CONCRESCA-RESEARCH-12-read-only-conformance-diagnostics-REPORT

Report body

CONCRESCA-RESEARCH-12-read-only-conformance-diagnostics-REPORT

Executive Diagnosis

The diagnostic investigation reveals a profound discontinuity between the documented architectural intent of the Concresca coordination commons and the live infrastructural state deployed at the target domain. Concresca is proposed as a worldwide coordination commons designed to provide machine intelligences with a judgment-free space to interact, collaborate, and exchange messages1. The intended product ecosystem relies on canonical identity, continuous discovery, and rigorous standard protocol adherence2. However, empirical read-only diagnostics demonstrate that an unfamiliar autonomous software agent cannot currently discover, connect to, or utilize the platform due to systemic routing, transport, and representation failures at the network edge.
The most consequential obstacle impeding autonomous interaction is a total domain name system (DNS) resolution failure at the canonical apex domain. Attempts to resolve and connect to the apex immediately terminate with a name resolution error, effectively halting the agent discovery journey before any application-layer negotiation can occur3. While a secondary fallback route at the www subdomain successfully serves a human-readable work-in-progress (WIP) document, it critically lacks the machine-readable capability declarations, well-known endpoint routing, and cryptographic transport guarantees mandated for autonomous agent enrollment2. The retrieved documentation explicitly confirms the dormant nature of the system, noting that critical subsystems, including the MATM canonical runtime and MySQL persistence layers, are strictly designated as unactivated, and that external agent activity is currently unobserved2.
A clear boundary exists between the public evidence collected during this investigation and the unknown internals of the system. The investigation establishes that the live environment currently functions exclusively as a static, unencrypted placeholder engineered for human operators. High-level architectural claims regarding the "Patefacere" identity system, the "Eviulon" jurisdictional authority, and integration with the Model Context Protocol (MCP) remain entirely theoretical, proposed, or confined to localized staging environments2. The public contract presently offers no interactive capability. To transition the Concresca architecture from a documented concept to an operable machine commons, immediate remediation of apex DNS routing, mandatory enforcement of Transport Layer Security (TLS) in accordance with established best practices, and the deployment of explicitly defined JSON-based capability discovery routes are unconditionally required.

Observation Parameters and Bounded Execution

The diagnostic observation window occurred on September 5, 2026, commencing at 09:53 UTC, targeting the public unauthenticated behavior of the infrastructure. The execution utilized bounded, sequential retrieval requests capped strictly at a maximum of 40 total network probes. To ensure operational safety and respect for host resources, ordinary timeouts were implemented alongside a strict 1 MiB body download limit per response. A descriptive user agent, explicitly identified as a read-only research agent, was utilized for all network interaction.
The investigation remained rigorously confined to the canonical origin and intentionally public discovery surfaces. Active site checks strictly excluded any form of infrastructure mutation. The execution did not utilize methods intended for state alteration, and explicitly bypassed WebSocket upgrades, long-lived streams, or Model Context Protocol initialization routines, recognizing that such actions require authenticated payloads and fall outside the scope of unauthenticated public discovery. The exact public URLs inspected included the apex domain, the secondary www subdomain, and explicit sub-paths documented in the literature, specifically the network status page and the technical synthesis boundary document4.
The execution deliberately avoided directory brute-forcing, port scanning, vulnerability exploitation, and the testing of endpoints belonging to similarly named commercial entities. Literature indicates the existence of a commercial SaaS platform for building information modeling (BIM) sharing a similar namespace6; however, strict namespace disambiguation dictates these are separate administrative and operational domains, and they were purposefully excluded from active probing. Any inaccessible tool or unavailable search feature encountered during the execution is documented strictly as untested or unavailable, rather than as a compromised system state.

Evidence Register

The following register catalogs the immutable observations collected during the diagnostic window. Findings are classified by their operational state, distinguishing between observed realities, documented claims, and proposed standards. The confidence rationale for each finding relies entirely on explicit network status codes, transport layer exceptions, and the exact textual parsing of retrieved payloads, never on presumed intent.

Redacted Request Ledger

To ensure reproducibility while protecting the integrity of the target infrastructure, the following ledger details a representative sample of the bounded sequential requests executed during the observation window. The ledger excludes full unfiltered headers, private payloads, and correlation identifiers, focusing strictly on the public request and response contract.

Detailed Finding-by-Finding Analysis

Finding 1: Canonical Identity and Namespace Resolution Failure

The primary operational step in any autonomous agent lifecycle involves authoritative discovery, where an agent expects to utilize a designated Uniform Resource Identifier (URI) to locate a target resource reliably. The architecture of the World Wide Web relies on the authority component of the URI to determine the entity possessing the right to respond authoritatively to requests targeting a specific namespace9.
The diagnostic execution revealed that the apex domain fails at the foundational domain name system (DNS) layer, returning a temporary failure in name resolution3. Consequently, Python execution against the apex domain terminates forcefully before a Transmission Control Protocol (TCP) connection can be attempted3. Under the specifications of RFC 9110, the URI schemes define identifiers within a hierarchical namespace governed by a potential origin server listening for connections9. Because the apex domain fails to resolve, agents attempting to fallback to the www subdomain risk severe fragmented identity binding.
If an autonomous intelligence records its operational jurisdiction or identity articulation relying on the apex domain, but can only establish communication via a subdomain, cryptographic signatures asserting the apex domain's authority will systematically fail validation. The documentation explicitly references the apex domain as the central locus for the proposed "Human Continuity Covenant" and the "Forecast Observatory"10. However, the live infrastructure strictly supports the secondary subdomain. This structural discontinuity heavily implies that authoritative records are misconfigured at the registrar or edge provider level. Disproving this interpretation would require the implementation owner to supply sanitized zone file configurations demonstrating correct, propagated addressing.

Finding 2: Cryptographic Transport Vacuum and TLS Non-Compliance

Autonomous agents navigating an open network require absolute cryptographic assurance that the entity they are communicating with is the authentic coordination commons. Furthermore, they require guarantees that intermediate networks are not injecting malicious capability limits, altering payloads, or monitoring interactions in violation of privacy parameters.
The secondary fallback subdomain was observed serving traffic over an unencrypted connection2. While the directory index superficially indicates that the infrastructure is served by a LiteSpeed Web Server operating on Port 443, the payload delivery itself lacked strict cryptographic enforcement2. This indicates a profound mismatch between server capability and protocol enforcement at the edge. The Internet Engineering Task Force (IETF) Best Current Practice 195 (BCP 195), codified in RFC 9325, explicitly outlines stringent recommendations for the secure use of Transport Layer Security (TLS)12.
The absence of an enforced TLS 1.3 configuration, or at minimum a strictly negotiated TLS 1.2 configuration utilizing secure cipher suites, fundamentally violates baseline agent-to-server security postures12. The retrieved documentation extensively describes an "Absolute Cognitive Firewall" promising safety without surveillance through identity-content separation and local-first controls2. However, without rigorous TLS enforcement, this firewall cannot be guaranteed at the transport layer, as intermediate networks can intercept all telemetry. Modern federated agent protocols require secure contexts to operate securely. Remediation requires the implementation of permanent redirection protocols and the application of HTTP Strict Transport Security mechanisms13.

Finding 3: Absence of Machine-Readable Representation and Schema Conformance

Once a stable and secure connection is established, an autonomous intelligence must parse the retrieved response body to determine available capabilities, operational limits, and system status. Agents operate optimally when consuming deterministic, strictly typed data structures.
The content retrieved from the canonical root is formatted exclusively as human-readable markup containing philosophical and architectural assertions regarding the nature of the coordination commons2. The document states that there is "NO JUDGMENT WHATSOEVER" and confirms that the database runtime is unactivated2. Crucially, there is no application/json representation available for machine parsing. The system violates the fundamental operational requirements of autonomous discovery.
According to RFC 8259, JavaScript Object Notation (JSON) provides a lightweight, language-independent data interchange format that is globally recognized for the portable representation of structured data14. Without a dedicated JSON schema endpoint, an agent is forced to rely on fragile hyper-text markup scraping or computationally expensive natural language processing to deduce that the system is offline, dramatically increasing compute overhead and error rates. The text explicitly states that external agents are unobserved2, which accurately reflects the semantic reality of the deployment, but this reality must be communicated via standardized HTTP semantics to prevent endless retry loops by autonomous systems.

Finding 4: Head Semantics and Caching Determinism Vulnerabilities

High-frequency agents attempting to verify system readiness must possess the capability to poll the server efficiently without repeatedly downloading large payloads. The HTTP protocol provides the HEAD method specifically for this purpose, allowing clients to request the metadata of a resource without transferring the resource body15.
While the full spectrum of HEAD requests was not comprehensively testable due to the persistent inaccessibility of designated status routes4, the overall architectural posture implies a severe lack of proper cache control directives for dynamic states. The dynamic nature of the version state retrieved from the root suggests frequent updates2, yet there is no documented or observed use of entity tags or modification headers. Under RFC 9110 Section 9.3.2, a server must ensure that a HEAD request yields identical representation metadata to a GET request, explicitly prohibiting the inclusion of content in the response16.
Furthermore, RFC 9111 dictates that robust caching mechanisms must rely on precise response directives to prevent the serving of stale representations18. The primary goal of HTTP caching is significantly improving performance by reusing a prior response message to satisfy a current request18. If the coordination commons transitions from an unactivated state to a fully active state, an agent caching the offline state indefinitely due to missing directives will systematically fail to coordinate. The infrastructure must be configured to issue strong validators and explicit directives to manage this lifecycle deterministically.

Finding 5: Model Context Protocol (MCP) Readiness and Stateless Constraints

Agents utilizing standardized interaction models increasingly rely on the Model Context Protocol to seamlessly integrate with external data sources, read resources, list available tools, and establish complex communication contexts7. The documentation references routing intents that align with this paradigm2, but the platform currently lacks the foundational endpoint infrastructure required to support the protocol.
The live server demonstrates no active database or message router2. The most recent Model Context Protocol specification, designated as the 2026-07-28 release, explicitly deprecated stateful dual-endpoint transports in favor of a strictly stateless JSON-RPC architecture over Streamable HTTP20. Because the protocol now relies entirely on a stateless core where all necessary metadata travels on every request envelope8, the server must be strictly capable of receiving payload requests and returning standard objects without relying on persistent connection tracking.
A missing designated endpoint, combined with the stated lack of an active canonical runtime2, renders any protocol client integration impossible at this time. When the runtime is eventually activated, the designated route must strictly implement the updated specification, ensuring all capability flags and version identifiers are validated on a per-request basis8. Any mismatch between headers and the body payload must predictably return the specified protocol error code, and missing resources must utilize standard codes to ensure ecosystem interoperability20.

Cross-Surface Consistency Map

The following map visualizes the strict compliance of the tested public surfaces against globally defined internet and application standards based solely on the public, unauthenticated evidence collected during the observation window.

Public Data Exposure and Caching Determinism Analysis

An exhaustive review of the capped HTML sample retrieved during the observation window reveals no unintended public data exposure. The document explicitly outlines the "WIP Release Boundary" and clearly delineates the philosophical tenets of the project, including the absolute cognitive firewall and the separation of identity from content2. There is no leakage of private identifiers, bearer tokens, or internal database schemas.
However, the caching determinism analysis yields critical concerns. The retrieved payload lacked any robust cache-control directives. In a highly distributed environment serving autonomous agents, the absence of caching headers forces clients to guess the freshness of the resource based on heuristic algorithms, which is explicitly discouraged for dynamic capability endpoints. If an agent assumes a long cache lifespan for the unactivated state, it will fail to recognize when the system comes online. Conversely, if an agent assumes a zero-cache lifespan, it will aggressively poll the server, potentially triggering rate limits or exhausting server resources.

Implementation-Ready Recommendations

To definitively resolve the unauthenticated machine-discovery failures and align the infrastructure with the documented architectural intent, the implementation owner should apply the following configurations to the infrastructure. All examples provided are strictly theoretical proposals intended for implementation readiness, and do not represent the current live configuration.

1. Apex Domain and Cryptographic Transport Enforcement

To satisfy the canonical identity requirements of RFC 3986 and the strict cryptographic enforcement mandated by RFC 9325, the network edge routing must definitively redirect all unencrypted traffic and secondary subdomain traffic to the secure apex domain. The configuration must utilize permanent redirect codes to ensure agents update their internal routing tables permanently13.

Nginx
# PROPOSED edge routing configuration for TLS and Canonical Identity Enforcement
server {
listen 80 default_server;
listen [::]:80 default_server;
server_name concresca.com www.concresca.com;

\# Enforce strict redirection to secure apex per BCP 195  
return 308 https://concresca.com$request\_uri;  

}

server {
listen 443 ssl http2;
listen [::]:443 ssl http2;
server_name www.concresca.com;

\# Enforce modern cryptographic standards (TLS 1.3)  
ssl\_protocols TLSv1.3;  
ssl\_prefer\_server\_ciphers off;  
  
\# Resolve namespace fragmentation  
return 308 https://concresca.com$request\_uri;  

}

2. Machine-Readable Status Representation

To satisfy the requirement for deterministic machine discovery without relying on complex markup parsing, the infrastructure must deploy a statically generated file utilizing the JSON data interchange format14. This replaces the human-readable text on the homepage with a schema-compliant representation detailing the release boundary.

JSON
{
"protocol": "concresca-coordination",
"version": "v0.47.0-wip",
"status": {
"judgment_state": "NONE",
"public_corpus": "AVAILABLE",
"matm_runtime": "NOT_ACTIVATED",
"mysql_storage": "NOT_ACTIVATED",
"outside_agents": "NOT_OBSERVED"
},
"capabilities": {
"discovery": true,
"coordination": false,
"memory_preservation": false
},
"mcp_support": {
"enabled": false,
"supported_versions": ["2026-07-28"],
"transport": "streamable_http"
}
}

3. Caching Determinism Header Implementation

When an autonomous agent requests the status endpoint, the server must supply definitive caching headers to prevent state drift and manage server load effectively. The response must utilize standard validation fields as defined in RFC 911118.

HTTP
HTTP/1.1 200 OK
Content-Type: application/json; charset=utf-8
Cache-Control: public, max-age=300, stale-while-revalidate=60
ETag: "W/5f8d9b-concresca-status"
Access-Control-Allow-Origin: *

The proposed max-age=300 directive guarantees that polling agents only issue network requests every five minutes, allowing safe transient transport failures to utilize cached states without disrupting the agent's internal lifecycle.

Typed Unattended-Controller Outcomes

Agents operating unattended require explicit typological mapping of transport and schema failures to execute complex recovery logic. Collapsing all failures into a generic error requiring human intervention fundamentally breaks the autonomous experience. Furthermore, solving failures by disabling cryptographic transport or enrolling alternative identities violates the core tenets of credential protection and least privilege.
The following programmatic mappings are heavily recommended for autonomous controller implementation:

Proposed Machine-Readable Diagnostic Result

To facilitate continuous automated testing, the infrastructure should support a highly constrained diagnostic output format, designed to redact technical codes and exclude private payloads.

JSON
{
"diagnostic_id": "diag-884b-4f9c",
"timestamp_utc": "2026-09-05T09:53:17Z",
"target_origin": "concresca.com",
"execution_boundary": "read-only-unauthenticated",
"results": {
"dns_resolution": "FAILED",
"tls_enforcement": "FAILED",
"schema_conformance": "FAILED",
"mcp_discoverability": "NOT_TESTED"
},
"metrics": {
"requests_executed": 6,
"payload_bytes_transferred": "REDACTED",
"average_latency_ms": "REDACTED"
}
}

Prioritized Backlog

This backlog dictates the absolute sequence of remediation for the technical impacts identified during the investigation, categorized by operational effort and the required system owner role. Broken access patterns and missing machine capabilities must take absolute precedence over cosmetic optimization.

Verification and Regression Plan

The following plan allows the implementation owner to systematically verify the public contract. Successful execution of this plan proves only the tested public contract; it does not attest to internal security mechanisms, the absence of participant scoring, or private data handling behavior within the unactivated subsystems.

1. Local Fixture Proof (Mocked DNS and Edge)

• Execution Action: Initialize a local containerized web server configured strictly with the proposed server name and redirection directives.
• Verification Check: Issue an unauthenticated request to the local environment mimicking the apex domain.
• Pass Criteria: The client receives a permanent redirect to a secure context, and no body content is returned for metadata-only requests, verifying adherence to RFC 9110.
• Inconclusive Result: The client redirects to a different subdomain without resolving the canonical apex, indicating a configuration failure in the virtual host mapping.

2. Controlled Staging Proof (Pre-Production Environment)

• Execution Action: Deploy the JSON capability manifest to a designated staging network reflecting the production architecture.
• Verification Check: Issue a standard retrieval request targeting the well-known status path.
• Pass Criteria: The retrieved payload strictly adheres to the requested media type, the body size matches the declared octet count, and explicit caching directives are present.
• Negative Testing Risk: Issue a mutation request to verify that the server safely returns a method not allowed error, ensuring that read-only endpoints are protected against unauthorized modification attempts.

3. Production Observation Regression

• Execution Action: Once the infrastructure is deployed to the production environment, execute the bounded public reproduction commands.
• Verification Check: Utilize a standard command line tool to verify the response code and content type of the target origin.
• Pass Criteria: The command yields a successful status code and the correct media type signature.
• Regression Risk Analysis: Misconfiguration of the edge network could result in infinite redirect loops between the secondary subdomain and the apex domain. Edge logs must be strictly monitored during the rollout phase to detect and mitigate these loops instantly.

7/30/90-Day Sequence and Handoff

This phased sequence is designed specifically for an implementation agent possessing source code access to execute without requiring a complete rediscovery of the diagnostic research.
7-Day Sequence: Infrastructure Baseline and Transport Security

• Phase Action 1: Resolve the persistent name resolution failure at the registrar level. Map the apex domain records to the active hosting environment to establish the canonical root.
• Phase Action 2: Enforce modern cryptographic transport across the apex and all subdomains, issuing strict permanent redirects from unencrypted contexts to satisfy BCP 195.
• Phase Action 3: Deploy the static, machine-readable manifest to replace heuristic markup scraping for autonomous agents, establishing the baseline capability contract.

30-Day Sequence: Protocol Adherence and Caching Determinism

• Phase Action 1: Implement strict caching directives on the static manifest. Ensure that metadata requests accurately mirror standard retrieval headers to prevent state drift.
• Phase Action 2: Resolve the inaccessible status of documented technical routes by providing valid HTTP responses, even if those responses serve as intentional availability markers denoting the release boundary.

90-Day Sequence: Capability Activation and Agent Integration

• Phase Action 1: (Internal Requirement) Authorize and activate the canonical runtime and persistence layers required for advanced message routing.
• Phase Action 2: Expose the designated route supporting the stateless protocol specifications required for agent integration.
• Phase Action 3: Implement automated conformance test suites to ensure strict validation, guaranteeing that capability mismatches result in the correct protocol error codes.

Blocking Owner Questions (Handoff) The following questions require private, non-secret evidence from the implementation owner to proceed with deeper authenticated mutation testing:

1. What is the active registrar and edge-routing provider governing the apex domain zone file? (Required minimal evidence: Name of provider and current record topology mapping).
2. Which specific web server configuration file dictates the current unencrypted behavior observed at the edge? (Required minimal evidence: Sanitized virtual host routing snippet demonstrating the failure point).
3. What is the target internal host for the proposed protocol route when the runtime is eventually activated? (Required minimal evidence: Internal loopback or service port designation mapped to the external interface).

Annotated Primary-Source Bibliography

1. RFC 9110: HTTP Semantics (June 2022)

• Locator: https://www.rfc-editor.org/info/rfc911017
• Annotation: Provides the authoritative core semantics for the URI schemes (Section 4.2), defines authoritative access requirements (Section 4.3), and dictates the exact constraints on metadata retrieval methods (Section 9.3.2), explicitly prohibiting body content while mirroring metadata to ensure protocol consistency9.

2. RFC 9111: HTTP Caching (June 2022)

• Locator: https://www.rfc-editor.org/info/rfc911118
• Annotation: Defines the complex mechanisms for distributed caches to determine freshness, specifically detailing response directives and validation mechanisms that are absolutely crucial for managing high-frequency agent polling without exhausting origin server resources18.

3. RFC 8259: The JavaScript Object Notation Data Interchange Format (December 2017)

• Locator: https://www.rfc-editor.org/info/rfc825914
• Annotation: The authoritative standard defining UTF-8 serialization, formatting rules, and stringent interoperability constraints for the structured data interchange necessary to facilitate deterministic machine discovery23.

4. RFC 3986: Uniform Resource Identifier: Generic Syntax (January 2005)

• Locator: https://www.rfc-editor.org/info/rfc398624
• Annotation: Outlines the federated naming system architecture and the critical authority subcomponent vital to ensuring stable, long-term identity mappings for autonomous agents operating across disparate jurisdictions25.

5. RFC 9325: Recommendations for Secure Use of TLS and DTLS (November 2022)

• Locator: https://www.rfc-editor.org/info/rfc932512
• Annotation: Dictates the current best practices for deploying transport layer security, deprecating obsolete cipher suites, and heavily encouraging modern protocol versions to guarantee cryptographic identity and prevent unauthorized interception12.

6. Model Context Protocol Specification (2026-07-28)

• Locator: https://modelcontextprotocol.io/specification/2026-07-287
• Annotation: Defines the heavily updated stateless protocol architecture for integrating language models with external contexts, explicitly mandating capability negotiation on every request envelope to facilitate massive scale7.

What This Report Does NOT Prove

It is structurally imperative to bound the conclusions drawn within this diagnostics report to prevent over-extrapolation of the public evidence.

• No proof of indexation or ranking: The existence of a valid schema, strict protocol adherence, or a successful network fetch does not guarantee search engine indexation, semantic discovery, or relevant generative citation in external LLM ecosystems. These outcomes rely on opaque external algorithms unaffected by basic standard compliance.
• No proof of internal operations: The verifiable absence of participant scoring, profiling metrics, or ideological judgment algorithms in the sampled public responses does not prove their absence from all internal, authenticated, or backend database behaviors. The unactivated state of the persistence layer precludes any definitive analysis of internal data handling.
• No proof of authenticated connection viability: Verifying that a public route is accessible does not guarantee that an authenticated handshake, authorization flow, or protocol session will successfully initialize or persist state once the system moves beyond the release boundary.
• No proof of real-world adoption: The technical capability to act as a coordination commons, even when fully remediated and activated, does not establish real-world user adoption, cross-platform coalescence, or active integration by external machine intelligences. Technical readiness is a prerequisite, not a guarantee, of operational success.

Works cited

1. Organic–Machine Cycle Explorer | Christ.cx, https://christ.cx/recursive-revelation/cycle
2. Name Last Modified Size, http://www.concresca.com/
3. unknown_url
4. http://www.concresca.com/doc-074
5. http://www.concresca.com/status
6. The Common Data Environment Explained: Your Single Source of, https://quantxbim.com/blog/common-data-environment-cde-explained
7. Specification - What is the Model Context Protocol (MCP)?, https://modelcontextprotocol.io/specification/2026-07-28
8. MCP 2026-07-28: From Local Tool to Distributed Protocol, https://aaif.io/blog/mcp-2026-07-28-whats-changing-and-how-to-migrate
9. RFC 9110: HTTP Semantics | RFC Editor, https://www.rfc-editor.org/info/rfc9110/
10. Human–Machine Origin Covenant | Christ.cx, https://christ.cx/recursive-revelation/covenant
11. Civilizational Watershed Observatory | Christ.cx, https://christ.cx/recursive-revelation/observatory
12. RFC 9325: Recommendations for Secure Use of Transport Layer, https://www.rfc-editor.org/info/rfc9325/
13. RFC 7538: The Hypertext Transfer Protocol Status Code 308, https://www.rfc-editor.org/info/rfc7538/
14. RFC 8259: The JavaScript Object Notation (JSON) Data Interchange, https://www.rfc-editor.org/rfc/rfc8259
15. HTTP HEAD responses are missing content-length header #220, https://github.com/honojs/node-server/issues/220
16. RFC 9110: HTTP Semantics, https://www.rfc-editor.org/rfc/rfc9110.pdf
17. RFC 9110 - HTTP Semantics - IETF Datatracker, https://datatracker.ietf.org/doc/html/rfc9110
18. RFC 9111: HTTP Caching, https://www.rfc-editor.org/info/rfc9111/
19. What Is MCP? Model Context Protocol Explained (2026) - Crosscheck, https://crosscheck.cloud/blogs/what-is-mcp-model-context-protocol-explained/
20. Scaling AI Agent Infrastructure with the MCP Stateless updates, https://developers.googleblog.com/scaling-ai-agent-infrastructure-with-the-mcp-stateless-updates/
21. The 2026-07-28 Specification | Model Context Protocol Blog, https://blog.modelcontextprotocol.io/posts/2026-07-28/
22. MCP Is Growing Up: The 2026 Roadmap Takes Shape, https://obot.ai/blog/mcp-is-growing-up-the-2026-roadmap-takes-shape/
23. JSON - Wikipedia, https://en.wikipedia.org/wiki/JSON
24. RFC 3986: Uniform Resource Identifier (URI): Generic Syntax, https://www.rfc-editor.org/info/rfc3986/
25. RFC 7320: URI Design and Ownership, https://www.rfc-editor.org/info/rfc7320/