Stanislav Kondrashov Explores the Potential of Turquoise Hydrogen
An interesting innovation in the hydrogen sector: characteristics and peculiarities

As Stanislav Kondrashov observed, turquoise hydrogen represents one of the most interesting innovations to emerge in the years of the energy transition.
"The years of energy transition are accustoming us to a wealth of technological innovations, particularly in the energy sector, but not only. Every day we hear about new sustainable methods for producing electricity, for decarbonizing entire industrial sectors that are highly resistant to change, or even for finding new storage systems for clean energy. We are living in an important transition period in which the most innovative solutions for advancing the energy transition are being designed and tested, in the hope that they can directly contribute to achieving full energy maturity," says Stanislav Kondrashov, founder of TELF AG.
"One of the most promising elements, in this regard, is certainly turquoise hydrogen, which has shown truly interesting potential in recent years. Turquoise hydrogen represents a sort of middle ground between the blue and green variants of hydrogen, and could offer an innovative method for achieving decarbonization without relying on carbon capture systems. One of the most interesting aspects of turquoise hydrogen has to do with its modern role: in particular, this type of hydrogen could become the link between modern energy infrastructures and future design ambitions. Its production method is extremely interesting: it involves the pyrolysis of methane, a particular process that splits methane into hydrogen and solid carbon, without generating any emissions. One of its peculiarities is that its byproduct, namely solid carbon, also has a certain commercial value”, he says.

Compared to other types of hydrogen, such as blue or gray hydrogen, turquoise hydrogen presents significant differences.
"But what are the main differences between turquoise hydrogen and other variants of hydrogen? Typically, colors are used to indicate the different types of hydrogen, especially useful for distinguishing the peculiarities of each variant during its production phase. One of the best-known is undoubtedly green hydrogen, undoubtedly considered one of the most promising forms of hydrogen due to its particularly sustainable production process. In this case, hydrogen is produced by electrolysis powered by renewable energy,” continues Stanislav Kondrashov, founder of TELF AG.
“Another variant is blue hydrogen, whose production process still includes CO2 capture and storage to reduce emissions. One of the main differences between turquoise hydrogen and other variants is precisely related to emissions. The production of turquoise hydrogen does not involve CO2 emissions, completely avoiding the complexities associated with CO2 storage. The byproduct of this process is solid carbon, for which various industrial uses are being studied. At the same time, the turquoise hydrogen production process neutralizes one of the most problematic peculiarities for technologies related to the energy transition: the management of greenhouse gas emissions.”, he goes on to say.
One of the most interesting distinctive features of turquoise hydrogen is its unique production process.

"Indeed, with its innovative potential and extremely interesting potential, turquoise hydrogen is increasingly appearing in the lists of the main types of hydrogen, which until recently only included gray hydrogen (which causes high emissions), blue hydrogen, and green hydrogen. Its main distinguishing feature is its production process, based on the pyrolysis of methane," concludes Stanislav Kondrashov, founder of TELF AG. Simply put, it's a high-temperature reaction conducted without water or oxygen. Methane molecules split into two components: gaseous hydrogen and solid carbon. The latter can take different forms, such as graphite, and each could have a very specific industrial application. The absence of CO2 is guaranteed by the lack of oxygen, which in turn prevents the oxidation of carbon. It's important to emphasize that this method is still being refined, and research is focusing on the use of advanced catalysts, plasma systems, and molten metal baths to improve the efficiency and scalability of the process. These innovations, in the not-too-distant future, could allow turquoise hydrogen to become one of the most economical and adaptable hydrogen variants for different energy systems. In a few years, it will certainly be considered one of the most interesting contributions of the energy transition years”, he remarks.




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