Carbon Credits from Efficient Railways

EKI Energy Services Ltd. (EKI) has made a deal to provide consultancy service contracts for the carbon credits project of Kochi Metro Rail Limited (KMRL). 

Indian-based EKI Energy is one of the world’s largest carbon credits developers and suppliers. It is India’s biggest carbon asset management firm that operates in the space of climate change, carbon credit, and sustainability solutions across the globe.

The energy company provides strategic solutions to help entities achieve their climate goals. It has traded 100+ million carbon offsets to date while handling over 200 voluntary carbon projects. The major carbon credit projects EKI supports include the use of renewables as well as plenty of energy efficiency projects.

KMRL is a Joint Venture Company of the Indian government and the government of Kerala. The contract has been inked against a tender won by EKI. The Kochi metro project is the first in the country that connects rail, road, and water transport facilities.

The Metro Project and Carbon Credits

The goal of the deal is to boost the environmental aspect of the metro project by certifying its GHG emission reductions. EKI will then monetize the impact in the form of carbon credits

By signing the agreement with KMRL, the energy company is responsible for the validation, registration, verification, issuance, and trading of carbon credits that KMRL project generates. 

In addition, as part of the contract, EKI is responsible for managing the projects eligible for carbon credits. These include verification to ensure they meet the guidelines set by the international carbon credit mechanisms. 

Through EKI’s assistance, KMRL will earn extra income from monetizing carbon reductions with carbon credits. The metro rail developer can then use the credits to support its other developmental projects. 

Currently, KMRL operates 24 stations and has been serving as an urban spine along which Kochi city has developed. It’s also the first metro rail system in India to use the Communication Based Train Control (CBTC) signaling system, which reduces human intervention to a minimum.

Mr. Loknath Behera, Managing Director of KMRL said:

“I am personally happy that at least we have formally started our carbon crediting activities in association with EKI. It will not only help us in earning additional revenue but also give the optics to KMRL as a responsible sustainable transport provider.”

In response, EKI’s Chairman Mr. Manish Dabkara remarked:

“We are excited about our partnership with Kochi Metro Rail Ltd. and would like to thank KMRL for selecting us as their preferred partner. This win will enhance our leadership in Government sector projects as an expert in climate change solutions both nationally as well as globally.”

The partnership will benefit EKI by bolstering its network of customers internationally. EKI will develop carbon credits from the modal shift metro rail transport project of KMRL. It will help the metro project earn more through carbon credits in the international carbon market. 

Last year, EKI announced its goal to produce 1 billion carbon credits by 2027. This is alongside its aim to be net zero by 2030 under a campaign “Steering the Planet to Net-Zero”.

EKI said that community upliftment is its core focus area. But it also focuses on providing nature-based solutions (NBS) for businesses to help them reduce and offset their emissions. The company’s climate commitments will help India fast-track its journey to net zero.

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DevvStream Partners with a Soil Restoration Tech VRM Biologik

DevvStream, a leading carbon credit investment firm specializing in technology solutions, entered into an exclusive carbon credits management deal with VRM Biologik. 

VRM Biologik is a soil restoration tech firm whose proprietary products regenerate farmlands by stimulating Biological Hydrosynthesis — a natural reaction that captures carbon and creates additional water.

About 33% of the world’s soils are already degraded, and at the current rate of depletion, the world’s topsoil can be gone within 60 years.

Regenerative agriculture tech and practices like that of VRM Biologik can improve soil health dramatically, providing not only environmental and human health benefits but also sequestering carbon from the air. Its adoption can capture and store up to 250 million metric tons of CO2 in the U.S. alone each year (5% of the country’s emissions). 

Under the agreement, DevvStream gets exclusive rights and title to carbon credits from projects developed by VRM Biologik. The company will also serve as carbon credit manager for those projects. 

DevvStream’s CEO remarked that:

“This partnership provides DevvStream with the ability to generate high-quality, verifiable carbon credits from a variety of projects in the agricultural space, including large-scale, land-based opportunities we’re currently pursuing in North and South America.”

Read full news release here.

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Wood Vault: a Carbon Storage System to lock CO2 away

Removing carbon dioxide through dead trees and storing it for thousands of years underground is a mission that seems to attract nobody. But a California startup, Kodama Systems, is persistent enough to take on the challenge.

After all, ensuring that dead trees keep carbon out of the atmosphere for millenia and bury them below the ground is one novel way to help mitigate climate change. And a novel concept also came out of that – wood vault – a carbon storage facility that you probably haven’t heard of.

This article will talk about the wood vault, its key factors, and what makes this biomass carbon storage challenging.

Carbon Removal and Storage in the Woods

Several researchers and startups have been looking into the potential of wood to lock up carbon in its biomass. It can be either by burying it or storing remains of dead trees to slow down decomposition. That will also limit the release of carbon back into the atmosphere.

Trees are a natural carbon storage facility, capturing huge amounts of CO2. But once they die and rot, that carbon they’re holding on their biomass goes back to the air.

That’s why the idea of storing dead trees underground pops up to prevent re-emissions. If this concept works as planned, it can offer a cheap way to help lock in carbon and keep global temperatures at bay.

In a broader term, wood harvesting and storage is a hybrid Nature-Engineering combination method to combat climate change. It refers to harvesting wood sustainably and storing it for carbon sequestration.

To date, this carbon storage technology has only been purposefully tested in small-scale demonstration projects. But Kodama aims to show that it’s possible to do it on a large-scale.

Kodama Systems is a forest management firm headquartered in the Sierra Nevada foothills town of Sonora. It was founded in summer last year and has been operating stealthily since then.

The company has raised over $6 million from Breakthrough Energy Ventures, Congruent Ventures, and other investors.

Moreover, Stripe also provided a $250,000 research grant to the company and its research partner, the Yale Carbon Containment Lab. That funding is part of Stripe’s broader commitment to carbon removal.

The grant will support a pilot effort to bury waste biomass harvested from California forests in the Nevada desert. It will also back the study that will determine how well the wood vault method avoids the emissions of GHGs.

Others refer to this carbon storage as “biomass burial”. It has the potential to be a cost-efficient, large-scale option for carbon removal and storage.

But until it’s been studied more closely and demonstrated to work on large scales, it remains to be seen… how much and how long.

How much carbon can the wood vault system store? How much will this carbon storage tech cost? And how long can it keep carbon out of the air?

Let’s break down each question and address them one-by-one… starting off with the concept of wood vault.

What is a Wood Vault?

It may sound like a storage where you can keep your personal things away but it’s much different. But it’s a storage facility though.

While it works pretty well as a vault, where things are kept, wood vault refers to an especially engineered structure or facility that keeps wood biomass from decomposing or rotting. Its purpose is for semi-permanent wood storage as carbon sequestration.

Wood vaults come in various types and the major one uses soil. Other types include the ones in water and dry/cold conditions.

The illustration below shows the wood vault in a standard soil profile. Its key factors are the following:

Woody biomass is buried deep underground, away from the biologically active topsoil.
The wood is buried in a manner that ensures anaerobic (active in the absence of oxygen) condition. Or it’s stored in dry or cold conditions that prevent decomposition for durable carbon storage.
The biomass burial process is similar to the first step of coal formation as shown below.

Compared to natural coal formation where plants are buried in favorable conditions at a slow rate, the rate of wood vault burial is faster due to human intervention through wood harvesting and carbon storage construction.

Biomass burial is the exact opposite of dig-and-burn that hastens fossil fuel oxidation. As such, it’s a natural way to somehow undo the carbon emissions from burning fossil fuels.

The Wood Vault in a standard soil profile:

Source: Zeng & Hausmann, 2022.

Wood biomass is buried in the subsoil, in B-horizon or lower horizon as shown above. The dead timber is then capped with low permeable material such as clay to achieve anaerobic condition. But if the subsoil provides enough low permeability, there’s no need for capping.

Upon proper enclosure, the original topsoil is backfilled for vegetation or other use.

The transparent enclosure in the image is for visual purposes only. The actual material used varies depending on the specific version or type of wood vault used.

Here’s one version of the vault, then followed by other different versions applicable.

Version 1.1 above is a basic wood vault unit partially above ground and partially underground. It’s divided into cells, with each cell sealed once filled. After the top is finally enclosed, the original topsoil is placed back (dark brown) for grass to grow. Reddish brown represents clay or clay-like liner.

The area can then be used for purposes such as cropland, park, solar farm, or grazing land.

More versions of Wood Vault: Version 1.2: fully above-ground (Barrow); Version 2: fully underground (Pit/Quarry/Mine); Version 3: aboveground shelter/warehouse; Version 4: Stacked units (Super Vault): each sub-unit is one of Tumulus or Barrow Source: Zeng & Hausmann, 2022.

Burying the Dead… Biomass

Wood is 50% carbon by mass. And forests are mostly trees, both living and dead.

Forest experts think that too aggressive fire suppression policies led to overgrown forests. They believe that this is increasing the risk of more damage in case wildfires happen.

Add to this the hotter and drier forest conditions due to climate change, so what you get… is more danger for a wildfire to spread. Therefore, several states decided to fund initiatives that clear out forests to lessen those dangers which include.

Undergrowth removal
Cutting down trees
Controlled burns to prevent wildfires from reaching forest crowns

These efforts can produce more forest wastes. Not to mention that harvested plants and trees are often left piled up in cleared areas. Only if they’re stored safely somewhere else, but no.

The logs and other parts of a dead tree are either burned or left to rot. Unfortunately, it brings back the carbon stored in wood biomass into the atmosphere, causing more warming.

This is where Kodama’s wood vault project kicks in…

The company hopes to resolve both problems of carbon emissions and wildfires. They’re developing automated ways to thin out overcrowded forests for cheaper and faster thinning. They’ll be loading stripped limbs that are too small to sell into trucks and transport them into the wood vault.

Kodama’s burial mound will be in the Nevada desert. It will be 7 yards high, 3 yards deep, and 58 yards long and across.

The company will cover the biomass with a geotextile liner, bury it under soil, with a layer of native vegetation on topsoil. The region has dry conditions – perfect for a storage facility that repels decomposers from rotting the buried biomass.

So, what about the costs and storage durability?

Under ideal conditions, the carbon in the wood stays there for thousands of years.

But the Kodama team plans to create smaller side vaults designed in various ways. They’ll continue to monitor the vaults and compare their performance when it comes to leakage and decomposition rates. From that observed data, the company will be able to produce long-term carbon storage estimates and other relevant findings.

The Challenge: Burial Cost

A research paper found out that storing wood biomass can remove billions of tons of carbon each year at a cost of less than $100/ton. Yet, there are still many areas left unknown.

Add to that, local residents and environmental campaigners are opposing forest thinning. That’s for the reason that doing it is laborious and costly. One has to pay for the workers collecting the wood biomass and for those digging the holes of the wood vault.

Plus, the cost of a Wood Vault facility also includes several other things such as land purchase, construction, and operation. Work and quality control are also a large budget item. While transport of wood from source to the facility is estimated at a rate of $5/ton for a 25-mile haul.

In total, the estimated cost for the 1 ha wood vault unit will be $1.2–1.8 million for storing 100,000 tCO2 in a year, at a price of $12–18/tCO2 sequestered.

Estimated Cost of Building a Wood Vault (1 ha)

Moreover, the entire process needs a lot of energy.

In effect, the emissions caused by removing, transporting, and burying wood have to be tallied and counted against the total carbon stored.

Interestingly, there’s about 56 million “bone dry” tons of waste biomass produced every year in California alone. These are wastes from logging, agriculture, fire prevention activities, and other activities.

While the opportunity is high, there’s some risks involved, too. It can create unintended incentives to remove more trees or agricultural wastes than necessary. After all, removing biomass also decreases the levels of nutrients that plants and trees get from decaying matter.

But as more and more companies like Kodama are seeking out to take on carbon removal solutions, the demand will also grow.

Another positive aspect of wood vaults is the value for later land use. Unlike a foul-smelling landfill for municipal wastes and chemicals, a wood vault is clean, safe, and stable.

And the best part?

Companies can earn revenue not just from forest thinning work, but also from carbon credits generated by wood vaults. For each tonne of carbon sequestered by the wood vault, each credit is also generated.

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Turning 1.3 billion tons of Food Waste into Carbon Credits

In partnership with The Mexican Foodbanking Network, a Miami-based climate tech company, CoreZero, has developed a method to create carbon credits to reduce carbon dioxide and methane emissions of food waste through the voluntary carbon market.

CoreZero had quantified the prevention of 221,800 tons of carbon emissions and converted them into carbon credits.

World’s First Carbon Credits from Food Waste

The 221,800 carbon credits are the world’s first carbon credits from food rescue. They represent the beginning of an option to offset that converts waste into value.

CoreZero Sustainability Director Nicolás Dobler said:

“We are excited to assist in driving incremental value out of waste and monetizing efforts to scale up social and environmental impacts, saving more products and reducing the food gap for those in need while contributing to climate change mitigation… Our model is replicable to scale the impact of zero-waste projects globally, enabling a new and disruptive vertical of offsetting that provides social, economic, and environmental benefits.”

Emissions of Food Waste 

Production, transportation, and handling of food generate significant carbon emissions. The global food system emits about a third of total annual GHG emissions. Food waste represents about half of this footprint and when food ends up in landfills, it releases methane.

One study found that in 2017, global food waste emitted 9.3 billion tonnes of CO2e (GtCO2e). That’s about the same as the total combined emissions of the US and the EU for the same year. 

In the United States alone, the carbon emissions of food waste are equal to those of 42 coal-fired power plants. 

The Environmental Protection Agency or EPA estimated that each year, U.S. food loss and waste releases 170 million metric tons of carbon dioxide equivalent (million MTCO2e) GHG emissions. This doesn’t even include landfill emissions.

Globally, the waste sector accounts for about 20% of human-driven methane emissions. This greenhouse gas is even more potent and has 80x the warming power of CO2 over two decades.

Overall, GHG emissions from food that’s never eaten accounts for about 6% or higher of global total emissions.  

Another study found that almost 24% of food’s emissions come from food that is lost in supply chains or wasted by consumers. 

Meanwhile, two-thirds of the emissions (15%) is due to poor storage and handling techniques, spoilage during transport and processing, and lack of refrigeration. The remaining 9% of emissions is from food thrown away by consumers and retailers. 

To put that figure in context, it’s about 3x the aviation sector’s global carbon footprint. In other contexts, food waste will be the 3rd largest country emitter. The U.S. accounts for 13% while China 21%.

So, if we don’t take urgent action, global waste will grow 70% from current levels by 2050.

Reducing Food Waste and Climate Change

When food gets wasted, all inputs used in producing, processing, transporting, preparing, and storing it also go to waste. Food loss and waste also contributes to the climate crisis with its significant carbon footprint. 

And CoreZero seeks to help ramp up initiatives that have an actionable impact in food waste reduction. The company’s CEO and founder, Jean Pierre Azañedo, understands the responsible waste approach to both address the hunger crisis and climate change. Azañedo has over a decade of experience in waste management.

The climate tech firm’s methodology measures and quantifies the impact that reducing food waste has on climate change. 

Through its quantification and monetization method, both nonprofits and businesses can monetize their positive actions with carbon credits. Companies can get those credits and then use them to offset their own carbon emissions. 

CoreZero’s from waste to carbon credits is a 3-step approach to climate innovation. 

Integrate. CoreZero’s platform integrates into your operations to assess the project’s potential, identify the methodology and define the emission factors that apply.
Quantify. They measure your positive impact and convert it into carbon reduction units, tracked and reported using blockchain technology and verified through an independent third-party process.
Monetize. Carbon reduction units transformed into tradable carbon credits and monetized in the Voluntary Carbon Market (VCM).

With this approach, CoreZero aims to transform the 1.3 billion tons of food waste each year into carbon credits. Thus, it becomes a turning point in how food waste and offsetting are now considered by NGOs, companies, and individuals. 

As Azañedo noted:

“I hope this turning point contributes to a change of perspective towards waste and its value… We designed a way to accelerate waste avoidance and valorization to tackle climate change. The potential of waste is boundless, so let’s, as a society, choose not to be wasteful with waste.”

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Canadian Biochar Producer Raises $38 Million

Airex Energy has raised $38 million in a Series B funding round led by Cycle Capital to speed up the company’s plans to expand its production of low-carbon products, biocoal and biochar, made from biomass.

Airex Energy is a Canadian-based company that develops and delivers decarbonization solutions that can significantly cut greenhouse gas emissions. 

The $38 Million Round

The financing round also includes existing investors Investissement Québec, Desjardins-Innovatech and Export Development Canada and welcomes a new investor, Fonds de solidarité FTQ.

The 7-year-old company will use the $38 million proceeds from the fundraising to increase capacity at its commercial-scale Bécancour biocoal plant.

Thanks to this fundraising, Airex Energy will be fast-tracking its innovations and growth initiatives. And that includes a Quebec biochar project with its partnership with Suez Group. 

As part of the deal, Airex will also continue with its aim to build 350,000 tonnes a year of biochar production capacity by 2035. The project cost is around $40 million.

The first phase will be a 30,000 tonne facility in Quebec, with help from Suez and a local biomass company. The goal is to largely boost biochar production in Europe and North America by 2035. 

Other initiatives include the conclusion of agreements in Quebec’s biocarbon and Asia’s biocoal sectors.

Michael Gagnon, Airex CEO remarked on the round:

“We are proud to count on the support of recognized local investors. Their backing is a wonderful acknowledgment of our shared sustainable development ambitions, as well as a sign of confidence…Thanks to our one-of-a-kind technology, we are poised to become a leader in the area of innovative and environmentally friendly decarbonization solutions both inside and outside Canada.”

Airex Energy Patented Tech

Andrée-Lise Méthot, Founder and Managing Partner of Cycle Capital also commented:

“From the outset, we have been convinced of decarbonization’s potential, particularly in polluting industries, as well as of Airex’s patented technology…As we get ready to launch the large-scale commercialization of biochar and biocoal, we look forward to contributing to Airex’s growth…”

Cycle Capital is a Montreal-based climate tech investment fund that focuses on investments for reducing carbon while contributing to the transition to a low-carbon economy. 

Airex patented technology is called CarbonFX. It transforms biomass into high-value-added eco-friendly products such as biochar, biocoal and biocarbon.

The process called torrefaction involves heating the organic material without using oxygen to remove moisture and volatile organic compounds (VOCs). It is done at lower temperatures, 250°C to 300°C to make the solid biofuel. Applying higher temperatures, the process produces more porous biochar.

By injecting gasses into the Airex reactor, the particles only spend 3 seconds in the reactor, 600x shorter than others, whose process needs 30 minutes for torrefaction.

The green industrial products of Airex offer different applications that contribute to the fight against climate change. 

Since 2016, the firm is running the first and only industrial production plant in Canada that specializes in biocoal.

Decarbonizing Businesses with Biochar and Biocoal

Currently, the primary material used by Airex Energy comes from sawmill residues or recycled wood shavings, but other sources are also possible. The company has conducted tests to work with compost that has no commercial value.

For instance, residual matter from municipalities. Agricultural wastes from the production of corn, sugar cane or palm oil can also be a primary material.

Biocoal is a fuel to replace coal in coal-fired power plants and thus reduce carbon emissions. It can also be used to produce energy for cement plants.

To test biocoal, a coal-fired power plant in the U.S. needs 8,000 tonnes, which is half of Airex annual production capacity. And since there won’t be enough biomass, the company can’t replace all coal, only 3% to 5%.

On the other hand, biochar is also a very potent material that can slash emissions. Plus, it can help increase soil fertility or restore contaminated soils.

Producing biochar doesn’t release the carbon contained in the residual materials as CO2. Rather, it binds it stably in the biochar and thus prevents CO2 from entering the atmosphere. Carbon can also be sequestered when it is used in building materials and carbon-negative concrete.

This makes the production of biochar one of the Negative Emission Technologies (NET) urgently needed for the climate.

The huge benefit of biochar is that one tonne can sequester 2.5 to 3.2 tonnes of CO2 equivalent. For Airex Energy, that means they could be “in a position to have more than a million tonnes of carbon credits on the voluntary market by 2035. And that’s pretty good,” Gagnon said.

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Shell’s Billion Dollar Carbon Bill

Shell said that climate change could have adverse effects on its business, particularly on its oil and gas assets and profits, costing the firm around $1.5 billion in annual carbon cost by 2032. 

The energy giant noted that the soaring carbon prices in the coming years caused by changing regulations and decarbonization policies will result in uncertainties. 

The Risks to Shell’s oil and gas business

Shell stated in its 2022 annual report that the energy transition could have a significant adverse impact on its oil and gas business. The company admitted that its assets, revenues, and operations are at risk because of climate change. 

Not to mention the possibility of regulatory matters that may hinder project progression and operations. 

As the firm reported, the transition will also possibly make compliance costs go up while restricting the application of hydrocarbons. Shell also stated in the report that:

“The lack of net-zero-aligned global and national policies and frameworks increases the uncertainty around this risk.”

When the Russian invasion of Ukraine in 2022 caused oil and gas prices to spike, Shell earned a huge profit of about $40 billion.

But just like other oil and gas businesses, Shell is under greater pressure from shareholders and environmentalists. On the other corner are investors and regulators focusing more on transitioning to a low-carbon economy. 

The energy transition is a must. Those who don’t or can’t adapt will be at the perils of losing billions of investments from climate investors. They need to rethink their business models to align with the transition.

Otherwise, the company noted that in an increasing carbon price scenario, “the risk of stranded assets may also increase”. 

Reducing Emissions Steadily

Despite those risks, the energy major was able to cut its absolute carbon emissions in 2022 steadily. That’s mainly because of lower oil product and gas sales and divestments.   

Shell follows the Greenhouse Gas Protocol, the global standard in carbon accounting, in reporting its absolute emissions. The Protocol defines each scope as follows:

Scope 1 covers emissions from sources directly controlled by an entity; 
Scope 2 includes indirect emissions from bought power, heat, or cooling; and 
Scope 3 covers other value chain emissions.

Shell reported that it’s working to reduce both its net carbon intensity and absolute Scope 1 and 2 emissions. It aims to reduce its absolute Scope 1 and 2 emissions by 50% by 2030 and hit net zero by 2050.

As seen in the chart above, Shell aims to cut its net carbon intensity by 20% by 2030. This reduction includes all emissions sources from operations (Scope 1), energy use (Scope 2), and products end-use (Scope 3). 

The oil giant managed to reduce emissions intensity in 2022 (76 grams of CO2e/Megajoules) from the 2016 baseline (79 grams of CO2e/Megajoules).

Likewise, the 30% drop in both Scopes 1 and 2 emissions were because of divestments in oil and gas. Conversion and shutdown of existing assets as well as renewable assets purchases also contributed to the reduction. 

While the decline in Scope 3 emissions, from 1.30 billion mtCO2e in 2021 down to 1.17 billion mtCO2e in 2022, was due to decrease in oil and gas sales.

The total emissions by the company from all three scopes went down to 1.24 billion metric tons of CO2e in 2022 from 1.64 billion mtCO2e in 2016

In summary, here are Shell’s climate targets with actual achievements in 2022. 

Concerns Over Carbon Prices

Shell expects that the cost it has to pay for carbon will soar in the coming decade. 

The company has paid the EU Emissions Trading Scheme (ETS) and other carbon pricing schemes around $493 million in 2022. This year, the forecasted cost is at around $0.8 billion and $1.5 billion in 2032

The estimate is based on a forecast of the firm’s equity share of emissions from operated and non-operated assets and real-term carbon cost estimates using the mid-price scenario.

Under its mid-price scenario, carbon prices are projected to be at $125/mtCO2e from 2030 onwards. Under a high-price scenario, the cost will be $220/mtCO2e.

Within the decade, carbon costs are primarily driven by policies, either through carbon taxes or emission trading schemes, according to Shell. Both systems vary globally, which makes it difficult for the company as to what specific assumptions to consider in its decisions. 

This prompted the oil major to call for further clarity on current carbon pricing mechanisms. They are, after all, critical to setting emissions reduction targets and achieving them. 

Carbon prices differ a lot per country and governments worldwide don’t have a single global carbon price to follow. 

For instance, the cost of each carbon credit in the EU ETS is about 10x more than that in the China carbon scheme. Last month, EU carbon prices reached record levels passing 100 euros. 

Yet, Shell is still opting for carbon credits to offset its hard-to-abate emissions. In 2021, it bought 5.1 million tonnes of carbon credits, and 4.1 million tonnes in 2022

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Russia Develops their own Carbon Credit Methodologies

Gazprombank signed a deal with Yu. A. Israel Institute of Global Climate and Ecology (IGCE) to develop methodologies for generating Russian carbon credits from different projects. 

Gazprombank, or GPB, is a private-owned, third-largest bank in the country by assets. GPB is one of the main channels for payments for Russian oil and gas. 

The methodologies will contribute to improving the quality of Russian carbon credits, increasing the competitiveness of the Russian carbon market and facilitating access to it for foreign participants. 

Russia Carbon Footprint

Russia emits 2-3 billion tonnes of greenhouse gasses each year, representing about 4% of global emissions. Obviously, the country’s emissions are mostly from fossil gas, oil, and coal. 

The world’s largest exporter of crude and refined oil products, as per IEA data, is also the biggest methane emitter. 4 billion dollars worth of methane was estimated to leak in 2019/20.

The annual CO2 emissions were around 12 tons per person in 1990, which is more than 2x the world average. It went down to over 7 tons per person in 2018, but is still more than the world data.

Source: OurWorldInData.org

In 2019, President Putin signed a law regulating the country’s top emitters by requiring them to report their emissions. It marked Russia’s first moves toward controlling carbon emissions since joining the Paris Agreement in 2019. 2023 is the target date for starting the carbon emissions reporting.

Russia’s goal is to reach net zero emissions by 2060. Yet, its energy strategy to 2035 is mostly about burning more fossil fuels. 

The energy sector is responsible for most of the country’s GHG – about 80%! Gas fired power stations are a major emissions source. Industrial production and agriculture are the second and third largest sources.

As Russia has no carbon tax or emissions trading in place, it can be vulnerable to future carbon tariffs imposed by the EU or other export partners. For instance, if the EU’s Carbon Border Adjustment Mechanism (CBAM) takes force, it would cost Russia over 8 billion euros each year.

The country’s carbon footprint has a huge impact on climate change since Russia is the 4th-largest emitter in the world, ranking behind China, the U.S., and India. 

So to help reduce its emissions, Gazprombank struck a deal with ICGE to strengthen Russian carbon credits generation. 

Methodologies for Russian Carbon Credits

The list of 18 methodologies included in their agreement was formed based on the needs of potential project developers who applied to the Russian register of carbon credits.

IGCE has been developing and improving methodologies for estimating GHG emissions and removals for 20+ years. It is Russia’s leading organization in the field of climate change.

Gazprombank seeks to improve the competitiveness of the national market for carbon units and its attractiveness for both Russian and foreign buyers. 

In late 2022, the Russian National Commodity Exchange, part of the Moscow Exchange Group, started trading of carbon credits. The Russian carbon credits were sold for over US$15.

The Russian Carbon methodologies are planning on being comparable to other international ones. At the same time, it will take into account factors specific to the Russian context.

The development of methodologies will be implemented on the basis of the Carbon Credit Registry Operator, with the involvement of competent expert bodies and according to the best international practices.

Below is the list of climate project methodologies developed by IGCE and Gazprombank.

Energy Efficiency buildings – large scale
Energy Efficiency buildings – small scale
Flaring & Utilization of gas from oil wells
Advanced Oil & Gas recovery
Low carbon fuel 
Renewable Energy – large scale.
Renewable Energy – small scale.
Energy Efficiency of gas compressors.
Utilization of gas, replacing flaring or deflation.
Sustainable Forest management – large scale.
Sustainable Forest management – small scale.
Upgrade Combined Heat & Power (CHP) Systems CHP from coal to gas.
Sustainable Agriculture.
Reduce Sulfur Hexafluoride (SF6) Emissions from energy distribution & distribution
Cogeneration Plants.
Biomass heat and electricity production
Increase renewable energy at hydroelectric power stations.
Wetlands Protection

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One of Korea’s Largest Banks Backs Carbon Credits

NH Investment & Securities Co., one of South Korea’s largest securities firms, is tapping into agricultural carbon offset credits as the sector becomes popular for corporate emitters.

NH is one of the largest securities firms in Korea that offers a broad range of financial services. These include wealth management, investment banking, brokerage and merchant banking through 120+ branches and subsidiaries. 

The Seoul-based finance company is looking to tap the carbon credit market by supporting biochar initiatives in partnership with 4EN.  

Agricultural Carbon Credits

Carbon credits purchases dropped last year. But the demand for them will rise as polluters in sectors with hard-to-abate emissions are under pressure to meet their decarbonization goals. 

There are criticisms over some types of carbon credits like the ones from renewable energy assets. So investors are focusing more attention on other types such as the credits from land-based projects.

Agricultural carbon credits have been on the rise due to the quality of carbon capture and storage they provide. 

The amount of carbon credits created are based on the amount of carbon farmers draw down into the soil. The same goes for GHG emissions they reduce above the soil.

There are plenty of ways agricultural practices can reduce or remove carbon and so generate the credits. It can be nitrogen management, no-tillage farming or growing cover crops. But for NH, it is through biochar.

NH Backing Biochar Carbon Credits

NH parent company Nonghyup Financial Group Inc. is owned by over 2 million member farmers. As per Park Kun Hoo, head of NH’s client solution group and oversees a carbon finance team, the network has a potential to generate new credits. 

NH plans to support projects that convert spent coffee grounds or cow manure into a charcoal-like substance called biochar. Biochar is capable of absorbing and storing carbon when it’s buried underground. 

Park noted in an interview that: 

“We can collect and utilize plant residues and animal waste from Nonghyup’s massive supply chain in the agricultural sector, and turn them into biochar or even electricity… By doing so, we are not only pushing for more sustainable farming, but also creating carbon credits.”

Biochar is commonly used in agricultural applications because it can improve soil nutrients and increase crop yield. And better yet, biochar applications can also increase soil CO2 emissions.

Biochar is a solid material that has high levels of carbon. It is a stable source of carbon because microbes find it so hard to break down. When incorporated into soils, it is 10x to 100x more stable than the material from which it’s made of.

That means the carbon contained in biochar is not likely to degrade to CO2 to the same extent as other organic materials.

In particular, a study estimated that biochar can sequester as much as 2 GtCO2 per year by 2050 at a cost of $30–$120 per ton of CO2.

Biochar also offers agricultural benefits such as increased aeration and water holding capacity. Verra, the biggest carbon registry, noted that biochar can significantly contribute to climate change mitigation when deployed at a massive scale. 

Biochar carbon credits are usually priced in the range of $3 to $20+ per MtCO2e. But some biochar projects have sold credits for $110/tCO2e.

The Biochar Deal with 4EN

NH set up a carbon finance team in December last year. It has closed a deal to invest in 4EN, a Seoul-based biochar producer. 

4EN creates sustainable environmental values by developing alternative fossil fuels and quantification of GHG reduction. It focuses on commercializing BECCS/BECCU technology for biomass and waste resources. These by-products are from agricultural fields such as coffee grounds and industrial activities.

BECCS refers to Biomass Energy Carbon Capture and Storage. BECCU means Biomass Energy Carbon Capture and Utilization Pyrolysis. 

NH and 4EN biochar agreement is forecast to generate 167,000 tons of carbon credits by 2030. 

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Major Baseball Team Buys Carbon Credits from 1PointFive

1PointFive and the Houston Astros partner where the baseball team agrees to buy carbon removal credits from 1PointFive’s Direct Air Capture (DAC) plant.

1PointFive is a carbon capture, utilization and sequestration company that has a DAC plan under construction in Ector County, Texas.

Houston Astros shows fans its commitment to continuous improvement of their experience by investing in the environment.

The DAC Carbon Credits Deal 

DAC is a technology that captures and removes large volumes of CO₂ directly from the air. The captured gas can then be safely stored deep underground in geologic formations.

Under their agreement with the Astros, the CO₂ captured by 1PointFive’s DAC will be sequestered in saline reservoirs not associated with oil and gas production.

DAC offers a practical solution for activities that are difficult to address like air travel.

The baseball team will use the carbon removal credits across a number of activities throughout the ballpark as they seek to achieve a carbon neutral footprint. 

Marcel Braithwaite, Astro’s Senior VP Business Operations remarked on the agreement:

“We are grateful to 1PointFive for their focused commitment to carbon removal and technology innovation to support this cause…We remain committed to continuous improvement of our stadium for our fans and purchasing carbon removal credits is an important investment for us.”

In response, Michael Avery, President and General Manager of 1PointFive said:

“We are pleased to further our relationship with the Houston Astros and provide a solution to address future carbon emissions…We are excited about the opportunity that Direct Air Capture presents to help organizations reduce their carbon footprint..”

Major Sports Leagues’ Climate Footprint 

Last January, the Houston Texans of the National Football League also agreed to buy carbon credits from the same DAC plant of 1PointFive. But unlike the Astros’ goal, the football team’s purpose of buying the credits is to offset their seasons flights. 

A new research discovered that scheduling changes in greatly reduced climate pollution from sports air travel. 

By scheduling more games between teams in the same geographic regions, increasing the number of back-to-back contests between the same teams and canceling overseas games, America’s four major sports leagues cut emissions down by 26% per game in the regular season.

The National Hockey League has the biggest reductions. It saw carbon emissions from air travel drop by 50% per game in the regular season in 2020 vs. 2018. Major League Baseball (MLB) experienced a 22% fall in carbon footprint. NBA came next at 15% and the NFL at 6%.

That was in terms of air travel emissions that have the largest footprint for professional sports. But when it comes to slashing emissions associated with stadiums, significant opportunities exist for MLB teams like the Astros.

Stadiums are using millions of gallons of water and have the same energy needs as a small city. Yet not all MLB teams have done a public-facing quantification of their environmental footprint. 

A 2019 MLB team’s carbon footprint was 91,900 tonnes.

One study analyzed the Scope 1, 2, and 3 GHG emissions of the Tampa Bay Rays for the 2019 regular season. The researchers identified hotspots within the stadium’s operations, supply chains, and transportation. 

Fan transport was the largest source of emissions, followed by food production for concessions. 

The research team then provided a set of strategies for stadium managers to reduce GHGs and water use. They have the following recommendations where the largest reduction opportunities are possible: 

Prioritizing fan engagement to switch to more sustainable transportation modes 
Offering and highlighting more vegetarian options at concessions

But for the Houston Astros, another strategy is to use carbon removal credits from DAC to neutralize the stadium’s footprint. And like the Texans, Astros is the first baseball team to turn to carbon credits for offsetting purposes.  

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