As Econic grows significantly and moves towards commercialisation, so too do our scientific innovations. These technological developments form part of the foundation, and the future, of our company, so it’s important that we protect them, in the same way that you would your house or car. This is where Dr Michael Kember, our Head of Research and Intellectual Property, and also a co-founder of Econic, steps in.
Mike determines the direction that our research team take in the development of new generations of catalysts and CO2-containing polymeric products, not only in terms of the fundamental scientific developments, but also in their protection as Econic’s intellectual property. This task requires Mike and the team to have a forensic understanding of the current IP landscape to see where and how Econic fits in, and the directions future technology innovations can take. “It is important that we protect our catalyst technologies at all stages of development.” Mike states, “This protection is crucial in establishing the place of our unique catalyst systems’ foothold in the market. It also allows our customers the freedom to use these technologies in their own business processes, opening up the advantages of CO2-based polyols and materials.”
Econic’s IP portfolio is an ever-evolving, growing collection,
currently consisting of more than 30 granted patents that span from
polymerisation catalysts and the processes used in our technology, to enhanced
polyurethane products made using CO2-containing polyols. This
portfolio will only continue to diversify as we develop new generations of our
catalyst technologies for use in the polyols for the polyurethane market, and, looking
ahead, to wider plastics markets. The potential is far-reaching and we are only
just scratching the surface.
Get in touch to find out how we can help turn waste CO2 into added value for your business.
Safety is one of the founding values that underpins how Econic operates not only on a day-to-day basis in our laboratories and Customer Demonstration Facility, but also as we plan for the commercialisation of our catalyst technologies and further growth of the company. Dr Solène Cauët-Fidge, our Safety and Laboratory Manager, is leading the charge in implementing our Health and Safety policies throughout our very diverse activities across two sites.
Guaranteeing safety compliance in a growing company, whilst also ensuring that research can run with minimal disruptions, can be a challenge for Health and Safety. “Working with the research team who carry out a breadth of activities, as well as ever-developing processes and working conditions, keeps me on my toes” says Solène. “But, it’s the dynamic nature of Econic that makes it so exciting! My days can involve anything from managing the use of new chemicals on a laboratory scale, to developing the company’s H&S policy, to considering the safety implications of scaling a process to the demonstration scale or beyond.”
As we move closer to the commercialisation of our catalyst technologies, it is vital that we maintain the highest levels of safety practices as we not only develop and transfer internally our processes from the lab to plant scale, but also as we move to test these systems in our customers’ facilities. Safety processes are an integral element of helping our customers to realise the full potential of incorporating waste CO2 into their polyol and downstream plastics applications.
Get in touch to find out how we can help turn waste CO2 into added value for your business.
Industrial placements are invaluable – to both undergraduate students and companies. Students are offered the chance to use their theoretical knowledge in real world technical applications, as well as gain transferable skills in working in industry and, of course, being exposed to a plethora of new scientific concepts and skills. For companies, in particular SMEs like Econic, we have the opportunity to work with motivated students from a range of backgrounds who bring new skills and creative ideas to a growing technical team.
One of our current industrial placement students is Tom Lynch, who is spending the fourth year of his Chemical Engineering degree at Loughborough University as a member of our Process Development team. Guided by our process development experts, Tom has played an instrumental role in the development of our downstream polyol processing and the transfer of these processes from the lab to pilot scale, as well as the generation of valuable data to help our customers efficiently scale their use of our technologies. Tom has found working in Econic’s continually developing environment to be most rewarding: “The smaller team size means that I’ve had the opportunities for more responsibilities and opportunities than those of my classmates who work at much larger companies, especially since I have been able to work on projects in both the lab and at the Customer Demonstration Facility.”
As we move closer to the commercialisation of our catalyst technologies, the downstream process development and transfer of our systems from the lab to plant scales are a vital step in helping our customers to realise the full potential of incorporating waste CO2 into their polyol and downstream plastics applications.
Get in touch to find out how we can help turn waste CO2 into added value for your business.
Author, Anthea Blackburn
Happy birthday to the UK’s first customer demonstration facility! 28 03 2019
It has been a year since we opened the doors to our customer demonstration facility in Runcorn – the very first of its kind in the UK – to demonstrate how our pioneering catalyst technology can create polyols using waste CO2. It would be safe to say that, in this time, a fantastic buzz has sprung up around the plant, not just from our fellow members of The Heath, but from across the plastics industry.
So far, we’ve had visits from 60 leading global companies within the polyurethane industry, as well as Andy Burnham and Steve Rotherham, the Metro Mayors of Manchester and Liverpool. The team of 7 at the facility has been busy producing polyol samples for all of the interested parties, who are testing the added value that our technology will incorporate into their own downstream polyurethane applications – everything from CO2-based insulation foams, to coatings and elastomers.
Over the course of the year, activity at the plant has helped our pioneering catalyst technology move out of the lab and onto the factory floor, demonstrating the huge economic and positive potential of CO2 for manufacturers.
Importantly for polyurethane producers, our facility uses a conventional reactor design and widely-available downstream technology, which shows just how readily existing plants can be retrofitted to use our catalyst. But unlike existing plants, our facility enables manufacturers to create CO2-containing polyols at lower pressures and temperatures, which not only allows for much safer operation, but also leads to significant cost savings. Producing everyday goods from CO2 may have once sounded like science fiction, but our facility has demonstrated that it is now science fact.
In the coming months, the facility will continue to fire on all cylinders. We look forward to welcoming more customers to the facility to further demonstrate the economic, environmental and product potential of our catalyst technology and how easily the use of waste CO2 as a raw material can be adopted, and its advantages realised by the polyurethane industry.
Happy birthday, customer demonstration facility! Here’s to another fantastic year ahead.
Get in touch to learn more about our Customer Demonstration Facility and to find out how we can help turn waste CO2 into added value for your business.
Gemma is one of our most recent additions to the Econic team, having studied at Imperial College London and the University of Oxford and completing her PhD studies in 2018. Her graduate research focussed on the development of catalysts for copolymerisation processes and studying their mechanistic pathways. Being able to apply her analytical skills and to draw on her experience in reaction kinetics is now proving invaluable to her development and she has quickly become a great addition to our Process Development team.
The transition from academic to industrial research has provided Gemma with an interesting challenge, but the rewards that accompany working in a fast-paced and innovative young company far outstrip the challenges. “Working for a pioneering company like Econic with a creative and motivated team has not only enabled me to apply my skills to address a critical global problem, but also to see tangible results and process improvements quickly. Using state of the art equipment allows me to optimise our cutting-edge catalyst technology’s conditions and develop the best process for our customers. Every day is different with a new challenge to tackle, as we develop our technology to reach its full potential.”
As interest grows in the benefits that our catalyst technologies and waste CO2 can bring to the polyol industry, the Process Development team are instrumental to the optimisation of polyol synthesis and processing from laboratory to pilot scale. In addition to supporting our customers in the roll out of our catalyst technologies and processes, they are also key to the development of the next generations of processes that our catalyst technologies can enable at industrially relevant temperatures and pressures, as we realise the value and endless potential of waste CO2.
Get in touch to find out how we can help turn waste CO2 into added value for your business.
Author, Anthea Blackburn
Econic named 2019 Global Cleantech 100 company 29 01 2019
Econic Technologies, a British cleantech pioneer helping turn waste carbon dioxide into an asset for the plastics industry, was named in the prestigious 2019 Global Cleantech 100. The Global Cleantech 100 is an annual guide published by Cleantech Group to the leading companies and themes in sustainable innovation. It features the private, independent, for-profit companies best positioned to solve tomorrow’s clean technology challenges. This year marks the 10th edition of the list.
“Econic’s technology allows plastics manufacturers to recycle their captured carbon dioxide into existing plants to make products at lower cost, with improved properties and more sustainably. Carbon dioxide is incorporated directly without the need for energy and resource intensive transformation, turning it from an expensive problem to a profit enhancing opportunity at the same time as reducing the reliance on oil as a raw material, thereby cutting harmful emissions in the industrial process.
“Adoption of this technology in the first market will see the equivalent of 4M cars worth of carbon dioxide emissions saved annually, and we are thrilled that the Global Cleantech 100 has recognised both Econic Technologies and the potential of carbon dioxide as a raw material. This is a further vote of confidence in the growing carbon capture utilisation sector”, said Dr Rowena Sellens, CEO of Econic Technologies.
The list combines Cleantech Group’s research data with qualitative judgements from nominations and insight from a global 87-member expert panel comprised of leading investors and experts from corporations and industrials active in technology and innovation scouting. From pioneers and veterans to new entrants, the expert panel broadly represents the global cleantech community and results in a list with a powerful base of respect and support from many important players within the cleantech innovation ecosystem. The list is sponsored by Chubb.
“Our tenth edition is dominated by innovations for the future of food and mobility, and a decentralized and digitized future not only for energy, but for the industrial world more generally,” said Richard Youngman, CEO, Cleantech Group. “This is a far cry from the dominance of hardware, solar and biofuels in the inaugural Global Cleantech 100 in 2009.”
On 16 October 2018, around 80 leading industrial and research stakeholders from across Europe, including Econic CEO Dr Rowena Sellens, gathered in the Port of Antwerp, Belgium to attend the first CO2 Value Day organised by CO2 Value Europe, the European association dedicated to CO2 utilisation. Also commonly called “Carbon Capture & Utilisation” (CCU), this topic covers all established and innovative industrial processes that transform CO2 into a variety of valuable products such as synthetic fuels, chemicals or building materials.
The main purpose of the conference was not only to provide its current and aspiring members with an update on progress made since its foundation, but also to present a real-life CCU demonstration project currently being implemented in the Port of Antwerp. In the afternoon, attendees worked in specific small groups (dedicated to fuels, chemicals or building products), to define concrete actions to be implemented by the Association in coming months.
In her introduction speech, the Association’s President Stefanie Kesting reminded all participants that the mission of CO2 Value Europe is to develop a new CCU industry sector which can recycle carbon at a large scale, by coordinating the efforts of all relevant stakeholders of the CO2 value chain. “Today, I’m very happy” she said, “because we grew our membership in less than a year from just over 40 to more than 60. CCU has attracted a lot of attention as an emerging topic with a key role to play in the sustainable transition of our economy. Our association is now perceived as the official spokesperson and ambassador of the CCU community and we gained a strong legitimacy towards EU policy makers.” Outside of Europe, our visibility is also growing fast and we even received requests for membership from the US, Canada, Chile and Australia”.
CO2 Value Europe’s Secretary General, Damien Dallemagne added: “What struck me is the strong demand for more networking and matchmaking among the different stakeholders engaged in developing CCU. Our Association is unique in its capacity to facilitate connections between companies from different industry sectors and research players who have complementary resources and needs related to CO2 conversion.”
You can read more about the day and see additional pictures here.
CO2 Value Europe is the industry-driven European Association which is committed to coordinate and represent the CO2 Utilisation community in Europe and to build up an integrated vision and action plan to develop CO2 Utilisation into a new industrial sector making a significant contribution to Europe’s low carbon economy. It is the only association in Europe entirely dedicated to the subject, gathering stakeholders from all the relevant sectors of the CO2 value chain: CO2 emitters from all significant process and energy intensive industries, providers of decarbonated energy, industrial gas experts, CO2 conversion technology providers, and users of CO2-based products.
If you would like to learn more about the Association or are interested in becoming a member, please see their website or get in contact with us at Econic.
Author, Anthea Blackburn
Turning ‘bad’ plastics into a global opportunity 17 09 2018
One need only look out their window to see first-hand evidence of the plastics pollution we currently face. It was reported in 2017 (Geyer, Sci. Adv.) that since 1950 around 6300 million metric tonnes of plastic waste have been created. Of this enormous amount of waste, a mere 9% has been recycled and 12% incinerated, with the remaining 79% ending up in landfills or oceans. Despite numerous advantages, many related to energy and resource efficiency, the detrimental effects of “single use” plastics are indisputable, and clearly things need to change with regards to consumer demand and use of these disposable materials.
Chemically speaking and as defined by IUPAC, a plastic is a “polymeric material that may contain other substances to improve performance or reduce costs”. We therefore question the broad classification of single use plastics being ‘bad’ and instead suggest that the issue we face is the bad use of plastics. Even those plastics deemed ‘bad’, like polypropylene and polyethylene, are ideal for the purposes, like disposable bottles, supermarket bags, and plastic packaging, with which they are now associated – it is their impact post use that causes controversy. These plastics, and many others, also have uses inherent to our daily lives with lifetimes of twenty or more years that we cannot discount. Polypropylene is used in thermal undergarments, as well as in reusable plastic containers. Polyethylene makes up many industrial machine components and artificial joints. These subsets of applications offer significant positive impact that more than offsets their current ‘bad’ reputation.
Overcoming the ‘bad use’ of plastics
The necessary shift in our approach to overcoming our bad use of plastics is the responsibility of all those in the plastics chain – the industry, the users, and the government. Luckily this change in mindset is already underway. Users are becoming more conscientious in their use of multiple-use alternatives to common plastic products and the ways in which they recycle waste. Increasing numbers of multinational companies, including Ikea, Coca Cola and McDonalds, have committed to ensuring that their plastics are both recyclable or compostable, and incorporate increasing proportions of recycled plastic. Several government bodies are introducing levies or bans on some of the most problematic plastic items, like bags, straws and microbeads, as well as funding of research towards recyclable alternatives. There is also significant work in many areas of the plastics industry itself to make plastics in more environmentally conscientious ways – whether in the precursors used, many of which are typically petrochemical in origin, in the efficiency of manufacture, or in their ability to be more easily recycled.
Polyurethane – A case study
Polyurethane (PU) is present in our daily lives in more ways than one might expect. This plastic, the third most widely used behind polyolefins and PVC, accounts for approximately 10% of all plastics produced, and is forecast to generate close to $80 billion worldwide by 2021, or 20 million tonnes annually (Ceskaa, 2017). Rigid foams make up the insulation in our walls, which facilitate a decrease in heat loss of ~60% when compared to other insulative materials (Kingspan, 2018). Flexible foams add comfort to our lives in the form of memory foam mattresses. Coatings protect our clothing, wooden floors and vehicles to extend their useful life. Adhesives stop our shoes from falling apart. Elastomers make up the wheels that allow us to open drawers and ride rollercoasters. Simply put, the stability and durability of PU in any one of its forms is essential in protecting us and our essential items from wear and tear and the elements.
Alternatives to PU
The production of PU is an energy and petrochemically intensive process – replacing this material with alternative biodegradable/natural/energetically less demanding materials is a natural initial response. Certainly, one could envisage replacing PU insulation (160 kg CO2 emitted / kgCO2e), with a less carbon intensive material like cork (-155 kgCO2e), glass fibre (8 kgCO2e), or mineral wool (38 kgCO2e) (superhomes.org.uk). In these examples, however, more than twice the material is required to prevent the same amount of heat loss as PU, so the performance of these long lifetime materials with regards to their stability, flexibility, lifetime, handling and fitness for purpose must also be evaluated. When considering natural alternatives to PU, we also mustn’t forget to factor in the environmental and societal effects of these materials, like import costs, land and water intensive agricultural demand that competes with food crops, the need for fertilisers and pesticides, or the waste profile associated with such materials. When considering each of these points, the greening of PU production becomes a superior approach to offsetting its overall carbon and environmental footprint.
The historical production of PU and its precursors was heavily dependent on volatile organic compounds and petrochemical-based feedstocks, both of which are being addressed by new and existing companies worldwide. One of the biggest contributors to the use of petrochemical-based feedstocks in PU manufacture is the polyols inherent to its chemical structure. These polymers are most commonly polyether in nature and are prepared from the catalysed polymerisation of ethylene or propylene oxide. These epoxides are industrially synthesised from the carbon intensive oxidation or hydrochlorination of the corresponding alkene, which is collected as a by-product of oil refinement and which has an enormous carbon footprint. The potential replacement of some or all of this epoxide feedstock is clearly an effective approach to greening polyol production.
Increasing numbers of natural polyols based on plant oils or compounds are being developed industrially. Oil-based polyols can be prepared from a range of natural oils, such as castor, cashew, peanut or soy, with castor oil being one of the few natural products that does not require chemical modification. Alternatively, bio-based succinic acid polyols can be prepared from the fermentation of sugar. These polyols, in particular bio-based polyols, do offer advantages to downstream PU products over their wholly petrochemical-based counterparts in terms of increased abrasion resistance, tensile strength, thermal properties and hardness. As in the case of natural alternatives to PU however, these polyols also run into agricultural shortcomings, especially in competing with food crops for land use, as well as dependence on variable and uncontrollable factors like weather and seasons. As such, when processing and purifying the polyols, it can be difficult to produce constant quantities for downstream use. Furthermore, natural oil-based polyols require additional processing to remove odour, and typically must be blended with traditional petrochemical-based polyols to achieve comparable properties.
Using CO2 as a feedstock
An abundance of atmospheric CO2 presents another environmental issue that we currently face. It would therefore offer a win-win situation if petrochemical-based polyol feedstocks could utilise an otherwise waste material – for every tonne of epoxide replaced by CO2, three tonnes of CO2 would be avoided or utilised (Bardow, Green Chem.). Assuming 50% market adoption of such technologies, these numbers correspond to savings of ten million tonnes of CO2 a year, the equivalent to taking six million cars off the road or planting twelve million trees, that is, significant savings. Such polyols, known as polyethercarbonates, are the focus of a small, but increasing, number of companies. These new technologies differ in the amounts of CO2 that can be incorporated into polyols, but with a theoretical maximum of 50 mol%, significant environmental advantages are clearly possible. We at Econic have taken this approach one step further: our catalyst technologies allow for the bespoke incorporation of CO2 into polyols at industrially relevant temperatures and pressures, thereby allowing polyol producers to tailor their products for their downstream PU needs. What’s more is that the incorporation of CO2 also offers significant product advantages – the resultant rigid foams have improved flame retardance, whilst coatings, adhesives, sealants and elastomers show increases in their chemical, temperature and hydrolytic resistances. Economically, waste CO2 is expected to be at least an order of magnitude cheaper than its petrochemical-based counterparts. Irrefutable advantages are achievable in all aspects of the production of these green polyols, benefits which are in turn passed through to the PU industry and their consumers.
Moving towards responsible plastics
Frankly speaking, we cannot, and should not, remove plastics from our lives. The positive energy and application impacts that they impart simply cannot be reproduced by natural alternatives. Manufacturers and users alike can have a huge influence on reducing the ‘bad’ impact of plastics and shifting the balance towards ‘good’. We must urgently address how efficiently we use each plastic and move away from a ‘use and dispose’ mentality. Furthermore, plastics should be manufactured so as to not further perturb the state of our environment, but also to utilise the abundance of harmful waste products we have already created. As in the case of increasingly green PU, green and recyclable alternatives to many of the other plastics we rely on are being developed worldwide. The issue we now face is the wait for these new technologies to be adopted on a large scale by the industry, so that the plastics products so essential to our lives move towards being responsible materials.
To learn more about the endless potential that Econic’s catalyst technology can bring to greener plastics and waste CO2, please contact:
Richard French, Business Development Director on +44 1625 238 645
Mark joined Econic in 2015 to support Econic’s Application Development team, who focus on demonstrating the product potential that polyols made using Econic’s innovative catalyst technologies can offer to the polyurethane industry. When asked about what he enjoys most about working at Econic, Mark says, “Being able to witness the progress from what is a great laboratory idea, through its scale up, and the realisation of its potential in real world applications, is the most exciting thing about working at Econic. Being able to produce products which not only incorporate sizable quantities of CO2 but also benefit from its inclusion is a very satisfying role!”
One such application benefit can be found in rigid PIR foams, a discovery that Mark recently shared at the UTECH conference in Maastricht. PIR foams prepared from polyols using Econic’s tunable catalyst technology offer significant advantages over conventional polyols, including:
– Improved viscosity over polyester polyols
– Enhanced fire resistance
– Enhanced miscibility with blowing agents for lower density foams
Clearly, the potential that Econic’s technology can offer to PIR foams used in building insulation are notable, and Mark comments “we hope to help manufacturers improve the safety and longevity of their products, in addition to speeding up the manufacturing process and lowering costs.”
As the Northern Hemisphere’s temperatures continue to soar, along with the spirits of those who follow World Cup football, the shortage of CO2 in the UK is becoming more and more apparent. Besides the obvious (and vitally important) use of CO2 in adding the fizz to beer and soft drinks, it is also invaluable in a variety of other food-related fields, including, but not limited to, increasing the shelf life of pre-packaged meat and produce and cooling foodstuff in transit, as well as in a variety of medical devices and in crude oil extraction.
One might ask how we could be experiencing a CO2 shortage considering the issues with the abundance of atmospheric CO2 we are currently working to overcome. Unfortunately, both the inherent chemical stability and relatively low atmospheric concentration (~0.04% by volume of the atmosphere) of CO2 make its isolation for use in other applications somewhat of a currently cost-prohibitive issue. While the primary production of atmospheric CO2 stems from the ever-increasing burning of fossil fuels and deforestation, there are also significant amounts generated through a variety of industries, such as those involved in chemical manufacturing, cement production, or petroleum refining. Fortunately from a process perspective, it is possible for a large number of these industries to collect and store the CO2 that they create as part of their everyday business. They only require then the means with which to safely dispose of or utilise this waste product. And so enters the field of Carbon Capture, Storage and Utilisation (CCSU).
The CCSU industry is made up of three sections – firstly, the sequestering and purification from other gases of CO2 from the atmosphere or as industrial waste; secondly, its storage; or thirdly, its use as a chemical feedstock in the production of value-added products. Carbon capture is undoubtedly a necessary component of CCSU as we continue to produce more and more CO2, and a number of companies exist that aim to take the captured gas and store it indefinitely and out of harm’s way. One such example can be seen in Norway, who have been capturing and storing CO2 from industrial processes for close to 20 years. More recently, with the backing of the Norwegian government and assistance from oil companies Equinor, Shell, and Total, the country are moving towards the introduction of a technology that will transport the captured CO2 to the North Sea, where it will be buried underground. Once in place, this approach will also be available to other countries in the area, and offers a viable alternative to simply releasing the gas into the atmosphere.
A similar approach to CCS has also been developed in Iceland by an international team known as CarbFix, who capture CO2 from industrial processes and store it in the basaltic mountains where it turns into rock within only a few months. This success is, in part, possible due to the filter technology developed by Swiss company ClimeWorks, which selectively chemically removes CO2 from the steam generated by a geothermal plant, and concentrates it in water as carbonate ions, which is injected into the ground. This approach is also a possibility in other basaltic regions like Siberia, Western India, Saudi Arabia and the Pacific Northwest, though further advances are required to reduce the water intensive requirements of the technology.
ClimeWorks have also taken their CCS technologies a step further in enabling the purified CO2 to be used, rather than stored indefinitely. This captured CO2 can also be isolated for use as a renewable onsite source of CO2 by the food and agricultural industries, as well as those that use CO2 as a fuel or chemical feedstock. A similar type of extraction technology has also been developed by Carbon Engineering, a Canadian company, who, in conjunction with their hydrogen generation technologies, use the CO2 to create clean diesel and jet fuels.
In order for CO2 to be utilised via its conversion to another more valuable form of carbon, its inherent chemical stability must be overcome: CCU technologies are required. Many such technologies are available (the following is by no means an exhaustive list!), which are useful in so many different industries. One such industry is that of concrete, which is used in its various forms more than any other artificial material in the world. Unfortunately, in its standard form, the manufacture of concrete is extremely energy and resource intensive and generates higher CO2 emissions than almost any other industry. A number of companies exist to rectify these downsides of such an invaluable material, two of which are focused on CCU approaches. CarbonCure technologies allow the CO2 emitted during cement preparation to be transformed into nanosized mineral carbonates that are embedded within the concrete formed. This process can be retrofitted to existing manufacturing assets and also enhances the properties of the resulting material. A somewhat similar approach has been developed by UK-based Carbon8 Aggregate, which uses CO2 to not only transform thermal waste into artificial limestone, but also to solidify the resulting aggregate. This process is remarkable, in that the resulting aggregate has captured more CO2 than is used in the energy required in its manufacture, resulting in the world’s first carbon negative aggregate. Alternatively, Carbon Upcycling uses waste CO2 to solidify a pre-formed and almost carbon neutral building block that resembles concrete and can be used in construction applications where concrete would typically be utilised. What’s more is that the additive nature of this material’s preparation offers the potential for its generation using, for example, 3D printing, which would accelerate construction timelines and decrease the labour intensity required in its manufacture.
The use of CO2 as a chemical feedstock is another vital aspect of CCU developments – like that of Econic’s innovative catalyst technologies that transform waste CO2 into polyols for use in the plastics industry. Exploiting a similar chemical transformation, Newlight uses a naturally-occurring microorganism-based biocatalyst to transform concentrated CO2 or methane gas into a high performance PHA-based biopolymer that can be used as an alternative to fossil fuel-derived polypropylene, polystyrene, and TPU in a range of applications. CO2 can also be introduced into the electronics and automotive industries as a carbon composite through the preparation of carbon nanotubes using methodologies developed by C2CNT. The carbon nanotubes are prepared using electrolysis, which is a much more cost-effective alternative to the methods of chemical vapor deposition or polymer pulling used currently.
It is clearly evident from this small subset of examples that a huge amount of work is going into the development of technologies that can not only remove harmful CO2, and its effects, from the atmosphere, but also to transform this gas into a chemical that adds economic, product and environmental value to the often fossil fuel-based feedstocks or cost-prohibitive processes that we currently employ. While these solutions unfortunately do not overcome the UK’s impending beer shortage and decreased shelf life of fresh produce, it is surely reassuring to know that the abundance of CO2 in our atmosphere is being removed for our gain in other ways.
To learn more about the endless potential that Econic’s innovative catalyst technology can bring to waste CO2, check out how Econic can make this possible, or contact:
Richard French, Business Development Director Econic Technologies | +44 1625 238 645