ZKsync 價格ZK

Future Core ExtensibilityStory’s architecture supports adding new specialized cores, allowing the blockchain to expandbeyond intellectual property capabilities. Let’s take a closer look at two possible future cores.The Artificial Intelligence (AI) core could optimize and streamline AI-related onchain operations. Implementing such operations within the EVM is infeasible by default—asreported in the paper[5], even a simple task like na¨ıve multiplication of two square matricesof 1000 x 1000 integers would cost over 3 billion gas, which far exceeds the logical blockgas limit. This core can leverage modern GPU integer processing by utilizing deterministicfixed-point arithmetic, quantization techniques[6], and an onchain pseudo-random generatorto address concerns about nondeterministic behavior from randomness and floating-pointerrors. The Zero-Knowledge (ZK) core could enable efficient verification of zero-knowledgeproofs such as ZK-SNARKs. Zero-knowledge proofs are used in cryptography to allow oneparty (the prover) to prove to another party (the verifier) that they possess specific knowledgeor information without revealing the actual information itself. By providing native supportfor ZK-proof verification using a highly optimized software stack or hardware acceleration,the core reduces computational overhead and gas costs compared to implementing theseoperations in smart contracts. The core is particularly valuable for applications requiringconfidential IP exchanges or verifiable IP graphs of massive scale. For example, it can enableIP owners to prove ownership or authenticity of their IP assets without exposing sensitivedetails.$IP

Future Core ExtensibilityStory’s architecture supports adding new specialized cores, allowing the blockchain to expandbeyond intellectual property capabilities. Let’s take a closer look at two possible future cores.The Artificial Intelligence (AI) core could optimize and streamline AI-related onchain operations. Implementing such operations within the EVM is infeasible by default—asreported in the paper[5], even a simple task like na¨ıve multiplication of two square matricesof 1000 x 1000 integers would cost over 3 billion gas, which far exceeds the logical blockgas limit. This core can leverage modern GPU integer processing by utilizing deterministicfixed-point arithmetic, quantization techniques[6], and an onchain pseudo-random generatorto address concerns about nondeterministic behavior from randomness and floating-pointerrors. The Zero-Knowledge (ZK) core could enable efficient verification of zero-knowledgeproofs such as ZK-SNARKs. Zero-knowledge proofs are used in cryptography to allow oneparty (the prover) to prove to another party (the verifier) that they possess specific knowledgeor information without revealing the actual information itself. By providing native supportfor ZK-proof verification using a highly optimized software stack or hardware acceleration,the core reduces computational overhead and gas costs compared to implementing theseoperations in smart contracts. The core is particularly valuable for applications requiringconfidential IP exchanges or verifiable IP graphs of massive scale. For example, it can enableIP owners to prove ownership or authenticity of their IP assets without exposing sensitivedetails.$IP

Future Core ExtensibilityStory’s architecture supports adding new specialized cores, allowing the blockchain to expandbeyond intellectual property capabilities. Let’s take a closer look at two possible future cores.The Artificial Intelligence (AI) core could optimize and streamline AI-related onchain operations. Implementing such operations within the EVM is infeasible by default—asreported in the paper[5], even a simple task like na¨ıve multiplication of two square matricesof 1000 x 1000 integers would cost over 3 billion gas, which far exceeds the logical blockgas limit. This core can leverage modern GPU integer processing by utilizing deterministicfixed-point arithmetic, quantization techniques[6], and an onchain pseudo-random generatorto address concerns about nondeterministic behavior from randomness and floating-pointerrors. The Zero-Knowledge (ZK) core could enable efficient verification of zero-knowledgeproofs such as ZK-SNARKs. Zero-knowledge proofs are used in cryptography to allow oneparty (the prover) to prove to another party (the verifier) that they possess specific knowledgeor information without revealing the actual information itself. By providing native supportfor ZK-proof verification using a highly optimized software stack or hardware acceleration,the core reduces computational overhead and gas costs compared to implementing theseoperations in smart contracts. The core is particularly valuable for applications requiringconfidential IP exchanges or verifiable IP graphs of massive scale. For example, it can enableIP owners to prove ownership or authenticity of their IP assets without exposing sensitivedetails.$IP

Future Core ExtensibilityStory’s architecture supports adding new specialized cores, allowing the blockchain to expandbeyond intellectual property capabilities. Let’s take a closer look at two possible future cores.The Artificial Intelligence (AI) core could optimize and streamline AI-related onchain operations. Implementing such operations within the EVM is infeasible by default—asreported in the paper[5], even a simple task like na¨ıve multiplication of two square matricesof 1000 x 1000 integers would cost over 3 billion gas, which far exceeds the logical blockgas limit. This core can leverage modern GPU integer processing by utilizing deterministicfixed-point arithmetic, quantization techniques[6], and an onchain pseudo-random generatorto address concerns about nondeterministic behavior from randomness and floating-pointerrors. The Zero-Knowledge (ZK) core could enable efficient verification of zero-knowledgeproofs such as ZK-SNARKs. Zero-knowledge proofs are used in cryptography to allow oneparty (the prover) to prove to another party (the verifier) that they possess specific knowledgeor information without revealing the actual information itself. By providing native supportfor ZK-proof verification using a highly optimized software stack or hardware acceleration,the core reduces computational overhead and gas costs compared to implementing theseoperations in smart contracts. The core is particularly valuable for applications requiringconfidential IP exchanges or verifiable IP graphs of massive scale. For example, it can enableIP owners to prove ownership or authenticity of their IP assets without exposing sensitivedetails.$IP

The Analog Network is the combination of participating community members and technical mechanisms that power both Analog and the Timegraph. The ecosystem consists of time nodes, oracles, smart contracts, dApps, DEX, end-users, and staking mechanisms, all revolving around time data that is protected by the zk-SNARK zero-knowledge proof protocol.  Analog has developed a mobile app that lets the community submit useful time data into the Timechain easily. Users will be able to create updates, or ‘Analogs’, using the app which are visible to relevant parties and searches. For instance, entering ‘Christmas Party’ in the app’s search field would bring up relevant real-time Analogs based on the searcher’s location and other unique factors.  The app also pulls in relevant time data from connected third-party apps, such as calendar schedules, upcoming local events and monthly billing information, to help users take preemptive time-based actions without accessing several other apps, thus saving a lot of time. Users can select which external apps and what information they want to sync with Analog, giving them a tailor-made solution to conveniently tracking the singular and recurring details of their daily lives. The team at Analog built a wallet as well that allows users to store ANLOG with support for more tokens soon. Analog also plans to build a DEX that will give users a chance to provide liquidity, stake, and swap tokens to get ANLOG rewards. The DEX will be built in a trustless manner meaning that users’ funds and personal data are preserved.  $ANLOG