Conceptual Architecture — Schematic Model

Architecture

A schematic description of the three-layer conceptual model proposed by xClawFlex. This is not an implementation specification. It defines a possible structural approach for further investigation.

⚠ NOT A PRODUCTION ARCHITECTURE
Layer Definitions
L3Enterprise Layer

Enterprise Systems

Components

ERP (SAP, Oracle, Microsoft Dynamics)
Supply Chain Management platforms
Finance and accounting modules
Inventory management systems

Role

Manages organizational data, business rules, and transaction records. This layer is not modified by xClawFlex — it is queried and notified through defined interfaces.

Interface

Inbound API calls or event subscriptions from the Support Layer.

L2Support Layer — xClawFlex

xClawFlex Support Layer

Components

Context Mapping Engine
Decision Validation Checkpoint
Traceability Record Manager
Integration Interface (API / Event)

Role

The conceptual middleware under investigation. Receives physical events, applies mapping and validation logic, and communicates with the enterprise layer. Logic is externalized here.

Interface

Receives events from Physical Layer. Calls Enterprise Layer. Returns instructions to Physical Layer.

L1Physical Layer

Robotic / Physical Systems

Components

OpenClaw manipulation hardware
Robotic control software
Sensor and actuator interfaces
Physical event emitters

Role

Executes physical actions in the real world. Generates physical events that are passed to the Support Layer for contextual processing.

Interface

Publishes physical events upward. Receives validation signals or instructions from the Support Layer.

Conceptual Data Flow

A proposed sequence of data exchanges between the three layers. This is a simplified representation and does not account for error states, timeouts, or partial failures.

F-01
Physical LayerSupport LayerPhysical event payload

Includes action type, object identifiers, location data, timestamp

F-02
Support LayerEnterprise LayerValidation request

Queries applicable business rules for the mapped enterprise transaction type

F-03
Enterprise LayerSupport LayerValidation response

Returns PROCEED / HOLD with optional reason code

F-04
Support LayerPhysical LayerExecution instruction

Passes the enterprise decision back to the robotic system

F-05
Support LayerEnterprise LayerTransaction notification

Posts the confirmed enterprise event upon physical completion

Design Constraints
C-01

Non-Invasive

The support layer must not require modifications to ERP core modules or robotic firmware.

C-02

Stateless Where Possible

Individual request processing should avoid reliance on internal state to improve predictability.

C-03

Vendor Neutral

No assumption of a specific ERP vendor or robotic hardware manufacturer.

C-04

Fail-Safe Orientation

Unclear or failed validation should default to a hold state, not an automatic proceed.

C-05

Auditable

All context mapping and validation decisions should produce a queryable trace.

C-06

Configurable

Mapping schemas and rule sets should be externally configurable without code changes.

Interface Sketches — Conceptual Only

Physical → Support Interface

// Inbound event structure (conceptual)

PhysicalEvent {

event_type: string // e.g. "PICK" | "PLACE" | "TRANSFER"

robot_id: string // physical actor identifier

object_id: string // object being manipulated

location: LocationRef // source and/or destination

timestamp: ISO8601 // event occurrence time

metadata: object // extensible additional context

}

Support → Enterprise Interface

// Outbound transaction request (conceptual)

EnterpriseRequest {

tx_type: string // mapped enterprise transaction type

source_ref: string // reference to originating physical event

payload: object // transaction-specific fields

request_id: string // for traceability correlation

}

EnterpriseResponse {

decision: "PROCEED" | "HOLD"

reason_code: string | null

}

Note: All interface definitions above are conceptual sketches for discussion purposes. Field names, types, and structures are subject to revision. No implementation of these interfaces currently exists.