Physics-based cryptocurrency transmits energy through the blockchain
This new blockchain concept – which they call “E-Stablecoin” – could allow electricity to be transmitted between users who are spread around the world, without the need for interconnecting wires or a grid-based transmission system. The work, say the researchers, solves critical digital asset stability problems and is the first cryptocurrency token design that is both collateralized by a physical asset and fully decentralized because it is secured by the laws of statistical mechanics.
The new cryptocurrency concept is designed as a step toward implementing responsible digital assets that move beyond just the digital world and are instead tied to the physical world in more tangible ways. E-Stablecoin takes advantage of modern advancements in thermodynamics to transmit energy as a form of information.
The seeds of this idea, say the researchers, date back to the “Maxwell’s Demon” thought experiment posed in 1867 by James Clerk Maxwell. In this thought experiment, a “neat-fingered demon” could allegedly break the second law of thermodynamics at the nanoscale – a claim that led to a flurry of controversy over the course of a century, ultimately elucidating a deep connection between energy and information.
In their work, the researchers detailed how this connection between energy and information allows for the creation of a cryptocurrency token that is directly backed by – and is convertible into – one kilowatt-hour of electricity. While it requires the input of one kilowatt-hour of electricity to mint an E-Stablecoin token, that digital token can later be destroyed to extract back out one kilowatt-hour of usable electricity.
Thus, the price of one E-Stablecoin token is pegged to the price of one kilowatt-hour of electricity in a manner that is robust, stable and trustless (a system that does not depend on an institution or third party for a network or payment system to function).
“Any anonymous party can mint an E-Stablecoin token with the input of roughly one kilowatt-hour of electricity,” says Lawrence Livermore researcher Maxwell Murialdo and co-author of a paper on the work. They can then transact with the digital token like any other cryptocurrency, or even turn it back into usable electricity — all without the need for electrical power companies, electrical transmission lines, permissions or authorities. It is a trustless system from top to bottom.”
A key problem that plagues many cryptocurrencies such as Bitcoin, say the researchers, is the tendency for wild fluctuations to arise in the cryptocurrency’s exchange price. These extreme price fluctuations magnify risks and discourage consumer transactions, long-term smart contracts, and other applications built on the blockchain.
One solution is to create “stablecoins,” which are cryptocurrency tokens that are specifically designed to hold stable value relative to external assets. Stablecoins can peg their token value to the value of an external asset, such as one U.S. dollar or one gram of gold, by making the token directly exchangeable for the asset.
However, to date, pegging the value of a cryptocurrency token to the value of a physical asset has required trust in a centralized authority (who can maintain and disburse the physical asset). Requiring trust in a centralized authority introduces a potential failure point that is antithetical to the decentralized ethos of cryptocurrencies.
E-Stablecoin is offered as the first stablecoin concept to eliminate this failure point – a feat made possible by using the interplay of thermodynamics and information theory. In the future, say the researchers, E-Stablecoin may help to distribute electricity to remote locations that are not connected by an electrical grid system, or combat climate change by enabling intermittent, renewable energy to be transmitted to the places where it is needed most for efficiency.
“Through thermodynamic reversibility — to the extent that it is allowed by a modern understanding of statistical mechanics — we envision a future blockchain that is not only rooted in real-life assets like energy usage,” says Lawrence Livermore researcher and co-author Jon Belof, “but also is a more responsible steward of our natural resources in support of the economy.”
For more, see “Can a Stablecoin Be Collateralized by a Fully Decentralized, Physical Asset?“
Lawrence Livermore National Laboratory
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