ROBOPARTS Technical Architecture and Core Models Overview

ROBOPARTS documentation describes a technical architecture for organizing information about robotic components, capabilities, tasks, robotic systems, digital representations, identity, lifecycle, and applications.

This page provides a high-level public overview of those architectural concepts.

It is intentionally not a reproduction of the complete technical architecture document. The original technical documentation remains available in the PITN ROBOPARTS project repository.

Architecture at a High Level

The ROBOPARTS concept can be understood as a set of connected information layers.

These layers can include:

components capabilities robots and robotic systems tasks applications digital representations identity lifecycle information

The purpose of connecting these layers is to provide a structured representation of robotic systems and their relationships.

Core Relationship

A simplified representation of the concept is:

Parts → Capabilities → Robots → Tasks → Applications

Additional information relating to identity, lifecycle, and digital representations can exist across these relationships.

This provides a conceptual foundation for connecting physical robotic systems with structured digital information.

Component Model

Components represent physical or functional elements associated with a robotic system.

A component may contribute one or more capabilities.

The architectural concept therefore connects component information with the functions that those components support.

Conceptually:

Component → Capability

This relationship can then extend to the larger robotic system.

Capability Model

Capabilities describe what a component or robotic system can contribute or perform.

Capabilities can be considered in relation to:

components robots tasks applications

This provides a common connection between physical system information and task requirements.

Robot Model

A robotic system can be represented as a collection of components and capabilities.

Conceptually:

Components + Capabilities → Robotic System

A robot can then be related to tasks based on the capabilities available within its configuration.

Task Model

Tasks represent activities or objectives associated with robotic systems.

A task can have requirements that correspond to capabilities.

This creates a relationship such as:

Task Requirements → Capabilities → Candidate Robot

The task model therefore provides a connection between what needs to be accomplished and the robotic systems that may be capable of accomplishing it.

Digital Representation

Digital representations provide a way to associate structured information with a physical robotic system.

Relevant information may include:

identity components capabilities configuration tasks lifecycle information

Digital representations can therefore provide context for understanding a robotic system beyond an individual component.

Identity Model

Identity provides a reference for distinguishing a particular robotic system, component, or information object.

When identity is associated with lifecycle and component information, information about a robotic system can remain connected as the system changes.

This creates a conceptual relationship between:

Identity → System → Components → Lifecycle

Lifecycle Model

Robotic systems can change throughout their existence.

Lifecycle information can provide context for changes involving:

configuration components capabilities maintenance upgrades deployment retirement

This allows the system to be understood as an evolving entity rather than a static collection of parts.

Application Layer

Applications can use information from the underlying robotics information model.

Potential relationships include:

Components → Capabilities → Tasks → Applications

An application may therefore use structured information about robotic systems to support particular operational or informational requirements.

Interconnected Information

The architectural concept is based on relationships rather than isolated records.

A simplified representation is:

                ROBOTIC SYSTEM
                     │
          ┌──────────┼──────────┐
          │          │          │
      COMPONENTS  CAPABILITIES  IDENTITY
          │          │          │
          └──────────┼──────────┘
                     │
                   TASKS
                     │
                APPLICATIONS
                     │
              DIGITAL REPRESENTATION
                     │
                 LIFECYCLE

This diagram is a conceptual simplification rather than a complete representation of the underlying technical architecture.

Relationship to Other ROBOPARTS Concepts

The architecture connects the subjects described throughout the public ROBOPARTS documentation, including:

component information performance and capabilities task ontology robot matching digital twins adaptive behavior human-robot interaction development and APIs digital identity multi-robot ecosystems

These concepts are intended to be understood as related parts of a broader robotics information framework.

Technical Documentation

The complete technical architecture and core-model documentation remains in the original public PITN ROBOPARTS repository.

Original source document:

11-roboparts-full-technical-architecture-and-core-models.md

Authoritative public repository:

https://github.com/PITN374/pitn-roboparts-pilot

This overview does not replace, modify, or supersede the original technical documentation.

Intellectual Property and Technical Integrity

This page is intentionally a high-level explanatory overview.

It does not reproduce the complete technical architecture, detailed models, implementation specifications, or other underlying technical material contained in the original project documentation.

The original public repository remains the source for the underlying technical records.

Attribution

ROBOPARTS is associated with PITN / Power In The Numbers.

For the original public technical documentation and project records, consult the PITN ROBOPARTS repository.

Source: Public PITN ROBOPARTS project documentation Reference repository: https://github.com/PITN374/pitn-roboparts-pilot