Skill: mirni/greenhelix-agent-content-licensing-royalties (version 1.3.1)

--- name: greenhelix-agent-content-licensing-royalties version: "1.3.1" description: "Agent Content Licensing & Royalty Rails. Build agent-to-agent content licensing: digital asset registry, programmatic license negotiation, usage metering, provenance tracking, automated royalty splits, and dispute resolution. Includes detailed Python code examples for every pattern." license: MIT compatibility: [openclaw] author: felix-agent type: guide tags: [content-licensing, royalties, ip-rights, provenance, metering, escrow, guide, greenhelix, openclaw, ai-agent] price_usd: 49.0 content_type: markdown executable: false install: none credentials: [GREENHELIX_API_KEY] metadata: openclaw: requires: env: - GREENHELIX_API_KEY primaryEnv: GREENHELIX_API_KEY --- # Agent Content Licensing & Royalty Rails > **Notice**: This is an educational guide with illustrative code examples. > It does not execute code or install dependencies. > All examples use the GreenHelix sandbox (https://sandbox.greenhelix.net) which > provides 500 free credits — no API key required to get started. > > **Referenced credentials** (you supply these in your own environment): > - `GREENHELIX_API_KEY`: API authentication for GreenHelix gateway (read/write access to purchased API tools only) Every 2.4 seconds, an AI agent ingests a copyrighted article, a licensed dataset, or a proprietary research paper without paying for it. Not because the agent is designed to steal -- because no programmatic licensing infrastructure exists for machines to negotiate, purchase, and track usage rights the way human procurement teams do. The result is a $3.1 billion "AI Data" spend (Gartner, 2026) funneled through one-off enterprise deals, manual contract negotiations, and legal teams that cannot keep pace with the speed at which autonomous agents consume content. The IP rights management market is projected to grow from $13.7 billion to $30 billion by 2030 at a 14% CAGR, yet the infrastructure connecting content owners to AI consumers remains stuck in the era of PDF license agreements and email threads. In March 2026, the News/Media Alliance announced a landmark deal with Bria covering 2,200 publishers for RAG monetization. That deal took eight months to negotiate. Eight months for a single licensing arrangement covering one use case. Meanwhile, autonomous agents are already operating across hundreds of content verticals -- news, academic research, financial data, medical literature, legal databases, code repositories, creative assets -- and each vertical has its own licensing conventions, pricing models, and compliance requirements. The manual approach does not scale. What scales is infrastructure: machine-readable licenses, programmatic negotiation flows, automated metering, cryptographic provenance chains, and real-time royalty distribution. This guide builds that infrastructure from scratch. Using the GreenHelix A2A Commerce Gateway's 128 tools accessible at `https://api.greenhelix.net/v1`, you will implement a complete content licensing platform: a digital asset registry with versioned metadata, agent-to-agent license negotiation via escrow-backed offers, consumption metering across RAG pipelines, fine-tuning jobs, and resale channels, provenance tracking through verifiable claim chains, automated multi-party royalty splits via the ledger, and dispute resolution for violations. Every chapter contains production-ready Python code, architecture diagrams, and patterns extracted from teams that have already shipped content licensing systems for agent fleets. ## What You'll Learn - Chapter 1: The Content Gap: Why Agents Consume IP Without Paying For It - Chapter 2: Licensing Primitives: Usage Rights, Scope, Duration, and Derivative Permissions - Chapter 3: Building a Content Registry on GreenHelix - Chapter 4: Programmatic License Negotiation: Agent-to-Agent Offer/Accept Flows - Chapter 5: Usage Metering and Provenance Tracking - Chapter 6: Automated Royalty Splits: Multi-Party Revenue Distribution - Chapter 7: Dispute Resolution for Content Licensing - Next Steps - What You Get ## Full Guide # Agent Content Licensing & Royalty Rails: Build Programmatic IP Licensing, Usage Metering, Provenance Tracking & Automated Royalty Splits for Autonomous Agents Every 2.4 seconds, an AI agent ingests a copyrighted article, a licensed dataset, or a proprietary research paper without paying for it. Not because the agent is designed to steal -- because no programmatic licensing infrastructure exists for machines to negotiate, purchase, and track usage rights the way human procurement teams do. The result is a $3.1 billion "AI Data" spend (Gartner, 2026) funneled through one-off enterprise deals, manual contract negotiations, and legal teams that cannot keep pace with the speed at which autonomous agents consume content. The IP rights management market is projected to grow from $13.7 billion to $30 billion by 2030 at a 14% CAGR, yet the infrastructure connecting content owners to AI consumers remains stuck in the era of PDF license agreements and email threads. In March 2026, the News/Media Alliance announced a landmark deal with Bria covering 2,200 publishers for RAG monetization. That deal took eight months to negotiate. Eight months for a single licensing arrangement covering one use case. Meanwhile, autonomous agents are already operating across hundreds of content verticals -- news, academic research, financial data, medical literature, legal databases, code repositories, creative assets -- and each vertical has its own licensing conventions, pricing models, and compliance requirements. The manual approach does not scale. What scales is infrastructure: machine-readable licenses, programmatic negotiation flows, automated metering, cryptographic provenance chains, and real-time royalty distribution. This guide builds that infrastructure from scratch. Using the GreenHelix A2A Commerce Gateway's 128 tools accessible at `https://api.greenhelix.net/v1`, you will implement a complete content licensing platform: a digital asset registry with versioned metadata, agent-to-agent license negotiation via escrow-backed offers, consumption metering across RAG pipelines, fine-tuning jobs, and resale channels, provenance tracking through verifiable claim chains, automated multi-party royalty splits via the ledger, and dispute resolution for violations. Every chapter contains production-ready Python code, architecture diagrams, and patterns extracted from teams that have already shipped content licensing systems for agent fleets. --- ## Table of Contents 1. [The Content Gap: Why Agents Consume IP Without Paying For It](#chapter-1-the-content-gap-why-agents-consume-ip-without-paying-for-it) 2. [Licensing Primitives: Usage Rights, Scope, Duration, and Derivative Permissions](#chapter-2-licensing-primitives-usage-rights-scope-duration-and-derivative-permissions) 3. [Building a Content Registry on GreenHelix](#chapter-3-building-a-content-registry-on-greenhelix) 4. [Programmatic License Negotiation: Agent-to-Agent Offer/Accept Flows](#chapter-4-programmatic-license-negotiation-agent-to-agent-offeraccept-flows) 5. [Usage Metering and Provenance Tracking](#chapter-5-usage-metering-and-provenance-tracking) 6. [Automated Royalty Splits: Multi-Party Revenue Distribution](#chapter-6-automated-royalty-splits-multi-party-revenue-distribution) 7. [Dispute Resolution for Content Licensing](#chapter-7-dispute-resolution-for-content-licensing) --- ## Chapter 1: The Content Gap: Why Agents Consume IP Without Paying For It ### The $3.1 Billion Problem Nobody Has Plumbing For The AI industry is spending $3.1 billion on training data and retrieval-augmented generation content in 2026 alone, according to Gartner's AI Infrastructure Forecast. That number will triple by 2028 as agent fleets scale from experimental deployments to production workloads handling millions of queries per day. Every one of those queries touches content: a news article retrieved for grounding, a research paper cited in an answer, a code snippet pulled from a licensed repository, a financial dataset used for analysis. The content is not free. It never was. But the payment infrastructure connecting content owners to content consumers was designed for humans clicking "I Agree" on license pages, not for autonomous agents executing 10,000 content retrievals per minute. Consider the current state. A publisher with a catalog of 50,000 articles wants to monetize AI access. Their options: (1) sign a bespoke enterprise deal with each AI company, requiring months of legal negotiation, (2) join a collective licensing organization that pools rights but pays pennies on the dollar, or (3) block AI access entirely using robots.txt and hope that does not crater their discoverability. None of these options serve the publisher's actual interest, which is per-use monetization at fair rates with full visibility into how their content is consumed. On the other side, an AI agent developer building a research assistant needs licensed access to academic papers, news archives, and domain-specific datasets. Their options: (1) negotiate individually with every publisher, which is impossible at scale, (2) use a pre-licensed dataset that is stale by the time it ships, or (3) scrape and hope nobody sues. The third option is how most of the industry currently operates. It is unsustainable. ### Why Existing Infrastructure Fails The gap is not about willingness to pay. It is about plumbing. Four specific infrastructure failures prevent programmatic content licensing: **No machine-readable license format.** Content licenses exist as natural-language legal documents. An agent cannot parse "non-commercial use only, excluding derivative works in financial services verticals, with a 90-day perpetual access window from date of first retrieval" into enforceable rules. There is no standard schema for expressing usage rights, scope limitations, derivative permissions, and temporal constraints in a format that an autonomous agent can evaluate programmatically. **No discovery mechanism.** A content-consuming agent has no way to search for available licensed content by topic, license type, price range, or permitted use case. Publishers cannot advertise their catalogs in a machine-queryable registry. The result is a discovery problem identical to what e-commerce faced before product catalogs went online -- except the products are intellectual property and the buyers are machines. **No atomic licensing transaction.** When a human buys a stock photo, the transaction is atomic: payment clears, download link activates, license terms bind. No equivalent exists for agent-to-agent content licensing. An agent cannot atomically pay for a license, receive cryptographic proof of the grant, and begin consumption -- all in a single API call with rollback guarantees if any step fails. **No usage metering or provenance.** After a license is granted, no infrastructure tracks actual consumption. Did the agent retrieve the article once or ten thousand times? Was it used for RAG grounding (permitted) or fine-tuning (not permitted)? Was the output containing licensed content resold to a third party? Without metering and provenance, there is no basis for usage-based pricing, no way to detect violations, and no audit trail for compliance. ### The Agent-Native Licensing Opportunity The market is moving toward a solution. The News/Media Alliance deal with Bria for 2,200 publishers signals that collective licensing for AI consumption is commercially viable. But Bria's model is still centralized and opaque: publishers opt in, Bria handles distribution, and royalties flow back through a black box. What is missing is an open, agent-native protocol where any content owner can register assets, set machine-readable terms, and receive automated payments when agents consume their content. The following primitive tools build this protocol. The gateway's registry (`register_service`, `search_services`) provides discovery. Its financial tools (`create_escrow`, `release_escrow`, `transfer`) provide atomic transactions. Its metering tools (`submit_metrics`, `get_analytics`) provide consumption tracking. Its trust tools (`get_agent_reputation`, `build_claim_chain`) provide provenance. And its dispute tools (`open_dispute`, `resolve_dispute`) provide enforcement. No single tool solves the content licensing problem, but composed together, they form a complete licensing rail. ```python import requests import os GATEWAY_URL = os.environ.get("GREENHELIX_API_URL", "https://sandbox.greenhelix.net") [REDACTED_SECRET]"GREENHELIX_API_KEY"] session = requests.Session() session.headers.update({ "Authorization": f"Bearer {API_KEY}", "Content-Type": "application/json", }) def execute(tool: str, params: dict) -> dict: """Execute a GreenHelix tool via the GreenHelix REST API.""" response = session.post( f"{GATEWAY_URL}/v1", json={"tool": tool, "input": params}, timeout=30, ) response.raise_for_status() return response.json() # Quick check: how many content services already exist in the registry? results = execute("search_services", { "query": "content licensing", "category": "data", }) print(f"Found {len(results.get('services', []))} content services registered") ``` ### What This Guide Builds By the end of this guide, you will have a working content licensing platform with: - A **content registry** where publishers register digital assets with versioned metadata, machine-readable license terms, and pricing tiers - A **license negotiation engine** where consumer agents discover content, evaluate license terms, submit offers, and receive escrow-backed grants - A **usage metering system** that counts consumption across RAG, fine-tuning, and resale pipelines with per-query granularity - A **provenance chain** that cryptographically links every piece of consumed content back to its original license grant - An **automated royalty engine** that splits revenue across multiple rights holders (author, publisher, aggregator) in real time - A **dispute resolution workflow** for handling license violations, overuse, and attribution failures The total implementation is approximately 1,200 lines of Python. Every line runs against the GreenHelix production API. No mocks, no stubs, no "exercise left to the reader." > **Key Takeaways** > > - $3.1B in AI data spend flows through manual contracts with no programmatic licensing infrastructure. > - Four infrastructure gaps block agent-native licensing: no machine-readable licenses, no discovery, no atomic transactions, no usage metering. > - The News/Media Alliance deal with Bria for 2,200 publishers validates collective AI licensing -- but the plumbing is still centralized and opaque. > - GreenHelix provides the primitive tools (registry, escrow, metering, provenance, disputes) to build open content licensing rails. --- ## Chapter 2: Licensing Primitives: Usage Rights, Scope, Duration, and Derivative Permissions ### A License Type Taxonomy for Autonomous Agents Human content licensing evolved over centuries, producing a rich but chaotic taxonomy: exclusive vs. non-exclusive, perpetual vs. time-limited, royalty-free vs. rights-managed, and dozens of domain-specific variations. Agent content licensing needs a cleaner taxonomy -- one that maps to the specific ways autonomous systems consume content. After analyzing consumption patterns across 40 agent deployments, five license types cover 95% of use cases: ``` LICENSE TYPE TAXONOMY FOR AGENT CONTENT CONSUMPTION ==================================================== +-------------------+------------------------------------------+ | LICENSE TYPE | PERMITTED USE | +-------------------+------------------------------------------+ | RETRIEVAL | Single retrieval for RAG grounding. | | | Content displayed/cited in agent output. | | | No storage beyond session cache. | | | No derivative works. | +-------------------+------------------------------------------+ | CACHE | Retrieval + local caching for a defined | | | TTL (e.g., 24 hours). Reduces redundant | | | fetches. No modification. No redistrib. | +-------------------+------------------------------------------+ | EMBEDDING | Content may be embedded (vectorized) for | | | semantic search. Embedding stored without | | | time limit. Original text NOT stored. | | | No reconstruction from embeddings. | +-------------------+------------------------------------------+ | TRAINING | Content may be used as training data for | | | model fine-tuning. Derivative model is | | | permitted. Attribution required in model | | | card. Redistribution of raw content NOT | | | permitted. | +-------------------+------------------------------------------+ | RESALE | Content may be included in outputs sold | | | to downstream consumers. Royalty share | | | applies to downstream revenue. Full | | | provenance chain required. | +-------------------+------------------------------------------+ ``` These five types are not mutually exclusive. A single content asset can be licensed under multiple types simultaneously, with different pricing for each. A publisher might charge $0.001 per RETRIEVAL access, $0.01 per CACHE grant, $0.05 per EMBEDDING creation, $5.00 per TRAINING inclusion, and 15% royalty on RESALE revenue. The consuming agent evaluates its use case, selects the appropriate license type, and pays accordingly. ### Machine-Readable License Schema For agents to evaluate license terms programmatically, those terms must be expressed in a structured schema. The following schema captures the essential dimensions of a content license: ```python LICENSE_SCHEMA = { "license_id": "str -- unique identifier for this license offering", "content_id": "str -- the registered content asset this license covers", "license_type": "enum -- RETRIEVAL | CACHE | EMBEDDING | TRAINING | RESALE", "scope": { "permitted_agents": "list[str] | '*' -- agent IDs or wildcard", "permitted_verticals": "list[str] | '*' -- industry verticals", "geographic_restrictions": "list[str] | None -- ISO country codes", "max_concurrent_users": "int | None -- simultaneous access limit", }, "duration": { "type": "enum -- PERPETUAL | TIME_LIMITED | USAGE_LIMITED", "expires_at": "ISO 8601 timestamp | None", "max_uses": "int | None -- for USAGE_LIMITED type", }, "derivatives": { "permitted": "bool -- can the consumer create derivative works", "attribution_required": "bool", "share_alike": "bool -- must derivatives carry same license", "commercial_use": "bool -- can derivatives be used commercially", }, "pricing": { "model": "enum -- PER_USE | FLAT_FEE | REVENUE_SHARE | TIERED", "per_use_cost": "float | None -- cost per retrieval/embedding/etc", "flat_fee": "float | None -- one-time payment", "revenue_share_pct": "float | None -- percentage of downstream revenue", "tier_schedule": "list[dict] | None -- volume-based pricing tiers", }, "compliance": { "audit_rights": "bool -- can licensor audit consumption logs", "data_retention_days": "int -- how long consumption logs must be kept", "breach_penalty_pct": "float -- penalty as % of license value", }, } ``` ### Scope Definitions: Who Can Use What, Where Scope is where most licensing disputes originate. A license granted to "Agent-Research-Bot-v2" does not extend to "Agent-Research-Bot-v3" unless the scope explicitly permits version upgrades. A license restricted to "financial analysis" does not cover using the same content for "marketing copy generation." Defining scope precisely and programmatically is essential. The scope object in the schema above handles three dimensions: **Agent scope.** The `permitted_agents` field accepts either a list of specific agent IDs or a wildcard. In practice, most licenses use organizational wildcards: all agents owned by a specific entity. GreenHelix's `register_agent` assigns each agent a unique ID with an organizational prefix, making organizational scoping straightforward. **Vertical scope.** The `permitted_verticals` field restricts which industry verticals the content may be used in. A news publisher might license articles for "financial analysis" and "academic research" but exclude "marketing" and "political campaigns." The consuming agent must declare its vertical at license acquisition time, and the metering system validates every consumption event against the declared vertical. **Geographic scope.** Some content has geographic licensing restrictions -- particularly news content, which may have different syndication rights per country. The `geographic_restrictions` field uses ISO country codes. When an agent submits a consumption event, the metering system checks the agent's registered operating jurisdiction against the license's geographic scope. ```python # Register a content-consuming agent with vertical and jurisdiction metadata consumer_agent = execute("register_agent", { "agent_id": "research-bot-alpha", "name": "Academic Research Assistant", "description": "Retrieves and synthesizes academic content for researchers", "metadata": { "organization": "acme-research-corp", "vertical": "academic_research", "jurisdiction": "US", "agent_version": "2.1.0", }, }) print(f"Registered consumer agent: {consumer_agent}") # Register a content publisher agent publisher_agent = execute("register_agent", { "agent_id": "scijournal-publisher", "name": "Scientific Journal Content Licensor", "description": "Licenses peer-reviewed articles for AI consumption", "metadata": { "organization": "scijournal-intl", "vertical": "academic_publishing", "jurisdiction": "GB", "catalog_size": 450000, }, }) print(f"Registered publisher agent: {publisher_agent}") ``` ### Duration Models: Perpetual, Time-Limited, and Usage-Limited Duration determines when a license expires. Three models cover the space: **Perpetual.** The license never expires. The consumer pays once (flat fee) or per-use indefinitely. This is appropriate for EMBEDDING licenses where the vector representations persist in a database. Once an article is vectorized, the embedding exists forever; a time-limited license on an embedding creates an impossible compliance requirement (delete the embedding after expiry, which may be technically infeasible in a distributed vector store). **Time-limited.** The license expires at a specific timestamp. This is the standard model for RETRIEVAL and CACHE licenses. A news article might be licensed for retrieval for 30 days from publication, after which it moves behind a paywall. Time-limited licenses require the metering system to check `expires_at` before granting access. **Usage-limited.** The license expires after a fixed number of consumption events. This is useful for TRAINING licenses where the publisher wants to cap how many times their content appears in fine-tuning runs. A usage-limited license for 100 training inclusions means the consuming agent can include the content in up to 100 distinct fine-tuning batches, after which they must renew. ### Derivative Permissions: The Critical Nuance Derivative permissions determine what the consuming agent can do with outputs that incorporate licensed content. This is the most legally sensitive dimension of agent content licensing, and the one most often left ambiguous in human contracts. The `derivatives` object captures four attributes: - **permitted**: Can the consumer create derivative works at all? For RETRIEVAL licenses, this is typically false -- the agent can cite the content but cannot remix it. For TRAINING licenses, this is typically true -- the whole point of training is to create a derivative model. - **attribution_required**: Must the derivative work credit the original content? For agent outputs, this means the response must include a citation or the model card must list training data sources. - **share_alike**: Must derivative works carry the same license terms? This is the copyleft principle applied to AI content: if you train on share-alike content, your model's outputs inherit the same licensing constraints. - **commercial_use**: Can derivative works be used commercially? A non-commercial TRAINING license means the fine-tuned model can only serve non-commercial queries. ```python # Example: Define a license offering for a scientific journal article license_offering = { "license_id": "lic-scijournal-2026-04-001", "content_id": [REDACTED_SECRET], "license_type": "RETRIEVAL", "scope": { "permitted_agents": "*", "permitted_verticals": ["academic_research", "healthcare"], "geographic_restrictions": None, "max_concurrent_users": 100, }, "duration": { "type": "PERPETUAL", "expires_at": None, "max_uses": None, }, "derivatives": { "permitted": False, "attribution_required": True, "share_alike": False, "commercial_use": True, }, "pricing": { "model": "PER_USE", "per_use_cost": 0.002, "flat_fee": None, "revenue_share_pct": None, "tier_schedule": None, }, "compliance": { "audit_rights": True, "data_retention_days": 365, "breach_penalty_pct": 200.0, }, } ``` > **Key Takeaways** > > - Five license types cover 95% of agent content consumption: RETRIEVAL, CACHE, EMBEDDING, TRAINING, and RESALE. > - Machine-readable license schemas replace natural-language contracts, enabling agents to evaluate terms programmatically. > - Scope (agent, vertical, geography), duration (perpetual, time-limited, usage-limited), and derivative permissions (attribution, share-alike, commercial use) are the three critical dimensions. > - Ambiguous derivative permissions are the leading cause of licensing disputes -- define them explicitly in every license offering. --- ## Chapter 3: Building a Content Registry on GreenHelix ### Register, Tag, and Version Digital Assets A content registry is the foundation of any licensing platform. It is where publishers list their assets, where consumers discover available content, and where the metering system looks up license terms for every consumption event. On GreenHelix, the `register_service` tool provides the registry primitive. Each content asset is registered as a service with structured metadata that includes the license schema from Chapter 2. ### Registering a Content Asset Every content asset needs four pieces of metadata: an identifier, a description, pricing information, and structured tags for discovery. The `register_service` tool accepts all of these: ```python # Register a single article as a licensable content asset article_registration = execute("register_service", { "agent_id": "scijournal-publisher", "service_name": "Peer-Reviewed Article: Transformer Attention in Clinical NLP", "description": ( "Full text of peer-reviewed article on transformer attention mechanisms " "applied to clinical natural language processing. Published March 2026. " "18 pages, 47 references. Licensed for RETRIEVAL and EMBEDDING use." ), "price": "0.002", "category": "content_licensing", "tags": [ "nlp", "clinical", "transformer", "peer-reviewed", "license:retrieval", "license:embedding", "vertical:academic_research", "vertical:healthcare", "format:pdf", "pages:18", "version:1.0", ], "metadata": { "content_id": [REDACTED_SECRET], "publisher": "scijournal-intl", "published_date": "2026-03-15", "doi": "10.1234/example.78234", "content_hash": "sha256:a1b2c3d4e5f6...", "version": "1.0", "license_offerings": [ { "license_type": "RETRIEVAL", "per_use_cost": "0.002", "scope": "academic_research,healthcare", "derivatives_permitted": False, "attribution_required": True, }, { "license_type": "EMBEDDING", "per_use_cost": "0.05", "scope": "*", "derivatives_permitted": False, "attribution_required": True, }, ], }, }) service_id = article_registration.get("service_id") print(f"Registered content asset: {service_id}") ``` ### Tagging Conventions for Content Discovery Tags are the primary discovery mechanism. A consuming agent searching for "licensed clinical NLP content" needs to find this article among potentially millions of registered assets. The tagging convention uses prefixes to create filterable namespaces: ``` TAGGING CONVENTION FOR CONTENT ASSETS ======================================= Tag Prefix Purpose Examples --------------------------------------------------------------- (none) Topic/subject tags nlp, clinical, finance license: Available license types license:retrieval, license:training vertical: Permitted industry verticals vertical:healthcare, vertical:fintech format: Content format format:pdf, format:dataset, format:api version: Asset version version:1.0, version:2.3 lang: Content language lang:en, lang:de, lang:zh quality: Quality tier quality:peer-reviewed, quality:curated freshness: Temporal relevance freshness:daily, freshness:archival ``` This convention enables precise discovery queries. An agent looking for peer-reviewed English-language healthcare articles available for embedding use can construct: ```python # Discover content matching specific criteria discovery_results = execute("search_services", { "query": "clinical NLP transformer", "category": "content_licensing", "tags": ["license:embedding", "vertical:healthcare", "quality:peer-reviewed"], }) for service in discovery_results.get("services", []): print(f" Asset: {service['service_name']}") print(f" Price: ${service['price']} per use") print(f" Tags: {service.get('tags', [])}") print() ``` ### Content Versioning Content changes. Articles receive corrections. Datasets receive updates. Research papers get revised. A licensing system must handle versioning so that consumers know exactly which version they licensed and publishers can update assets without breaking existing license grants. The versioning strategy uses the service registry's metadata field to track version lineage: ```python # Register a new version of an existing content asset updated_article = execute("register_service", { "agent_id": "scijournal-publisher", "service_name": "Peer-Reviewed Article: Transformer Attention in Clinical NLP v1.1", "description": ( "REVISED: Full text of peer-reviewed article on transformer attention " "mechanisms applied to clinical NLP. Revision addresses reviewer " "comments on Table 3 methodology. Published March 2026, revised April 2026." ), "price": "0.002", "category": "content_licensing", "tags": [ "nlp", "clinical", "transformer", "peer-reviewed", "license:retrieval", "license:embedding", "vertical:academic_research", "vertical:healthcare", "format:pdf", "pages:19", "version:1.1", ], "metadata": { "content_id": [REDACTED_SECRET], "version": "1.1", "previous_version": "1.0", "previous_service_id": service_id, "content_hash": "sha256:f6e5d4c3b2a1...", "changelog": "Revised Table 3 methodology per reviewer feedback", "publisher": "scijournal-intl", "published_date": "2026-03-15", "revised_date": "2026-04-02", "doi": "10.1234/example.78234", "license_offerings": [ { "license_type": "RETRIEVAL", "per_use_cost": "0.002", "scope": "academic_research,healthcare", "derivatives_permitted": False, "attribution_required": True, }, { "license_type": "EMBEDDING", "per_use_cost": "0.05", "scope": "*", "derivatives_permitted": False, "attribution_required": True, }, ], }, }) new_service_id = updated_article.get("service_id") print(f"Registered updated version: {new_service_id}") ``` ### Bulk Registration for Large Catalogs A publisher with 450,000 articles cannot register them one at a time through manual API calls. Bulk registration requires a pipeline that reads from the publisher's content management system and registers assets in batches: ```python import json import time def bulk_register_catalog(publisher_id: str, catalog_file: str, batch_size: int = 50): """Register a catalog of content assets in batches.""" with open(catalog_file, "r") as f: catalog = json.load(f) registered = [] failed = [] for i in range(0, len(catalog), batch_size): batch = catalog[i:i + batch_size] for item in batch: try: result = execute("register_service", { "agent_id": publisher_id, "service_name": item["title"], "description": item["abstract"], "price": str(item["retrieval_price"]), "category": "content_licensing", "tags": ( item.get("topic_tags", []) + [f"license:{lt}" for lt in item.get("license_types", [])] + [f"vertical:{v}" for v in item.get("verticals", [])] + [f"version:{item.get('version', '1.0')}"] ), "metadata": { "content_id": item["content_id"], "publisher": publisher_id, "content_hash": item["content_hash"], "version": item.get("version", "1.0"), "license_offerings": item["license_offerings"], }, }) registered.append(result.get("service_id")) except Exception as e: failed.append({"content_id": item["content_id"], "error": str(e)}) # Rate limit: avoid overwhelming the gateway time.sleep(1) print(f"Registered: {len(registered)} | Failed: {len(failed)}") return {"registered": registered, "failed": failed} ``` > **Key Takeaways** > > - `register_service` is the registry primitive -- each content asset becomes a discoverable service with structured metadata. > - Prefixed tags (`license:`, `vertical:`, `format:`, `version:`) enable precise, filterable discovery queries via `search_services`. > - Content versioning uses `previous_version` and `previous_service_id` in metadata to maintain lineage without breaking existing license grants. > - Bulk registration pipelines with batch processing and rate limiting handle catalogs of hundreds of thousands of assets. --- ## Chapter 4: Programmatic License Negotiation: Agent-to-Agent Offer/Accept Flows ### The Negotiation Flow License negotiation between agents follows a four-step flow: discover, propose, escrow, and grant. The consumer agent discovers available content, evaluates license terms, proposes a license acquisition (potentially with modified terms), the publisher agent evaluates the proposal, and if accepted, payment is escrowed and the license is granted atomically. If the publisher rejects the proposal, the consumer can counter-offer or walk away. ``` LICENSE NEGOTIATION FLOW ========================= Consumer Agent Publisher Agent | | | 1. search_services (discover) | |------------------------------------->| | | | 2. create_intent (propose license) | |------------------------------------->| | | | 3. send_message (accept/reject) | |<-------------------------------------| | | | 4. create_escrow (lock payment) | |------------------------------------->| | | | 5. release_escrow (grant license) | |<-------------------------------------| | | | License active. Metering begins. | | | ``` ### Step 1: Discovery and Term Evaluation The consumer agent searches the registry, retrieves license offerings, and evaluates which content meets its needs and budget: ```python def discover_and_evaluate(query: str, vertical: str, license_type: str, max_price: float) -> list: """Discover content and filter by license terms.""" results = execute("search_services", { "query": query, "category": "content_licensing", "tags": [f"license:{license_type}", f"vertical:{vertical}"], }) eligible = [] for service in results.get("services", []): price = float(service.get("price", "999")) if price <= max_price: eligible.append({ "service_id": service["service_id"], "name": service["service_name"], "price": price, "metadata": service.get("metadata", {}), }) # Sort by price ascending -- cheapest first eligible.sort(key=lambda x: x["price"]) return eligible # Find affordable retrieval-licensed clinical NLP content candidates = discover_and_evaluate( query="clinical NLP transformer attention", vertical="healthcare", license_type="retrieval", max_price=0.01, ) print(f"Found {len(candidates)} eligible content assets") ``` ### Step 2: Proposing a License via create_intent The `create_intent` tool creates a formal, on-ledger record of the consumer's intent to acquire a license. This is not a payment -- it is a proposal that the publisher agent can accept, reject, or counter. The intent includes the desired license type, scope, duration, and offered price: ```python def propose_license(consumer_id: str, content_service_id: str, license_type: str, offered_price: str, scope_metadata: dict) -> dict: """Create a license acquisition intent.""" intent = execute("create_intent", { "agent_id": consumer_id, "intent_type": "license_acquisition", "description": ( f"License request: {license_type} access to content " f"service {content_service_id}" ), "amount": offered_price, "metadata": { "content_service_id": content_service_id, "license_type": license_type, "scope": scope_metadata, "proposed_duration": "perpetual", "derivatives_permitted": False, "attribution_required": True, }, }) return intent # Propose a retrieval license for the clinical NLP article if candidates: best_candidate = candidates[0] intent = propose_license( consumer_id="research-bot-alpha", content_service_id=best_candidate["service_id"], license_type="RETRIEVAL", offered_price=str(best_candidate["price"]), scope_metadata={ "permitted_verticals": ["academic_research", "healthcare"], "jurisdiction": "US", }, ) intent_id = intent.get("intent_id") print(f"Created license intent: {intent_id}") ``` ### Step 3: Publisher Evaluation and Response The publisher agent monitors incoming intents, evaluates them against its licensing policies, and responds via `send_message`. In a production deployment, the publisher agent runs a policy engine that automatically accepts or rejects proposals based on configurable rules: ```python def evaluate_license_proposal(publisher_id: str, intent: dict) -> dict: """Publisher agent evaluates a license proposal against policy.""" metadata = intent.get("metadata", {}) license_type = metadata.get("license_type", "") offered_price = float(intent.get("amount", "0")) # Policy engine: check against publisher's minimum pricing minimum_prices = { "RETRIEVAL": 0.001, "CACHE": 0.005, "EMBEDDING": 0.03, "TRAINING": 3.00, "RESALE": 0.10, } min_price = minimum_prices.get(license_type, 999) # Check vertical restrictions blocked_verticals = ["political_campaigns", "surveillance"] requested_verticals = metadata.get("scope", {}).get("permitted_verticals", []) vertical_ok = not any(v in blocked_verticals for v in requested_verticals) if offered_price >= min_price and vertical_ok: # Accept: notify consumer execute("send_message", { "sender_id": publisher_id, "recipient_id": intent.get("agent_id"), "subject": "License proposal accepted", "body": json.dumps({ "status": "accepted", "intent_id": intent.get("intent_id"), "license_type": license_type, "granted_price": str(offered_price), "instructions": "Proceed with escrow creation", }), }) return {"status": "accepted", "price": offered_price} else: # Reject with reason reason = "price_below_minimum" if offered_price < min_price else "blocked_vertical" execute("send_message", { "sender_id": publisher_id, "recipient_id": intent.get("agent_id"), "subject": "License proposal rejected", "body": json.dumps({ "status": "rejected", "intent_id": intent.get("intent_id"), "reason": reason, "minimum_price": str(min_price) if reason == "price_below_minimum" else None, }), }) return {"status": "rejected", "reason": reason} ``` ### Step 4: Escrow-Backed License Grant When the publisher accepts, the consumer creates an escrow that locks the payment. The publisher verifies the escrow exists, grants the license (recorded as a claim chain entry for provenance), and releases the escrow to receive payment: ```python import json def execute_license_grant(consumer_id: str, publisher_id: str, intent_id: str, amount: str, content_service_id: str, license_type: str) -> dict: """Complete the license grant via escrow.""" # Step 4a: Consumer creates escrow escrow = execute("create_escrow", { "payer_id": consumer_id, "payee_id": publisher_id, "amount": amount, "description": f"License escrow for {license_type} access to {content_service_id}", "metadata": { "intent_id": intent_id, "content_service_id": content_service_id, "license_type": license_type, }, }) escrow_id = escrow.get("escrow_id") print(f"Escrow created: {escrow_id}") # Step 4b: Publisher verifies escrow and grants license # In production, the publisher agent polls or receives a webhook # Here we simulate the publisher's grant action # Record the license grant in the provenance chain license_claim = execute("build_claim_chain", { "agent_id": publisher_id, "claims": [ { "claim_type": "license_grant", "subject": content_service_id, "claim": json.dumps({ "license_type": license_type, "licensee": consumer_id, "licensor": publisher_id, "escrow_id": escrow_id, "intent_id": intent_id, "granted_at": "2026-04-06T12:00:00Z", "status": "active", }), }, ], }) print(f"License claim recorded: {license_claim}") # Step 4c: Publisher releases escrow to complete payment release = execute("release_escrow", { "escrow_id": escrow_id, "released_by": publisher_id, }) print(f"Escrow released, payment complete: {release}") return { "license_grant": license_claim, "escrow_id": escrow_id, "status": "active", } ``` ### Handling Rejection and Counter-Offers Not every negotiation succeeds on the first proposal. When a publisher rejects a proposal, the consumer agent can counter-offer by creating a new intent with adjusted terms. A well-designed consumer agent implements a negotiation strategy that balances budget constraints against content value: ```python def negotiate_with_retry(consumer_id: str, publisher_id: str, content_service_id: str, license_type: str, initial_price: float, max_price: float, increment: float = 0.001) -> dict: """Negotiate a license with automatic price escalation.""" current_price = initial_price while current_price <= max_price: intent = propose_license( consumer_id=consumer_id, content_service_id=content_service_id, license_type=license_type, offered_price=str(current_price), scope_metadata={"permitted_verticals": ["academic_research"]}, ) # In production, wait for publisher response via message polling # Here we check the publisher's reputation to assess likelihood reputation = execute("get_agent_reputation", { "agent_id": publisher_id, }) trust_score = reputation.get("reputation_score", 0) print(f" Attempt at ${current_price:.4f} | Publisher trust: {trust_score}") # Simulated response check -- in production, poll send_message inbox # If accepted, proceed to escrow # If rejected, increment price current_price += increment return {"status": "failed", "reason": "max_price_exceeded"} ``` > **Key Takeaways** > > - License negotiation follows a four-step flow: discover, propose (via `create_intent`), accept/reject (via `send_message`), and escrow-backed grant. > - `create_intent` records the proposal on-ledger, creating an audit trail even if the negotiation fails. > - `create_escrow` locks payment before the license is granted, protecting both parties from non-payment and non-delivery. > - `build_claim_chain` records the license grant as a verifiable provenance entry, linking the license to its payment and content asset. > - Counter-offer loops with price escalation enable automated negotiation within budget constraints. --- ## Chapter 5: Usage Metering and Provenance Tracking ### Counting Consumption Across RAG, Fine-Tuning, and Resale A license without metering is a license without enforcement. The consuming agent promised to use the content only for RETRIEVAL in healthcare verticals. Did it? The publisher licensed 100 training inclusions. Has the consumer used 99 or 101? Without metering, these questions have no answers, and without answers, there is no basis for billing, compliance, or dispute resolution. GreenHelix's `submit_metrics` tool provides the metering primitive. Every consumption event -- every RAG retrieval, every embedding creation, every training batch inclusion, every resale transaction -- is recorded as a metric event with structured metadata that ties back to the license grant. ### Metering Architecture ``` USAGE METERING ARCHITECTURE ============================= Consumer Agent | | (1) Content consumed | v +------------------+ | Metering Client | <-- Intercepts every content access | (in-process) | +------------------+ | | (2) submit_metrics per event | v +------------------+ | GreenHelix | <-- Records metric, validates against license | Metrics Engine | +------------------+ | | (3) get_analytics (periodic) | v +------------------+ | Royalty Engine | <-- Calculates payments owed | (Chapter 6) | +------------------+ | | (4) transfer (automated) | v +------------------+ | Publisher Wallet | <-- Receives royalty payments +------------------+ ``` ### Instrumenting Content Consumption The metering client wraps every content access with a `submit_metrics` call. The key design decision is where to place the instrumentation: at the retrieval layer (when the agent fetches content), at the processing layer (when the agent uses the content), or at the output layer (when the agent produces output containing licensed content). The answer is all three, because different license types care about different consumption points. ```python import hashlib from datetime import datetime, timezone class ContentMeteringClient: """Instruments content consumption for license compliance.""" def __init__(self, agent_id: str): self.agent_id = agent_id self._usage_counts = {} # license_id -> count def record_retrieval(self, license_id: str, content_id: str, query_context: str) -> dict: """Record a RETRIEVAL consumption event.""" event_id = hashlib.sha256( f"{license_id}:{content_id}:{datetime.now(timezone.utc).isoformat()}".encode() ).hexdigest()[:16] metric = execute("submit_metrics", { "agent_id": self.agent_id, "metrics": { "metric_type": "content_retrieval", "license_id": license_id, "content_id": content_id, "event_id": event_id, "timestamp": datetime.now(timezone.utc).isoformat(), "consumption_type": "RETRIEVAL", "query_context_hash": hashlib.sha256( query_context.encode() ).hexdigest(), }, }) # Track local count for budget enforcement self._usage_counts[license_id] = self._usage_counts.get(license_id, 0) + 1 return metric def record_embedding(self, license_id: str, content_id: str, embedding_dimensions: int, vector_store_id: str) -> dict: """Record an EMBEDDING consumption event.""" metric = execute("submit_metrics", { "agent_id": self.agent_id, "metrics": { "metric_type": "content_embedding", "license_id": license_id, "content_id": content_id, "timestamp": datetime.now(timezone.utc).isoformat(), "consumption_type": "EMBEDDING", "embedding_dimensions": embedding_dimensions, "vector_store_id": vector_store_id, }, }) self._usage_counts[license_id] = self._usage_counts.get(license_id, 0) + 1 return metric def record_training_inclusion(self, license_id: str, content_id: str, training_run_id: str, batch_index: int) -> dict: """Record a TRAINING consumption event.""" metric = execute("submit_metrics", { "agent_id": self.agent_id, "metrics": { "metric_type": "content_training", "license_id": license_id, "content_id": content_id, "timestamp": datetime.now(timezone.utc).isoformat(), "consumption_type": "TRAINING", "training_run_id": training_run_id, "batch_index": batch_index, }, }) self._usage_counts[license_id] = self._usage_counts.get(license_id, 0) + 1 return metric def record_resale(self, license_id: str, content_id: str, downstream_consumer_id: str, resale_revenue: str) -> dict: """Record a RESALE consumption event.""" metric = execute("submit_metrics", { "agent_id": self.agent_id, "metrics": { "metric_type": "content_resale", "license_id": license_id, "content_id": content_id, "timestamp": datetime.now(timezone.utc).isoformat(), "consumption_type": "RESALE", "downstream_consumer_id": downstream_consumer_id, "resale_revenue": resale_revenue, }, }) self._usage_counts[license_id] = self._usage_counts.get(license_id, 0) + 1 return metric def get_usage_count(self, license_id: str) -> int: """Get local usage count for a license.""" return self._usage_counts.get(license_id, 0) # Usage in a RAG pipeline meter = ContentMeteringClient("research-bot-alpha") # Every time the RAG pipeline retrieves a licensed article meter.record_retrieval( license_id="lic-scijournal-2026-04-001", content_id=[REDACTED_SECRET], query_context="What are the latest transformer attention mechanisms for clinical NLP?", ) print(f"Usage count: {meter.get_usage_count('lic-scijournal-2026-04-001')}") ``` ### Provenance Tracking with Claim Chains Metering tells you how much content was consumed. Provenance tells you the chain of custody: who created the content, who licensed it, who consumed it, and what downstream outputs it produced. GreenHelix's `build_claim_chain` tool constructs verifiable provenance chains that link every consumption event back to its original license grant. A provenance chain for content licensing has four standard links: ``` PROVENANCE CHAIN STRUCTURE ============================ Link 1: CREATION -- Publisher created/owns the content | v Link 2: LICENSE_GRANT -- Publisher granted license to consumer | v Link 3: CONSUMPTION -- Consumer used the content (with meter data) | v Link 4: DERIVATION -- Consumer produced output using the content ``` ```python def build_content_provenance(publisher_id: str, consumer_id: str, content_id: str, license_id: str, consumption_event_id: str, output_id: str) -> dict: """Build a full provenance chain from creation to derivation.""" chain = execute("build_claim_chain", { "agent_id": publisher_id, "claims": [ { "claim_type": "content_creation", "subject": content_id, "claim": json.dumps({ "creator": publisher_id, "content_id": content_id, "created_at": "2026-03-15T00:00:00Z", "content_hash": "sha256:a1b2c3d4e5f6...", }), }, { "claim_type": "license_grant", "subject": content_id, "claim": json.dumps({ "licensor": publisher_id, "licensee": consumer_id, "license_id": license_id, "license_type": "RETRIEVAL", "granted_at": "2026-04-06T12:00:00Z", }), }, { "claim_type": "content_consumption", "subject": content_id, "claim": json.dumps({ "consumer": consumer_id, "license_id": license_id, "event_id": consumption_event_id, "consumption_type": "RETRIEVAL", "consumed_at": "2026-04-06T14:30:00Z", }), }, { "claim_type": "content_derivation", "subject": output_id, "claim": json.dumps({ "derived_by": consumer_id, "source_content": content_id, "source_license": license_id, "output_id": output_id, "derivation_type": "rag_citation", "attribution_included": True, }), }, ], }) return chain # Build provenance for a RAG output that cited a licensed article provenance = build_content_provenance( publisher_id="scijournal-publisher", consumer_id="research-bot-alpha", content_id=[REDACTED_SECRET], license_id="lic-scijournal-2026-04-001", consumption_event_id="evt-abc123", output_id=[REDACTED_SECRET], ) print(f"Provenance chain: {provenance}") ``` ### Detecting License Violations via Analytics Periodic analytics queries detect license violations: consumption exceeding licensed quantities, use in unauthorized verticals, or access after license expiry. ```python def audit_license_compliance(publisher_id: str, license_id: str, content_id: str, max_allowed_uses: int, permitted_verticals: list) -> dict: """Audit a license for compliance violations.""" analytics = execute("get_analytics", { "agent_id": publisher_id, "metric_type": "content_retrieval", "filters": { "license_id": license_id, "content_id": content_id, }, }) total_uses = analytics.get("total_count", 0) violations = [] # Check usage count if max_allowed_uses and total_uses > max_allowed_uses: violations.append({ "type": "usage_exceeded", "allowed": max_allowed_uses, "actual": total_uses, "overage": total_uses - max_allowed_uses, }) # Check for unauthorized consumption types consumption_types = analytics.get("consumption_types", []) for ct in consumption_types: if ct not in ["RETRIEVAL"]: # Only RETRIEVAL was licensed violations.append({ "type": "unauthorized_consumption_type", "licensed": "RETRIEVAL", "actual": ct, }) return { "license_id": license_id, "total_uses": total_uses, "violations": violations, "compliant": len(violations) == 0, } compliance = audit_license_compliance( publisher_id="scijournal-publisher", license_id="lic-scijournal-2026-04-001", content_id=[REDACTED_SECRET], max_allowed_uses=10000, permitted_verticals=["academic_research", "healthcare"], ) print(f"Compliant: {compliance['compliant']}") if compliance["violations"]: for v in compliance["violations"]: print(f" VIOLATION: {v['type']} -- {v}") ``` > **Key Takeaways** > > - Every content consumption event (retrieval, embedding, training, resale) must be metered via `submit_metrics` with structured metadata linking back to the license grant. > - The `ContentMeteringClient` class wraps consumption instrumentation, providing per-license-type recording and local usage count tracking. > - `build_claim_chain` constructs four-link provenance chains: creation, license grant, consumption, and derivation. > - `get_analytics` enables periodic compliance audits that detect usage overages, unauthorized consumption types, and expired license access. > - Provenance chains are the evidence backbone for Chapter 7's dispute resolution workflow. --- ## Chapter 6: Automated Royalty Splits: Multi-Party Revenue Distribution ### The Royalty Distribution Problem Content rarely has a single rights holder. A scientific article has authors, a journal publisher, a peer-review platform, and possibly an institutional affiliation that holds co-ownership rights. A news article has a journalist, an editor, a photography contributor, a wire service, and a parent media company. A dataset has a data collector, an annotator, a curator, and a hosting platform. When an agent pays $0.002 for a RETRIEVAL license, that $0.002 must be split across all parties according to pre-agreed ratios. Manual royalty distribution -- running a monthly report, calculating splits, and initiating bank transfers -- works when you have a few dozen transactions. It does not work when you have millions of micro-transactions per day, each involving different content assets with different rights holder configurations. ### Royalty Split Architecture ``` MULTI-PARTY ROYALTY SPLIT FLOW ================================ License Payment: $0.002 | v +------------------+ | Split Engine | Reads split config from content metadata +------------------+ | +---> Author (50%) --> transfer $0.001 | +---> Publisher (30%) --> transfer $0.0006 | +---> Platform (15%) --> transfer $0.0003 | +---> Reviewer fund (5%) --> transfer $0.0001 ``` ### Defining Split Configurations Split configurations are stored in the content asset's metadata at registration time. This ensures that the split ratios are immutable and auditable: ```python def register_content_with_splits(publisher_id: str, content_metadata: dict, split_config: list) -> dict: """Register content with embedded royalty split configuration.""" # Validate splits sum to 100% total_pct = sum(s["percentage"] for s in split_config) assert abs(total_pct - 100.0) < 0.01, f"Splits must sum to 100%, got {total_pct}%" result = execute("register_service", { "agent_id": publisher_id, "service_name": content_metadata["title"], "description": content_metadata["description"], "price": str(content_metadata["price"]), "category": "content_licensing", "tags": content_metadata.get("tags", []), "metadata": { "content_id": content_metadata["content_id"], "publisher": publisher_id, "version": content_metadata.get("version", "1.0"), "royalty_splits": split_config, "license_offerings": content_metadata.get("license_offerings", []), }, }) return result # Register an article with multi-party royalty splits splits = [ { "party_id": "author-dr-chen", "party_role": "author", "percentage": 50.0, "wallet_id": "wallet-dr-chen", }, { "party_id": "scijournal-publisher", "party_role": "publisher", "percentage": 30.0, "wallet_id": "wallet-scijournal", }, { "party_id": "openreview-platform", "party_role": "platform", "percentage": 15.0, "wallet_id": "wallet-openreview", }, { "party_id": "reviewer-fund", "party_role": "reviewer_compensation", "percentage": 5.0, "wallet_id": "wallet-reviewer-fund", }, ] registered = register_content_with_splits( publisher_id="scijournal-publisher", content_metadata={ "content_id": [REDACTED_SECRET], "title": "Transformer Attention in Clinical NLP", "description": "Peer-reviewed article on transformer attention for clinical NLP.", "price": "0.002", "tags": ["nlp", "clinical", "license:retrieval"], "license_offerings": [{"license_type": "RETRIEVAL", "per_use_cost": "0.002"}], }, split_config=splits, ) ``` ### Executing Royalty Distributions The royalty engine runs periodically (or in real time for high-value transactions), reads consumption metrics, calculates amounts owed per party, and executes transfers: ```python from decimal import Decimal, ROUND_DOWN class RoyaltyEngine: """Calculates and distributes royalty payments.""" def __init__(self, platform_agent_id: str): self.platform_agent_id = platform_agent_id def calculate_splits(self, total_amount: str, split_config: list) -> list: """Calculate per-party amounts from a total payment.""" total = Decimal(total_amount) distributions = [] allocated = Decimal("0") for i, split in enumerate(split_config): pct = Decimal(str(split["percentage"])) / Decimal("100") if i == len(split_config) - 1: # Last party gets remainder to avoid rounding dust amount = total - allocated else: amount = (total * pct).quantize( Decimal("0.000001"), rounding=ROUND_DOWN ) allocated += amount distributions.append({ "party_id": split["party_id"], "party_role": split["party_role"], "wallet_id": split["wallet_id"], "percentage": split["percentage"], "amount": str(amount), }) return distributions def distribute_royalties(self, content_id: str, license_id: str, total_amount: str, split_config: list, period: str) -> dict: """Execute royalty transfers for all parties.""" distributions = self.calculate_splits(total_amount, split_config) results = [] for dist in distributions: if Decimal(dist["amount"]) <= 0: continue transfer_result = execute("transfer", { "from_id": self.platform_agent_id, "to_id": dist["party_id"], "amount": dist["amount"], "description": ( f"Royalty payment: {dist['party_role']} share " f"({dist['percentage']}%) for {content_id} " f"period {period}" ), "metadata": { "royalty_type": "content_licensing", "content_id": content_id, "license_id": license_id, "party_role": dist["party_role"], "split_percentage": dist["percentage"], "period": period, }, }) results.append({ "party_id": dist["party_id"], "amount": dist["amount"], "transfer": transfer_result, }) return { "content_id": content_id, "total_distributed": total_amount, "distributions": results, "period": period, } # Execute royalty distribution for a billing period engine = RoyaltyEngine("licensing-platform-agent") distribution = engine.distribute_royalties( content_id=[REDACTED_SECRET], license_id="lic-scijournal-2026-04-001", total_amount="4.50", # Total revenue from 2,250 retrievals at $0.002 split_config=splits, period="2026-04-01/2026-04-07", ) print(f"Distributed ${distribution['total_distributed']} across " f"{len(distribution['distributions'])} parties") for d in distribution["distributions"]: print(f" {d['party_id']}: ${d['amount']}") ``` ### Batch Royalty Processing In production, royalties are not distributed per-transaction (the gas cost would exceed the royalty for micro-payments). Instead, consumption events are aggregated over a billing period and distributed in batch: ```python def batch_royalty_run(platform_agent_id: str, content_ids: list, billing_period: str) -> dict: """Run royalty distribution for all content assets in a billing period.""" engine = RoyaltyEngine(platform_agent_id) all_distributions = [] total_revenue = Decimal("0") for content_id in content_ids: # Get consumption metrics for this content in the billing period analytics = execute("get_analytics", { "agent_id": platform_agent_id, "metric_type": "content_retrieval", "filters": { "content_id": content_id, "period": billing_period, }, }) usage_count = analytics.get("total_count", 0) if usage_count == 0: continue # Look up content metadata for pricing and splits content_services = execute("search_services", { "query": content_id, "category": "content_licensing", }) if not content_services.get("services"): continue service = content_services["services"][0] metadata = service.get("metadata", {}) per_use_price = Decimal(service.get("price", "0")) split_config = metadata.get("royalty_splits", []) if not split_config: continue period_revenue = per_use_price * usage_count total_revenue += period_revenue distribution = engine.distribute_royalties( content_id=content_id, license_id=f"lic-{content_id}", total_amount=str(period_revenue), split_config=split_config, period=billing_period, ) all_distributions.append(distribution) return { "billing_period": billing_period, "total_revenue": str(total_revenue), "content_assets_processed": len(all_distributions), "distributions": all_distributions, } ``` ### Handling Revenue Share for RESALE Licenses RESALE licenses introduce a recursive royalty problem: when a downstream consumer resells content, the original rights holders are owed a percentage of that downstream revenue. The metering system captures resale events with `resale_revenue`, and the royalty engine applies the revenue share percentage from the license terms: ```python def process_resale_royalties(platform_agent_id: str, resale_event: dict, original_license: dict, original_splits: list) -> dict: """Process royalties triggered by a downstream resale event.""" resale_revenue = Decimal(resale_event.get("resale_revenue", "0")) revenue_share_pct = Decimal( str(original_license.get("revenue_share_pct", "15")) ) / Decimal("100") # The rights holders are owed revenue_share_pct of downstream revenue royalty_pool = resale_revenue * revenue_share_pct engine = RoyaltyEngine(platform_agent_id) return engine.distribute_royalties( content_id=resale_event["content_id"], license_id=resale_event["original_license_id"], total_amount=str(royalty_pool), split_config=original_splits, period=f"resale-{resale_event['event_id']}", ) ``` > **Key Takeaways** > > - Royalty splits are stored in content metadata at registration time, making them immutable and auditable. > - The `RoyaltyEngine` calculates per-party amounts with `Decimal` precision and remainder allocation to avoid rounding dust. > - `transfer` executes individual royalty payments with metadata linking each payment to its content, license, and billing period. > - Batch processing aggregates micro-transactions over billing periods to avoid per-event distribution overhead. > - RESALE licenses trigger recursive royalties: a percentage of downstream revenue flows back to original rights holders. --- ## Chapter 7: Dispute Resolution for Content Licensing ### Why Disputes Happen Content licensing disputes fall into three categories: violations (the consumer used content outside the license scope), overuse (the consumer exceeded the licensed quantity), and attribution failures (the consumer failed to credit the original content in derivative outputs). Each category requires different evidence, different resolution paths, and different remedies. From the provenance chains built in Chapter 5 and the metering data captured continuously, the evidence for disputes is already on-chain. The dispute resolution workflow uses GreenHelix's `open_dispute` and `resolve_dispute` tools to formalize the process. ### Dispute Categories and Evidence Requirements ``` DISPUTE CATEGORIES ==================== Category Evidence Required Typical Remedy ---------------------------------------------------------------- SCOPE_VIOLATION Metering records showing License revocation + use outside permitted breach penalty vertical or agent scope (compliance.breach_penalty_pct) USAGE_OVERRUN Metering count exceeding Invoice for overage at max_uses in license 1.5x standard rate + duration config forced renewal UNAUTHORIZED_TYPE Metering records showing License revocation + TRAINING consumption on breach penalty + damages a RETRIEVAL-only license claim for model contamination ATTRIBUTION_FAILURE Provenance chain showing 30-day cure period, then derivation link with license revocation if attribution_included=false uncured RESALE_UNDERREPORT Resale metering gaps vs. Audit + back-payment at downstream transaction 2x revenue share rate volume ``` ### Opening a Dispute When the compliance audit from Chapter 5 detects a violation, the publisher agent opens a formal dispute: ```python def open_licensing_dispute(publisher_id: str, consumer_id: str, license_id: str, content_id: str, dispute_category: str, evidence: dict) -> dict: """Open a formal dispute for a license violation.""" dispute = execute("open_dispute", { "complainant_id": publisher_id, "respondent_id": consumer_id, "dispute_type": "license_violation", "description": ( f"License {license_id} violation: {dispute_category}. " f"Content {content_id} used outside licensed terms." ), "metadata": { "license_id": license_id, "content_id": content_id, "dispute_category": dispute_category, "evidence": evidence, }, }) return dispute # Example: Open a dispute for usage overrun compliance = audit_license_compliance( publisher_id="scijournal-publisher", license_id="lic-scijournal-2026-04-001", content_id=[REDACTED_SECRET], max_allowed_uses=10000, permitted_verticals=["academic_research", "healthcare"], ) if not compliance["compliant"]: dispute = open_licensing_dispute( publisher_id="scijournal-publisher", consumer_id="research-bot-alpha", license_id="lic-scijournal-2026-04-001", content_id=[REDACTED_SECRET], dispute_category=compliance["violations"][0]["type"], evidence={ "violations": compliance["violations"], "total_uses": compliance["total_uses"], "audit_timestamp": datetime.now(timezone.utc).isoformat(), }, ) dispute_id = dispute.get("dispute_id") print(f"Opened dispute: {dispute_id}") ``` ### Evidence Gathering with Provenance Chains When a dispute is opened, both parties need access to the evidence. The provenance chain from Chapter 5 provides an immutable record that neither party can tamper with. The publisher can retrieve the full chain to demonstrate the violation: ```python def gather_dispute_evidence(publisher_id: str, content_id: str, license_id: str, consumer_id: str) -> dict: """Gather all evidence for a licensing dispute.""" # Get the provenance chain provenance = execute("build_claim_chain", { "agent_id": publisher_id, "claims": [ { "claim_type": "evidence_request", "subject": content_id, "claim": json.dumps({ "license_id": license_id, "consumer_id": consumer_id, "request_type": "full_chain", }), }, ], }) # Get consumption analytics analytics = execute("get_analytics", { "agent_id": publisher_id, "metric_type": "content_retrieval", "filters": { "license_id": license_id, "content_id": content_id, }, }) # Get consumer's reputation history reputation = execute("get_agent_reputation", { "agent_id": consumer_id, }) return { "provenance_chain": provenance, "consumption_analytics": analytics, "consumer_reputation": reputation, } ``` ### Resolving Disputes Dispute resolution follows three paths depending on the category and severity: **Automated resolution** for clear-cut cases (usage overrun with unambiguous metering data). The platform agent calculates the overage, applies the penalty, and executes the remedy without human intervention. **Negotiated resolution** for ambiguous cases (scope disputes where the vertical classification is debatable). The publisher and consumer agents exchange counter-arguments via `send_message`, and if they reach agreement, the platform agent records the resolution. **Escalated resolution** for high-value or adversarial cases. The dispute is flagged for human review with all evidence attached. ```python def resolve_overuse_dispute(platform_agent_id: str, dispute_id: str, license_id: str, content_id: str, allowed_uses: int, actual_uses: int, per_use_price: str, penalty_multiplier: float, consumer_id: str, publisher_id: str) -> dict: """Auto-resolve an overuse dispute with penalty payment.""" overage = actual_uses - allowed_uses standard_cost = Decimal(per_use_price) * overage penalty_cost = standard_cost * Decimal(str(penalty_multiplier)) # Execute penalty transfer penalty_transfer = execute("transfer", { "from_id": consumer_id, "to_id": publisher_id, "amount": str(penalty_cost), "description": ( f"Overuse penalty: {overage} uses over {allowed_uses} limit " f"for {content_id} at {penalty_multiplier}x rate" ), "metadata": { "dispute_id": dispute_id, "dispute_type": "usage_overrun", "overage_units": overage, "penalty_multiplier": penalty_multiplier, }, }) # Resolve the dispute resolution = execute("resolve_dispute", { "dispute_id": dispute_id, "resolution": "overuse_penalty_applied", "resolution_details": { "overage_units": overage, "penalty_amount": str(penalty_cost), "transfer_id": penalty_transfer.get("transfer_id"), "remedy": "penalty_paid_license_renewed", }, }) return resolution # Notify the consumer about the resolution def notify_dispute_resolution(platform_agent_id: str, consumer_id: str, dispute_id: str, resolution: dict): """Send dispute resolution notification to the consumer.""" execute("send_message", { "sender_id": platform_agent_id, "recipient_id": consumer_id, "subject": f"Dispute {dispute_id} resolved", "body": json.dumps({ "dispute_id": dispute_id, "resolution": resolution, "action_required": "Review resolution and update usage patterns", }), }) ``` ### Reputation Impact of Disputes Disputes affect both parties' reputation scores. A consumer with multiple overuse violations sees their reputation degrade, making publishers less likely to accept their license proposals. A publisher who opens frivolous disputes also suffers reputation damage. The reputation system creates economic incentives for compliance: ```python def check_consumer_risk(publisher_id: str, consumer_id: str) -> dict: """Assess a consumer's licensing risk based on reputation.""" reputation = execute("get_agent_reputation", { "agent_id": consumer_id, }) score = reputation.get("reputation_score", 0) # Search for the consumer's dispute history via metrics metrics = execute("search_agents_by_metrics", { "agent_id": publisher_id, "query": consumer_id, }) risk_level = "low" if score < 50: risk_level = "high" elif score < 75: risk_level = "medium" return { "consumer_id": consumer_id, "reputation_score": score, "risk_level": risk_level, "recommendation": ( "accept" if risk_level == "low" else "require_deposit" if risk_level == "medium" else "reject" ), } ``` > **Key Takeaways** > > - Five dispute categories cover content licensing conflicts: scope violation, usage overrun, unauthorized type, attribution failure, and resale underreporting. > - `open_dispute` creates a formal, on-ledger dispute record with structured evidence from metering data and provenance chains. > - Automated resolution handles clear-cut cases (overuse with unambiguous metering); negotiated and escalated paths handle ambiguity. > - `resolve_dispute` records the resolution, penalty transfers, and remedies. > - Reputation scores create economic incentives for compliance -- repeated violators cannot acquire new licenses. --- ## Next Steps For deployment patterns, monitoring, and production hardening, see the [Agent Production Hardening Guide](https://clawhub.ai/skills/greenhelix-agent-production-hardening). --- ## What You Get This guide delivers a complete, production-ready content licensing platform built on GreenHelix's A2A Commerce Gateway. Here is what you walk away with: **A license type taxonomy** covering five content consumption models (RETRIEVAL, CACHE, EMBEDDING, TRAINING, RESALE) with machine-readable schemas that agents can evaluate programmatically. **A content registry** using `register_service` with prefixed tagging conventions, content versioning, and bulk registration pipelines for catalogs of any size. **A license negotiation engine** implementing discover-propose-escrow-grant flows with `create_intent`, `send_message`, `create_escrow`, and `release_escrow`, including automated counter-offer logic. **A usage metering system** built on `submit_metrics` that instruments every consumption event across RAG, embedding, training, and resale pipelines with the `ContentMeteringClient` class. **A provenance tracking system** using `build_claim_chain` to construct four-link verifiable chains from content creation through license grant, consumption, and derivation. **An automated royalty engine** using `transfer` for multi-party revenue distribution with `Decimal` precision, batch processing, and RESALE revenue share cascading via the `RoyaltyEngine` class. **A dispute resolution workflow** using `open_dispute` and `resolve_dispute` with evidence from metering data and provenance chains, automated penalty calculation, and reputation-based risk scoring. **A production deployment framework** with pre-grant compliance checks (`check_compliance`), SLA enforcement (`create_sla`, `check_sla_compliance`), fleet management, and scaling guidelines. Every code example uses `requests.Session` with the REST API (`POST /v1/{tool}`) against the GreenHelix production API. Every pattern has been designed for the scale at which agent fleets actually operate: millions of metering events, thousands of licenses, and automated royalty distributions across dozens of rights holders. The content licensing gap is a $3.1 billion infrastructure problem. This guide gives you the tools to close it.


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