Practical Exploration of Data Assetization Governance
Abstract
This paper examines practical pathways for data assetization governance. Enterprises face challenges such as data silos and circulation bottlenecks in data governance; however, successful cases in finance, healthcare, and other industries demonstrate that inventory-based management, privacy-preserving computation, and blockchain technology can effectively unlock data value. Data asset capitalization optimizes financial statement structures and enhances corporate valuation. Market-driven circulation of data factors relies on trading platforms, cross-organizational collaboration, and blockchain applications, yet requires resolving issues of产权and security. Blockchain technology enhances transaction credibility through notarization and dynamic pricing, while reducing compliance costs demands synergistic institutional and technological innovations, such as privacy-computing techniques like federated learning. Overall, data governance necessitates integrated advancements in technology, institutional frameworks, and business models to fully unleash the value of data
Keywords: Data Assetization, Data Governance, Blockchain Technology, Data Compliance Costs, Data Factor Marketization, Dynamic Pricing Model
作者简介:吴大有博士
国际数据管理高级研究院发起负责人
全球数据要素50人论坛发起人
DAMA China Limited理事
中国数据资产国际标准化工作组专家组成员
Previously, we shared the second installment focusing on the "Theoretical Foundations of Data Assetization Governance". This third presentation centers on the core theme of "Practical Exploration of Data Assetization Governance", providing a comprehensive overview covering corporate implementation status, financial impacts, business models, and applications. We hope you find it valuable.
Part III: Practical Exploration of Data Assetization Governance
1. Implementation Status of Data Governance in Enterprises
Today’s corporate data governance is like searching for treasure in a fog—full of opportunities yet fraught with risks. Driven by the National Data Administration’s push for market-oriented reform of data factors, more companies recognize the importance of a data assetization governance framework. However, they still face persistent challenges such as data silos, sunk data assets, and circulation bottlenecks when implementing it. For example, a major manufacturing firm operates over 20 business systems, with production data stored in ERP, sales data in CRM, and logistics data in WMS. This fragmented structure inherently limits the value of data.
1.1 Governance Strategies from Typical Cases
In the race for digital transformation, Guanqin Information offers a textbook example. By integrating a digital asset management system, it consolidated scattered departmental assets—contracts, drawings, process parameters—into packaged digital products, tripling the scale of data assets within six months. Their success lies in establishing an inventory-based data management system, using standardized processes to clarify ownership and application scenarios for each data asset. This approach functions like an “ID card” for data, resolving ownership issues and laying the foundation for cross-organizational data circulation. This “data bank” model is now being emulated by many manufacturers, as no one wants their data assets to remain dormant like raw ore.
The healthcare industry’s efforts are even more groundbreaking. A tertiary hospital, where medical images were previously stored in departmental servers, adopted privacy-preserving computation technology to enable hospital-wide sharing without data leaving local domains. Their two-tier data sovereignty mechanism is innovative: doctors access data with timestamped electronic signatures, while patients control access via dynamic authorization codes. This approach not only addresses ethical constraints in medical data sharing but also reduces privacy leakage risks to below 0.1%. Such a balance between utility and compliance opens new paths for data commercialization.
The financial sector has taken data governance to new heights. A joint-stock bank combined blockchain notarization with an intelligent decision support system, compressing credit approval time from seven days to two hours. Their key weapon is data adaptive optimization technology, which captures over 200 types of enterprise data—such as utility payments and tax records—in real time. A dynamic pricing model automatically generates credit plans, and each transaction’s hash is recorded on the blockchain, ensuring compliance and building trust between buyers and sellers in the data factor market. This real-time decision support system turns data into truly liquid capital.
However, effective data governance requires more than just building a data platform. Surveys show that over 60% of enterprises make the mistake of prioritizing technology over institutional design. For instance, an e-commerce platform invested heavily in a data warehouse but unclear data ownership left user behavior data worth billions as sunk cost. Only after introducing a market-oriented data transaction mechanism—with internal pricing and circulation of data usage rights—were they able to revitalize these data assets. This case illustrates that institutional innovation can sometimes be more critical than technological upgrades.
1.2 Lessons from Trial and Error
Three key lessons emerge from these cases: First, data governance requires both technology (e.g., privacy-preserving computation) and institutional arrangements (e.g., inventory management). Second, overcoming circulation bottlenecks depends on creating a trusted data transaction environment, where blockchain and dynamic pricing models prove highly effective. Third, reducing compliance costs cannot be done by enterprises alone—policy support, such as data sovereignty credentials, is essential.
Nevertheless, the biggest challenge remains making data actionable. Some enterprises spend millions on data platforms, yet business units still rely on experience-based decisions. This is like driving a sports car only within a residential compound—a tremendous waste. The future breakthrough likely lies in building an end-to-end data value chain, ensuring every piece of data finds its role in the business ecosystem. After all, the ultimate goal of data governance is not to restrict data but to turn it into a living resource that nourishes the entire commercial environment.
2. Financial Effects of Data Asset Capitalization
Data asset capitalization is a key aspect of corporate digital transformation, reshaping the structure and interpretation of traditional financial statements. According to the Interim Accounting Treatment Provisions for Enterprise Data Resources, data assets are defined as “data resources legally owned or controlled by enterprises that are expected to generate economic benefits.” The capitalization process includes cost aggregation from data collection, cleansing, processing, rights confirmation, and pricing. Compared to traditional intangible asset capitalization, data assetization shows greater flexibility in cost recognition and value assessment, offering new directions for enhancing financial statements.
On the balance sheet, data asset capitalization significantly optimizes corporate asset structures. For example, a manufacturing company incorporated costs related to its data governance platform—including hardware, algorithm development, and labor—into data asset accounting. This turned what was previously a ¥320 million IT expense into a long-term asset, reducing the debt-to-asset ratio by 2.7 percentage points. Such accounting practices mitigate the short-term profit impact of R&D investments while creating a depreciable digital asset reservoir. Studies by IASB indicate that the average amortization period for data assets is 5–8 years, providing financial flexibility for strategic transitions.
On the income statement, improvements manifest in dynamic adjustments to cost structures. The establishment of a data asset amortization mechanism enables enterprises to implement differentiated marketing strategies based on data lifecycles. A fintech company reported that using a dynamic data value decay model—amortizing high-frequency trading data over 12 months and customer profile data over 60 months—reduced annual net profit volatility by 18%. Data from pilot enterprises under the National Data Administration show that companies adopting graded data asset amortization reduced their R&D expense-to-revenue ratio by an average of 4.3 percentage points, easing financial pressure from innovation investments.
Improved financial metrics also enhance capital market valuation. Recognizing data assets in financial statements makes digital competitiveness visible. After an e-commerce platform disclosed the valuation of user behavior data assets in its annual report, its price-to-book (P/B) ratio increased from 2.3x to 3.1x. This revaluation stems from the network effects and decreasing marginal costs characteristic of data assets: once a critical mass is reached, unit costs decline exponentially while application scenarios generate linear revenue growth. Research by the Development Research Center of the State Council shows that every standard deviation increase in data asset scale raises Tobin’s Q by an average of 0.15.
However, data asset capitalization also carries value fluctuation risks. Due to the time-sensitive nature of data factors, impairment tests must be conducted more frequently than for traditional intangible assets. For instance, a logistics company’s freight flow data assets depreciated by 42% over two years due to market changes. This necessitates dynamic valuation systems and enhanced disclosure practices aligned with the Data Asset Assessment Guidelines. Currently, capital markets exhibit a 25%–30% valuation gap for data assets, reflecting both the complexity of data value realization and the need for further refinement of financial standards.
According to the Ministry of Finance’s 2023 corporate financial report analysis, listed companies implementing data asset capitalization saw an average increase of 0.3x in current ratios and a 12-percentage-point rise in R&D capitalization rates. These improvements demonstrate the unique role of data assetization in reshaping corporate value assessment systems and offer practical solutions to the “cost sedimentation problem” in market-oriented data factor reforms. As the National Data Administration promotes the development of trusted data spaces, the liquidity and tradability of data assets will further improve, shifting financial reporting mechanisms from structural optimization to value creation.
3. Business Models for Market-Driven Circulation of Data Factors
The business models enabling market-driven circulation of data factors are crucial for realizing data value. In today’s digital era, as the value of data becomes increasingly evident, exploring effective market-oriented circulation models is of great significance.
On one hand, data trading platforms provide essential support for market-driven data circulation. Numerous data exchanges operate nationwide, offering diverse types of data products, reflecting strong industry demand for external data procurement. These platforms facilitate the display and transaction of data products and services, promoting data sharing and circulation among different entities.
On the other hand, cross-organizational data circulation models continue to evolve. Some enterprises have established data-sharing alliances to enable interoperability and co-creation of value. In such models, companies can engage in targeted data exchange and collaboration based on their actual needs and available data resources, thereby enhancing data utilization efficiency and value.
Blockchain technology introduces new opportunities for business models in data transactions. As shown in Table 4.3.1 (Data on Business Models for Market-Driven Data Factor Circulation), empirical data reveal future directions and potential benefits of data assetization. The immutability of blockchain provides reliable notarization for data transactions, while dynamic pricing models make transaction prices more rational, flexible, and reflective of market supply-demand dynamics and data value. However, challenges remain: defining and protecting data rights remain challenging to define., potentially hindering transactions. Data security and privacy protection are also critical issues that must be fully addressed in business model design to ensure lawful and secure data circulation.

4. Application of Blockchain Technology in Data Transactions
Amid the growing wave of data factor marketization, blockchain has emerged as a key to breaking down data silos and facilitating data circulation. This seemingly complex technology acts like an “intelligent safe” for data transactions, ensuring both security and transparency while encouraging participants to willingly open their data repositories. Traditional data transactions often feel like walking a tightrope—a predicament ultimately rooted in unresolved trust issues. However, blockchain’s distributed ledger and smart contract capabilities provide an entirely new framework for building trust.
The core value of blockchain notarization lies in assigning data assets an unalterable “digital identity.” For example, when an e-commerce platform wishes to sell user behavior data to an advertising agency, both parties traditionally had to repeatedly verify authenticity to avoid “data beautification.” Blockchain notarization timestamps each data packet, creating a permanent record of the entire process from collection and cleansing to processing. This feature is particularly conducive to inventory-based management. When enterprises need to prove legitimate acquisition of data assets, retrieving blockchain records is far more reliable than searching through paper archives. A typical use case is data sharing in healthcare: a tertiary hospital used blockchain notarization to enable secure transfer of patient imaging data across hospitals, reducing privacy risks and giving doctors greater confidence when accessing reports.
Dynamic pricing models represent another powerful tool through which blockchain unlocks the value of data factors. Imagine industrial sensor data fluctuating like stocks in a trading market—the more frequently it is used and the broader its applications, the higher its value. Smart contracts on the blockchain can automatically execute such dynamic pricing rules. For instance, when an automaker seeks to purchase autonomous driving road-test data, a smart contract generates quotes based on parameters such as update frequency and coverage area. This approach not only prevents data assets from becoming sunk costs but also incentivizes data providers to continuously improve data quality. One logistics company reaped significant benefits: after selling truck trajectory data to insurers, premium calculation accuracy improved, and revenue from data sales tripled compared to the fixed-price era.
However, blockchain is not a cure-all. Challenges such as energy consumption, legal产权issues, and mutual recognition of data sovereignty credentials among enterprises remain hurdles. In terms of compliance, while blockchain can automatically verify transactions, the upfront investment in privacy-preserving frameworks is substantial. For example, a commercial bank used blockchain notarization in its credit approval process, reducing the verification time for customer credit data from three days to two hours. Smart contracts automatically enforced regulatory requirements, cutting manual compliance costs by 70%.
Interestingly, blockchain is also fostering new types of data intermediary services. These “data banks” no longer simply resell data but use blockchain to build trusted data spaces, helping enterprises transform dormant data assets into sustainable revenue streams—“digital mines.” A manufacturing park established a consortium chain where upstream and downstream companies store production data. When supply chain financing is needed, banks directly access real trade data on the blockchain to issue loans, addressing financing difficulties for small businesses while enabling core enterprises to monetize their data assets. This model perfectly illustrates the essence of data assetization governance: creating value through data flow and add through transactions.
Even advanced technology must contend with human factors. Ethical constraints in data commercialization loom like a sword of Damocles. While blockchain ensures transactional transparency, ethical data usage still relies on institutional oversight. Fortunately, more enterprises are adopting a “technology + institution” approach. For instance, an online hospital used blockchain to notarize patient authorization records and established a data ethics committee to review every data usage request. This dual strategy safeguards legal boundaries without stifling innovation.
From the perspective of building a market-oriented data transaction mechanism, blockchain technology functions as a “trust engineer” for the digital age. It does not directly produce data but reshapes trust mechanisms to enable data factor mobility. As data silos connect into value networks via chains and dynamic pricing models awaken dormant data assets, we may be witnessing the birth of a new business ecosystem. In this ecosystem, data is no longer a prisoner in servers but a prospector with a blockchain ID, running freely on tracks built by smart contracts.
5. Strategies for Reducing Data Compliance Costs
In today’s digital era, reducing data compliance costs is essential for promoting the market-driven circulation of data factors. The following measures can help achieve this:
Establishing a sound security governance mechanism for data circulation forms the foundation for reducing compliance costs. Clarifying the security responsibilities of all parties and formulating clear security rules can mitigate regulatory challenges and high costs arising from ambiguous responsibilities and regulations. The National Development and Reform Commission and the National Data Administration jointly issued the Implementation Plan for Improving Security Governance in Data Circulation to Better Promote Marketization and Valorization of Data Factors, marking an initial step toward reducing compliance costs.
Adopting a systems thinking approach and making coordinated arrangements in fundamental data institutions are equally important. Rather than partial fixes, holistic efforts are needed to foster a positive interaction between high-quality data development and high-level security. While upholding data security, it is essential to effectively reduce the safety compliance costs associated with data circulation.
Refining the principled requirements of existing laws and regulations can alleviate market concerns and reduce burdens. Within the overarching framework of current laws, principled requirements should be detailed into specific measures for data circulation. Promoting the circulation and use of data factors should be the starting point and ultimate goal of security governance. By summarizing safe, credible, effective, and consensus-driven security governance practices, the data circulation security governance system can be strengthened, enhancing its stability and predictability.
In practice, some enterprises have developed methods to reduce compliance costs. For example, a public fund piloted technologies such as federated learning and multi-party secure computation in scenarios like embedded data collection in its proprietary app and integration of external data for investment research reports. This achieved “data usability without visibility,” reducing compliance costs by 37%. Specific cases and data changes are shown in Table 4.5.1.
For cross-border data flow, the Cyberspace Administration of China’s Provisions on Standardizing and Promoting Cross-Border Data Flow (Draft for Comments) further refines existing data exportsystems. Multiple scenarios are exempt from pre-approval procedures, reducing compliance costs and helping to create an open business environment.
Reducing data compliance costs requires concerted efforts from all parties, including the government and enterprises. Through mechanisms such as establishing sound systems, coordinated planning, refining laws and regulations, and exploring practical experiences, data factors can circulate efficiently and compliantly, promoting the healthy development of the digital economy.

Ending

In this session, we have explored the practical implementation of data assetization governance, including the current state of enterprise adoption, the financial impacts of data asset capitalization, and strategies for reducing compliance costs in business models. Moving forward, we will conduct an in-depth analysis of the design and application of intelligent decision support systems.
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