternatives. 

Add to this the challenge of convincing heavy polluters to embrace carbon capture as part of net zero strategies, as WoodMac noted. While there has been a growing number of carbon storage hub initiatives, there’s a limited demand from potential customers. 

WoodMac expects project development costs to decrease by up to 30% during this decade. However, if companies wait for this price drop, that also means delaying the impact of their projects. In that case, the delayed carbon emission reductions will make the 1.5°C global warming dream far from reality.

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Powering the Future: US Government’s $3.5B Bet on Sustainable Energy Solutions

With the aim of addressing the challenges posed by climate change and increasing power demands, the Biden-Harris Administration, via federal agencies, invested in critical grid infrastructure upgrades and clean energy projects.  

The US Department of Energy (DOE) revealed a $3.5 billion funding for 58 projects in 44 states to fortify the aging U.S. power grid against extreme weather and fires and integrate renewable energy sources. 

Meanwhile, two other agencies, the US Department of the Treasury (USDT) and the US Department of Housing and Urban Development (HUD), launched a clean energy project tax bonus and awarded building retrofit funds, respectively.

Upgrading Power Grid Through Renewables

The DOE’s funding comes from the Bipartisan Infrastructure Law, marking the most substantial direct investment in the grid to date. The initiative is a response to the challenges posed by climate change-induced disasters and increasing power demands from new technologies like electric vehicles and AI

Energy Secretary Jennifer Granholm emphasized the need for a more robust, larger, and smarter grid to accommodate the evolving landscape of energy production and consumption.

The projects include plans to generate over 35 GW of renewable energy and establish 400 microgrids to enhance energy independence. Microgrids refer to self-sufficient energy systems

More than 75% of the projects have collaborations with the International Brotherhood of Electrical Workers union. The goal of this partnership is to keep or generate union jobs. 

Notably, the funding is part of the DOE’s larger $10.5 billion grid resilience and innovation partnerships (GRIP) program.

One remarkable project, receiving more than $507 million, focuses on bolstering remote communities in Georgia. The funding will enhance a smart grid in the state, incorporating battery storage, local microgrids, and transmission lines. 

Over in Pennsylvania, PECO Energy will work on improving grid reliability and resilience by implementing various measures. These include flood mitigation for substations, updating aging infrastructure, and deploying battery systems for backup power.

RELATED: Batteries From Wood – A Renewable Energy Storage Solution

Moreover, some initiatives aim to expand transmission across multiple states, including a wildfire mitigation project in Western states. For the complete list and information of the GRIP selected projects for award negotiations, refer to the DOE’s website.

Boosting Clean Energy and Zero-Energy Buildings

In a separate announcement, the federal government also unveiled another important initiatives under the Inflation Reduction Act. The goal is also to bolster renewable energy access and enhance climate resilience in low-income communities. 

These efforts, spearheaded by the USDT, DOE and HUD, include bonus incentives under Section 48(e) for small clean energy projects and awards for resilient, zero-energy housing.

Under the bonus credit program, the agencies pledged support for qualifying wind and solar energy facilities in low-income communities. 

With a capacity of 1.8 GW for 2023, the program enables eligible wind and solar facilities to benefit from a 10 or 20 percentage-point increase to the investment tax credit of up to 30%. Eligible renewable energy facilities must have a maximum output of <5 MW.

These incentives aim to drive investments into underserved areas and significantly reduce energy costs and pollution. Applications for this year’s program are acceptable until early 2024.

The HUD’s Green and Resilient Retrofit Program (GRRP) manages the other funding program for resilient, zero-energy retrofits. The agency allocated $103.4 million in loans and grants for the renovation of over 1,500 low-income households.

The funding will facilitate substantial retrofits to ensure climate resilience and achieve zero-energy status for those residential buildings. This effort reinforces the administration’s commitment to affordable and sustainable housing for low-income families. 

With a total investment of >$800 million in grant and loan subsidy, the HUD program awarded >$121 million to date. 

This recent financial support comes at the heel of the HUD’s prior funding allocations. These include the Elements category that focuses on climate resilience and utility efficiency measures. 

Likewise, the DOE also launched its Earthshot program earlier this month to achieve a minimum of 50% cost reduction in decarbonizing homes and lowering energy costs for residents by 20% within the next 10 years. 

READ MORE: Are Clean Energy Tax Credits the Solution for Electricity?

These funding initiatives directed towards grid fortification and clean energy expansion reflect the Biden-Harris Administration’s commitment to sustainable and resilient energy solutions. By prioritizing grid resilience, renewable energy integration, and climate-conscious housing retrofits, these efforts aim to foster a greener and more sustainable future for communities across the nation.

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Occidental Petroleum Quietly Abandons Biggest Carbon Capture Plant

Occidental Petroleum, a leader in carbon capture and storage (CCS) technologies, has quietly abandoned its largest CCS plant, the Century, as per Bloomberg report. The technology worked, but economic concerns caused the plant to underperform at no more than a third of its capacity, leading to Occidental’s eventual divestment. 

The oil giant sold the Century last year only for a fraction of the cost it spent on constructing it. Today, Oxy is building a landmark carbon capture plant in Texas called Stratos

Oxy’s Failed CCS Venture 

Stratos is the second big bet of the oil major on CCS technology to manage carbon emissions. Century, built in 2010, is located 100 miles away from Stratos. It was designed to be the largest carbon capture plant, accounting for over 20% of global CCS capacity. 

While both plants are categorized as CCS, they use different carbon capture technologies. Stratos is using Direct Air Capture (DAC) while Century is pulling carbon from a specific source of emissions. 

Century was also built into a natural gas processing plant to suck in the CO2 it spews before it escapes into the air. This carbon capture process is cheaper, uses simpler tech and is more established than the DAC used in Stratos. 

Though Oxy benefited from the direct application of Century, with the captured CO2 used by the oil firm in producing more oil, the older CCS plant failed to deliver expected results.   

As per Bloomberg investigation, Century has never worked at over ⅓ of its carbon capture capacity since it started working 13 years ago. The carbon capture technology successfully worked but limited gas supply is the biggest challenge. 

Source: Bloomberg

Century had two engines capable of capturing CO2, but only one was operational, never functioning beyond half its capacity. One engine can capture 5 million tons of carbon while the other can catch over 3 million tons. Satellite data show that cooling towers on one engine don’t function, suggesting non-operation.

After a decade of running the project, Oxy quietly sold the struggling asset in January 2022 for about $200 million. The oil major had invested more than 4x that amount in building the plant. An operator at Century noted that they don’t have enough gas to run the plant.

Thus, the company decided to sell it off to Mitchell Group. Despite the sale, Occidental claims to continue using all the CO2 from the old carbon capture plant.  

Century’s under delivery raises concerns about the viability of large-scale CCS projects. Can they be economically sustainable? 

RELATED: Is the Money and Attention Given to CCS Worth It? An Expert Debate

Carbon Capture Essential for Net Zero 

According to the International Energy Agency, rapid scale up of CCS (also called CCUS) is essential to achieving net zero emissions targets. The technology plays four crucial roles in the net zero transition. 

First, it handles emissions from existing energy sources. Second, it offers an abatement solution for hard-to-abate sectors. Third, it could be a platform for green hydrogen production. Lastly, it removes CO2 from the air to compensate for emissions that can’t be directly avoided. 

Carbon capture, particularly DAC, is one of the focus of the upcoming climate change conference COP28 hosted by the United Arab Emirates. COP28 in the UAE will be a milestone moment when the world will get to know its progress on the Paris Agreement.

As the 2050 net zero target is getting closer, climate experts expect vast expansion of DAC projects to keep temperatures in line with the Paris Agreement goals. A climate scientist believes that the world absolutely needs carbon capture to get to safe warming levels. 

However, the current total carbon capture capacity stands only at around 45 million tons of CO2 a year. As per IEA analysis, that’s only 4% of CCS required by 2030 to be on track for net zero. 

Oxy’s new billion-dollar DAC plant Stratos aims to rapidly scale carbon capture by absorbing up to 500,000 metric tons of CO2 each year once it operates. That would make Stratos the largest DAC plant on the planet.  

RELATED: Occidental to Buy DAC Innovator Carbon Engineering for $1.1B

The amount of carbon captured by the plant generates corresponding carbon removal credits. Tech giants, aviation leaders, and other major companies have already pre-purchase carbon removal credits from Oxy. 

Amazon, Shopify, Airbus, Houston Astros, and Houston Texans are just some of Oxy’s customers for forward purchase agreements. The US government is also pouring billions of dollars in support of the technology

Oxy’s Stratos is a next-generation DAC plant for capturing CO2 that remains more expensive today than Century’s technology.

According to the company’s estimates, it’s worth over $400/ton compared to below $60/ton to absorb CO2 from processing plants like Century. But DAC costs will go down eventually as Oxy learns and develops more of it. 

A rising number of corporations are willing to pay for higher carbon removal credits from capturing CO2. As more of them are getting serious about their net zero commitments, projections show that the market for carbon removals could hit hundreds of billions of dollars.

READ MORE: CDR and CCS: A Primer

The challenges faced by Occidental Petroleum’s Century carbon capture plant highlight the complexities in running large-scale CCS projects. Yet, the potential of carbon capture technology remains crucial in achieving net zero emissions, underscoring the need for continued innovation and development in the field to address economic and operational challenges.

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US DOE’s $7B Clean Hydrogen Hub Grant: The 7 Chosen Ones

President Biden’s Investing in America agenda has allocated $50 billion to launch 7 Regional Clean Hydrogen Hubs (H2Hubs), an initiative that the Department of Energy (DOE) will support with a $7 billion grant. 

This comprehensive plan is part of a strategic move to accelerate the deployment of low-cost, clean hydrogen across the country. Designed to create jobs, increase energy security, and fight climate change, the investment marks a significant milestone in America’s transition to a clean energy future.

Fueling Emission Reductions, Driving Sustainability

Clean hydrogen, also known as green hydrogen, production in the United States will grow from almost nothing last year to >10 million metric tons in 2032 (almost $18B in size). This includes the 7 hydrogen hubs chosen to receive the grants. 

Funded by the Bipartisan Infrastructure Law, the H2Hubs will produce 3 million metric tons of hydrogen annually. It will also support the production, storage, delivery, and end-use of clean hydrogen, while reducing emissions from hard-to-decarbonize industrial sectors.

The funding will go to 7 selected regional hubs located in carbon-producing centres, including Appalachia, Gulf States, and the Midwest. Together, they will cut about 25 million metric tons of CO2 from end-uses each year. 

The regional hubs will also create and retain tens of thousands of jobs, contribute to healthier communities and reinforce the nation’s commitment to environmental sustainability. 

Clean hydrogen serves as a versatile energy carrier that can be produced from various clean energy sources such as renewables, nuclear, and fossil fuels with carbon capture

RELATED: An Introduction to Hydrogen Energy 

By using these resources, the H2Hubs can significantly reduce harmful emissions from energy-intensive sectors. For instance, the chemical and industrial processes, as well as heavy-duty transportation will largely benefit from using clean hydrogen. All these while creating economic opportunities across the U.S. 

The selected H2Hubs will share the cost in developing the network, alongside the Energy Department’s historic $7B investment. Their share is estimated to be over $40 billion, driving significant private sector investment in clean hydrogen. Read more about the seven selected projects in the following list below.

The 7 Chosen Hydrogen Hubs in America

Appalachian Hydrogen Hub:

The Appalachian Regional Clean Hydrogen Hub (ARCH2) in West Virginia, Ohio, Pennsylvania will utilize the region’s natural gas resources to produce low-cost clean hydrogen and store carbon emissions. With an allocated budget of up to $925 million, it aims to create over 21,000 jobs. It will benefit the Appalachian community through job opportunities and cost-effective hydrogen distribution.

California Hydrogen Hub:

The Alliance for Renewable Clean Hydrogen Energy Systems (ARCHES) in California will produce hydrogen exclusively from renewable energy and biomass. It is particularly aiming to decarbonize the key emitters in the state – transportation and port operations. The project plans to generate 220,000 jobs, with a budget of up to $1.2 billion.

Gulf Coast Hydrogen Hub: 

The HyVelocity H2Hub will center in Houston, Texas and will focus on large-scale hydrogen production using natural gas with carbon capture and renewables-powered electrolysis. It anticipates creating around 45,000 direct jobs, with an allocated budget of up to $1.2 billion.

Heartland Hydrogen Hub: 

This project in Minnesota, North Dakota, South Dakota, will leverage the region’s energy resources, aiming to reduce agricultural sector emissions and facilitate clean hydrogen use in electric generation and heating. It plans to create around 3,880 jobs, with a budget of up to $925 million.

Mid-Atlantic Hydrogen Hub: 

The Mid-Atlantic Clean Hydrogen Hub (MACH2) in Pennsylvania, Delaware, and New Jersey will unlock hydrogen-driven decarbonization, utilizing innovative electrolyzer technologies. With an allocated budget of up to $750 million, it expects to to create 20,800 jobs.

Midwest Hydrogen Hub: 

The Midwest Alliance for Clean Hydrogen (MachH2) will be in Illinois, Indiana, Michigan – a key U.S. industrial corridor. The hub will facilitate decarbonization across multiple sectors, including steel and glass production, power generation, and transportation. Leveraging diverse energy sources like renewables, natural gas, and nuclear energy, it aims to create 13,600 direct jobs, with a budget of up to $1 billion.

Pacific Northwest Hydrogen Hub: 

The PNW H2 will cover Washington, Oregon, Montana, will produce clean hydrogen through electrolysis, driving down costs and promoting accessibility. It aims to generate over 10,000 jobs, with an allocated budget of up to $1 billion. 

Promoting Economic Growth, Benefiting Communities

Each hydrogen hub is tailored to leverage the unique characteristics and energy resources of its respective region. The projects will harness the potential of clean hydrogen in diverse sectors, including agriculture, manufacturing, and transportation, driving economic growth.   

More importantly, the Administration emphasizes the importance of community engagement and benefits in the development of the hydrogen hubs. Each H2Hub has to implement a comprehensive Community Benefits Plan (CBP) to ensure that the initiative benefits all communities. 

To ensure the long-term success of the clean hydrogen economy, the DOE has issued a Request for Proposals for a demand-side initiative. This is crucial to provide market certainty for both producers and end-users in the H2Hubs. 

Apart from hydrogen producing companies, who would be the other winners of the $7B federal hydrogen grants? Big oil and electric utilities will also benefit from the DOE investment. 

Among the listed partners in the H2Hubs construction and operation are the major oil companies, including ExxonMobil and Chevron. Exxon, alone, has pledged $7 billion to produce hydrogen in the U.S. 

RELATED: Exxon Picks Technip for $7B Low-Carbon Hydrogen Plant

Natural gas companies will also benefit from the hydrogen funding and will use the gas to power turbines. Popular names include Dominion Energy, Xcel Energy, and the AES Company. 

And clearly, key players in the hydrogen market can take advantage of the historic investment. 

Nikola and its hydrogen fueling stations will benefit from the grant, and so will other companies developing hydrogen fuel cell vehicles (FCEVs). FCEVs are gaining traction, with growing interest and demand for these vehicles, especially for long-haul trucking and parcel deliveries. 

As such, First Hydrogen Corp. (TSXV: FHYD) (OTC: FHYDF) (FSE: FIT) will surely benefit from the projects once the hubs become functional. The company is poised to capitalize on the emerging zero-emission fleet vehicle market led by FCEV.

The clean hydrogen hub program, managed by the DOE’s Office of Clean Energy Demonstrations (OCED), represents a significant step towards achieving the Biden-Harris Administration’s ambitious climate and energy goals. It will lay the groundwork for a cleaner, equitable, and more sustainable energy future for the country.

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Startup Revolutionizes Mobility Sector with World’s First Carbon Credit Patent

A pioneering climate tech company, Greenlines Technology, announced the approval of the world’s first carbon credit generation process patent awarded by the United States Patent and Trademark Office (USPTO). 

Greenlines Technology empowers and rewards sustainable behaviour in the mobility and e-commerce industries to make a positive environmental impact through its advanced digital measurement, reporting, and verification (dMRV) technology. 

The Vancouver-based climate tech startup is the first to coin the term ‘Human-based Solutions’ (HbS) in carbon markets, which refers to contributions by individuals and their behavior in reducing carbon emissions.

Greenlines: Pioneer Carbon Credit Patent in Transportation

The first-of-its-kind patent, Mobility Carbon Engine (MCE), represents a significant advancement in global carbon markets, providing novel intellectual property rights. Titled “Methods and Systems for Conversion of Physical Movements to Carbon Units”, it has Patent Number US 11,774,255 B2.

Greenlines’ landmark patent enables mobility app owners to measure and monetize emission reductions facilitated by users. The groundbreaking technology can accurately calculate and monetize those reductions, setting a precedent for quantifying sustainable transportation impacts. 

The newly patented technology has been around since 2019 in 60+ cities across Canada and the U.S.

Highlighting the importance of this technology in reducing emissions and promoting sustainability in mobility, CEO and co-founder David Oliver noted: 

“By providing a systematic approach to accurately quantify and recognize emission reductions resulting from individuals’ use of low-carbon land, water, and air-based transportation modes, the MCETM creates a comprehensive framework that rewards individuals and organizations for choosing sustainable alternatives.”

As per the ​Environmental Protection Agency’s latest data, greenhouse gas (GHG) emissions from transportation account for about 29% of total U.S. emissions, making it the biggest contributor of the country’s pollution. 

With over a third of Americans commuting to work on an average of 44 km or 27 miles, the annual CO2 emissions per commuter stands at about 4.6 tons. 

According to Oliver, if 10% of these commuters use their MCE, it can potentially slash their emissions by around 20%. That’s equivalent to a total of 24 million tons of CO2 emission reductions each year in the US transport sector.

RELATED: Public Transportation Pricing Schemes Can Cut Emissions

MCE Transforms the Transportation Sector

The MCE is powered by Greenlines proprietary Modal Shift Optimization GHG Quantification Methodology developed according to ISO 14064-2. This guarantees that the carbon credits generated through the app meet the highest standards and trades at a premium price

The technology uses advanced algorithms to measure the emission reductions from each trip, avoiding reversal and ensuring offsets are permanent. It is simple to use and has a user-friendly interface, thus it is highly accessible to everyone. 

To meet the criterion on additionality, the MCE creates a custom baseline for each user and use it as reference for getting the emission reductions. The reduction is the difference between the baseline and the actual carbon pollution emitted by each trip. The data is crucial to ensure that the reductions are additional compared to the emissions without the offset project. 

In establishing the baseline, Greenlines uses regional project and baseline emissions for various transportation modes – land, water, and air. These include taxis, public transit, ride-hailing, e-scooters, and pedal bikes. 

The innovative technology employs a robust monitoring system to track and verify the emission reductions. Verification is through independent, third-party verifier. And these verified emission reductions (VERs) have been successfully sold as carbon credits to voluntary buyers in the carbon market.

Greenlines’ carbon offset project is transparent with publicly accessible information, including the amount of CO2 reduced, the MRV process, and offset revenue use. 

Meeting all these criteria – additional, permanent, real, verifiable, and transparent – makes the carbon credits or offsets generated of high-quality. Each credit represents a tonne of reduced CO2 emissions. 

Greenlines’ technology offers a potential to revolutionize the mobility sector while providing a strong incentive for individuals to choose low-carbon trips. It empowers mobility aggregators, including transit agencies, trip planning apps, and private mobility providers to promote sustainable transportation practices. 

RELATED: Google Earth Engine – Open for Business

Incentivizing Sustainable Behavior with Carbon Credits

The patent doesn’t only track and monetize emissions from personal trips but also from food and package deliveries, Oliver said. 

That’s through their upcoming E-commerce Carbon Engine (ECE), which is currently in its pilot phase. Same as MCE, ECE will also generate carbon credits from low-carbon items bought in e-commerce or online trading platforms. 

ECE uses Greenlines’ proprietary algorithms to get the CO2 footprint of each product, allowing consumers to choose low-carbon purchases. Thus, it also has the potential to slash emissions of online shopping

Greenlines had already implemented the MCE technology across various North American cities. But it also plans to expand its reach globally by initiating patent applications in other jurisdictions such as the EU. 

Their goal is to incentivize and drive sustainable practices worldwide through carbon credits generated by their patented technology. 

By combining innovative technology with sustainability, Greenlines revolutionizes carbon markets while giving commuters the opportunity to identify, quantify, and monetize their carbon emissions reductions. 

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Bill Gates-Backed Startup’s Thermal Energy Storage Revolutionizes Industrial Decarbonization

The single largest driver of climate change, industry, accounts for about ⅓ of global carbon emissions. But a Bill Gates-backed startup, Antora Energy Inc., offers a potential solution to eliminate over 50% of industrial emissions with its unique approach to decarbonizing the sector – thermal energy storage via solid carbon blocks. 

Industry has been considered a hard-to-abate sector due to the very nature of their energy-hungry and heat-intensive processes. This is what the startup Antora Energy, a company supported by billionaire Bill Gates’ Breakthrough Energy Ventures, tries to address. 

Antora has launched its groundbreaking commercial-scale thermal battery system in Fresno, California, with a slated technology delivery target of 2025.

What is Thermal Energy Storage?

Almost every industrial facility needs heat to do its daily grind: to melt, cure, dry, cook, treat, calcine, among others. This heat accounts for of all industrial energy use and the bulk of the sector’s emissions. 

In the United States, the industry accounts for about ¼ of the country’s total greenhouse gas emissions in 2021. 

Energy experts believe that if the world can solve the challenge of clean energy for heavy-emitting industries, it would pave the way for rapid industrial decarbonization.

Enter thermal energy storage or TES. Powered by renewable energy, TES can help decarbonize industrial heat in significant amounts. 

Thermal energy storage enables companies to store heat using low-cost, scalable, and ample materials. It allows for the use of renewable energy when it’s cheapest, meaning when the wind blows or the sun shines. The solar or wind energy heats up a thermal battery, which is then stored for hours or days.

Image from https://reimaginingenergy.afwerx.com/

Thermal batteries are cheap to assemble, easy to maintain, and work for decades. Moreover, they don’t use expensive and limited materials, but abundant and cheap materials like carbon and concrete. They could provide the much-needed storage that can make renewable power available year-round. 

The International Renewable Energy Agency (IRENA) estimates that TES would facilitate increased use of renewables in energy systems. With it, operators can effectively match energy demand and supply, making the system more efficient, flexible, and cheap. 

Solid carbon, in particular, is available cheaply and comes with a vast supply chain of >30 million tons annually. Plus, it can store and emit huge amounts of heat at very high temperatures. This is what Antora Energy’s storage system is using. 

Antora Energy’s Innovative Thermal Energy Storage

Co-founded by an MIT alumnus, David Bierman, Antora Energy leverages the power of nature, sun and wind, to provide low-cost and highly-efficient energy storage. Their thermal energy system stores electricity as heat to enable manufacturers and energy-intensive industrial processes to stop fossil fuel consumption. According to Bierman,

“The economic opportunity has grown, but more importantly the awareness from industries that they need to decarbonize is totally different. Antora can help with that, so we’re scaling up as rapidly as possible to meet the demand we see in the market.”

Different from traditional lithium-ion batteries, Antora’s thermal battery stores energy as heat within solid carbon blocks. It offers an eco-friendly solution for industries like cement and steel manufacturing that heavily rely on fossil fuels. 

RELATED: $542M Raise Revolutionizes Lithium EV Battery Production

The company’s TES stores energy as heat in the blocks at extremely high temperatures, exceeding 1,800°C! It can then be used directly as heat or converted back to electricity via thermophotovoltaic (TPV) cells, similar to solar cells. 

The building blocks can be configured to meet any load and their compact footprint enables seamless site integration.

Antora’s modular thermal energy storage turns solar and wind energy into dispatchable, zero-emissions heat and power. This can help companies operating in the industry to reduce their Scope 1 and 2 emissions. 

While Antora forges ahead with this innovative approach, other startups are also making strides in the battery sector. Their approaches may differ but they all aim to eliminate or lessen the environmental impact of batteries while providing eco-friendly energy storage. 

In fact, in the recent surge of venture capital, battery startups are making waves and attracting significant investments. One area of investor’s focus is optimizing renewable energy’s grid storage, which Antora Energy seeks to deliver.

READ MORE: Battery Startups Attract Mega-Investments

Antora’s upcoming battery production site in the Bay Area, set to be completed by 2024, presents economic challenges more than technological ones; the venture requires significant capital. Overcoming these obstacles could pave the way for a transformative shift in the energy sector.

A Shift Towards Zero-Carbon Solutions

Antora’s thermal energy storage aims to provide an end result of a zero-carbon, flexible heat and power system for industry. 

The company’s unique dual function of providing heat and electricity without carbon emissions presents a vital alternative for industries currently reliant on non-continuous renewable sources, essential for meeting decarbonization goals.

The energy storage company targets sectors relying on consistent heat and power for their plants, eyeing a substantial share of the $60 billion U.S. market. Market segments include cement, steel, chemicals, oil, and gas refining. 

The company is targeting clients in windy and sunny states where renewable energy is abundant and cheap. With that, Antora aims to eventually outcompete fossil fuels on cost, potentially revolutionizing the energy industry. This innovation promises a significant step forward in the battle against climate change in carbon-intensive industries.

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Greening the Entertainment Industry with Cleaner Energy Solutions

The British Columbia film industry, a key production hub for Hollywood entertainment, is under pressure to shift away from diesel generators to power film and food trucks on local sets.

According to reports, the use of diesel generators is a main source of carbon emissions. This makes Vancouver’s film sets a significant contributor to air pollution. 

Suggestions for a change include using mobile power alternatives such as sourcing energy directly from the local grid. This works both for film and TV sets in British Columbia for producing original content for large studios and streamers. 

Carbon Footprint of the Entertainment Industry

Sustainability is crucial to every industry and the film industry is no exception, facing growing scrutiny for its environmental impact. 

According to the Sustainable Production Alliance (SPA), each film production emits around 3,370 metric tons (Mt) of CO2 or about 33 Mt for each shooting day. This figure is equivalent to over 7 million miles driven by a car. That applies to production with an average budget of $70 million, while smaller films emit about 400 Mt. 

SPA is a group of film, TV and streaming companies committed to making the entertainment industry more sustainable. The consortium members include Amazon Studios, Disney, Fox Corp., NBCUniversal, Netflix, Sony Pictures, and WarnerMedia.

The group’s report considers various factors contributing to the production’s carbon emissions, including flights, housing, fuel and utilities. The largest contributor for all film sizes is fuel used by vehicles and power generators. 

Their data covers industry wide production carbon emissions averages for the SPA member companies over three years. A more recent report included a May 2023 report on Clean Power Alternatives for the Film Industry for Metro Vancouver. 

Source: Variety

For a TV series, a 1-hour scripted dramas emitted 77 Mt of CO2 per episode while a half-hour scripted single-camera show released 26 Mt. Unscripted series generated a smaller CO2 footprint per episode, 13 Mt. 

The SPA’s recent report in July 2022 covered more than 300 films and TV productions in the U.S. and over 60 productions in Canada. 

As per the report, the 6 largest films shot in Vancouver produced over 1,400 Mt of CO2. Over in Atlanta, medium-sized movies emitted a little above 970 Mt of CO2. 

Cleaner Energy Options for Lower Emissions

The difference in total carbon emissions between the two locations is the energy used in Georgia, which comes from dirtier sources (e.g. coal and natural gas).

In Vancouver, producers can reduce their pollution by tapping into cleaner energy sources for local films and TV shows. These include the use of zero-emission battery power and local electricity grids. 

RELATED: Clean Energy Investment Hits New Record – $1.1 Trillion

However, compared to other North American filming locations, fuel use in British Columbia remains proportionally higher. That’s primarily because of the big sizes and number of power generators used in sets as well as at soundstages. 

Apart from spewing air pollutants, diesel generators also pose health risks, prompting calls for more sustainable and planet-friendly practices.

Some productions turned to using solar energy to power generators and banning single-use plastics on sets. Other film and TV studios are adopting other ways to reduce their emissions and the entire industry’s carbon footprint. 

A Call for a More Sustainable Filming

In the B.C. film industry, major studios and streamers are encouraged to ramp up transition to cleaner energy sources. Similar trends are seen in Ontario where Hollywood post-strikes called for sustainable film productions as default on sets and soundstages. 

Hollywood and other producers are also pushing for a more sustainable entertainment industry. 

RELATED: Barbie Movie and Green Shift: Hollywood Meets Sustainability

For instance, the streaming giant, Netflix, pledged to reduce carbon emissions by 45% below 2019 levels by 2030. The company’s approach to net zero involves three R’s: Reduce, Retain and Remove.

Disney aims for a net zero emissions for its direct operations by 2030 which involves investing in natural climate solutions.

On the other hand, Sony committed to eliminate its environmental footprint by 2050 while NBCUniversal aims to achieve carbon neutrality by 2035. 

As for individual initiatives in greening the industry, producers and streamers use fully recyclable sets using waste materials. This helps avoid traditional materials (timber, plywood, fiberboards, etc.) from going to landfills. 

Other large studios partner with green organizations such as Earth Angel and The Green Production Guide. These organizations helped studios learn and adopt sustainable filming practices. Example of these sustainability efforts from various movie productions include the following:

Image borrowed from Georgia Calawerts at https://amt-lab.org/

By transitioning away from diesel generators and embracing cleaner energy options, the entertainment industry is demonstrating a commitment to reducing its carbon footprint and promoting sustainable filming practices. With a concerted effort from major studios, streamers, and industry organizations, the move towards sustainability in film production sets a precedent for the industry as a whole.

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Tesla’s Record Carbon Credit Sales Up 94% Year-Over-Year

While Tesla has missed this year’s third quarter on both earnings and revenue expectations since its Q2 2019 report, the EV leader reported record-breaking carbon credit sales, which the company referred to as regulatory credits.

For over 4 years, the EV maker has been drawing attention by reporting record-breaking income from selling carbon credits. The automaker reported a revenue of $554 million from the Q3 2023 sale of carbon credits, significantly contributing to its profits.

This record sales also represented a huge portion of Tesla’s net income in Q3 2023 ($1,878 million) – 29%. Most notably, its quarter three carbon credit revenue increased 94% year-over-year, marking the value of Tesla’s EV production.

Tesla Carbon Credit Revenues Are Soaring

Tesla has been earning revenues from the sale of carbon credits since 2017. These credits, otherwise called carbon offset credits or carbon allowances, give companies a way to offset their carbon emissions by investing in projects that reduce planet-warming emissions.

Despite Elon Musk’s “paranoia” over the global economy’s instability due to ongoing wars, its soaring carbon credit income steadily contributes to its overall profits.

A 29% revenue-to-net income ratio is hard to ignore and speaks highly of the value of the credits for Tesla. 

Compared to the previous quarter’s revenue ($282 million), this quarter saw a whopping 96% increase in sales at $554 million. By far, it’s the highest among Q3 revenues and is the second largest among Tesla’s quarterly credit sales.

First quarter 2022 has seen the highest income at $679 million, while the company also earned a total of $1.78 billion for that year alone. 

It’s not clear who exactly bought the credits and for how much, but most likely they’re sold to other car companies that miss out on emissions standards of the California Air Resources Board (CARB). 

Previous buyers include Tesla’s peers, General Motors and Chrysler, but this year’s purchasers were not disclosed. 

The revenue generated from credit sales supports Tesla’s mission to accelerate the transition to cleaner energy and sustainable transportation. By incentivizing the adoption of EVs by other carmakers, carbon credits contribute to reducing carbon emissions in the sector.

Ramping Up Clean Energy Solutions

Producing and delivering more EVs is just one part of Tesla’s commitment to clean and sustainable energy transition. A consistently growing business segment of the carmaker is its lithium-based energy storage solution.

Though this segment is much smaller than its automotive business, it has expanded rapidly.

In its current quarter financial report, the company’s energy generation and storage revenue was also up about 40% year-over-year. The segment raked in $1,559 million in Q3 2023 revenue compared to $1,117 million in the same quarter last year. 

Tesla also reported that its energy storage deployments hit a new record, up by 90% YoY to 4.0 GWh, the highest quarterly deployment ever. 

The growth was mainly driven by the company’s ongoing ramping up of its Megafactory in California. Tesla aims to produce 10,000 Megapacks (energy storage for large-scale commercial and utilities projects) each year in this factory. 

RELATED: Tesla’s $413 Milllion Power Move, Megapacks for Massachusetts 

Other energy storage systems include Powerwall for residential and Powerpack for businesses, which all use lithium-ion batteries. 

The growing demand for Tesla’s Megapacks signals that there’s a huge market for grid-scale battery energy storage solutions. Estimates project that this market will achieve over 24% growth rate through 2027 to more than $15 billion. 

For Tesla Energy, that growth means its battery energy storage solutions like Megapack could see a significant market share. Musk even said that their battery storage segment is becoming one of Tesla’s most profitable divisions. 

This growing business, along with its solar deployments, is a key part of the EV maker’s journey to sustainability. 

More than Just a Carbon Credit Winner

Manufacturing EVs, deploying battery energy storage and solar panels all generate carbon credits by avoiding carbon emissions. The revenues that these credits bring are undeniably huge, giving Tesla billions of dollars in income. 

But more than the cash, the increasing sales highlights the role of Tesla’s clean energy and sustainable solutions in reaching net zero targets.

Achieving a sustainable global economy entails curbing greenhouse gas emissions, which requires addressing both energy generation and use. Both areas are what the transportation and energy sectors are tackling to reduce harmful emissions. 

Tesla is in an advantaged position to take charge in this quest by designing and implementing clean transportation and sustainable energy solutions. 

RELATED: Musk Breaks Ground on Tesla’s $1 Billion Texas Lithium Refinery

The carmaker has been enhancing its manufacturing capabilities and employing advanced technologies to continuously improve its clean energy operations. The automotive giant is also working to slash its own carbon footprint as outlined in its sustainability paper

Tesla’s remarkable success in carbon credit sales not only bolsters its financial standing but also underscores the significance of clean energy solutions in combating climate change. As the company advances its sustainable practices, it continues to pave the way toward net zero emissions

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What Are Scope 4 Emissions? A Critical Aspect of Carbon Accounting

If you’re into carbon accounting, you probably have encountered scopes 1, 2, and 3 emissions used to determine a company’s carbon footprint and guide reductions efforts… but have you heard of Scope 4 emissions?

Most likely, not yet. That’s because Scope 4 emissions are an addition to emissions that companies need to keep track of. 

While the concept is quite new, understanding it and knowing how to account for it is useful for companies and organizations wanting to curb their emissions and meet their climate goals. 

So, we’re going to explain what Scope 4 emissions are, how they differ from the other scopes, why they’re important and beneficial for companies to measure and report, alongside the major challenges in calculating them. 

What Are Scope 4 Emissions? How Do They Differ From Other Scopes?

To understand Scope 4 (S4) emissions, we need to differentiate them from its peers. Scope 1, Scope 2, and Scope 3 emissions refer to direct, indirect, and other indirect emissions, respectively.  

Scope 1 emissions are from direct sources such as fuels burned to heat products or run a machine. 
Scope 2 emissions are indirect footprint resulting from purchased energy used by the company such as electricity. 
Scope 3 emissions refer to all other indirect emissions, such as embodied carbon of building materials and supply chain.

In other words, they’re what a company emits through their operations and other business activities. 

Companies have full control over their Scope 1 and 2 emissions whereas Scope 3 emissions are generated by activities that the company can’t control. 

Scope 4 emissions, on the other hand, refers to the AVOIDED emissions or carbon pollution that happen OUTSIDE of a product’s value chain. They’re a result of using that product or the saved emissions due to its performance. 

Theoretically, S4 emissions provide companies a way to report on the avoided emissions by opting for more efficient products, either a product or a service.

For instance, telecommuting or carpooling to work saves on the carbon footprint of working. Likewise, decreasing energy consumption by using energy efficient equipment or appliances also cuts down carbon emissions. 

At a glance, here’s how these different scope emissions differ from each other:

There are two main types of S4 emissions:

Product or service that replaces a more carbon-intensive product: e.g. tele-conferencing services that reduces the emissions of traveling to office.
Product or service that reduces emissions elsewhere: e.g. a low-temperature detergent that uses less energy.

Scope 4 emissions also cover work-from-home scenarios as they avoided using transport fuel and energy use in office work.

S4 emissions can be quite challenging to measure and report, but it’s becoming increasingly important for companies to do so. By fully understanding their Scope 4 emissions, businesses can identify areas where they can reduce their planet-warming emissions and contribute positively to climate change.

Why Should Companies Report Scope 4? 

Most companies would like to account and report on their S4 emissions to gauge their efforts in helping their respective industry slash emissions. 

In fact, 75% of the surveyed companies by the Carbon Disclosure Project (CDP) are offering products and services that help others reduce emissions. The caveat, however, is that without enough data to back up their claims, they remain unsubstantiated. 

In other words, to validate their claim on reductions of a product/service, rigorous testing, predictions, and reporting is key. It also calls for scientific estimations or calculations on how consumers use a company’s product. 

In principle, calculating avoided emissions needs extensive research and product development or improvement. In practice, though, it’s so much more difficult to make accurate calculations and substantiate claims. 

That’s why accounting for S4 emissions right from the very beginning of making a product/service is crucial. It also sets a baseline from which to measure the avoided emissions. 

Source: ESG Professionals Network

On the contrary, failing to consider these emissions may result in serious consequences for a company. Apart from a potential fine if a certain regulation is not met, the business may report its total emissions incorrectly. 

More remarkably, incorporating avoided emissions the soonest time possible puts a company at an advantage compared to its peers. Currently, it’s not mandated to report on these emissions, but as governments started to become more stringent in regulating climate disclosures, companies who have their feet on this front will find it easier later on.

Existing Guidance or Framework for Reporting S4 

Tracking and disclosing emissions under S4 can be tricky and there’s no standards available yet today. But if your company attempts to do it, there are some frameworks that can guide you. 

A good starting point is the World Resources Institute’s guideline entitled “Estimating and Reporting the Comparative Emissions Impacts of Products”. It may not be the most comprehensive framework but it helps in learning how to collect credible data for S4. It’s a sector-specific guidance for industry associations. 

As the paper suggests, it’s a framework for estimating and disclosing the full impact of products. It includes guidance for accounting for a product’s negative and positive impact on emissions. This S4 accounting comes in two different approaches defined and compared in the table:

The framework also offers recommendations on how companies can improve the credibility and consistency of their claims. Companies can consider three common avoided emissions claims that the WRI specified: 

Claims that compare avoided emissions of a product to its previous version,
Claims applying the benefits of a product’s S4 emissions to the whole market to measure emissions, and
Claims resulting from comparing emissions of various products.

One of the recommendations of WRI in using their guidelines is for companies to measure emissions from every stage of the product’s life cycle for correct representation of how it compares to the previous product. 

Another supplemental guideline is the GHG Protocol’s Policy and Action Standard. The GHG Protocol is also developed by the WRI. Though the standard seems to be more general, it suggests that reporting companies consider how their products will change emissions.

By using these frameworks and approaches, you can more effectively measure and reduce your company’s Scope 4 emissions. 

However, given that S4 emissions are outside of your company’s value chain, capturing it comes with some hurdles. 

Key Challenges and Limitations in Disclosing Scope 4

Reporting on S4 emissions entails overthrowing some roadblocks along the way. Let’s enumerate and explain the main challenges you may encounter along the way.  

Difficulties in Measuring S4

To measure scope 4 emissions accurately, companies must validate that their offerings really do avoid emissions. This entails a lot of resources from start to end of the validation process. The most difficult part is estimating on how customers use and dispose of the product. 

Not to mention that it may involve complicated assumptions and calculations, calling for extra market research. 

For instance, the company has to know how many consumers were using the older product and whether they’ll replace it with the new version. Incorrect data collected would be very bad if used as a basis for decision making related to the product. 

Quantifying Avoidance is Complicated

Measurement is one thing and quantifying avoidance is another thing. But they’re both hard to come by accurately. Take for example the case of selling second hand items like bags or shoes. The seller can assume that their second hand products can avoid buying new items. 

But what this assumption may use to consider is that consumers may buy more than one of their items. That’s simply because they’re cheaper to buy, so they can buy more. The seller has to factor all these things when quantifying for the product’s avoided emissions. 

Quantifying Avoidance is Complicated

As mentioned earlier, researching, developing and testing new products needs plenty of resources. In other words, companies may have to invest big for the upfront costs. But this should not discourage them to make new and innovative products that can actually reduce emissions.

No Widely Accepted Standard

While there are some guidelines available relating to Scope 4 or avoided emissions, there’s still no widely accepted standard. This lack of standardization further makes it more challenging what to follow when measuring and reporting S4. But the WRI framework would be a good way to start on this climate disclosure quest. 

Accusation for False Claims

All the previous hurdles above boil down to one thing that companies all fear to face – greenwashing. Inaccurate data or overestimations of avoided emissions will likely put the company in the spotlight for scrutiny.  

Climate activists are even more vigilant today as planet-warming emissions continue to cause disasters and damages worldwide. Being subject to greenwashing accusations would damage the stakeholder’s trust, including customers and investors. 

Now, we’ve come to the last question you may have – how to calculate and report S4? That depends on the specific industry you’re in. Let’s take a look at some examples.

How Can Industries Calculate and Report S4? 

Companies operating in the real estate industry can measure their S4 by measuring tenant commuting footprint. They can do that either by sourcing data from transportation apps or directly asking or surveying their tenants. They may also factor in waste diversion rates to account for avoided emissions. 

If you’re into a retail business, you can calculate the environmental footprint of your products using life cycle assessments. This approach takes into account avoided emissions in the supply chain. 

It’s different if you have a manufacturing company. You can measure Scope 4 emissions through energy efficiency initiatives and process improvements. 

Specifically, if a company is manufacturing capital goods, they can follow the example of French multinational company Schneider Electric. Schneider specializes in digital automation and energy management, making it easier for them to provide examples of calculation of avoided emissions via their variable speed drives, which generate savings on energy consumed by using their VSD.

For instance, in one of Schneider’s reports, it showed that its EcoStruxure Industrial Internet of Things platform enabled customers to save a whopping 134 million metric tonnes of CO2 since 2018. That avoided emissions equal to the footprint of over 28 million gas-powered passenger cars driven for a year.

If you’re running a business in the hospitality industry, you can consider transportation emissions, such as shuttle services. You can also convince guests to reduce their own footprint while using your facilities and amenities.  

Here’s a sample calculation of various emissions, including scope 4 by the Thunder Said Energy.

After getting all the Scope 1, 2, and 3 emissions, they deduct the S4 emissions that are avoided by using the energy product compared with the most likely counterpart.

Why Get Started With Scope 4?

Disclosing S4 emissions is voluntary; it doesn’t count towards a company’s total emissions reductions. It remains a theoretical estimation using a reference scenario. 

Avoided emissions also is in its nascent stage but improving transparency and standardizing measurement methods will drive value to investors. 

The calculation of this metric enables companies to determine how capable their product is in helping decarbonize their business. Taking into account Scope 4 disclosures makes sense from a decarbonization perspective. It can also provide financial insight as it reveals the real added value a business is making toward its sustainability agenda. 

Ultimately, while carbon accounting including all scopes of emissions won’t be an easy task, it’s essential to guide companies, their investors, and other stakeholders to better understand how they are progressing towards their climate and corporate sustainability goals.

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