Sharder protocol aims to achieve linear scalability and maintain low gas fees by utilizing a number of innovative technologies and techniques, including:

1. Dynamic state sharding: As explained earlier, Sharder uses dynamic state sharding to split the state of the network into smaller, more manageable chunks known as shards. This allows the network to scale horizontally, increasing its capacity and improving its performance.

2. Cross-chain storage: Sharder utilizes cross-chain storage to allow data to be stored on multiple chains, reducing the burden on any single chain and improving overall network performance.

3. Cross-chain computing: Sharder uses cross-chain computing to distribute computation tasks across multiple chains, reducing the load on any single chain and improving overall network efficiency.

4. Cross-chain communications: Sharder implements cross-chain communications to allow for seamless communication between different chains, reducing the latency and improving the performance of the network.

5. Efficient consensus algorithms: Sharder uses efficient consensus algorithms to reach consensus on the state of the network, reducing the burden on individual nodes and improving the overall performance of the network.

By combining these technologies and techniques, Sharder aims to achieve linear scalability and maintain low gas fees forever. By distributing the load across multiple chains and reducing the burden on any single chain, the network can continue to scale and provide a high-performance, low-latency infrastructure for decentralized applications, even as usage grows and evolves over time.

Sharder protocol aims to achieve linear scalability and maintain low gas fees by utilizing a number of innovative technologies and techniques, including:

1. Dynamic state sharding: As explained earlier, Sharder uses dynamic state sharding to split the state of the network into smaller, more manageable chunks known as shards. This allows the network to scale horizontally, increasing its capacity and improving its performance.

2. Cross-chain storage: Sharder utilizes cross-chain storage to allow data to be stored on multiple chains, reducing the burden on any single chain and improving overall network performance.

3. Cross-chain computing: Sharder uses cross-chain computing to distribute computation tasks across multiple chains, reducing the load on any single chain and improving overall network efficiency.

4. Cross-chain communications: Sharder implements cross-chain communications to allow for seamless communication between different chains, reducing the latency and improving the performance of the network.

5. Efficient consensus algorithms: Sharder uses efficient consensus algorithms to reach consensus on the state of the network, reducing the burden on individual nodes and improving the overall performance of the network.

By combining these technologies and techniques, Sharder aims to achieve linear scalability and maintain low gas fees forever. By distributing the load across multiple chains and reducing the burden on any single chain, the network can continue to scale and provide a high-performance, low-latency infrastructure for decentralized applications, even as usage grows and evolves over time.