——Building a Cryptography-Based Global Trusted Compute Network

Amid the rapid evolution of the global digital economy and the deep convergence of decentralized finance and AI computing ecosystems, the Diffie Foundation (Singapore), Cryptic Labs, and CoinP.com Digital Asset Exchange jointly announce the official launch of the Diffie Protocol (DF Protocol).
Grounded in the cryptographic theory of Turing Award laureate and father of modern cryptography Whitfield Diffie, the protocol aims to build a Web3.0 trust infrastructure combining research-grade security, compute-driven economic incentives, and decentralized governance.

Background: Rebuilding the Trust Model of the Cryptographic World

The global blockchain industry is transitioning from the phase of “decentralized storage and asset issuance” to the phase of “compute-driven and data-driven value formation.”
The explosive growth of AI model training, privacy computation, and cross-chain collaboration has turned computing power into the new core productive force.

However, the traditional compute ecosystem still faces two fundamental pain points:

• Authenticity of computing power is difficult to verify, preventing users from confirming the accuracy of their contributions and returns;
• Communication and data transmission lack cryptographic protection, leaving node interactions dependent on centralized trust intermediaries.

To solve these issues, the Diffie Foundation, together with top international research institution Cryptic Labs and compliant trading platform CoinP.com, introduces the Diffie Protocol —
a decentralized secure computation protocol where algorithms establish trust and computing power defines value.

A Three-Party Collaboration: Deep Integration of Science, Engineering, and Market Infrastructure

Diffie Foundation (DIFFIE Singapore)

The foundation, advised by Professor Whitfield Diffie, is dedicated to advancing the real-world adoption of cryptography in global finance and trust-economy infrastructures. Its mission — “returning trust to its cryptographic origins” — focuses on supporting research innovation and standardization efforts across algorithmic security, decentralized identity, and verifiable computation.

Cryptic Labs (Cryptic Labs Research Institute)

Founded by Professor Diffie, Cryptic Labs is a commercial research institution specializing in blockchain security and cryptographic protocol design. Its team—originating from MIT, Stanford, and ETH Zurich—has world-class expertise in zero-knowledge proofs, TEE secure computation, post-quantum cryptography, and network-security modeling.
Within DF Protocol, Cryptic Labs leads core R&D, including algorithm architecture design, security auditing, and protocol-layer technical verification.

CoinP.com Digital Asset Exchange

As a globally compliant digital asset financial platform, CoinP serves millions of registered users and operates mature liquidity and security systems. In the Diffie Protocol ecosystem, CoinP functions as the market execution and adoption engine, providing capital channels, compute subscription infrastructure, asset liquidity, and node incentives.
Meanwhile, CoinP Wallet serves as the asset settlement and compute-yield management layer, completing the economic loop across the entire DF ecosystem.

Diffie Protocol: Scientific Security, Compute-Driven Trust

The Diffie Protocol is a decentralized secure computation protocol integrating cryptographic encryption with compute-driven token economics. Anchored in the Diffie–Hellman key exchange algorithm, it establishes verifiable, traceable, and tamper-proof communication and compute-attestation systems.
It achieves full-stack security through a four-layer architecture:

1. DH Encryption Layer (Encrypted Communication Layer)

Based on DH/ECDH and AES-256, enabling full end-to-end encrypted (E2EE) communication between nodes, ensuring resistance to tampering and man-in-the-middle attacks.

2. Secure Compute Layer (Proof-of-Secure-Work)

Implements PoSW, combining timestamp signatures and randomized validation to guarantee the authenticity and verifiability of every compute contribution.

3. Node Identity Layer (Encrypted Node Identity)

Uses Node DH-ID, which binds public keys to compute addresses, ensuring uniqueness and preventing identity forgery.

4. Smart Contract Layer (Governance & Security)

Employs multi-signature and timelock mechanisms, with formal verification by MIT DCI, ensuring transparent governance, parameter controllability, and operational security.

Strategic Vision: Establishing a Global Standard for Trustworthy Computation

The long-term objective of the Diffie Protocol is to become the decentralized trust infrastructure for Web3.0, elevating the cryptographic industry from “consensus trust” to “verifiable trust.”
By integrating algorithmic security, verifiable compute, and decentralized governance, DF aims to establish a global cryptographic trust framework adopted across Europe, Asia, and North America—covering research, technical infrastructure, and market execution layers.

Professor Whitfield Diffie stated at the protocol launch:
“DF Protocol is more than a technical innovation—it is a continuation of the spirit of modern cryptography. Our goal is to merge scientific rigor with economic incentive to return trust to its mathematical foundation.”

The birth of the Diffie Protocol marks a shift from “trust built by code” to “trust verified by science.”
With rigorous cryptographic foundations, sustainable compute-economic design, and open ecosystem collaboration,
DF Protocol is poised to become a core driver of Web3.0’s global development.

DF Protocol — Security Defined by Science · Trust Driven by Compute.

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