аналитика - Distributed Systems - # Inscriptions and their Impact on Rollup Blockchains

Analyzing the Impact of Inscription-Driven Transaction Surges on Rollup Performance and Cost Efficiency

Q: How can the security and long-term availability of inscription-based tokens be improved, given the temporary nature of blob data storage?

In order to enhance the security and long-term availability of inscription-based tokens, several measures can be implemented: Data Redundancy: One approach could involve creating redundant copies of the inscription data stored in blobs. By replicating the data across multiple secure storage locations, the risk of data loss or unavailability due to the temporary nature of blobs can be mitigated. Blockchain Anchoring: Implementing a blockchain anchoring mechanism where critical data related to inscriptions is periodically anchored to the main blockchain can ensure its long-term integrity and availability. This would involve periodically committing a cryptographic hash of the inscription data to the main chain. Decentralized Storage: Utilizing decentralized storage solutions, such as IPFS (InterPlanetary File System) or decentralized databases, can provide a more resilient and distributed storage infrastructure for inscription data. This would reduce reliance on centralized storage systems and enhance data availability. Smart Contract Auditing: Conducting thorough audits of the smart contracts governing inscription-based tokens to identify and address any vulnerabilities or security loopholes. This can help in ensuring the overall security of the token ecosystem. Community Governance: Implementing community-driven governance mechanisms where token holders have a say in the security and availability protocols can foster a sense of ownership and responsibility among users. This can lead to proactive measures to safeguard inscription data. By incorporating these strategies, the security and long-term availability of inscription-based tokens can be significantly improved, addressing the challenges posed by the temporary nature of blob data storage.

Q: How can the lessons learned from the inscription boom be applied to improve the design and resilience of future blockchain scaling solutions?

The lessons learned from the inscription boom can serve as valuable insights for enhancing the design and resilience of future blockchain scaling solutions: Scalability Planning: Future blockchain scaling solutions should anticipate and plan for sudden spikes in transaction volume, similar to what was experienced during the inscription boom. Scalability measures should be robust enough to handle increased activity without compromising performance. Gas Fee Optimization: Learning from the gas fee fluctuations observed during the boom, future scaling solutions can focus on optimizing gas fees to ensure cost efficiency for users. Mechanisms for adjusting fees dynamically based on network activity can be implemented. Security Audits: Conducting regular security audits and stress tests on scaling solutions to identify and address vulnerabilities proactively. This can help in preventing downtime and ensuring the overall security of the system. Data Availability: Ensuring data availability and integrity, especially for critical information like inscription data, should be a priority. Implementing redundant storage mechanisms and decentralized data management can enhance resilience against data loss. Community Engagement: Involving the community in the governance and decision-making processes of scaling solutions can lead to more robust and sustainable systems. Community feedback and participation can help in identifying potential issues early on. By incorporating these lessons into the design and development of future blockchain scaling solutions, the ecosystem can evolve to be more resilient, secure, and capable of handling increased transaction volumes effectively.

Основные понятия

The inscription boom in late 2023 led to a significant surge in transaction activity on EVM-compatible blockchains, particularly impacting Layer-2 (L2) rollup solutions. This study analyzes the causes and effects of this inscription-driven transaction spike, focusing on its impact on rollup performance, gas fees, and user behavior.

Аннотация

This study examines the impact of the inscription boom on EVM-compatible blockchains, particularly focusing on the performance and cost efficiency of Layer-2 (L2) rollup solutions.

The key findings are:

Causes of Transaction Spike: The surge in transactions was primarily driven by the minting of new inscription-based meme tokens, with over 99% of transactions on zkSync Era related to inscription minting. This was likely driven by a "fear of missing out" (FOMO) effect, as users speculated on potential profits from these new tokens.
Impact on Rollup Performance: The increased transaction activity had a mixed impact on rollup performance. On zkSync Era, the ZK rollup design allowed it to distribute the cost of generating validity proofs across many transactions, leading to decreased median gas fees for other users. However, some rollups, like Arbitrum, experienced downtime during this period, leading to concerns about transaction finality.
Inscription Trading: Inscription-based tokens, such as zrc-20 sync and era-20 bgnt, were traded on zkSync Era at a fraction of the costs compared to the Bitcoin or Ethereum networks, with prices ranging from $0.1 to $1 per token. This was enabled by the low gas fees on zkSync Era during the inscription boom.
Security Concerns: The introduction of blobs, a form of temporary data storage on Ethereum, raised concerns about the long-term security and availability of inscription-based tokens, as the data may only be available off-chain in the indexer of the inscription creator.

Overall, the inscription boom served as a stress test for L2 rollup solutions, revealing both their strengths and weaknesses in handling sudden surges in transaction activity. The findings highlight the need for further research and development to ensure the scalability and security of blockchain ecosystems.

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arxiv.org

Статистика

"Over 99% of transactions on zkSync Era during the inscription boom were related to minting new inscription-based tokens."
"On December 17, 2023, over 96% of all transactions on zkSync Era were related to minting zrc-20 sync tokens."
"Median gas fees on zkSync Era decreased during the inscription-driven transaction spikes, unlike on L1 blockchains."
"Prices of inscription-based tokens like zrc-20 sync and era-20 bgnt ranged from $0.1 to $1 per token on zkSync Era."

Цитаты

"Unlike L1 blockchains, ZK rollups may experience lower gas fees with increased transaction volume."
"Blobs, temporary data units introduced by Ethereum's Dencun upgrade, are designed to enhance rollup scalability and disappear after 18 days, raising concerns about the security of inscription-based tokens."

Ключевые выводы из

The Writing is on the Wall: Analyzing the Boom of Inscriptions and its Impact on Rollup Performance and Cost Efficiency

by Krzysztof Go... в arxiv.org 04-18-2024

https://arxiv.org/pdf/2404.11189.pdf

The Writing is on the Wall: Analyzing the Boom of Inscriptions and its Impact on Rollup Performance and Cost Efficiency

Дополнительные вопросы

How can the security and long-term availability of inscription-based tokens be improved, given the temporary nature of blob data storage?

In order to enhance the security and long-term availability of inscription-based tokens, several measures can be implemented:

Data Redundancy: One approach could involve creating redundant copies of the inscription data stored in blobs. By replicating the data across multiple secure storage locations, the risk of data loss or unavailability due to the temporary nature of blobs can be mitigated.

Blockchain Anchoring: Implementing a blockchain anchoring mechanism where critical data related to inscriptions is periodically anchored to the main blockchain can ensure its long-term integrity and availability. This would involve periodically committing a cryptographic hash of the inscription data to the main chain.

Decentralized Storage: Utilizing decentralized storage solutions, such as IPFS (InterPlanetary File System) or decentralized databases, can provide a more resilient and distributed storage infrastructure for inscription data. This would reduce reliance on centralized storage systems and enhance data availability.

Smart Contract Auditing: Conducting thorough audits of the smart contracts governing inscription-based tokens to identify and address any vulnerabilities or security loopholes. This can help in ensuring the overall security of the token ecosystem.

Community Governance: Implementing community-driven governance mechanisms where token holders have a say in the security and availability protocols can foster a sense of ownership and responsibility among users. This can lead to proactive measures to safeguard inscription data.

By incorporating these strategies, the security and long-term availability of inscription-based tokens can be significantly improved, addressing the challenges posed by the temporary nature of blob data storage.

How can the lessons learned from the inscription boom be applied to improve the design and resilience of future blockchain scaling solutions?

The lessons learned from the inscription boom can serve as valuable insights for enhancing the design and resilience of future blockchain scaling solutions:

Scalability Planning: Future blockchain scaling solutions should anticipate and plan for sudden spikes in transaction volume, similar to what was experienced during the inscription boom. Scalability measures should be robust enough to handle increased activity without compromising performance.

Gas Fee Optimization: Learning from the gas fee fluctuations observed during the boom, future scaling solutions can focus on optimizing gas fees to ensure cost efficiency for users. Mechanisms for adjusting fees dynamically based on network activity can be implemented.

Security Audits: Conducting regular security audits and stress tests on scaling solutions to identify and address vulnerabilities proactively. This can help in preventing downtime and ensuring the overall security of the system.

Data Availability: Ensuring data availability and integrity, especially for critical information like inscription data, should be a priority. Implementing redundant storage mechanisms and decentralized data management can enhance resilience against data loss.

Community Engagement: Involving the community in the governance and decision-making processes of scaling solutions can lead to more robust and sustainable systems. Community feedback and participation can help in identifying potential issues early on.

By incorporating these lessons into the design and development of future blockchain scaling solutions, the ecosystem can evolve to be more resilient, secure, and capable of handling increased transaction volumes effectively.