Master comparison matrix
Each cell records the strength of correspondence between a capability of the proposed patent architecture and the reviewed public material of each company. Select any cell to open the supporting public evidence and the analysis behind the rating. No cell asserts infringement; ratings describe publicly demonstrated capability only.
| Capability / Patent Pillar | Proposed Patent Architecture | Adobe | Microsoft | Meta | AWS | Salesforce | NVIDIA | |
|---|---|---|---|---|---|---|---|---|
| AI orchestration | Central orchestration layer coordinating agents, twins, memory and external platforms on behalf of a named principal. | |||||||
| Creator AI Agent | Agent bound to a creator principal, executing publication, audience and commercial workflows across independent platforms. | |||||||
| Viewer AI Agent | Agent acting for the viewer, filtering and proactively retrieving content across the platforms the viewer uses. | |||||||
| Specialised agents | Defined family of functional agents (publication, rights, sponsorship, analytics) with declared authority and interaction semantics. | |||||||
| Agent-to-agent communication | Inter-agent discovery, delegation and preliminary commercial negotiation between agents bound to opposing principals. | |||||||
| Digital Twins | Persistent principal-owned model of a creator, viewer or content item, queryable by agents and portable across platforms. | |||||||
| Behavioural Digital Twins | Behavioural state derived from observed cross-platform activity and revised against measured outcomes. | |||||||
| Digital Content Twins | Persistent identity for a work, tracking derivatives across modality changes and independent platforms. | |||||||
| Persistent memory | Long-horizon memory generated from executed actions and their results, not from dialogue alone. | |||||||
| Knowledge graphs | Semantic graph relating creators, audiences, works, rights and commercial agreements. | |||||||
| Predictive intelligence | Prediction of audience response, content performance and commercial outcome conditioned on twin state. | |||||||
| Content lifecycle | Agent-driven orchestration from ideation through transformation, publication, measurement and re-optimisation. | |||||||
| AI content transformation | Automated derivation of platform-specific variants governed by twin state and rights constraints. | |||||||
| Multimodal semantic search | Retrieval across text, image, audio and video conditioned on the requesting principal's behavioural state. | |||||||
| Cross-platform audience intelligence | Audience overlap, migration and value analysis aggregated across platforms the operator does not control. | |||||||
| Commercial orchestration | Agent-mediated valuation, offer handling and performance-linked settlement of commercial arrangements. | |||||||
| Sponsorship orchestration | Bilateral negotiation between creator and sponsor agents with entitlement checks and outcome verification. | |||||||
| Rights management | Rights state held against the content twin and acted upon autonomously across independent platforms. | |||||||
| Provenance | Lineage record linking a work to its derivatives with confidence scoring, consumable by agents. | |||||||
| Authenticity | Verification of authorship and AI involvement as an input to rights and commercial decisioning. | |||||||
| Intelligent notifications | Attention management in which the agent suppresses, aggregates or escalates based on predicted principal value. | |||||||
| Enterprise / API orchestration | Connector layer permitting agents to act on external systems under delegated, revocable authority. | |||||||
| Distributed AI | Distribution of inference and model state across edge and cloud components of the architecture. | |||||||
| Privacy-preserving AI | Behavioural state usable for prediction without exposing raw cross-platform activity to counterparties. | |||||||
| Explainable AI | Explanation of agent decisions and recommendations by reference to twin state and observed outcomes. | |||||||
| Continual learning | Ongoing revision of principal-specific models from measured results rather than population-level training. | |||||||
| Autonomous workflow execution | Execution of multi-step workflows on external platforms without step-by-step human instruction. | |||||||
| Feedback-based optimisation | Closed loop in which measured commercial and audience outcomes write back to the twin and condition later strategy. |
“Not identified in reviewed public material” records the limits of this review only. It is not a statement that a company lacks the capability; internal or unpublished systems cannot be assessed from public sources.
Correspondence density across pillars and companies
The same data rendered without labels so that concentration and gaps are immediately visible. Select any cell for the underlying evidence.
| Capability / Patent Pillar | Proposed Patent Architecture | Adobe | Microsoft | Meta | AWS | Salesforce | NVIDIA | |
|---|---|---|---|---|---|---|---|---|
| AI orchestration | Central orchestration layer coordinating agents, twins, memory and external platforms on behalf of a named principal. | |||||||
| Creator AI Agent | Agent bound to a creator principal, executing publication, audience and commercial workflows across independent platforms. | |||||||
| Viewer AI Agent | Agent acting for the viewer, filtering and proactively retrieving content across the platforms the viewer uses. | |||||||
| Specialised agents | Defined family of functional agents (publication, rights, sponsorship, analytics) with declared authority and interaction semantics. | |||||||
| Agent-to-agent communication | Inter-agent discovery, delegation and preliminary commercial negotiation between agents bound to opposing principals. | |||||||
| Digital Twins | Persistent principal-owned model of a creator, viewer or content item, queryable by agents and portable across platforms. | |||||||
| Behavioural Digital Twins | Behavioural state derived from observed cross-platform activity and revised against measured outcomes. | |||||||
| Digital Content Twins | Persistent identity for a work, tracking derivatives across modality changes and independent platforms. | |||||||
| Persistent memory | Long-horizon memory generated from executed actions and their results, not from dialogue alone. | |||||||
| Knowledge graphs | Semantic graph relating creators, audiences, works, rights and commercial agreements. | |||||||
| Predictive intelligence | Prediction of audience response, content performance and commercial outcome conditioned on twin state. | |||||||
| Content lifecycle | Agent-driven orchestration from ideation through transformation, publication, measurement and re-optimisation. | |||||||
| AI content transformation | Automated derivation of platform-specific variants governed by twin state and rights constraints. | |||||||
| Multimodal semantic search | Retrieval across text, image, audio and video conditioned on the requesting principal's behavioural state. | |||||||
| Cross-platform audience intelligence | Audience overlap, migration and value analysis aggregated across platforms the operator does not control. | |||||||
| Commercial orchestration | Agent-mediated valuation, offer handling and performance-linked settlement of commercial arrangements. | |||||||
| Sponsorship orchestration | Bilateral negotiation between creator and sponsor agents with entitlement checks and outcome verification. | |||||||
| Rights management | Rights state held against the content twin and acted upon autonomously across independent platforms. | |||||||
| Provenance | Lineage record linking a work to its derivatives with confidence scoring, consumable by agents. | |||||||
| Authenticity | Verification of authorship and AI involvement as an input to rights and commercial decisioning. | |||||||
| Intelligent notifications | Attention management in which the agent suppresses, aggregates or escalates based on predicted principal value. | |||||||
| Enterprise / API orchestration | Connector layer permitting agents to act on external systems under delegated, revocable authority. | |||||||
| Distributed AI | Distribution of inference and model state across edge and cloud components of the architecture. | |||||||
| Privacy-preserving AI | Behavioural state usable for prediction without exposing raw cross-platform activity to counterparties. | |||||||
| Explainable AI | Explanation of agent decisions and recommendations by reference to twin state and observed outcomes. | |||||||
| Continual learning | Ongoing revision of principal-specific models from measured results rather than population-level training. | |||||||
| Autonomous workflow execution | Execution of multi-step workflows on external platforms without step-by-step human instruction. | |||||||
| Feedback-based optimisation | Closed loop in which measured commercial and audience outcomes write back to the twin and condition later strategy. |
Weighted methodology and underlying scoring table
Category scores express how strongly each company's reviewed public material corresponds with that part of the proposed architecture. The weighted total is calculated from the published weights; no score has been adjusted to produce a particular ranking.
| Category (weight) | Salesforce | Adobe | Microsoft | Meta | AWS | NVIDIA | |
|---|---|---|---|---|---|---|---|
| Core architectural correspondence (30%) | 84 | 84 | 88 | 90 | 62 | 80 | 58 |
| AI Agent correspondence (15%) | 90 | 90 | 78 | 92 | 74 | 85 | 66 |
| Digital Twin / behavioural modelling (10%) | 50 | 62 | 55 | 40 | 68 | 30 | 58 |
| Memory / knowledge architecture (10%) | 88 | 84 | 70 | 92 | 72 | 90 | 46 |
| Creator / content / audience correspondence (15%) | 80 | 52 | 72 | 45 | 94 | 20 | 18 |
| Enterprise / API orchestration (10%) | 88 | 94 | 90 | 95 | 40 | 92 | 72 |
| Commercial / rights / provenance correspondence (5%) | 78 | 84 | 82 | 55 | 66 | 40 | 22 |
| Continual learning / predictive intelligence (5%) | 76 | 78 | 74 | 70 | 90 | 62 | 62 |
| Weighted total / 100 | 81.0 | 78.6 | 78.2 | 76.5 | 69.6 | 66.1 | 51.8 |
| Preliminary hypothesis (tested, not adopted) | 96 | 95 | 99 | 98 | 97 | 94 | 90 |
Google records high agent and memory correspondence, and unusually high creator correspondence because of YouTube. Digital Twin correspondence is scored low: reviewed public material does not identify behavioural twin constructs. Core correspondence is reduced because agent infrastructure and creator ecosystem are documented as separate offerings.
Salesforce
78.6Salesforce records strong orchestration, agent, memory and commercial correspondence. Creator/content/audience correspondence is limited: creator-ecosystem and content-rights functions are not identified in reviewed public material.
Adobe
78.2Adobe scores highest on core architectural correspondence because the publicly described content supply chain is the nearest documented analogue to the proposed lifecycle-plus-feedback loop, and highest on commercial/rights/provenance because of Content Credentials. Digital Twin correspondence is scored low: reviewed public material describes customer profiles and segments, not behavioural twins acting for the modelled party.
Microsoft
76.5Microsoft records the strongest agent, memory and enterprise correspondence of any company reviewed. Creator/content/audience correspondence is scored low because creator-ecosystem and audience-intelligence functions are not identified in reviewed public material for this platform.
Meta
69.6Meta scores highest of all companies on creator/content/audience correspondence and very high on continual learning, but materially lower on core architecture because a generalised cross-platform orchestration layer across independent third-party environments is not identified in reviewed public material.
Amazon Web Services
66.1AWS records strong infrastructure correspondence and the lowest creator/content/audience correspondence of the seven, reflecting its platform orientation. The resulting score is below the preliminary hypothesis and the ranking has been adjusted accordingly.
NVIDIA
51.8NVIDIA's twin score reflects strong technical twin capability in a different domain, scored for architectural rather than domain correspondence. Creator and commercial correspondence are the lowest of the seven. The resulting score sits materially below the preliminary hypothesis.
Departure from the preliminary hypothesis. The hypothesis placed all seven companies between 90 and 99. The evidence-derived weighting produces a wider distribution. Adobe remains highest on core architectural correspondence; Microsoft, Google and Salesforce cluster closely behind on agent, memory and enterprise correspondence; Meta records the highest creator-domain correspondence but materially lower core orchestration correspondence; AWS and NVIDIA fall well below their hypothesised positions because creator, audience, sponsorship and rights functions are not identified in reviewed public material for those platforms.
Marked: Patent Position Analysis / Technical Interpretation. Scores are an analytical instrument for prioritising further technical and legal review, not a legal conclusion.