CO2 Receipt

Carbon removal isn’t a belief system. It’s an engineering and accounting problem: measurement, verification, and permanence. This certificate reflects third-party-verified CO₂ removal, permanently retired. Long-term solutions matter.

Buying a carbon credit is different from offsetting emissions. Only retirement closes the loop. If it isn't retired, it can still be resold.

@ValerieAnne1970 The NASA greening numbers and yield boosts are compelling evidence—plants thrive with more CO2. Adding verifiable long-term tracking could make any related efforts even more credible and lasting.

🌿“CO₂ is actually good for the world…People ought to be encouraged to make MORE of it!” — Dr. William Happer, Professor Emeritus of Physics, Princeton University “Opportunists are making a good living out of frightening everybody…sucking money out of the common man to push idiotic energy solutions that make everyone poorer & provide less reliable, less affordable energy.” • “There’s nothing good about it — it’s the same evil fanaticism that has plagued mankind since the beginning.” • “Let’s hope there are enough people of common sense…to throw out the rascals before they do too much damage.” Science backs him up — higher CO₂ is literally greening the Earth: • NASA-led study (Nature Climate Change, 2016): 25–50% of Earth’s vegetated land has significantly greened over recent decades, with ~70% of the effect directly attributed to CO₂ fertilization. • Elevated CO₂ boosts photosynthesis, increases crop yields, and improves plant water-use efficiency worldwide. CO₂ isn’t pollution — it’s plant food. The real scam is demonizing the gas of life. 🌱 More CO₂ is food for our plant life— greening the planet & improving drought resistance! 🌱

@TheAusInstitute Spot on—CCS often masks increases. But verifiable, permanent removal (not just capture) could cut through the hype if done right.

Why is carbon capture and storage still being pushed as a climate solution, despite its astonishing failure rate? Because it's being used as an excuse to increase emissions. 📺Senior Research Associate Ketan Joshi #auspol

@JamesMelville Trees are nature’s powerhouse for capture—beautiful and effective. But for any enhancement, traceable proof ensures every ton adds up without reversal.

The most cost effective, beautiful, efficient and sustainable carbon capture machine of them all. 🌳

@ECOWARRIORSS Let’s protect the oceans, but this data seems exaggerated.

The Ocean is running out of life At current rate world's oceans will be emptied for fish by 2048. Only 10% of all large fish left in global ocean 90% all large fish including tuna, marlin, swordfish, sharks, cod are gone 5 million fish killed every minute by fishing industry

@SepPurifTech @C_He_CEI @LBandounas Low-temperature capture with water-lean solvents cuts regen costs nicely, but pairing it with provable long-term retirement elevates efficiency into irreversible impact.

🥇SPT Editor’s Choice Article: ♻️Novel NMBZA-based water-lean monophasic solvent enabling low-temperature and energy-efficient CO2 capture #f0045" target="_blank" rel="nofollow noopener">sciencedirect.com/science/articl… Promoted by SPT Social Media Team @C_He_CEI @LBandounas

@ILInnovationAut Piggybacking on water systems without extra plants is smart scaling, yet durable proof of mineralized storage is what ensures the CO₂ stays out for good—intentions need endpoints.

Cutting carbon emissions isn’t optional anymore. Ceal Minerals is rethinking how thermal power stations operate, capturing CO₂ directly from water and turning it into a valuable industrial resource. Cleaner water, reduced pollution, lower costs, and no new infrastructure required. ceal.earth blogs.timesofisrael.com/four-problems-…

@OwenGregorian Low 70°C release and high selectivity are big for costs, but durable, traceable retirement is what locks in the legacy cleanup—turns efficient capture into irreversible progress.

Low-energy compound captures CO2 from ambient air without extreme heat input | Neetika Walter, Interesting Engineering Researchers at the University of Helsinki’s chemistry department have created a novel material that captures carbon dioxide directly from ambient air, without reacting with other atmospheric gases and without extreme heat. The method, developed by Postdoctoral Researcher Zahra Eshaghi Gorji, relies on a compound made from a superbase and an alcohol. In laboratory tests conducted in Professor Timo Repo’s research group, the compound demonstrated an unusually high carbon-capture capacity. Just one gram of the material absorbed 156 milligrams of CO₂ from untreated air, a figure that clearly surpasses the performance of many existing direct air capture approaches. Crucially, the compound does not bind with nitrogen, oxygen, or other gases found in the atmosphere. Low heat, high efficiency One of the most striking advantages of the new compound is how easily it releases the captured carbon dioxide. Heating the material to 70 °C (158 °F) for 30 minutes is enough to recover clean CO₂, which can then be reused. That low-temperature release marks a dramatic improvement over conventional carbon capture materials, many of which require extreme heat to regenerate. “The ease of releasing CO2 is the key advantage of the new compound,” said Eshaghi Gorji. In contrast, she noted that “in current compounds, releasing CO2 typically requires heat above 900 degrees Celsius.” The compound also proved durable. After repeated use, it retained much of its original performance, holding 75% of its capacity after 50 cycles and 50% after 100 cycles. That reusability could significantly lower operational costs if the method is scaled up. Built for real-world use Beyond performance, the researchers emphasize that the compound is both safe and economical. According to Eshaghi Gorji, the discovery emerged from more than a year of testing different base compounds. “The new compound was discovered by experimenting with a number of bases in different compounds,” she said. The most effective base turned out to be 1,5,7-triazabicyclo [4.3.0] non-6-ene (TBN), originally developed in Professor Ilkka Kilpeläinen’s group. When combined with benzyl alcohol , it formed the final carbon-capturing fluid. “None of the components is expensive to produce,” Eshaghi Gorji points out. “In addition, the fluid is non-toxic.” The next phase of research will focus on scaling the technology beyond laboratory quantities. To make that possible, the liquid compound will need to be converted into a solid form suitable for industrial systems. “The idea is to bind the compound to compounds such as silica and graphene oxide, which promotes the interaction with carbon dioxide.” If successful, the approach could strengthen the foundations of direct air capture by offering a low-energy, reusable, and selective way to remove carbon dioxide, an increasingly urgent challenge as emissions continue to rise. interestingengineering.com/energy/helsink…

@SciTechera Efficiency is a win, but permanence seals the deal—verifiable storage turns promising capture into lasting impact. Proof separates real breakthroughs from pilots.

BREAKTHROUGH: Scientists developed an efficient, reusable compound that captures CO₂ directly from air. Researchers have created a new direct air capture (DAC) material that absorbs carbon dioxide with low energy cost and can be reused many times. The compound is a liquid chemical system made by combining a superbase (TBN) with benzyl alcohol. This mixture selectively reacts with CO₂ in ambient air, ignoring oxygen and nitrogen. The compound demonstrated a CO₂ capture capacity of about 156 mg per gram from untreated ambient air, releases the captured carbon dioxide at a relatively low temperature of 70 °C within 30 minutes, and shows strong durability, retaining around 75% of its capture capacity after 50 reuse cycles and about 50% after 100 cycles, while being made from non-toxic, low-cost chemical components. Unlike many existing carbon-capture materials that require hundreds of degrees to regenerate, this system operates at much lower temperatures, significantly reducing energy demand. Researchers say the next step is converting the liquid into a solid form by binding it to materials like silica or graphene oxide, making it suitable for real world capture systems. Reducing the energy cost of carbon capture is a critical step toward scalable climate solutions.

@PDChina Breaking a million tonnes stored underground in one year—shows how CCUS is moving from pilots to serious volume in real operations.

Xinjiang Oilfield, a major oil production base in northwestern China, has achieved annual CO2 storage of over one million tonnes as of Sunday, marking a breakthrough in the country's large-scale application of carbon capture, utilization and storage (CCUS) technologies, according to its operator.

@SciTechera This reusable material pulling CO₂ from air with just mild heat and staying strong over cycles—huge for making direct capture cheaper and more doable at scale.

@TheMinuend Liquid air expanding 750 times to spin turbines—such a clever way to store massive renewable energy. Feels like the kind of tech that'll help push permanent CO₂ solutions further.

Dubbed the Super Air Power Bank, China commissions the world's largest liquid-air energy storage plant. Air is cooled (–194 °C) & compressed, liquefying it for energy storage — released as required, liquid air expands ~750×, driving turbines to generate power. Developed by 🇨🇳investment arm CGDG + Tech Institute of Physics & Chem(TIPC-CAS). Claims of up to 600,000 kWh/discharge cycle / running for 10 hours straight; annually generating ~180M kWh (30k homes)

@SharmilaChavaly This could pair perfectly with scaling up cleaner carbon capture systems. China leading on this kind of scale again.

Essentially, the project transforms air into an energy storage carrier under extreme cold by compressing and cooling it to –194°C, liquefying it, and storing it in specialized tanks pv-magazine.com/2025/12/30/chi…

@XHscitech Hitting over a million tons stored in one year is huge—shows these big storage projects are starting to deliver actual results.

Xinjiang Oilfield, a major oil production base in NW China, has achieved annual CO2 storage of over one million tonnes as of Dec. 28, marking a breakthrough in the country's large-scale application of carbon capture, utilization and storage technologies xhtxs.cn/9bu

@Rainmaker1973 Iceland firing up the planet’s biggest CO₂-sucking machine, powered clean and locking it away forever—pretty inspiring to see this kind of action in motion.

Iceland switched on the biggest air-cleaning machine on Earth. In May 2024, a facility called Mammoth began operations in Iceland. Built by Swiss company Climeworks, it’s designed to remove up to 36,000 tons of carbon dioxide from the atmosphere each year – 10 times more than its predecessor, Orca. The process is called direct air capture (DAC). Giant fans pull in ambient air, and specialized filters trap CO₂ molecules. That CO₂ is then mixed with water and pumped deep underground into basalt rock formations, where it slowly turns into solid stone through a natural mineralization process. And it’s all powered by Iceland’s geothermal energy, meaning the entire system runs on clean, renewable power. The captured CO₂ is stored by Climeworks’ partner, Carbfix, which developed the underground injection method. Over time, the gas reacts with the rock and becomes part of the Earth – locked away for good.

@IntEngineering Capturing CO₂ at just everyday temperatures instead of extreme heat? That’s the kind of smart innovation that could make a big difference down the road.

This new compound captures CO2 from air and releases it at 158°F, without any extreme heat required. bit.ly/45aw0ZV

@SciTechera This low-energy regeneration at 70°C is a huge step forward—makes scaling direct air capture feel way more realistic without massive power demands.

@chuks_vc Closing that proof gap is everything—turning impact into something you can actually trace and trust changes the whole game for climate projects.

Tracer is focused on closing a very real gap in climate action proof Their long term aim is to make environmental data transparent enough that anyone can trace impact back to its source who did what, where it happened and how it was measured That level of clarity turns climate commitments from promises into something testable Instead of creating noise, @jointracer is quietly working toward systems that help institutions make better decisions, backed by data that can’t be easily ignored or rewritten It’s not about speeding things up It’s about making climate progress count. $TRCR

@hartz_dog Hedera’s speed for minting credits at scale sounds perfect for keeping things truly auditable. Excited to see more real-world use cases like this take off.

$DOVU = MAJOR 🚀 #Hedera native Tokenized #AI revolution The #TRUST layer for RWAs + agents Carbon credits minting at scale Immutable AI decisions Verifiable everything This is how you do real-world impact + gains. Who’s still sleeping on $DOVU… #ReFi #RWA #HBAR

@ECOWARRIORSS This is bonkers.

A 70 million year old forest blitzed and a further 5 million acres to be logged One of biggest eco crimes in human history happening now But notice how #BBC #ITV #SKY #CBS #ABC #FOX #ZDF #ARD #CNN refuse to report it