Designing an AI Agent Registry: Matching Tools, Tasks, and Owners Across Enterprise Workflows
Build an AI agent registry with fuzzy matching, ownership mapping, tool discovery, and policy-aware APIs for enterprise workflows.
Enterprise AI is moving from isolated copilots to coordinated fleets of AI agents, and the organizations that win will not just deploy agents—they will govern, route, and measure them. That is the practical lesson behind recent enterprise pushes like project44’s agent roadmap and Anthropic’s Managed Agents: once agents become operational assets, the hard problem becomes discovery, ownership, and safe assignment across sprawling workflows. In other words, the center of gravity shifts from “Can the model do the task?” to “Which agent should do it, who owns it, and what tools is it allowed to use?”
An internal agent registry is the control plane for that problem. It behaves a lot like a service catalog, a search index, and a policy engine combined, but with one critical twist: the inputs are messy human language, partial metadata, inconsistent ownership fields, and rapidly changing tool chains. That is where approximate matching becomes essential. If your teams can’t reliably search for a task like “vendor onboarding,” map it to the correct owner, and discover the right tool or agent version, the registry becomes shelfware. For teams already building internal automation, this guide connects registry architecture to practical workflow design, drawing on patterns from internal AI policy design and enterprise bot directory strategy.
1. Why Enterprise AI Needs an Agent Registry Now
From chat interfaces to operational systems
Most organizations start with a single AI assistant, then discover that one assistant is too generic for procurement, support, finance, engineering, and operations. The next phase is a fleet of specialized agents, each connected to distinct data sources and tools, such as ticketing systems, ERP platforms, knowledge bases, and approval workflows. Once you have more than a handful of agents, you need inventory, ownership, lifecycle management, and search. That is the exact moment an agent registry stops being a nice-to-have and becomes infrastructure.
Project44’s AI-agent messaging is a useful analog because it highlights domain-specific automation rather than one universal assistant. Likewise, Anthropic’s enterprise push around Claude Cowork and Managed Agents signals a market expectation that agents will be packaged, governed, and assigned like business assets rather than ad hoc prompts. In large enterprises, no one wants to ask five different teams where a workflow lives, who can modify it, and which toolchain it depends on. A registry answers those questions centrally, with enough metadata to support automation, compliance, and delegation.
Why search quality determines adoption
Users will not adopt an internal registry if they can’t find the right agent with the same ease they expect from enterprise search. Exact-string lookup fails immediately because task descriptions vary wildly across departments. One team says “PO approvals,” another says “purchase order review,” and a third says “spend authorization.” Approximate matching lets you normalize those queries into a common semantic layer, so the registry can return the right agent, owner, and tool path even when the wording is inconsistent. This is why fuzzy retrieval belongs at the core of the architecture, not as a bolt-on feature.
For a comparable lesson in search design under constrained, high-stakes conditions, see designing search for appointment-heavy sites, where matching intent to operational capacity matters as much as keyword accuracy. The same principle applies here: if the registry surfaces an agent that is technically relevant but owned by the wrong team or blocked by policy, the user experience fails. Good matching must balance relevance with operational truth.
Registry goals: discoverability, governance, and routing
An effective AI agent registry should do three things well. First, it should help employees discover the right agent or tool for a task. Second, it should map that agent to an owner, steward, or escalation path. Third, it should power automation: routing requests, assigning work, enforcing policy, and generating audit trails. These goals are tightly coupled. If your metadata model is weak, your search is weak; if your ownership model is weak, your governance is weak; if your routing model is weak, automation breaks down.
That is why registry design is closer to service catalog engineering than to simple documentation. The registry must understand integrations and API surfaces, support lifecycle states, and expose machine-readable endpoints. Done correctly, it becomes the source of truth for enterprise workflows rather than a static list of bots.
2. Core Data Model: What an Agent Registry Must Store
Minimum viable metadata
At minimum, each agent record should include a stable ID, human-readable name, description, business function, owner, backup owner, tool permissions, environment, lifecycle state, and last verified timestamp. The registry should also store supported tasks, input types, output types, and any policy constraints. Without these fields, discovery and routing become guesswork. In practice, the best registries also maintain version history, dependency graphs, and confidence scores for machine-generated metadata.
Do not treat owner as a single free-text field. You need a canonical owner ID linked to a person, team, or queue, plus a separate field for operational steward and approver. This distinction matters because a workflow owner may not be the person approving changes, and the person maintaining the agent may not be the one accountable for outcomes. If ownership maps are sloppy, automation can create compliance risk faster than it creates productivity.
Task taxonomy and tool inventory
Task taxonomy is the bridge between user intent and agent capability. Instead of only indexing descriptions like “handles onboarding,” the registry should tag tasks with normalized verbs and objects: “create vendor,” “verify tax ID,” “open support case,” “summarize contract,” and so on. Tool inventory should similarly describe each connector with service name, scopes, permissions, and latency characteristics. This makes it possible to match a task to an eligible agent and then verify that the needed tool stack is available.
If you want a useful model for how system metadata improves decision quality, look at data architectures that improve supply chain resilience. The same principle applies here: workflow intelligence comes from structured context, not just model cleverness. A registry with precise task and tool metadata can answer operational questions like, “Which agents can touch finance systems?” or “Which workflow handles supplier risk review in EMEA?”
Lifecycle, provenance, and auditability
Enterprise registries must preserve provenance. Who created the agent, which prompt template is in production, which model version is attached, and which tools were enabled at deployment time? This matters because agents evolve quickly, and a record that was safe last month may not be safe today. Provenance also supports incident response: when a workflow misfires, teams need to trace the chain from query to match to tool invocation to output.
This is where document-versioning discipline becomes surprisingly relevant. The same design mindset used in versioning document workflows should inform agent lifecycle management. If signing workflows can break when versions drift, AI agents can fail even more dramatically because the output is probabilistic and the dependencies are more dynamic. Treat versioning as part of the registry schema, not as an afterthought.
3. Approximate Matching for Agent Discovery and Ownership Mapping
Why exact lookup fails in the real enterprise
Enterprise language is messy by default. People use acronyms, team nicknames, project codes, and legacy terms that never make it into formal documentation. One requester may search for “refund automation,” while the official agent is described as “customer credit resolution.” A deterministic lookup will miss that match unless the metadata is perfect, which it rarely is. Approximate matching gives the registry resilience against human inconsistency.
At the retrieval layer, combine lexical fuzzy matching with embeddings and controlled vocabulary expansion. Lexical methods catch typos, variants, and short-form aliases; embeddings handle semantic similarity; domain dictionaries help normalize enterprise jargon. The point is not to choose one method, but to orchestrate them. The best results usually come from a candidate-generation stage, a re-ranking stage, and a business-rule filter that removes mismatches based on permissions, region, or lifecycle state.
Matching tasks to agents with confidence thresholds
When a user submits a task request, the registry should return candidates with confidence scores and match explanations. For example: “vendor onboarding” might match an AP automation agent at 0.91, a procurement triage agent at 0.84, and an HR intake agent at 0.32. That ranking helps users understand why an agent was recommended and gives the system an opportunity to ask clarifying questions before taking action. It also prevents overconfident automation from triggering the wrong workflow.
For enterprise support-style routing, the pattern is similar to the one described in bot directory strategy for enterprise service workflows. The key is not just listing tools, but ranking them by suitability. In an agent registry, suitability includes ownership, permissions, SLA, and policy compatibility in addition to textual relevance.
Ownership mapping as a fuzzy entity-resolution problem
Ownership mapping is often harder than task matching because owner data is fragmented across HR systems, team pages, code repositories, and ticketing tools. Approximate matching can reconcile “Finance Ops,” “FinOps,” and “Accounts Payable Automation” into a single canonical owner record. It can also detect that the same person appears in multiple systems under slightly different names or email aliases. This is classic entity resolution, adapted to operational AI governance.
For teams already dealing with cross-system identity and role classification, the principles in employment or contractor classification are a reminder that metadata must align to policy and real organizational structure. If the registry cannot tell whether an owner is a team, a person, or a contractor-managed queue, the routing layer will eventually assign work incorrectly. Approximate matching helps reconcile the data, but the schema must still express the distinction clearly.
4. API Design for an Internal Agent Registry
Core endpoints and request flow
A pragmatic registry API should expose a small set of well-designed endpoints: create agent, update agent, search agents, resolve ownership, list tools, submit task, and return match explanations. Search should support both keyword and semantic queries, with filters for department, region, environment, and policy tier. Resolution endpoints should return not just the top match, but the evidence behind it: matched fields, score breakdown, and any constraints that affected ranking. That transparency makes the registry debuggable and auditable.
Design the API around stable identifiers rather than names, because names change more often than IDs. If an agent is renamed but keeps the same ID, downstream automations should continue to function. Keep write operations idempotent where possible, especially for sync jobs coming from HRIS, CMDB, or workflow orchestration systems. If you have dealt with enterprise integration sprawl before, the patterns in marketplace strategy for shipping integrations translate well to registry APIs: normalize inputs, version the contracts, and expose clear sync semantics.
Example JSON schema
The schema below illustrates the minimum data needed for useful routing. In practice, you will want additional fields for model provider, prompt template refs, risk tier, and audit tags. The important point is that each object should be machine-readable and friendly to automated enrichment. If the registry will be queried by multiple teams, prefer explicit types over ambiguous strings.
{
"agent_id": "agent_finops_004",
"name": "Invoice Exception Resolver",
"tasks": ["invoice dispute triage", "vendor credit review"],
"owners": [{"owner_id": "team-finops", "role": "primary"}],
"tools": ["netsuite", "slack", "ticketing-api"],
"policy_tags": ["finance", "read-write", "approval-required"],
"status": "active"
}For teams that need internal control frameworks, this is similar in spirit to HIPAA-style guardrails for AI document workflows. The registry is not only a directory; it is a policy enforcement point. That means the API should make it easy to validate whether a task is permitted before the agent is invoked.
Matching API patterns
Matching should be exposed as a dedicated service, not buried inside generic search. A clear interface might accept query text, structured attributes, and context signals such as department or preferred cost center. The service can then return ranked matches for agents, tools, owners, and even fallback routes. This design lets other systems—ticketing, chat, forms, and automations—reuse the same matching intelligence consistently.
To keep performance predictable, split matching into retrieval and decision layers. The retrieval layer can use approximate string search plus embeddings; the decision layer can enforce policy, ownership, and risk constraints. This is especially important in regulated or high-impact processes, where “best textual match” is not the same as “approved operational path.”
5. Search Architecture: Hybrid Retrieval, Rules, and Ranking
Candidate generation
The fastest way to make registry search useful is to broaden recall without sacrificing too much precision. Candidate generation should combine trigram or edit-distance matching, synonym expansion, acronym resolution, and vector search. This allows the system to surface plausible candidates even when the request is short or vague. For example, “AP exception” should map to accounts payable, invoice exceptions, and payment holds through a layered retrieval process.
This layered strategy is not unlike the way enterprise systems handle complex capacity search. In appointment-heavy search environments, the first job is to avoid false negatives. In an agent registry, the first job is to avoid missing the correct workflow entirely. You can always narrow with filters later; you cannot automate what you never surfaced.
Re-ranking with business constraints
Once candidate agents are retrieved, a re-ranker should score them using domain context: department, data sensitivity, region, current status, and tool availability. For instance, an agent might be textually perfect but unavailable in the user’s region or blocked by an open incident. Another might be slightly less semantically similar but owned by the correct team and already approved for production use. Re-ranking is where operational reality wins over pure similarity.
Use a weighted scoring model that is explainable enough for admins to audit. A useful pattern is: 40% semantic relevance, 25% ownership proximity, 15% policy fit, 10% recency, 10% operational health. The exact weights should be tuned by benchmarking against real search logs and workflow outcomes. If you need a reminder that performance and architecture decisions are inseparable, study infrastructure arms race signals—the control plane matters as much as the model layer.
Policy filters and escalation rules
Finally, the registry should reject matches that violate policy. A finance agent should not be routable from an unapproved department; a high-risk workflow should not be handled by an unreviewed agent; and a deprecated tool should not remain discoverable. Policy filters should operate after retrieval, because you want to preserve broad recall while still enforcing strict controls. When no candidate passes filters, the registry should return a human escalation path rather than a dead end.
In organizations with heavy compliance requirements, this is similar to the operational discipline described in pragmatic security prioritization. You do not try to make every control perfect at once. You identify the highest-risk paths, instrument them heavily, and build from there.
6. Tool Discovery: Turning Agents into Reusable Enterprise Capabilities
Tools as first-class registry objects
A strong registry doesn’t just list agents; it catalogs the tools they can call. That means each tool should have its own canonical record with name, owner, auth method, scopes, rate limits, SLA, and allowed tasks. When tools are first-class objects, you can discover overlaps, identify redundant SaaS spend, and recommend the most reliable path for a given task. This helps organizations prevent the common problem where three teams build three near-identical automations against three different systems.
For workflow-heavy businesses, this resembles the logic behind order orchestration in retail, where routing decisions depend on inventory, fulfillment, and partner capability. In the agent registry, the routing decision depends on which tool chain can actually complete the requested work. If the registry knows the tool graph, it can recommend resilient paths, not just convenient ones.
Deduping overlapping capability
Tool discovery should surface duplicates and near-duplicates. If “contract summarizer,” “legal brief extractor,” and “agreement highlighter” all point to the same model workflow, the registry should reveal that overlap. Approximate matching can cluster these tool descriptions and reduce fragmentation across business units. This is especially valuable during platform consolidation, where teams often inherit shadow automations and undocumented integrations.
There is also a cost-control angle. Duplicate tools inflate maintenance overhead, security review load, and onboarding complexity. A registry that makes overlaps visible supports rationalization: fewer tools, clearer ownership, and stronger standardization. That is the same kind of operational clarity you would seek when evaluating integration marketplaces or platform connectors at scale.
Benchmarks for tool recommendation quality
To keep tool discovery honest, measure top-1 accuracy, top-3 recall, time-to-first-useful-result, and false-positive owner assignments. Add a manual evaluation set built from real employee queries and past tickets. If possible, segment by department, because “good” discovery in engineering may be poor discovery in finance or procurement. The best registry teams treat matching quality as an ongoing product metric rather than a one-time implementation detail.
Pro Tip: Measure success in “workflow completion rate,” not just search clicks. A registry that returns the right agent but fails to route the request to the right owner is still broken.
7. Governance, Security, and Operational Controls
Least privilege for agents and tools
Every agent should inherit explicit permissions from the tools it uses, and those permissions should be constrained by task scope. Do not let “helpful” discovery blur into overbroad access. If an agent is exposed through the registry, the registry must be able to explain what it can touch, who approved it, and when that approval expires. This keeps the system usable without turning it into a privilege escalation vector.
Organizations that have already built policy around documents and workflows can adapt those principles directly. The safeguards described in HIPAA-style AI guardrails are especially relevant because the same concerns—access control, auditability, and minimum necessary data—apply to agents as well. A registry should never obscure the boundaries of what an agent can do.
Audit logs and change management
Every registry event should be logged: create, edit, approve, deprecate, invoke, and fail. Logs should capture before-and-after diffs, the identity of the actor, and any policy evaluation results. If the registry is used for workflow automation, audit logs are not optional because they become the basis for troubleshooting, compliance review, and incident forensics. You should also retain historical versions of mappings so downstream systems can reconstruct a decision later.
Change management should include staged rollout, canary routing, and rollback. When a new agent version is published, only a small percentage of eligible tasks should route to it until quality and safety checks pass. This mirrors how teams manage document or form changes in production systems, and it is especially important when the agents are exposed across departments. For related thinking on controlled rollout discipline, see how to version document workflows.
Fallbacks and human escalation
No registry is complete without an escalation path. When the system cannot confidently match a task, or when policy denies an automated route, it should send the case to a human queue with the metadata needed to resolve it quickly. That metadata should include candidate matches, rejected paths, and reason codes. Humans should not have to re-investigate what the system already knows.
For teams creating enterprise AI policy, this aligns with the practical guidance in engineering-friendly AI policy writing. Good policy anticipates failure modes and defines who takes over. The registry should operationalize that policy instead of forcing humans to improvise when automation reaches its limits.
8. Implementation Pattern: A Reference Architecture
Recommended system layout
A robust reference architecture typically includes five layers: ingestion, normalization, indexing, matching, and orchestration. Ingestion pulls from HR, CMDB, docs, Slack, code repos, and ticketing systems. Normalization canonicalizes names, roles, and tool references. Indexing stores both lexical and vector representations. Matching combines candidate retrieval with policy-aware ranking. Orchestration triggers the agent, creates tickets, or routes to humans.
This is not just a search problem; it is an integration problem. If your enterprise already invests in AI and industry 4.0 data architectures, you already understand that reliability comes from clean interfaces and clearly bounded responsibilities. The registry should follow the same discipline. Each stage should be observable, testable, and replaceable without breaking the whole system.
Suggested data flows
A typical request flow looks like this: a user submits a task description in a portal or chat interface; the registry normalizes the text and expands synonyms; candidate agents and tools are retrieved from lexical and semantic indexes; policy and ownership rules remove invalid options; the top match is returned with explanation; and, if approved, the workflow engine invokes the selected agent. Each step should emit telemetry so you can trace latency and match quality.
One practical method is to log a “match trace” object containing query text, normalized intent, candidates, score components, final selection, and outcome. That trace becomes invaluable for debugging and for training future ranking models. It also gives admins a way to explain why a decision was made when stakeholders ask why a particular agent handled a request.
Reference metrics to track
Track retrieval latency, p95 end-to-end routing time, top-1 match precision, top-3 recall, invalid-owner rate, policy-block rate, human-escalation rate, and post-routing task completion. These metrics tell you whether the registry is merely searchable or actually operational. You should also track maintenance metrics, such as metadata freshness, sync lag, and percentage of records with verified owners. If the registry is stale, matching quality degrades fast.
For organizations scaling across multiple teams or regions, the lesson from analytics-to-action partnerships is useful: shared data only becomes valuable when it can be operationalized quickly and credibly. A registry with weak metrics is just a database; a registry with strong metrics becomes an execution platform.
9. Comparison Table: Matching Approaches for Agent Registries
The table below compares common approaches you can use for agent discovery, ownership mapping, and tool recommendation. In practice, most enterprise systems use a hybrid of these methods rather than a single technique. The right combination depends on scale, data cleanliness, and how much explanation your users require.
| Approach | Strengths | Weaknesses | Best Use Case | Operational Risk |
|---|---|---|---|---|
| Exact keyword search | Simple, fast, easy to implement | Fails on synonyms, typos, and abbreviations | Small registries with controlled vocabulary | High false negatives |
| Fuzzy lexical matching | Handles misspellings and name variants | Weak on semantics and intent | Owner lookup and tool name normalization | Moderate false positives |
| Embedding search | Captures semantic similarity and intent | Harder to explain and tune | Task matching and agent discovery | Model drift and ambiguous ranking |
| Rules-based routing | Deterministic and auditable | Brittle, expensive to maintain | Compliance-sensitive approvals | Coverage gaps as workflows expand |
| Hybrid retrieval + policy ranking | Best balance of recall, precision, and control | More engineering effort | Enterprise agent registries at scale | Requires strong observability |
Hybrid systems are the practical default because they let you use the right tool at each stage. Exact search can still handle canonical IDs, fuzzy matching can recover near-duplicates, embeddings can understand task intent, and rules can enforce governance. This layered approach mirrors how mature enterprise systems balance user experience with operational control.
10. Rollout Plan: How to Build the Registry Without Breaking Workflows
Start with one department and one high-value use case
Do not attempt enterprise-wide normalization on day one. Start with a department that has painful routing problems and measurable volume, such as finance operations, IT support, or procurement. Pick a use case where bad matching creates real cost, like vendor setup, access requests, or ticket triage. That gives you enough signal to benchmark the registry without taking on every organizational edge case at once.
As the registry matures, expand to adjacent workflows and add more data sources. The point is to prove that fuzzy discovery can improve both speed and correctness. Once stakeholders see fewer misroutes and less manual triage, they will support broader adoption. This adoption pattern is common in enterprise automation, especially when the system can show real productivity gains and lower operational friction.
Establish governance before scale
Before you let every team publish agents, define ownership standards, naming conventions, review requirements, deprecation rules, and escalation procedures. If you skip governance, your registry will quickly become a pile of untrusted entries. The more teams that contribute, the more important canonical metadata becomes. Governance is not a blocker to agility; it is what makes shared automation trustworthy enough to use.
For organizations that have already written internal AI rules, the guidance in engineer-friendly AI policy can help translate policy into workflow. Similarly, if your AI systems are touching sensitive documentation, the guardrail patterns in document workflow protection are a strong reference point. Both remind us that scale without controls is just faster chaos.
Benchmark, iterate, and publish trust signals
Teams should publish internal benchmarks for query accuracy, owner resolution accuracy, and workflow completion rate. Add visible trust signals to each registry entry: last verified date, approval status, policy tier, and tool health. When users can see that the registry is current and accountable, they will use it instead of asking around informally. In enterprise software, trust is a product feature.
For teams building around external platforms and integrations, the operational rigor in integration marketplace strategy is a useful reminder that discoverability, reliability, and clear ownership must travel together. Otherwise, adoption fragments and shadow workflows proliferate.
FAQ
What is an AI agent registry?
An AI agent registry is an internal system of record for agents, tools, owners, permissions, and task mappings. It helps employees discover the right agent for a workflow, understand who owns it, and determine whether it is safe to use. In larger organizations, it becomes the backbone for routing, governance, and lifecycle management.
Why use approximate matching instead of exact search?
Exact search fails when users use synonyms, abbreviations, typos, or department-specific jargon. Approximate matching improves recall by linking messy human language to canonical agent, tool, and owner records. It is especially valuable in enterprises where the same task is described differently across teams and regions.
How should ownership be modeled in the registry?
Ownership should be a structured field tied to canonical identities, not free text. Ideally, the registry should distinguish between primary owner, backup owner, operational steward, and approver. This prevents routing mistakes and makes escalation and audit workflows much easier to manage.
What’s the best search architecture for an agent registry?
The most effective design is hybrid: lexical fuzzy matching, semantic retrieval, and rule-based policy filtering. Lexical matching catches typos and name variants, embeddings capture intent, and rules enforce governance. This combination gives you both discoverability and operational safety.
How do we keep the registry from becoming stale?
Automate sync from source systems, require periodic owner verification, and expose freshness indicators in the UI. Add audit logs and lifecycle states such as active, deprecated, and pending review. Staleness is one of the biggest reasons registries lose trust, so freshness must be a tracked metric, not a manual promise.
Can an agent registry also help reduce duplicate tools?
Yes. By indexing tools as first-class objects and clustering near-duplicate descriptions, the registry can reveal overlap across departments. That enables tool consolidation, lower maintenance cost, and fewer confusing choices for users. It also makes it easier to standardize on approved systems and avoid shadow automation.
Conclusion: Make Discovery, Ownership, and Workflow Routing One System
Enterprise AI agents are becoming operational assets, not experimental demos. As project44-style domain agents and Anthropic-style managed enterprise agents become more common, the organizations that scale successfully will be the ones that can discover, govern, and route those agents with confidence. An AI agent registry gives you the control plane for that future, but only if it is designed around approximate matching, structured ownership, and policy-aware APIs. Without those pieces, the registry becomes a static list instead of a living workflow system.
If you want the registry to drive real adoption, build it like a product: benchmark its matching quality, expose meaningful metadata, instrument its failure modes, and keep the ownership model current. Use hybrid retrieval, clear governance, and consistent tool cataloging so users can find what they need and trust the result. And if you are evaluating adjacent patterns for support bots, workflow automation, or internal policy, the broader playbook across enterprise bot directories, search design, and AI infrastructure strategy will help you avoid the common failure modes.
Ultimately, the registry is not just a catalog of AI agents. It is a trust layer for enterprise workflows, a discovery engine for tools, and a governance map for who owns what. That is the infrastructure enterprises need if they want AI agents to move from novelty to dependable automation.
Related Reading
- Bot Directory Strategy: Which AI Support Bots Best Fit Enterprise Service Workflows? - Learn how to evaluate and rank bots for operational fit.
- How to Write an Internal AI Policy That Actually Engineers Can Follow - Turn policy into something teams can actually implement.
- How to Version Document Workflows So Your Signing Process Never Breaks - Apply lifecycle discipline to workflow changes.
- Marketplace Strategy: Shipping Integrations for Data Sources and BI Tools - Design integrations that scale across teams and systems.
- AWS Security Hub for small teams: a pragmatic prioritization matrix - Prioritize controls without slowing delivery.
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Jordan Hale
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Senior editor and content strategist. Writing about technology, design, and the future of digital media. Follow along for deep dives into the industry's moving parts.
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