Newsletter Articles | The Impact Innovator

Why it's important:  Thailand generates more than 2 million tonnes of plastic waste annually, a significant share of which comes from single-use food delivery containers. The RE-UP collection directly addresses this by pulling discarded packaging back into the material economy as high-value furniture, extending the life of plastics that would otherwise end up in landfill or the environment. What distinguishes the project from many sustainable design initiatives is that it makes no attempt to hide the origin of its materials: the shredded texture of the polypropylene and the frosted translucency of the polycarbonate are presented as design features rather than imperfections to conceal. This kind of honest material storytelling is increasingly important in a market where sustainability claims are frequently superficial, and where consumers and buyers are becoming more sophisticated about the difference between genuine circularity and aesthetic greenwashing.

Key takeaways:  The rubberwood used for some tabletops is itself a byproduct of Thailand's rubber industry, extending the circular economy logic across multiple material streams within a single product. Coffee grounds are used to tint certain bases in a mocha finish, adding a further layer of waste valorisation to the design system. The collection's breadth, spanning side tables, coffee tables, and lighting, means it functions as a coherent interior system rather than a standalone statement piece, which the studio appears to be deliberately positioning for both residential and hospitality markets given its HD Expo presence. TAKEHOMEDESIGN was founded by designer Paphop Wongpanich and has been producing furniture blending Thai craftsmanship with internationally informed design for over a decade, with the RE-UP collection representing its most explicit sustainability statement to date.
Article Source: www.yankodesign.com

Why it's important:  This research addresses two of the most pressing environmental challenges simultaneously. Over 95% of global hydrogen production currently comes from natural gas or petrochemical processes, making green hydrogen one of the most urgently needed but underproduced clean fuels for decarbonising shipping, aviation, and heavy transport. At the same time, plastic waste continues to accumulate at scale with limited viable recycling pathways for many waste streams. By using sunlight to convert waste plastic directly into hydrogen, the Cambridge team is targeting both problems with a single process. The spray-coating manufacturing method is a meaningful commercial advance over previous versions of the technology: it significantly reduces production costs, eliminates high-temperature processing, and opens a plausible path to large-scale panel production. The team has now demonstrated the device works under real outdoor sunlight rather than just simulated lab conditions, a critical step toward real-world deployment.

Key takeaways:  This is the latest iteration of work led by chemistry professor Erwin Reisner, whose team developed an earlier solar reactor three years ago that converted carbon dioxide and plastic waste into fuels and chemicals, but was limited to a 5cm by 5cm scale and lab-only testing. The new device represents a significant jump in both scale and practical applicability. Among the feedstocks tested, glucose produced the most hydrogen while cellulose yielded less, suggesting that mixed or varied waste streams would need to be managed carefully to optimise output. Two key challenges remain before the technology becomes commercially viable: improving the durability of the reactor panels over time, and reducing the cost of hydrogen production further, which the team acknowledges is still too high at current efficiency levels.
Article Source: www.anthropocenemagazine.org

Why it's important:  Construction generates enormous volumes of excavated soil during foundation, basement, and parking structure digging, much of which currently ends up in landfill. This research offers a direct pathway to reusing that waste material on-site rather than discarding it, potentially reducing both the environmental footprint and material costs of construction projects. Earth-based building materials also carry meaningful indoor environmental benefits, including moisture regulation, air pollutant uptake, and natural thermal insulation that keeps buildings cool in summer and warm in winter, reducing reliance on energy-intensive heating and cooling systems. Because clay and sand are among the most abundant building materials on Earth, this technique is inherently scalable and globally applicable, giving builders in virtually any region access to a low-impact, locally sourced construction material rather than depending on cement, which carries a substantial carbon footprint.

Key takeaways:  The research was directly inspired by nature's own earthen builders, including termite mounds, wasp nests, and honeycomb worm reefs, all of which use biopolymers rather than cement to bind soil and clay together. The team tested five different biopolymers, including guar gum, locust bean gum, and cassia gum, finding that while locust bean gum bound materials tightly, it made the mixture too difficult to extrude through a 3D printer nozzle. Sodium alginate worked through an entirely different mechanism, altering the electrical charges on clay particles so they repel one another, keeping the mixture flowable while still being strong once printed. The researchers believe the same testing framework could be applied to other biopolymers to further enhance strength and durability, suggesting this is an early but promising foundation for a broader category of sustainable, bio-enhanced construction materials.
Article Source: techxplore.com

Why it's important:  Floating solar, or floatovoltaics, offers a compelling way to generate clean energy without competing for land use, but its viability has historically been assumed to be limited to warmer regions due to concerns about ice and structural durability. This study directly challenges that assumption, with lead author Koami Soulemane Hayibo concluding that floating solar can be technically feasible in cold Canadian conditions, but winter operation cannot be treated as a minor detail. This matters considerably for countries with cold climates and abundant freshwater bodies, such as Canada, the northern US, and much of Scandinavia and Northern Europe, where floating solar could unlock substantial additional clean energy capacity on lakes, reservoirs, and ponds that would otherwise be considered unsuitable. The energy cost of the ice-prevention system was found to be manageable, with the bubbling mechanism consuming between 0.02% and 14.5% of the solar electricity, depending on the operating period and assumptions, a cost the researchers describe as relatively small compared with electrical energy produced during the studied periods, but not negligible.

Key takeaways:  The team tested a 7-kilowatt system comprised of 40 panels on a pond in Ilderton, Ontario, monitoring sunlight, air temperature, wind, humidity, water temperature, solar panel temperature, energy output, and visual conditions throughout the trial. Hayibo cautioned that the results should not be generalised too broadly, noting that large lakes and reservoirs can have strong wave, current, moving ice, more complex anchoring requirements, and different ecological constraints, and those parameters must be considered before applying the findings at larger scales. The researchers now plan to test the system over longer periods, improve the ice-prevention strategy, and evaluate how different floating structures affect performance, suggesting this is an early but promising step toward expanding floating solar deployment into cold-climate regions previously considered unviable.
Article Source: www.anthropocenemagazine.org

Why it's important:  Researchers at ETH Zurich have unveiled an innovative direct air capture (DAC) technology using porous protein beads made from waste products of dairy and tofu production. This method captures up to 97 milligrams of CO2 per gram of material, significantly surpassing traditional DAC systems. Operating at room temperature and employing a low-energy spray technique for CO2 release, these beads can be reused or transformed into fertilizers or biofuels, enhancing their sustainability and aligning with circular economy principles. This development is crucial as it highlights the potential of repurposing food waste to address climate change, offering a dual benefit of carbon capture and waste reduction. The technology not only promises a more energy-efficient method for capturing atmospheric CO2 but also challenges existing assumptions about the feasibility and efficiency of DAC systems in combating global warming.

Key takeaways:  The development of a novel direct air capture (DAC) technology using protein beads from food waste underscores the potential for innovative solutions in carbon reduction. By transforming agricultural byproducts into effective carbon-absorbing materials, this approach not only enhances the efficiency of CO2 capture but also aligns with sustainability goals by promoting a circular economy. This method's lower energy requirements and reusability could significantly reduce operational costs compared to conventional DAC systems, potentially making it a transformative tool in the fight against climate change. As further research evaluates its scalability, this technology may redefine best practices in carbon management and resource utilization.
Article Source: scitechdaily.com

Why it's important:  Water scarcity is one of the defining humanitarian challenges of the coming decades, with climate change intensifying droughts and reducing freshwater availability across large parts of the world. Existing atmospheric water harvesting devices are typically large, static, and energy-intensive, limiting their usefulness in remote or emergency settings. By embedding the collection function directly into everyday wearable fabric, this research opens a fundamentally new form factor for personal water access that requires no fixed infrastructure. The applications are broad: emergency responders operating in water-scarce environments, disaster relief situations, military operations in arid regions, and outdoor recreation all represent immediate use cases. In the longer term, wearable water harvesting could also become a meaningful tool in climate adaptation strategies for communities in chronically water-stressed areas.

Key takeaways:  The key design innovation is that the fabric does not simply absorb moisture like a conventional material, which would leave it wet and unusable. Instead, it actively transports collected water toward detachable harvesting units, keeping the textile functional as a garment while concentrating the water for extraction. The researchers described this transport mechanism as what makes the system viable outside a laboratory setting. The jacket format was chosen as a proof of concept, but the team explicitly flagged that the textile is format-agnostic, making it adaptable to a wide range of products and applications beyond clothing.
Article Source: www.engadget.com

Why it's important:  Mangroves are among the most ecologically and climatically valuable ecosystems on Earth. They store carbon at rates far exceeding those of tropical forests, protect coastlines from storm surges and flooding, and provide critical habitat for marine biodiversity. Their recovery is therefore a genuinely significant development for both climate mitigation and adaptation. The study also offers a broader lesson for conservation strategy: much of the rebound appears to have come not from active planting campaigns but from mangroves naturally colonising abandoned aquaculture ponds and newly formed mudflats, suggesting that protecting existing ecosystems and the natural earth-building processes that create new habitat may be more effective than large-scale replanting programmes. In the authors' words, sometimes the most important thing humans can do for restoring nature is get out of the way.

Key takeaways:  Indonesia, once one of the world's worst mangrove loss hotspots, has seen notable recovery linked to increased legal protections, better management practices, and a shift in public awareness following the devastating 2004 Indian Ocean tsunami. However, the picture is not uniformly positive. Africa, and Nigeria's Niger Delta in particular, continues to lose mangrove coverage due to oil pollution, and several regions that have seen recent gains still carry a significant net deficit compared to their 1980 baselines. Myanmar, for example, has gained 10% of its mangrove cover since 2010 but remains 29% below its 1980 levels. The study's authors describe mangroves as a rare conservation success story in an era dominated by loss, and one that could serve as an important source of optimism for broader climate action.
Article Source: www.anthropocenemagazine.org

Why it's important:  Water scarcity is one of the defining challenges of the coming decades, with 2.2 billion people currently lacking safely managed drinking water. Conventional desalination methods consume large amounts of energy, require chemical treatments, and discharge toxic concentrated brine back into the ocean, harming marine ecosystems. This technology addresses all three problems simultaneously: it runs entirely on solar energy, requires no chemical additives, and produces no liquid waste. The recovery of dissolved minerals in solid form rather than brine discharge is a particularly meaningful advance for coastal and island communities where brine discharge has historically caused significant ecological damage.

Key takeaways:  One of the most commercially compelling dimensions of the technology is its potential for lithium recovery. In a related study published in the Journal of Materials Chemistry A, the same team demonstrated that embedding hydrogen titanate nanoparticles into the panel's grooves allows lithium to be selectively captured from the remaining salt mixture, recovering approximately 50% of the lithium present in water samples from Utah's Great Salt Lake. Given that conventional lithium mining is energy-intensive and environmentally damaging, extracting it directly from saltwater during desalination could represent a significant secondary revenue stream and supply chain benefit. The research was supported by the National Science Foundation, the Bill and Melinda Gates Foundation, and the Worldwide Universities Network, and the team believes the technology is scalable beyond its current proof-of-concept form.
Article Source: scitechdaily.com

Why it's important:  Lignin is one of the most abundant organic compounds on Earth and a major byproduct of the paper, pulp, and biorefinery industries, yet it has historically been burned for low-grade energy because its complex structure resists conventional processing. This research offers a genuine circular economy pathway, converting what is essentially an industrial waste stream into two commercially valuable outputs: vanillin, widely used in food, cosmetics, and chemicals, and biodegradable plastic additives that directly replace fossil-derived plasticisers. The process uses only light and ambient conditions, requiring no harsh chemicals or high temperatures, making it inherently lower-impact than conventional alternatives. For the European chemical industry, which faces mounting pressure to decarbonise and reduce fossil feedstock dependence, this technology directly addresses both objectives simultaneously.

Key takeaways:  The record vanillin yield of 7.1% is equivalent to extracting 94% of all available aromatic monomer units from the lignin, a significant leap beyond what previous methods have achieved. To demonstrate real-world applicability, the team successfully 3D printed a fully functional biodegradable mobile phone case using the lignin-derived plasticisers, matching the durability and properties of conventional plastic products. The research involved contributions from VTT Technical Research Centre in Finland and the University of Salzburg in Austria, giving it a broad European collaborative foundation. The authors explicitly frame the work as establishing a technical blueprint for a new generation of sustainable, high-value biorefineries directly aligned with EU circular economy and green transition mandates, suggesting potential for regulatory and industrial uptake beyond the laboratory.
Article Source: www.eurekalert.org

Why it's important:  The built environment accounts for roughly 40% of global energy consumption, making building-integrated solar a critical and underexplored frontier for the clean energy transition. The core challenge has always been that conventional solar panels are heavy, opaque, and require dedicated mounting space, none of which is abundant in dense urban environments. By turning existing glass surfaces into electricity generators, this technology could unlock enormous passive solar generation capacity in cities without requiring additional land or structural modifications. A modern office tower's glass facade alone could theoretically generate several hundred megawatt-hours annually if covered with this material. The colour-neutral transparency of the cells and their compatibility with low-light conditions, relevant in shaded urban canyons and cloudy climates, further strengthen the case for urban deployment.

Key takeaways:  The key manufacturing breakthrough is the use of thermal evaporation, which produces highly uniform, large-area films without toxic solvents and with precise thickness control, addressing two of the most persistent obstacles to scaling perovskite solar cells. The transparency can be tuned during production by adjusting the thickness of the perovskite layer, giving designers flexibility. Potential applications extend beyond buildings to vehicle sunroofs, wearable electronics, and smart glasses. The team has filed a patent through NTU's commercialisation arm and is working with industry partners to validate the manufacturing process. The significant remaining challenge, as flagged by independent researchers, is long-term durability: perovskites remain vulnerable to moisture, heat, and UV exposure over time, and that problem must be solved before this technology can move from the lab to the glass facades of skyscrapers.
Article Source: newatlas.com

Why it's important:  Silicon anodes are one of the most commercially promising pathways to meaningfully improving EV battery performance. Silicon's theoretical energy storage capacity is approximately ten times that of graphite, the material currently used in most EV anodes, meaning silicon-blended batteries can deliver significantly higher energy density at lower weight, directly translating into greater vehicle range. This matters for EV adoption because range anxiety remains one of the most cited consumer barriers to switching from combustion vehicles. Nexeon's blended approach, using silicon at under 20% concentration rather than pure silicon, sidesteps the well-known problem of silicon expanding during charging and causing capacity degradation, while still capturing a meaningful energy density improvement. Honda's investment reflects a broader automaker race to secure next-generation battery chemistry partnerships ahead of what is shaping up to be a highly competitive global EV market through the late 2020s.

Key takeaways:  The geopolitical and policy context surrounding this investment is telling. Nexeon has deliberately positioned its first production plant in South Korea to take advantage of proximity to Asian battery cell producers and reduce supply chain risk, a contrast to the challenging environment facing EV battery manufacturing in the US. Panasonic's Kansas plant, which had planned to use Nexeon's silicon material, has faced significant headwinds following the elimination of the $7,500 federal EV tax credit under the Trump administration's Big Beautiful Bill, causing delays despite the plant nearing 50% capacity with 1,400 employees. The UK's Advanced Propulsion Centre independently validated silicon-blended anodes as one of the three most commercially ready battery innovations in the country for 2025, lending external credibility to the technology's near-term commercial trajectory.
Article Source: cleantechnica.com

Why it's important:  The scale of the problem this technology targets is striking. In 2025, data centres consumed 485 TWh of electricity globally, with roughly 30% of that, more than Sweden's entire annual power consumption, going purely to cooling. As AI infrastructure scales and chips become more power-dense, this figure is growing rapidly. The researchers estimate that applying their technology across a 1 GW facility could reduce cooling overhead from around 550 MW to approximately 11 MW, pushing the facility's Power Usage Effectiveness toward 1.011, a figure approaching the theoretical ideal. For companies and investors with Scope 1 and Scope 2 emissions reduction targets that include data centre operations, a technology capable of this efficiency gain would be genuinely transformative, reducing both the carbon footprint and the energy cost of running AI infrastructure at scale.

Key takeaways:  The key innovation lies in the combination of two advances. Topology optimisation generates fin geometries that conventional manufacturing cannot produce, while electrochemical additive manufacturing enables those intricate pure copper structures to actually be built with precision at the microscale. Pure copper was chosen specifically for its exceptional thermal conductivity, a property that makes it ideal for this application but which has historically made it very difficult to work with in fine 3D printing processes. The optimised plates delivered up to 32% better cooling performance than conventional cold plates in liquid cooling tests, while simultaneously reducing pressure drop by up to 68%, meaning significantly less pump energy is required. The researchers believe the approach could be adapted beyond data centres to cooling applications across a wide range of electronics and hardware.
Article Source: newatlas.com

Why it's important:  Wave energy has long been an underfunded and underexplored frontier in renewable energy, overshadowed by the faster-scaling economics of wind and solar. The MARMOK-A-5's grid-connected deployment is a meaningful step toward establishing it as a credible part of the clean energy mix, and for good reason: ocean waves are far more predictable and consistent than wind or sunlight, generating power continuously regardless of time of day or weather. The world's coastlines also overlap heavily with its most energy-intensive population centres, making the resource geographically well-placed. This deployment produces live, grid-connected performance data from genuinely harsh marine conditions, which is precisely the kind of commercial-scale evidence the wave energy sector has lacked. IDOM first connected the original MARMOK-A-5 to the Spanish grid in 2016, making this the culmination of a decade of iterative development rather than a first-generation experiment.

Key takeaways:  The device operates on an oscillating water column principle, one of the more technically mature wave energy conversion approaches, using the ocean's own motion rather than any mechanical interaction with the waves themselves. A notable milestone from this deployment is that the MARMOK-A-5 is the first wave energy converter to connect electrically to the grid through the HarshLab buoy at the Biscay Marine Energy Platform, establishing a new model for how ocean energy infrastructure can be tested and eventually scaled in real-world conditions. The current device is rated at just 30 kilowatts, making it very much a prototype at this stage, but the value lies in the operational and grid-performance data it is now generating, which will inform the design of commercially viable, larger-scale successors.
Article Source: www.yankodesign.com

Why it's important:  The construction sector accounts for a significant share of global CO2 emissions, and TRÆ attacks this from multiple directions simultaneously. Compared to an equivalent concrete building, the tower achieved a 26% reduction in CO2 emissions, driven by its use of engineered mass timber, which stores carbon rather than emitting it during production, and its extensive incorporation of upcycled materials that would otherwise go to landfill. Wind turbine blades are a particularly timely example: as the first generation of large-scale wind turbines reaches end of life, the industry faces a significant waste challenge, with blades made from composite materials that are difficult to recycle. TRÆ's solution of repurposing them structurally and aesthetically points toward a scalable model for the sector. The project also signals that circular economy principles are now being applied credibly at high-rise scale, not just in smaller low-rise demonstrations.

Key takeaways:  Incorporating wind turbine blades into a timber tower presented a significant fire safety challenge, as the blades are inherently flammable. The design team resolved this through extensive processing, treatment, and fire testing before limiting the blades' role to external solar shading rather than structural or facade elements. Other recycled elements include interior acoustic surfaces made from waste textiles and PET felt, reclaimed brick used to construct a rooftop bar, and mature trees relocated from municipal sites to reinforce the building's green character from day one. The hybrid structural system combines glulam columns and cross-laminated timber floor slabs with low-carbon concrete cores for stability and fire safety. Globally, high-rise timber construction is gaining momentum, with Australia's Atlassian Central tower set to surpass all current height records upon completion.
Article Source: newatlas.com

Why it's important:  Coral reefs cover less than 0.1% of the ocean floor but support roughly a quarter of all marine species, making them among the most ecologically significant and threatened ecosystems on Earth. Overfishing, coastal development, and warming ocean temperatures are accelerating reef degradation, and effective conservation depends on timely, accurate data about species distribution and health. Human divers, the current primary tool for reef monitoring, are constrained by oxygen limits, cost, and training requirements, leaving large areas of reef either unmapped or infrequently surveyed. CUREE offers a scalable, cost-effective alternative that can operate continuously and autonomously across broad reef areas, producing richer data at lower cost. Better reef monitoring directly supports conservation decision-making, marine protected area management, and the scientific evidence base for climate and biodiversity policy.

Key takeaways:  CUREE's dual-sensor approach is what distinguishes it from earlier underwater robots. Passive acoustics provide a wide-area sensing capability, while high-resolution cameras deliver precise, close-range identification once the robot has located a hotspot, with the two systems working in complementary fashion. The barracuda tracking experiment was particularly notable: the robot followed the predator as it moved between reef hotspots, including revisiting a location where it had previously startled a large reef snapper, demonstrating that CUREE can track the dynamic behaviour of individual marine animals over meaningful distances. While some human intervention was required to initiate and occasionally re-establish the lock on the barracuda, the vast majority of the tracking was fully autonomous. The WHOI team describes the system as designed to be dropped into a broad area of water and left to conduct surveys independently, a capability that could transform the frequency and coverage of reef monitoring globally.
Article Source: www.popsci.com

Why it's important:  Grid-scale, long-duration energy storage is one of the most critical missing links in the clean energy transition, and this project directly addresses that gap. Unlike lithium-ion batteries, which are better suited to short-term storage, redox flow batteries are designed for long-duration, grid-scale applications, making them well-positioned to store the large volumes of intermittent wind and solar generation that modern grids increasingly rely on. The Swiss battery's capacity is nearly three times that of China's current world record holder, demonstrating a meaningful leap in scale for the technology. Its non-flammable chemistry and near-complete recyclability at end of life also give it a significant safety and environmental advantage over lithium-ion alternatives, addressing two of the most persistent criticisms of conventional battery storage as a long-term infrastructure asset class.

Key takeaways:  Redox flow battery technology conceptually dates back to 1879 and was modernised through NASA research between the 1950s and 1970s, but has only recently become commercially competitive as the cost of key components including tanks, membranes, cell stacks, and pumps has fallen. The FlexBase battery will be co-located within a 20,000-square-metre technology complex that also houses a data centre, laboratories, and offices, reflecting the growing convergence of clean energy infrastructure and digital infrastructure investment. The project is situated near the Leibstadt nuclear power plant in northern Switzerland, close to the German border. Japan and Germany are also significant investors in redox flow technology, suggesting the Swiss project is part of a wider global shift toward long-duration storage as a serious grid infrastructure category rather than a niche clean energy experiment.
Article Source: newatlas.com

Why it's important:  This research sits at the intersection of two pressing challenges: the mountains of forestry waste generated globally each year, most of which is simply burned, releasing stored carbon back into the atmosphere, and the urgent need for scalable, affordable carbon capture technologies. By converting waste bark into a high-performance carbon capture material using a low-temperature, low-complexity process, the RMIT team has identified a pathway that addresses both problems simultaneously. Crucially, the method avoids the energy-intensive, high-temperature processing that limits the commercial viability of conventional porous carbon production, making it inherently more scalable. Eucalyptus is also one of the most widely cultivated tree species in the world, meaning raw material supply is not a constraint. For companies and investors focused on carbon removal as part of their net zero strategies, industrial-grade carbon capture materials derived from waste feedstocks represent a compelling and cost-competitive option.

Key takeaways:  Australia is home to over 900 species of eucalyptus and related trees, and eucalyptus cultivation is widespread globally, giving the approach a broad geographic reach beyond its country of origin. The bark's natural composition of lignin and cellulose contributes to the formation of stable carbon frameworks with well-developed porosity, giving it a performance advantage over other common biomass sources. The research team is now evaluating long-term durability, regeneration capacity, and performance under real operating conditions, and is actively seeking industry collaborations to explore commercialisation pathways. While further development is needed before large-scale deployment, the lead researcher described the study as providing a clear pathway toward more sustainable and economically viable carbon capture technology.
Article Source: www.anthropocenemagazine.org

Why it's important:  The facility directly targets two of the most stubborn environmental problems simultaneously. The UK generates 5 million tonnes of plastic waste annually, around 80% of which cannot be mechanically recycled and would otherwise go to landfill or incineration. Meanwhile, less than 1% of global aviation fuel currently comes from sustainable sources, despite aviation accounting for 7 to 8% of total daily global oil demand. Clean Planet's process cuts lifecycle greenhouse gas emissions by more than 70% compared to conventional jet fuel, and by using non-recyclable plastic as feedstock, it avoids competing with food crops or other biological materials. For airlines and airports facing tightening SAF mandates, and for companies with Scope 3 emissions targets that include business travel, this pathway represents a commercially relevant and scalable solution.

Key takeaways:  The UK government's SAF mandate requires 2% of jet fuel to come from sustainable sources today, rising to 10% by 2030 and 22% by 2040, giving the facility a clear and growing regulatory tailwind. A key commercial advantage of the process is that its core components, pyrolysis, purification, distillation, and hydroprocessing, are all technologies already deployed independently at commercial scale, reducing the technical risk of scaling up. Clean Planet Group has received a strategic investment from FTAI Infrastructure, managed by Fortress Investment Group, to support commercial expansion, and is targeting the commissioning of its first commercial-scale unit later this decade. The company was founded in 2018 and is targeting Kent as part of what its partners describe as an emerging hub for sustainable innovation in southeast England.
Article Source: sustainabilitymag.com