Mantle Restaked Ether CMETH in VitaFOXO VITAFOXO tauschen

Deployed on Ethereum layer 1 (L1) and governed by Mantle, mETH Protocol has, since late 2023, been providing users with access to $mETH, a value-accumulating receipt token that is highly composable across a range of DeFi applications on Mantle Network L2, offering exposure to additional yield-bearing opportunities. Users stake ETH with mETH Protocol and receive yield-bearing $mETH, and unstake $mETH to receive the underlying principal staked ETH and accumulated rewards. Since the inception of mETH Protocol, Mantle's mission has been to deliver the most user-friendly and rewarding $mETH experience. Thanks to ecosystem-wide adoption, $mETH users are able to trade on Mantle DEXs, earn yield by providing liquidity to $mETH liquidity pools, and generate yield within decentralized money markets. With $mETH's increasing adoption and composability within Mantle Ecosystem dApps, the protocol now ranks as the fourth largest ETH LSP by TVL. The introduction of $cmETH, a permissionless, composable liquid restaking token that unlocks restaking opportunities on Mantle, and $COOK, the protocol's upcoming governance token, mETH Protocol enters its next phase with further enhanced offerings. Through these features, mETH Protocol provides its users with capital efficiency, convenience, and a wide range of yield-bearing opportunities within Mantle Ecosystem dApps, all in a design that has been created to maximize security with non-custodial core smart contracts and off-chain services that enforce sanity bounds and risk limits.

This project will design a new RNA therapeutic that nudges the longevity-linked FOXO3 gene into its health-promoting form to halt the tissue breakdown behind degenerative disc disease—opening a precise, scalable route to drugs that extend healthspan. Dr. Lorna Harries’ lab has identified an innovative way to modulate FOXO3, a well known and yet undrugged longevity target, and propose leveraging it to address chronic lower back pain stemming from degenerative disc disease. They plan to make short, lab-made modified RNA molecules (antisense oligonucleotides) that selectively switch FOXO3’s “good” message on, first in human cells and mini-disc models. Success would yield 1) a lead drug candidate, 2) proof it can restore disc health, and 3) the data needed for patenting and further development. The same molecules could later be adapted to treat many other age-related conditions, helping people stay healthy for longer.