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Vitalik Buterin has recently shared insights on Ethereum’s progress toward real-time proving mechanisms, following a significant milestone achieved by Succinct Labs. The Ethereum co-founder revealed that the team aims to increase the Layer 1 (L1) gas limit by 10 to 100 times, a move that could greatly enhance the network’s scalability.
Succinct Labsβ Real-Time Proving Demo: A Breakthrough with Challenges
In response to a post by Succinct Labsβ co-founder, Uma Roy, regarding the demonstration of a full “zkVM” proof system for Ethereum’s execution layer, Buterin acknowledged the progress made. However, he highlighted four critical areas that need improvement before real-time proving can become a reliable feature on Ethereumβs L1.
“So, truly amazing work by @pumatheuma and team, but definitely still a few steps to the final destination,”
Buterin pointed out that the demo used average-case timings rather than worst-case scenarios. He emphasized the importance of conducting tests under worst-case conditions to ensure the mechanism is robust and safe for widespread L1 adoption.
Ethereum Gas Limit: Current State and Future Goals
According to Buterin, the Ethereum team is working to increase the L1 gas limit by 10 to 100 times. Currently, Ethereum’s average gas limit stands at approximately 35.99 million, a slight increase from the previous day’s 35.98 million. This marks a steady growth, as the gas limit has increased by nearly 20% compared to the same period last year, when it was around 30 million.
If Ethereum achieves this ambitious goal, the gas limit could potentially reach between 360 million and 3.6 billion. This increase would significantly enhance transaction processing capacity, reducing congestion and potentially lowering transaction fees.
What Is the Gas Limit?
The gas limit represents the maximum amount of computational effort, measured in gas units, required to process a transaction or execute a smart contract on the Ethereum network. It acts as a safeguard to prevent excessive resource usage that could lead to high fees or network congestion.
However, even with real-time proving mechanisms, each proof requires a substantial amount of gas. To scale these mechanisms effectively, a higher gas limit is essential.
Energy Efficiency: A Key Concern
Another challenge highlighted by Buterin is the energy consumption of Succinct Labsβ proving mechanism. Currently, the system requires around 100 kilowatts of power to generate proofs at the demonstrated speed. For broader adoption, especially for small teams or individual users, this energy cost needs to be significantly reduced to around 10 kilowatts, making it more accessible for home use.
Formal Verification: Ensuring Reliability
Buterin also stressed the need for formal verification of the proving mechanism. This step is crucial to ensure the system is seamless, secure, and relatively free of bugs. Without formal verification, the mechanism may face challenges in gaining trust and widespread adoption within the Ethereum ecosystem.
Recent Developments in Ethereumβs Gas Limit
In February, the Ethereum network raised its gas limit for the first time since 2021, increasing it from 30 million to 32 million gas units. This adjustment was approved by approximately 51.1% of validators without requiring a hard fork. Such incremental changes reflect the networkβs ongoing efforts to improve scalability and user experience.
As Ethereum continues to innovate and address these challenges, the potential for real-time proving mechanisms and significantly higher gas limits could transform the network’s capabilities. These advancements aim to make Ethereum more efficient, scalable, and accessible for developers and users worldwide.
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