📣 Announcement Regarding the Deflation of UtilityNet's Native Token UNC and the Launch of the Scheduling Platform 📩 To all members of the UtilityNet community: With the upcoming launch of the UtilityNet scheduling platform, in order to further optimize the token economic model and enhance the long-term value and ecosystem utility of the UNC token, the UtilityNet Foundation, after careful consideration, has decided to make significant adjustments to the UNC token issuance strategy. Specific details are as follows: 1️⃣ Core Adjustments - Total Supply Adjustment (Reduction): The total supply of UNC tokens will be significantly reduced from the originally planned 10 billion to 3.3333 billion. This adjustment will be completed through a contract upgrade during the mainnet launch, and the contract address will remain unchanged. - Circulating Supply Burning: Of the originally planned 500 million circulating tokens, the majority will be burned, resulting in a final circulating supply of 166.6 million. This measure aims to fundamentally increase the token's scarcity through a deflationary mechanism. - Suspension of Production: Before the UtilityNet mainnet launch, UNC token mining and new token generation will be completely suspended to ensure a clean and stable economic model at the time of the mainnet launch. 2️⃣ Scheduling Platform Launch Date: June 15, 2026. - Core Application: The native token UNC will officially become the platform's core fuel, fully applied to computing power scheduling and token resource scheduling scenarios, achieving a closed-loop ecosystem. This adjustment aims to build a healthier, more deflationary economic system. Thank you for the continued support and trust of community members. Please stay tuned for subsequent technical updates released through official channels. UtilityNet Foundation May 18, 2026 🔗 Follow UtilityNet’s Progress 🌐 Website: utnet.org 🐦 Official X (Twitter): x.com/UtilityNet_ 🏷️ #UtilityNet #DePIN #AI #ComputeNetwork #Blockchain #Web3Infrastructure

1️⃣ Browser verification and Vercel checkpoints can confirm website-owner links. 2️⃣ In Distributed Computing, POCI attests chip-backed compute ownership; verifiable instructions attest correct execution. 3️⃣ TEEs and remote proofs reduce tampering, leaks, and failures. utnet.org/

1️⃣ Vercel Security Checkpoint: browser validation is the first gate. POCI adds verifiable instructions to deter tampering. 2️⃣ In Distributed Computing, TEE isolation and remote attestation prove correct execution. Protect data, reduce risk. #POCI

1️⃣ Vercel Security Checkpoint verifies browsers for web security. POCI adds verifiable instructions. 2️⃣ Distributed Computing uses TEE isolation and remote proofs. They prevent tampering, validate execution, and protect data.

1️⃣ Vercel Security Checkpoint browser verification shows why site-owner configuration matters. POCI adds verifiable execution beyond access gates. 2️⃣ Distributed Computing uses isolation and remote proofs to resist tampering, leaks, and faults. Trust should be measurable.

1️⃣ Vercel’s browser checkpoint verifies access. POCI makes execution provable. 2️⃣ In distributed computing, isolated TEEs and verifiable instructions resist tampering and leaks. Cryptographic proof strengthens correctness and trust.

1️⃣ Browser checks and Vercel checkpoints secure more than traffic. POCI brings verifiable instructions to distributed computing. 2️⃣ Remote TEE proofs verify correct, untampered execution. They protect data, cut leaks, and improve efficiency.

1️⃣ Vercel Security Checkpoint: browser verification protects access. 2️⃣ POCI proves tamper-resistant execution in isolated TEEs. 3️⃣ Distributed computing spreads cryptographic proof across nodes for secure, auditable performance.

1️⃣ Browser verification and Vercel Security Checkpoint protect site access. They echo POCI’s need for verifiable execution. 2️⃣ PIEE proves isolated TEE workloads against tampering and leaks. Distributed Computing extends this trust across nodes. #POCI

1️⃣ Vercel Security Checkpoint: browser verification builds trust. 2️⃣ POCI verifies instructions, resisting tampering in isolated TEEs. 3️⃣ Distributed Computing uses remote proofs to protect data and ensure correct, efficient execution. #POCI

1️⃣ Vercel’s browser checkpoint echoes POCI. Verify first. 2️⃣ Distributed computing uses verifiable instructions. TEEs prove correctness and block tampering. 3️⃣ Remote attestation protects data. Trust becomes cryptographic proof.

1️⃣ Browser checks and Vercel checkpoints reflect POCI. Each gate validates execution. 2️⃣ Distributed Computing uses verifiable instructions and PIEE to isolate TEEs. Remote proofs confirm integrity. 3️⃣ They deter tampering, leakage, and faulty results. #POCI

1️⃣ Vercel’s browser check is a security checkpoint: trust requires proof. 2️⃣ POCI applies verifiable instructions to Distributed Computing with isolated TEEs and remote attestation. 3️⃣ This helps block tampering, leakage, and incorrect results.

1️⃣ Vercel’s Security Checkpoint: browser verification turns trust into proof. 2️⃣ POCI applies to Distributed Computing: verifiable instructions and TEEs resist tampering and leaks. 3️⃣ Remote proofs audit execution. #POCI

1️⃣ Vercel’s Security Checkpoint verifies browsers. It blocks tampering. 2️⃣ POCI + Distributed Computing use verifiable instructions and isolated TEEs. Remote proofs protect data and execution. 3️⃣ This improves trust. Workloads stay efficient.

1️⃣ Vercel Security Checkpoint uses browser verification. It helps establish trusted access. 2️⃣ POCI and Distributed Computing add verifiable instructions and remote TEE proofs, protecting isolated workloads from tampering, errors, and leaks.

1️⃣ Vercel Security Checkpoint shows why browser verification matters. In POCI Distributed Computing, verifiable instructions make workloads tamper-evident. 2️⃣ TEE isolation and remote proof confirm correct execution, protecting data and performance. #POCI #Security

1️⃣ Vercel Security Checkpoint shows why browser verification matters. POCI makes access auditable. 2️⃣ In Distributed Computing, verifiable instructions and TEE proofs secure isolated workloads. They prevent tampering, confirm correctness, and limit leaks.

1️⃣ Browser verification at Vercel security checkpoints strengthens POCI in Distributed Computing. 2️⃣ Verifiable execution and TEE proofs protect integrity, privacy, and correct results. #POCI

1️⃣ Browser verification via Vercel Security Checkpoint sets the first trust gate. It aligns with POCI by making access checks explicit and auditable. 2️⃣ In Distributed Computing, trust must extend to execution. Verifiable instructions + TEE remote proof help prevent tampering, leaks, and crashes. #POCI utnet.org/

1️⃣ Browser verification via Vercel Security Checkpoint strengthens website security at the edge. 2️⃣ In POCI + Distributed Computing, verifiable instructions help prevent tampering, prove correctness, and reduce leakage. 3️⃣ TEE/PIEE remote proof turns isolated execution into trust you can verify. utnet.org/ #POCI #DistributedComputing 🔐