Executive Summary
Digital assets now live in a world of constant reuse. A single file can appear as a scanned page on a piracy forum, as a clipped quote on social media, and as a compressed recording on a peer to peer network. Discovery systems built on AI and large scale crawling turn this ocean of activity into millions of signals. The challenge for leaders is simple, very few of those signals arrive in a form that legal, trust and safety, and business stakeholders can act on with confidence.
For legal teams, the core concern is whether a detection can stand as defensible evidence. For trust and safety teams, the priority is consistent and fair enforcement at scale. For business and product leaders, discovery should illuminate where value is created or leaked so they can refine distribution, pricing, and partner strategy. When discovery is unreliable, each group solves a different part of the problem in isolation, which leads to duplicated effort and gaps in coverage.
An evidence centered operating model addresses this gap. Rather than treating discovery as a black box that emits alerts, it organizes data, algorithms, and workflows around a clear unit of evidence. That unit has a defined schema, quality gates, and a traceable chain from first crawl through to enforcement or outreach. Every step is designed to be reproducible, privacy aware, and respectful of platform rules.
InCyan builds a rights intelligence platform with four product pillars, Discovery, Identification, Prevention, and Insights. This whitepaper focuses on the Discovery pillar and the transition from raw signals to decision ready insights. The operating model described here is vendor neutral and standards oriented, so it can be used to evaluate any AI powered discovery solution.
- • Section 2 introduces the operating flow from Configure Sources to AI Analysis to Get Insights.
- • Sections 3 through 7 define the data model, classification, triage, and evidence packaging practices that make discovery reproducible.
- • Sections 8 through 11 present a scorecard, implementation blueprint, and buyer toolkit that teams can adapt directly into RFPs and governance plans.
Operating Model Overview
From configure sources to AI analysis to decision ready insights
An evidence centered discovery program starts with intentional configuration and ends with clear, routed outcomes. A practical model can be described in three stages that align to how many organizations already think about data products.
- Configure Sources. Legal, trust and safety, and business owners define which platforms, territories, languages, and asset types matter most. Technical teams map those requirements to specific sources, official APIs, and compliant crawling patterns. Policies for data minimization and sensitive content handling are also set at this stage.
- AI Analysis. Crawlers and platform feeds collect raw signals which are normalized into a common schema, enriched with metadata, and classified using multimodal models. Near duplicates and derivatives are clustered into incidents so that humans review cases rather than isolated sightings.
- Get Insights. Validated incidents feed into triage queues, dashboards, alerts, and reporting packages. Each pathway is tied to a clear outcome, for example takedown, partner outreach, content optimization, or trend reporting.
InCyan's Discovery pillar follows this structure, configure sources, apply AI analysis, then deliver insights. The same pattern applies in any rights intelligence environment, regardless of vendor, as long as evidence is the organizing principle and not an afterthought.
The signals to insights pipeline
Within the AI Analysis and Get Insights stages, a more detailed pipeline turns individual signals into usable evidence. A reference pattern is:
- Signals. Raw observations from open web, social platforms, and peer to peer networks. Examples include URLs, screenshots, text snippets, or media fingerprints.
- Normalize. Standardization of formats, timestamps, encodings, and basic metadata such as language, territory, and platform identifiers.
- Classify. Application of modality aware models to tag content, estimate confidence, and compute a risk score.
- Triage. Routing of items or incidents into queues based on risk, policy, and capacity. Human reviewers validate edge cases and feed back corrections.
- Package Evidence. Assembly of capture artifacts, logs, and context into an evidence bundle that can be re examined later and shared with legal teams, partners, or authorities.
- Report and Act. Aggregation into dashboards, exports, and case management workflows that drive specific decisions.
Each step in this pipeline should be instrumented with metrics and quality checks. That instrumentation is what allows teams to prove that their discovery program is reliable, safe by design, and aligned with platform expectations.
Data Model and Entities
An evidence centered operating model depends on a clear data model. Without shared definitions, discovery feeds turn into unstructured alert lists that are impossible to audit or benchmark. The following entities are useful building blocks across web, social, and peer to peer environments.
Key entities and definitions
- Asset. A unit of content that the rights holder cares about, for example an ebook, track, video episode, brand image set, or proprietary dataset. Assets carry ownership, policy, and business value metadata.
- Usage. An observed use of an asset in the wild. A usage connects an asset to a specific location, time, platform, and presentation, such as full copy, excerpt, thumbnail, remix, or background audio.
- Incident. A cluster of related usages that share a common root cause or actor, for example a piracy campaign, a channel that reposts content at scale, or a sustained misuse within a single enterprise tenant.
- Capture artifact. The concrete material collected when a usage is detected. Typical artifacts include screenshots, HTML snapshots, media samples, and protocol logs. Capture artifacts make detections reproducible.
- Confidence. A machine estimated probability that the match between a usage and an asset is correct. Confidence is always tied to a specific model version and threshold policy.
- Risk score. A composite score that estimates the business impact of a usage or incident. It typically combines confidence with asset value, audience size, jurisdiction, platform policy, and sensitivity of the underlying content.
Cross platform clustering is essential. A single pirated book can appear in dozens of formats, scanned PDFs, text pasted into forums, cropped images of pages, or audio readouts. By clustering near duplicates and derivatives into incidents, teams can:
- • Understand the true scale of an issue across web, social, and peer to peer environments.
- • Reduce reviewer fatigue by presenting one case with a consolidated history rather than many nearly identical alerts.
- • Track outcomes, such as takedown or outreach, at the incident level instead of chasing individual URLs.
| Entity | Role in the model | Example fields |
|---|---|---|
| Asset | Defines what is protected and under which rights or agreements. | Asset ID, title, owner, territory rights, release date, sensitivity level, associated identifiers such as ISBN, ISRC, or SKU. |
| Usage | Represents one observed appearance of an asset in the wild. | Usage ID, asset ID, URL or network location, platform, timestamp, media type, transformation type, detected language. |
| Incident | Groups related usages into a case for review and action. | Incident ID, incident type, cluster size, primary platform, root cause hypothesis, status, assigned owner. |
| Capture artifact | Preserves what was actually seen at detection time. | Artifact ID, link to storage, capture timestamp, capture method, hash values, viewer notes, redaction flags. |
| Confidence | Summarizes strength of the match for automated or human triage. | Score between zero and one, model version, threshold band such as high, medium, or low, contributing signals. |
| Risk score | Determines triage priority and escalation pathway. | Score between zero and one hundred, severity level, asset value tier, jurisdiction flags, audience estimate, policy tags. |
Automated Classification
Automated classification is the bridge between raw content and structured evidence. A modern discovery system applies different models to different modalities, yet exposes a unified interface and schema to downstream reviewers.
Modality aware tagging
- Images. Models can detect logo use, key visual motifs, and layout patterns. They should tolerate edits such as cropping, filters, collages, and low resolution reposts. Integration with multimodal fingerprinting systems strengthens resilience when only a portion of the original image is present.
- Video. Video classification aligns temporal segments with underlying assets even when speed, aspect ratio, or resolution have changed. Frame sampling and audio analysis work together to detect partial copies and remixes.
- Audio. Audio models handle pitch shifts, tempo changes, and background noise. They can detect very short clips, for example a hook or riff used in user generated content, and associate them with full works.
- Text. Text models must survive paraphrase, translation, and formatting changes. This often combines semantic similarity, named entity recognition, and pattern matching on quoted passages or structured identifiers.
Confidence, risk, and reviewer hints
Automated classification should not attempt to replace human judgment for high impact decisions. Instead, it should provide calibrated scores and explanations that help reviewers focus on the right work.
- Threshold bands. High confidence detections can move directly into enforcement queues or bulk actions, subject to policy. Medium confidence detections may route to analyst review. Low confidence detections are often suppressed or sampled for model improvement.
- Reviewer hints. Alongside scores, systems can surface the reasons a match was made, shared identifiers, overlapping lyrics, image region matches, or historical behavior from the same account. Transparent hints build trust and make appeals or audits easier.
- Risk aware scoring. Risk scores should combine confidence with business context. A moderately confident match involving a pre release asset in a key launch market may deserve higher priority than a very confident match on a legacy asset with low commercial value.
Fairness, privacy, and platform respect
Classification choices have ethical consequences. Discovery systems operate on content that may contain personal information, commentary, or criticism. Fairness and privacy practices should include:
- • Excluding protected characteristics such as race, religion, or gender identity from model features unless there is a clear legal obligation and robust review.
- • Applying data minimization, for example storing hashes, cropped regions, or redacted views instead of full raw content when possible.
- • Respecting platform guidelines and legal constraints for both data collection and enforcement actions, including rate limits, API usage terms, and robots rules.
These safeguards help ensure that discovery remains focused on rights and safety outcomes rather than becoming a generalized surveillance capability.
Triage Workflows
Triage connects machine output with human decisions. A well designed triage layer prevents both overload, where teams drown in low value alerts, and blind spots, where high risk incidents fall through the cracks.
Prioritization rules and queues
Queues should reflect business priorities, not only model scores. Typical inputs include:
- Risk score and asset tier. Incidents involving high value assets or sensitive content rise to the top, even if they involve small audiences.
- Platform and jurisdiction. Some platforms and countries support faster, well understood enforcement actions. Others may require partner outreach or local counsel.
- Lifecycle stage. Pre launch and launch windows demand more aggressive response targets than long tail catalog monitoring.
Queues can be organized by specialization, for example a broadcast piracy desk, a brand misuse desk, and a developer platform desk. Clear ownership avoids confusion when incidents span multiple teams.
Human in the loop review and escalation
AI powered discovery works best when human reviewers play an active role in calibration. Human in the loop practices include:
- • Sampling incidents at each risk tier to validate model performance and uncover systematic bias.
- • Providing structured feedback codes, such as true positive but low impact, false positive due to fair use, or policy exception, instead of free text notes only.
- • Defining step wise escalation paths, from first line review to legal review to external partner or regulator engagement.
Service levels for time to review and time to action
Service level targets give stakeholders a shared language for performance. A common pattern is:
- • Time to review, elapsed time from incident creation to first human review. Targets can vary by priority, for example thirty minutes for critical live content, four hours for high priority catalog issues, and next business day for low priority items.
- • Time to action, elapsed time from review decision to execution of the chosen action, such as a takedown notice, account restriction, or business outreach.
These metrics should be tracked by channel, region, and asset type so that bottlenecks become visible and teams can invest where they will have the greatest impact.
Evidence Packaging and Quality Controls
Evidence packaging turns a detection into something legal teams, regulators, and partners can rely on. It is also central to reproducibility, another analyst should be able to retrace steps and reach the same conclusion months or years after the original review.
Reproducibility and chain of custody
Each discovered item should carry enough context for an independent reviewer to answer four questions, what was seen, where it was seen, when it was seen, and how it was captured. Good practice includes:
- • Storing canonical URLs and timestamps in a normalized format, along with platform identifiers and localization context such as language and currency.
- • Capturing one or more artifacts per usage, for example a screenshot plus HTML snapshot or a media clip plus accompanying transcript.
- • Recording an audit trail of who viewed, annotated, exported, or redacted each artifact, with timestamps and purpose of access.
- • Versioning evidence bundles so that any redactions or technical corrections keep the original capture intact.
Deduplication and version management
In high volume environments, the same usage can be rediscovered many times as crawlers recrawl and platforms replay events. Deduplication rules should:
- • Treat small layout or query string changes as the same underlying usage when appropriate.
- • Prevent accidental deletion of historic evidence when a platform removes content or a domain expires.
- • Allow reviewers to see both the first seen version and the current live state, when it still exists, so that they can understand impact over time.
| Checklist item | Reviewer question | Status guidance |
|---|---|---|
| Source clarity | Can I identify the exact source location and platform from this package? | Source URL or identifier is present, valid, and tied to a capture timestamp. |
| Asset linkage | Is the relationship between the usage and the protected asset clear? | Asset ID and title are present, along with relevant identifiers such as ISBN, ISRC, or internal codes. |
| Artifact completeness | Do I have enough visual or textual context to understand what happened? | At least one artifact captures the relevant content, interface context, and any key surrounding elements. |
| Chain of custody | Can I see who has handled this evidence and whether it has been changed? | Access logs and version history are available and show no unexplained gaps. |
| Privacy treatment | Has personal or sensitive data been handled appropriately? | Redactions, minimization, or secure storage controls are documented where applicable. |
| Policy alignment | Does this package show which policy or agreement is implicated? | Relevant policy references, takedown templates, or contractual clauses are linked or noted. |
Reporting Outputs
Reporting outputs translate operational activity into executive insight. They should serve three main audiences, frontline reviewers, managers who run programs, and executives who own risk and strategy.
Dashboards and alerts
- Operations dashboards. Focus on real time workload and performance. Typical cards include open incidents by queue, median time to review, time to action, and action rate by platform.
- Risk dashboards. Aggregate incident data by asset family, geography, and channel. These views help legal and business leaders see where misuse concentrates and whether interventions are working.
- Alerts. Targeted notifications for events that cannot wait for the next report, such as pre release content appearing on a high reach platform or a new peer to peer swarm crossing a set threshold.
Export packages for takedowns and executive briefs
Exports bridge the gap between discovery systems and external stakeholders. Useful patterns include:
- Takedown bundles. Machine readable exports that map incidents to the fields required for platform specific reporting forms and notice and takedown workflows.
- Executive briefs. Periodic summaries, often monthly or quarterly, that highlight key trends, campaign outcomes, and risk exposures in plain language.
- Partner and channel reports. Views tailored to a licensee, distributor, or marketplace, showing where their behavior aligns with or diverges from expectations.
Program KPIs and Scorecard
A consistent scorecard creates shared accountability across discovery, legal, trust and safety, and business teams. The goal is not to track every possible metric, but to focus on a small set that reflects both effectiveness and safety.
Coverage
Freshness
Evidence Quality
Core program KPIs
| KPI | What it measures | Example target |
|---|---|---|
| Action rate | Share of validated incidents that result in a concrete action such as takedown, outreach, or policy change. | At least seventy percent of validated high priority incidents lead to action within the reporting period. |
| Time to review | Median and tail latency from incident creation to first human review, by priority tier. | Critical incidents reviewed within thirty minutes at the ninety fifth percentile. |
| Case closure time | Elapsed time from incident creation to final resolution or closure. | Most cases closed within seven days, with exception handling for complex legal matters. |
| False positive rate | Share of reviewed incidents that are rejected as incorrect or out of scope. | Maintained below a threshold that keeps reviewer capacity focused, often between five and fifteen percent. |
| Stakeholder satisfaction | Qualitative and quantitative feedback from legal, trust and safety, and business stakeholders. | Regular survey scores in line with other core platforms and steady improvement over time. |
A compact program score
For board and executive discussions, it is often useful to compress many metrics into a single program score while still preserving detail for operational use. One simple pattern is to create three indices on a zero to one hundred scale:
- Evidence Quality Index, EQI. Derived from the evidence checklist, for example the share of incidents that meet all quality criteria without remediation.
- Freshness Index, FI. Based on time to detection and time to review, with penalties for long tail outliers.
- Throughput Index, TI. Reflects action rate, case closure time, and reviewer utilization.
Program score = 0.4 × EQI + 0.35 × FI + 0.25 × TI
Weights will vary by organization. Rights holders who face high litigation risk may emphasize evidence quality, whereas platforms that focus on user safety may weight freshness or throughput more heavily. The key is to keep the formula transparent and stable over time so that trends are meaningful.
Implementation Blueprint
A ninety day rollout is enough time to stand up a pilot that covers real assets, real platforms, and real workflows. The blueprint below assumes a cross functional team that includes discovery engineering, data science, legal, trust and safety, and program management.
| Week | Primary focus | Key milestones |
|---|---|---|
| 1 | Program charter | Define objectives, scope, and success metrics. Identify executive sponsor and appoint a program owner. |
| 2 | Asset inventory | Compile a prioritized list of assets and asset families, including ownership, sensitivity, and commercial value. |
| 3 | Source mapping | Map assets to web, social, and peer to peer sources. Document which platforms require contracts or API access. |
| 4 | Legal and compliance review | Review data collection plans for platform terms, robots rules, and privacy requirements. Approve a data minimization policy. |
| 5 | Technical integration | Connect or configure crawlers, platform APIs, and logging. Establish secure storage for capture artifacts. |
| 6 | Data model implementation | Implement schemas for assets, usages, incidents, and artifacts. Integrate identifiers from existing systems where possible. |
| 7 | Classification setup | Enable modality specific models, define confidence thresholds, and configure risk scoring rules for the pilot scope. |
| 8 | Triage design | Design queues, escalation paths, and reviewer roles. Draft standard operating procedures for each queue. |
| 9 | Pilot launch | Start ingesting live signals for a limited set of assets and sources. Train reviewers on tooling and evidence checklists. |
| 10 | Calibration | Review pilot results, adjust thresholds, add missing sources, and refine triage rules based on observed patterns. |
| 11 | Reporting and KPIs | Stand up dashboards and reports for the core KPIs and the program score. Validate numbers with stakeholders. |
| 12 | Governance setup | Establish a recurring governance forum with legal, trust and safety, and business owners. Define change management and model review cadence. |
| 13 | Scale decision | Decide whether to expand scope, adjust design, or pause for further validation. Document lessons learned and update the roadmap. |
Roles and responsibilities
- Program owner. Holds overall accountability for outcomes and cross functional alignment.
- Discovery engineering. Owns data collection, normalization, and reliability of crawling and ingestion.
- Data science. Owns classification models, scoring, and evaluation against held out datasets.
- Legal. Owns policy decisions, evidence requirements, and relationships with outside counsel.
- Trust and safety operations. Own triage, case management, and day to day enforcement decisions.
- Business stakeholders. Provide input on asset priorities and use insights to refine commercial strategy.
Key Risks, Compliance, and Ethics
Discovery programs operate in a changing legal and ethical landscape. High profile enforcement actions and new technical controls from infrastructure providers highlight that aggressive data collection without clear safeguards can create significant risk.
Platform terms and robots rules
Respect for platforms is fundamental. Teams should:
- • Review and honor platform terms of service and acceptable use policies, including limits on automated access and data reuse.
- • Check robots rules and emerging machine readable licensing frameworks that express publisher preferences for crawling and reuse, and incorporate those preferences into configuration.
- • Prefer official APIs and partner programs over unapproved scraping whenever possible.
Data minimization and privacy
Discovery systems will inevitably encounter personal data, especially on social platforms. Privacy by design practices include:
- • Collecting and storing only the data needed to support evidence, classification, and enforcement decisions.
- • Separating identifiers that point to individuals from evidence packages when they are not required for the action being taken.
- • Implementing clear retention periods and deletion workflows, aligned with applicable regulations and internal policy.
Safe handling of sensitive content
In some domains, especially child safety, violent extremism, or abuse material, discovery systems must handle extremely sensitive content while protecting the wellbeing of staff. Practices can include:
- • Specialized viewers that blur or mask content by default, with click to reveal options.
- • Rotation of exposure and mandatory wellness support for reviewers.
- • Strict access controls and auditing for any datasets used to train or evaluate models on sensitive material.
Embedding these controls into the operating model ensures that discovery advances rights protection and safety goals without introducing avoidable legal or human risk.
Buyer Toolkit
The buyer toolkit translates the concepts in this paper into practical RFP prompts and contract exhibits. It helps procurement and technical teams separate marketing language from operational reality.
RFP questions by operating model stage
- Configure Sources. Which platforms and regions do you monitor today for customers like us, and how often are new sources added? How do you respect platform terms, robots rules, and data minimization requirements?
- AI Analysis. Which modalities do your models support and how do you evaluate performance across languages and geographies? How do you calibrate and expose confidence and risk scores?
- Get Insights. How are incidents formed from raw signals? What triage, case management, and reporting capabilities are included and which require additional tooling?
- Evidence Packaging. What fields are included in an evidence bundle by default? How do you handle chain of custody, redaction, and export formats for legal teams?
- Compliance and Governance. How do you document changes to models, thresholds, and source configurations? How often do you review ethical and legal implications of your discovery methods?
Acceptance criteria for contract exhibits
Acceptance criteria should be specific, measurable, and aligned with the KPIs in the scorecard. Examples include:
- Coverage. The solution must monitor a defined list of priority platforms and regions, with a documented schedule for adding new sources and a process to request additions.
- Evidence quality. Evidence bundles must include the fields listed in the evidence checklist, and at least a defined percentage of reviewed incidents must pass all checklist items without rework.
- Service levels. Time to review and time to action targets for each priority tier must be captured as formal service levels, with reporting and remedies for sustained misses.
- Compliance. The vendor must maintain written policies for platform terms, robots rules, and privacy compliance, and agree to notify the customer of material changes.
- Auditability. The customer must have the right to run controlled audits or benchmark tests against a mutually agreed dataset, either during pilots or under a recurring schedule.
Using this toolkit
Buyers can attach the operating model description, data model, checklist, and KPIs from this paper as non binding reference material to an RFP. During contracting, selected parts can then be promoted into binding exhibits while keeping room for future evolution.
Key Sources
The following public sources provide useful background on digital evidence handling, content moderation operations, web data collection, and benchmarking practices. They are not endorsements of any particular vendor or product.
- Best Practices for Chain of Custody in Digital Evidence
- What Is Chain of Custody in Digital Forensics?
- How to Maintain Chain of Custody for Digital Forensic Evidence
- Content Moderation Design Patterns with Managed AI Services
- Best Practices for Content Moderation
- Effective Ways to Moderate User Generated Content
- Is Web Scraping Legal? Laws, Ethics, and Risks
- Is Web Scraping Legal? If You Know the Rules
- Is It Legal to Scrape Data from Websites? Best Practices Guide
- Guide to Chain of Custody in Digital Forensics