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Concept

The examination of distributed ledger technology’s (DLT) impact on the post-trade landscape commences not with the technology itself, but with a precise understanding of the system it seeks to re-architect. The post-trade environment is an intricate network of messaging, reconciliation, and settlement protocols, a multi-layered system designed over decades to ensure transactional finality and mitigate counterparty risk. Its architecture, while proven and reliable, is a product of its time ▴ characterized by sequential processing, batched operations, and a fragmented series of siloed databases across multiple intermediaries. Each institution, from custodian to central securities depository (CSD) and central counterparty (CCP), maintains its own ledger.

The core operational challenge of this structure is the perpetual need for reconciliation between these disparate records, a process that consumes immense resources and introduces temporal risk into the system. The industry expends vast sums annually simply to ensure that everyone’s version of the truth aligns.

Distributed ledger technology introduces a fundamentally different architectural principle. It proposes a single, shared source of truth, a synchronized ledger accessible to all permissioned participants in a transaction’s lifecycle. This represents a shift from a model of fragmented, replicated data to one of shared, unified data. The ledger’s state is updated and validated by a consensus mechanism among the network participants, creating an immutable and auditable trail of transactions.

This design directly addresses the foundational inefficiency of the legacy system which is the constant, costly process of reconciliation. The introduction of a shared ledger system could streamline the entire post-trade value chain, reducing the operational overhead tied to confirming and matching trade details across different organizations. The technology’s potential extends beyond simple efficiency gains, offering a new framework for managing assets and risk in real-time.

Distributed ledger technology fundamentally re-architects the post-trade environment by replacing siloed, replicated databases with a single, synchronized source of transactional truth.

This architectural shift is enabled by two core components of DLT. First, the distributed and immutable nature of the ledger itself ensures data integrity and transparency among participants. Every transaction is recorded in a way that is computationally difficult to alter after the fact, providing a high degree of security and trust in the record-keeping process. Second, the concept of smart contracts ▴ self-executing contracts with the terms of the agreement directly written into code ▴ introduces a powerful layer of automation.

These digital contracts can automate complex, multi-step processes that are currently manual and labor-intensive, such as collateral management, dividend distribution, and corporate actions. For instance, a smart contract could be programmed to automatically transfer ownership of a security upon the confirmed receipt of payment, executing the settlement process without manual intervention. This capacity for automation has the potential to dramatically reduce operational costs and the incidence of human error.

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What Is the Core Systemic Flaw DLT Addresses?

The central inefficiency within the existing post-trade infrastructure is systemic fragmentation. The entire edifice is built upon a series of legally and operationally distinct entities, each maintaining its own proprietary ledger. A trade’s journey from execution to settlement involves a cascade of messages and updates across the books of brokers, custodians, clearing houses, and depositories. This structure necessitates a massive, ongoing reconciliation effort to ensure all ledgers are consistent.

The Depository Trust & Clearing Corporation (DTCC) processes trillions of dollars in securities transactions, and even a minuscule failure rate in this high-volume environment can result in substantial financial losses and operational friction. This fragmentation is the primary source of settlement risk ▴ the risk that one party to a trade will fail to deliver its obligation, creating a cascade of failures. The time delay between trade execution and final settlement, typically two business days (T+2) in many markets, is a direct consequence of this fragmented and batch-oriented processing model. This settlement lag exposes market participants to counterparty risk for an extended period.

DLT offers a direct architectural solution to this fragmentation. By creating a single, authoritative record of transactions and asset ownership, it obviates the need for constant reconciliation between multiple ledgers. All permissioned parties view the same data in real-time, eliminating discrepancies at their source. This move towards a unified data model is the technology’s most profound potential impact.

It collapses the sequential, multi-step process of clearing and settlement into a more streamlined, potentially instantaneous, operation. The concept of atomic settlement, where the transfer of the asset and the transfer of payment occur simultaneously and are conditional upon each other, becomes technically feasible. This would virtually eliminate the settlement risk that is inherent in the current T+2 cycle. The reduction of these risks and inefficiencies is a primary driver for the financial industry’s exploration of DLT. The technology promises to replace a complex web of intermediaries and processes with a more efficient, transparent, and resilient infrastructure.

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Rethinking the Role of Intermediaries

The potential for DLT to streamline post-trade processes leads to a critical question regarding the future role of established financial market infrastructures (FMIs) like CCPs and CSDs. A common narrative suggests that DLT will lead to widespread disintermediation, rendering these entities obsolete. This view is an oversimplification of the value these institutions provide.

While DLT can automate many of the mechanical functions of clearing and settlement, it does not inherently replace the vital roles of governance, risk management, and legal finality that FMIs provide. The European Central Bank has noted that certain core processes will still need to be performed by trusted institutions, regardless of the underlying technology.

The adoption of DLT is more likely to trigger a re-intermediation, where the functions of these institutions evolve to fit the new technological paradigm. For example, a CSD’s role might shift from being the sole keeper of the central securities record to becoming the primary governance body for the distributed ledger network. It could define the rules of participation, oversee the operation of the network’s consensus mechanism, and provide the legal framework that ensures the finality of transactions recorded on the ledger.

Similarly, a CCP’s function of mitigating counterparty risk through novation and multilateral netting could be adapted to a DLT environment. While atomic settlement on a DLT platform can reduce settlement risk for individual transactions, CCPs would still play a vital role in managing systemic risk across the market, especially in complex derivatives markets where netting provides significant capital efficiencies.

The technology, therefore, acts as a catalyst for reorganization rather than simple elimination. It compels a re-evaluation of where value is created in the post-trade lifecycle. Functions that are purely mechanical and reconciliation-based are prime candidates for automation via DLT and smart contracts. Functions that involve governance, risk management, legal certainty, and acting as a trusted third party will remain essential.

The future landscape will likely involve a collaborative model where FMIs leverage DLT to provide their core services more efficiently and transparently. This evolution would allow them to focus on higher-value activities, such as developing new products and services based on the enhanced data and transparency offered by the DLT infrastructure.


Strategy

The strategic adoption of distributed ledger technology in the post-trade domain is a complex undertaking that moves beyond mere technological substitution. It represents a fundamental re-engineering of operational workflows, risk management frameworks, and inter-firm collaboration models. The primary strategic objective is to transition from a legacy architecture characterized by sequential, batch-based processing and data silos to a real-time, transparent, and automated environment.

This transition is not a single event but a phased evolution, with firms developing strategies that balance the immense potential of DLT with the significant challenges of integration, standardization, and regulation. The overarching strategy is one of systemic optimization, targeting specific pain points in the current post-trade lifecycle to unlock significant efficiencies and reduce structural risks.

A core component of this strategy involves identifying the areas where DLT can deliver the most substantial benefits. Early applications are likely to focus on segments of the market where current processes are particularly inefficient or risky. For example, the settlement of less liquid assets, cross-border transactions, and the management of collateral are all areas where the current infrastructure is slow and costly. By implementing DLT-based solutions in these targeted areas, financial institutions can build expertise, demonstrate the value of the technology, and develop the business case for broader adoption.

This targeted approach allows firms to manage the risks associated with implementing a new technology while progressively building towards a more comprehensive DLT-based post-trade infrastructure. The strategy is one of incremental revolution, using targeted innovations to drive a gradual but profound transformation of the entire post-trade ecosystem.

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Frameworks for DLT Implementation

Financial institutions are considering several strategic frameworks for implementing DLT. These frameworks are not mutually exclusive and can be seen as stages in a broader evolutionary process. The choice of framework depends on the institution’s risk appetite, its strategic objectives, and the specific market segment it is targeting.

  1. The Internal Optimization Framework This is the most conservative approach, where a financial institution deploys a private, permissioned DLT network to streamline its own internal post-trade processes. For example, a large bank could use a distributed ledger to reconcile trades between its various trading desks and back-office systems in real-time. This approach contains the complexity of the implementation within the firm, allowing it to realize efficiency gains without needing to coordinate with external parties. The primary benefit is a reduction in internal reconciliation costs and operational errors. This framework serves as a low-risk testing ground for the technology, allowing the institution to build operational expertise before engaging in more complex, multi-party implementations.
  2. The Bilateral and Multilateral Network Framework This framework extends the DLT network to a small group of trusted counterparties. For example, a consortium of banks could create a shared ledger for settling a specific type of derivative or for managing collateral obligations between them. This approach begins to unlock the network effects of DLT, as the shared ledger eliminates the need for reconciliation between the participating firms. The Baton Systems model, which focuses on interbank payments and settlements, is an example of this strategy in action. This framework requires a higher degree of collaboration and governance than the internal optimization model, as the participants must agree on common standards and operating procedures. The strategic goal is to create islands of efficiency within the broader market ecosystem.
  3. The Market-Wide Infrastructure Framework This is the most ambitious framework, envisioning the replacement of legacy market infrastructure with a new, market-wide DLT platform. This would involve the collaboration of a wide range of market participants, including banks, asset managers, and existing FMIs, to create a new utility for post-trade processing. Such a platform could handle the clearing and settlement for an entire asset class, such as equities or bonds. This framework offers the greatest potential benefits in terms of efficiency, transparency, and risk reduction, but it also faces the most significant hurdles. Achieving industry-wide consensus on technology standards, governance models, and regulatory frameworks is a monumental task. The DTCC’s call for industry-wide collaboration to re-architect core processes reflects the understanding that realizing the full potential of DLT requires this level of systemic change.
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Comparative Analysis of Post-Trade Models

The strategic shift from a traditional to a DLT-based post-trade model can be understood by comparing their core attributes. The following table provides a systematic comparison of the two models across key operational and risk dimensions.

Attribute Traditional Post-Trade Model DLT-Based Post-Trade Model
Data Structure Siloed and replicated ledgers requiring continuous reconciliation. Single, shared, and synchronized ledger providing a unified source of truth.
Settlement Cycle Batch-based processing, typically T+2, leading to settlement lag. Potential for real-time or near-real-time gross settlement (RTGS), enabling atomic settlement (T+0).
Counterparty Risk Elevated due to the time lag between trade execution and final settlement. Significantly reduced or eliminated through atomic settlement.
Transparency Opaque, with participants having limited visibility into the settlement process. High degree of transparency for all permissioned participants on the network.
Operational Efficiency Low, characterized by manual interventions, high reconciliation costs, and trade failures. High, driven by automation through smart contracts and the elimination of reconciliation.
Role of Intermediaries Centralized intermediaries (CCPs, CSDs) perform critical functions of clearing, settlement, and record-keeping. The role of intermediaries evolves towards governance, risk oversight, and network management.
Asset Representation Assets are represented by book entries in siloed databases. Assets can be natively issued and represented as digital tokens on the ledger.
The transition to a DLT-based model is a strategic pivot from mitigating risk within a fragmented system to eliminating risk through a unified and transparent architecture.
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How Will Smart Contracts Redefine Operational Strategy?

Smart contracts are a pivotal element of the DLT strategy, enabling a move from probabilistic to deterministic post-trade operations. In the current system, many post-trade processes, such as corporate actions, are governed by complex legal agreements and require significant manual intervention to interpret and execute. A dividend payment, for example, involves the issuer communicating with a CSD, which then communicates with custodians, who then credit the accounts of the ultimate asset holders. This multi-step process is prone to errors and delays.

A smart contract can automate this entire workflow. The terms of the corporate action could be encoded into a smart contract that is linked to the digital asset on the ledger. On the payment date, the smart contract could automatically identify the current owners of the asset by querying the ledger and then execute the transfer of funds from the issuer’s account to the holders’ accounts. This process would be executed automatically, transparently, and without the need for the chain of intermediaries involved in the current model.

This level of automation can dramatically reduce operational costs and the risk of human error. Accenture has estimated that DLT could reduce certain business operation costs by up to 50% by eliminating the need for reconciliation and manual processing.

The strategic implication of smart contracts is that they allow firms to embed business logic and regulatory compliance directly into the post-trade infrastructure. This creates a more resilient and efficient operating model. For example, a smart contract could be programmed to prevent a trade from being executed if it violates a specific regulatory rule or an internal risk limit.

This moves compliance from a reactive, after-the-fact process to a proactive, preventative control that is built into the transaction lifecycle itself. The adoption of smart contracts is therefore a key strategic lever for reducing operational risk, enhancing regulatory compliance, and creating a more automated and intelligent post-trade environment.


Execution

The execution of a distributed ledger technology strategy in the post-trade sector is a complex, multi-faceted endeavor that requires meticulous planning and a deep understanding of both the technology and the existing market structure. Moving from a strategic vision to a functioning DLT-based post-trade system involves navigating a series of technical, operational, and regulatory challenges. The execution phase is not simply about deploying new software; it is about orchestrating a fundamental change in how market participants interact and how transactions are processed, cleared, and settled.

A successful execution requires a phased approach, beginning with controlled, small-scale implementations and progressively moving towards broader, market-wide solutions. This incremental approach allows for learning and adaptation, mitigating the risks associated with a “big bang” transition.

A critical aspect of execution is the development of a robust governance framework for the DLT network. In a decentralized or distributed system, clear rules are needed to define who can participate, how transactions are validated, how data is managed, and how disputes are resolved. This governance framework is as important as the technology itself. Without sound governance, a DLT network cannot achieve the level of trust and legal certainty required for institutional finance.

The execution plan must therefore include a detailed strategy for establishing and maintaining this governance structure, which will likely involve collaboration between technology providers, financial institutions, and regulatory bodies. The goal is to create a system that is not only technologically advanced but also commercially viable and legally sound.

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The Phased Adoption Playbook

The transition to a DLT-based post-trade infrastructure will not be a monolithic event. Instead, it will unfold in a series of distinct phases, each with its own set of objectives, challenges, and deliverables. This phased execution allows for risk management and iterative development, ensuring that each step builds upon a solid foundation.

  • Phase 1 Discovery and Proof of Concept (PoC) In this initial phase, the focus is on education and experimentation. Financial institutions form small, dedicated teams to research DLT and identify potential use cases within their post-trade operations. They conduct small-scale PoC projects in isolated lab environments to test the feasibility of the technology for specific tasks, such as internal reconciliation or the tokenization of a single asset. The primary goal of this phase is to build internal expertise and to understand the practical challenges and opportunities of DLT without impacting live operations. Success is measured by the insights gained, not by the deployment of a production system.
  • Phase 2 Pilot Programs and Consortium Building Building on the insights from the PoC phase, institutions move to conduct pilot programs in a more realistic, but still controlled, environment. This often involves forming a consortium with a small number of trusted partners to test a shared ledger for a specific use case, such as bilateral derivatives settlement. The focus shifts from technical feasibility to operational integration and governance. The consortium must develop a common rulebook, define data standards, and establish a governance model for the pilot network. The goal of this phase is to demonstrate the viability of a multi-party DLT network and to refine the operational and governance frameworks required to support it.
  • Phase 3 Production Deployment and Integration In this phase, the DLT solution is moved into a live production environment. This is a critical step that requires extensive testing, security audits, and regulatory approval. The DLT system must be integrated with the institution’s existing legacy systems, such as order management systems and risk management platforms. This integration is a major technical challenge, as it requires bridging the gap between the new, real-time architecture of DLT and the batch-oriented architecture of many legacy systems. The goal of this phase is to have a fully operational DLT solution that is processing live transactions and delivering measurable business value, such as reduced settlement times or lower operational costs.
  • Phase 4 Network Expansion and Interoperability Once a DLT solution is successfully deployed in production, the focus shifts to expanding the network and ensuring interoperability with other DLT platforms. The value of a DLT network increases with the number of participants, so expanding the network to include more counterparties is a key objective. Furthermore, as multiple DLT networks emerge for different asset classes and use cases, the ability for these networks to interoperate will be crucial to avoid creating new digital silos. This phase involves developing and adopting common standards for cross-chain communication and asset transfer. The ultimate goal is to create a seamless, interconnected network of DLT platforms that forms the backbone of a new, more efficient global post-trade infrastructure.
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Quantitative Modeling of DLT Impact

To secure investment and justify the significant undertaking of DLT implementation, institutions must model the potential quantitative impact on their operations. This involves a detailed analysis of current costs and a projection of the savings and efficiencies that DLT could generate. The following table provides a simplified model of a cost-benefit analysis for a hypothetical mid-sized asset manager transitioning a portion of its operations to a DLT platform.

Operational Area Current Annual Cost (Legacy System) Projected Annual Cost (DLT System) Projected Annual Savings Key DLT Drivers
Trade Reconciliation $5,000,000 $1,000,000 $4,000,000 Elimination of manual matching; shared ledger provides single source of truth.
Settlement Fails & Penalties $1,500,000 $200,000 $1,300,000 Atomic settlement (T+0) reduces settlement failures; automated compliance checks.
Collateral Management $3,000,000 $1,200,000 $1,800,000 Real-time valuation and automated margin calls via smart contracts; improved collateral mobility.
Corporate Actions Processing $2,500,000 $750,000 $1,750,000 Automation of dividend payments and other actions through smart contracts.
Regulatory Reporting $2,000,000 $1,000,000 $1,000,000 Immutable audit trail provides regulators with direct access to verified data.
Total $14,000,000 $4,150,000 $9,850,000 Overall operational cost reduction of ~70%.
The execution of a DLT strategy hinges on a dual commitment to rigorous, phased implementation and the establishment of robust, collaborative governance structures.

This model illustrates the profound economic incentive for adopting DLT. The projected savings are derived from the technology’s core attributes. The reduction in reconciliation costs is a direct result of the shared ledger architecture. The decrease in settlement fails is due to the potential for atomic settlement.

The efficiencies in collateral management and corporate actions are driven by the automation capabilities of smart contracts. While this model is simplified, it provides a clear quantitative framework for evaluating the business case for DLT. A real-world analysis would involve a more granular breakdown of costs and a detailed projection of implementation and maintenance expenses for the new DLT system. The return on investment is not just in cost savings, but also in risk reduction and the creation of new business opportunities based on the more efficient infrastructure.

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References

  • European Central Bank. “Distributed ledger technologies in securities post-trading.” Occasional Paper Series, No. 172, 2016.
  • Capgemini. “How digital assets reshape the post-trade landscape in capital markets.” Capgemini Financial Services, 8 July 2024.
  • Kemp, Jerome. “The Future of Post-Trade DLT ▴ Embracing New Technology.” Baton Systems, 5 July 2023.
  • Polymath Network. “Blockchain and Post-Trade Processes.” Polymath Blog, 2023.
  • The Depository Trust & Clearing Corporation. “Embracing Disruption ▴ Tapping the Potential of Distributed Ledgers to Improve the Post-Trade Landscape.” White Paper, Jan. 2016.
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Reflection

The architectural reshaping of the post-trade landscape through distributed ledger technology is more than a technological upgrade; it is a catalyst for institutional introspection. The principles of shared data, cryptographic trust, and programmable automation compel a fundamental re-evaluation of deeply ingrained operational orthodoxies. The knowledge of how DLT functions is the entry point. The critical exercise is to map these new architectural principles onto your own firm’s operational blueprint.

Where do the structural inefficiencies lie within your current system? Which processes are artifacts of a fragmented, batch-oriented world? Answering these questions reveals the true scope of the transformation.

The adoption of this technology is not a foregone conclusion but a strategic decision that will be made at different speeds by different actors. The ultimate advantage will accrue to those institutions that not only implement the technology but also re-architect their operating models to harness its full potential. This requires a shift in mindset from process optimization to systemic design.

The challenge is to look beyond the immediate cost savings and to envision the new products, services, and risk management paradigms that a real-time, transparent, and automated post-trade infrastructure makes possible. The technology provides a new set of tools; the enduring strategic edge will be built by the architects who use them to construct a superior operational framework.

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Glossary

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Distributed Ledger Technology

Meaning ▴ Distributed Ledger Technology (DLT) is a decentralized database system that is shared, replicated, and synchronized across multiple geographical locations and participants, without a central administrator.
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Central Securities Depository

Meaning ▴ A Central Securities Depository (CSD) is a financial market utility that holds securities, often in dematerialized form, and enables their transfer by book entry.
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Reconciliation

Meaning ▴ Reconciliation is the process of comparing two sets of records to ensure their accuracy and consistency, identifying any discrepancies that require investigation and resolution.
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Distributed Ledger

Meaning ▴ A Distributed Ledger (DL) is a synchronized, immutable database that is collectively shared and maintained across multiple participants at different locations, without central administration.
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Shared Ledger

Meaning ▴ A shared ledger, fundamentally, is a distributed database replicated and synchronized across multiple participants within a network.
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Smart Contracts

Meaning ▴ Smart Contracts are self-executing agreements where the terms of the accord are directly encoded into lines of software, operating immutably on a blockchain.
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Collateral Management

Meaning ▴ Collateral Management, within the crypto investing and institutional options trading landscape, refers to the sophisticated process of exchanging, monitoring, and optimizing assets (collateral) posted to mitigate counterparty credit risk in derivative transactions.
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Corporate Actions

Meaning ▴ Corporate Actions, in the context of digital asset markets and their underlying systems architecture, represent significant events initiated by a blockchain project, decentralized autonomous organization (DAO), or centralized entity that impact the value, structure, or outstanding supply of a cryptocurrency or digital token.
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Post-Trade Infrastructure

Robust RFQ analytics requires a data fabric that fuses internal execution data with market context to deliver predictive, actionable intelligence.
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Counterparty Risk

Meaning ▴ Counterparty risk, within the domain of crypto investing and institutional options trading, represents the potential for financial loss arising from a counterparty's failure to fulfill its contractual obligations.
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Clearing and Settlement

Meaning ▴ Clearing and Settlement in the crypto domain refers to the post-trade processes that ensure the successful and irrevocable finalization of transactions, transitioning from trade agreement to the definitive transfer of assets and funds between parties.
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Atomic Settlement

Meaning ▴ An Atomic Settlement refers to a financial transaction or a series of interconnected operations in the crypto domain that execute as a single, indivisible unit, guaranteeing either complete success or total failure without any intermediate states.
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Risk Management

Meaning ▴ Risk Management, within the cryptocurrency trading domain, encompasses the comprehensive process of identifying, assessing, monitoring, and mitigating the multifaceted financial, operational, and technological exposures inherent in digital asset markets.
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Ledger Technology

Technology and post-trade analytics mitigate RFQ information leakage by creating a secure, data-driven execution ecosystem.
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Dlt-Based Post-Trade

DLT and AI architect a new financial reality by replacing siloed data with a single source of truth and reactive processes with proactive automation.
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Smart Contract

The ISDA CDM provides a standard digital blueprint of derivatives, enabling the direct, unambiguous translation of legal agreements into automated smart contracts.
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Post-Trade Landscape

Meaning ▴ The Post-Trade Landscape refers to the comprehensive ecosystem of processes, systems, and entities involved in settling and clearing financial transactions after a trade has been executed.