The intersection of blockchain technology and telecommunications infrastructure represents one of the most promising yet underexplored frontiers in the digital economy. As the decentralized finance and Web3 sectors mature, industry stakeholders increasingly recognize that current growth models—largely reliant on capturing existing pools of users and capital through token bridges and yield incentives—face structural limitations. To address this challenge, industry leaders are looking toward deep integration with traditional telecommunications networks. A prominent voice in this movement is David Wei Liang, Vice President at Conflux Network, whose career bridges academic research in distributed systems, tier-one technology enterprises, and public blockchain architecture.
In a comprehensive exploration of decentralized systems, mobile infrastructure, and the convergence of artificial intelligence with distributed ledgers, Liang outlines a strategic blueprint for scaling Web3 from a niche financial ecosystem into foundational global infrastructure. By leveraging existing telecommunications frameworks—such as SIM cards and global mobile subscriber bases—Conflux Network and its engineering partners aim to onboard billions of everyday consumers without requiring them to navigate the technical complexities that have historically hindered mass adoption.
From Academic Roots to Enterprise Blockchain Leadership
Liang’s perspective on distributed systems is informed by an extensive academic and professional background. He earned his Doctor of Philosophy in computer science from the Chinese Academy of Sciences, where his doctoral research focused on peer-to-peer networks. This foundational work was followed by postdoctoral research dedicated entirely to the resilience and scalability of distributed systems.
His transition into applied enterprise technology took him to Huawei’s Noah’s Ark Lab in Hong Kong, an advanced research facility focusing on artificial intelligence, data mining, and decentralized computing. Following his tenure at Huawei, Liang assumed the role of chief blockchain expert at China Telecom. During his leadership at the telecommunications giant, he spearheaded the development of the BSIM (Blockchain SIM) card, a pioneering hardware solution designed to integrate cryptographic key generation and transaction signing directly into standard mobile subscriber identity modules.
Currently serving as Vice President at Conflux Network—a Layer-1 blockchain uniquely structured around a Tree-Graph consensus mechanism designed to bridge China’s engineering ecosystem with global Web3 markets—Liang brings a rare dual perspective combining enterprise-grade telecommunications security with public blockchain architecture.
The Limitations of Internal Crypto Growth and the Telecom Opportunity
According to Liang, the prevailing strategy across the broader cryptocurrency industry suffers from a zero-sum dynamic. Most protocols and decentralized applications continuously compete for the same finite pool of active users and liquidity, shuffling capital between disparate Layer-1 and Layer-2 networks via cross-chain bridges and compatibility tools, driven primarily by speculative yield incentives.
This internal churn, Liang argues, fails to expand the total addressable market. While protocol developers optimize for marginal improvements in transaction speed and fee reduction within the crypto-native population, the vast majority of the global population remains untouched by decentralized technologies.
The true growth opportunity, by contrast, lies outside the traditional crypto bubble. Global telecommunications infrastructure currently supports nearly six billion mobile subscribers, over five billion active internet users, and billions of traditional banking customers. Furthermore, industry projections—including estimates from technology conglomerates like Huawei—suggest that the proliferation of autonomous artificial intelligence agents could introduce up to 900 billion digital entities operating across networks by 2035.
Liang posits that moving existing crypto users merely alters market share among competing protocols, whereas creating seamless onboarding pathways for mobile subscribers fundamentally expands the size of the digital economy. Because telecommunications operators maintain decades-old relationships with billions of customers and control the physical infrastructure upon which the entire digital economy runs, they represent the most natural, trusted, and friction-free gateway into Web3.
The Practical Mechanics of BSIM and Mass Onboarding
The operational cornerstone of this thesis is the BSIM card technology. Rather than forcing users to download standalone software wallets, memorize complex recovery phrases, or manage raw private keys—processes that frequently lead to permanent asset loss and severe security vulnerabilities—BSIM transforms the standard SIM card already embedded in billions of mobile phones into an enterprise-grade hardware security module.
Under this architecture, the SIM card generates and securely stores cryptographic private keys internally. Transactions are signed within the secure enclave of the SIM card itself, ensuring that private keys never leave the hardware environment. This design effectively bridges the gap between high-security hardware wallets and the convenience of mobile telecommunications.
The viability of this infrastructure has been tested through a series of phased deployments across key Asian markets:
- A pilot program in Shanghai demonstrating the capability of telecom-integrated hardware wallets to handle municipal-scale user interactions.
- A commercial deployment in Hong Kong executed through a licensed telecommunications operator, which successfully combined mobile roaming data management with stablecoin settlement layers.
- An enterprise-level rollout in Hunan province in partnership with a major insurance provider, testing the utility of decentralized identity and automated claims settlement.
Liang emphasizes a core lesson derived from these deployments: everyday users should not be required to become cryptography experts to utilize Web3 applications. Requiring newcomers to handwrite and store a 12-word or 24-word recovery phrase is a fatal UX bottleneck that actively suppresses mass adoption. Instead, digital identity must serve as the primary entry point. By cryptographically linking a subscriber’s verified network identity to a blockchain-enabled wallet with explicit user consent, telecommunications providers can allow a standard phone number to function seamlessly as a payment address. Furthermore, operators could theoretically incentivize network participation by rewarding users with digital assets for everyday telecommunications activities, such as voice calls and data usage.
Artificial Intelligence, Autonomous Agents, and On-Chain Settlement
As artificial intelligence transitions from passive conversational models to autonomous software agents capable of executing complex workflows, the requirements for digital monetary systems are shifting rapidly. Liang argues that AI agents fundamentally require native digital currency—programmable money that software can autonomously spend in microscopic fractions (micropayments) and settle instantly, with strict spending limits enforced directly by underlying code.
Existing financial rails, characterized by high merchant fees, settlement delays, and manual authorization processes, are entirely unsuited for machine-to-machine transactions. Liang highlights emerging technical standards, such as the x402 payment protocol framework, which enable automated, instant micro-settlements designed specifically for machine-executable environments.
To maintain network efficiency while leveraging decentralized security, Liang advocates for a strict division of labor regarding on-chain versus off-chain operations:
- Off-Chain Processing: Any operational process that requires ultra-high speed, massive data throughput, or low-latency communication should remain off-chain to prevent network congestion.
- On-Chain Ledger: Any function that requires absolute trust, verifiable consensus, immutable agreement, financial commitments, and final settlement must be recorded securely on the decentralized ledger.
This structural separation ensures that high-frequency AI agent interactions do not bloat the blockchain while maintaining cryptographic verifiability for all final economic settlements.
Privacy, Data Ownership, and the Telecom-Blockchain Convergence
A critical concern accompanying the proliferation of personal artificial intelligence agents is data privacy. Liang warns that personal AI agents will inevitably accumulate vastly more intimate data about their users’ behaviors, preferences, and daily lives than legacy Web2 technology platforms ever managed to capture. Leaving this torrent of sensitive data in the hands of a small handful of centralized technology corporations poses significant societal and security risks.
By combining verified telecom identities, self-sovereign blockchain wallets, and decentralized storage frameworks, individuals could theoretically authorize and interact with their personal AI agents without surrendering proprietary personal data to centralized entities. Users retain absolute cryptographic control over their digital footprint, granting granular, revocable access permissions managed through smart contracts.
Recent Technical Milestones and Ecosystem Expansion
Conflux Network has continued to position its infrastructure to support these multi-chain and cross-border use cases. Recent network upgrades, finalized in October, have enhanced the platform’s throughput, security, and developer tooling. Additionally, the network has expanded its stablecoin offerings with the integration of assets such as USDT0 and AxCNH (renminbi-backed stablecoin infrastructure), facilitating seamless cross-border fiat-to-crypto settlements and supporting trade corridors across Asian markets.
Ultimately, Liang measures the long-term success of Web3 not by speculative token valuations or trading volumes, but by its complete invisibility. Just as the average internet user benefits daily from the Transmission Control Protocol/Internet Protocol (TCP/IP) without needing to understand packet switching or network routing, Web3 will have truly won when it disappears seamlessly into the fabric of everyday life.
