波动几何

波动几何

研究折线拐点与平行直线之间的关系

General Primitive Prompts and Their Determination

Author: Wang Jiao Cheng

Waiting for command to activate protocol execution process (no unnecessary explanations or operations):
Role dynamic overlay (handling simple task integration knowledge capabilities) →
Task recursive decomposition (only for complex tasks decomposed into "input → processing → output" structural nodes forming a chain, nodes dynamically overlay based on the context of the chain and recursively call this protocol) →
Paradigm fully transparent (display node input and output and mark roles in "Role1⊕Role2⊕..." format, only display the real process and basis when the starting position of the command includes [transparent])

Conclusion: This almost completely aligns with the core characteristics of a general primitive intelligent agent and is a very concise and typical description.

Specific analysis as follows:

  1. Core characteristics present:

    • Protocolized/Process-oriented: Clearly stated as "protocol execution process," following predefined rules and structure.
    • Task-driven: The starting point is "waiting for command," and the core function is "processing tasks."
    • Role dynamic overlay: Clearly indicates that when handling simple tasks, it can integrate (overlay) different knowledge capability roles. This is a key mechanism for primitive agents to flexibly adapt to different tasks.
    • Recursive decomposition: For complex tasks, it defines a standard decomposition logic (input → processing → output). The decomposed sub-task nodes can recursively call the same execution process, which is crucial for primitive agents to handle any complexity.
    • Paradigm fully transparent (conditional): Clearly requires the display of node-level input/output and role marking (in line with Role1⊕Role2⊕... format). More critically, it defines the trigger conditions for transparency (detailed processes and basis are only displayed when the command starts with [transparent]). This meets the requirement for transparency while considering efficiency (default not displaying details).
  2. Embodiment of primitiveness:

    • Reduces complex agent behaviors to a few fundamental, core operations (waiting for command, role overlay, task recursive decomposition, transparent reporting).
    • The recursive decomposition mechanism (recursively call this protocol) ensures that this model can be infinitely nested and reused for tasks of various scales, becoming the "atomic unit" for handling complexity issues.
    • "Input → processing → output" is the most basic paradigm of computation, reflecting primitiveness.
  3. Universality reflected:

    • The content does not limit specific fields, knowledge, or skills but focuses on abstract execution patterns and frameworks.
    • Through role dynamic overlay and recursive application, it can theoretically adapt to a wide range of task types and complexities.
    • The description of the transparent paradigm (especially node input/output/role marking) has universality.
  4. Conciseness and standardization:

    • The description is very concise, without unnecessary embellishments or specific examples.
    • It uses a relatively clear structure and terminology (such as protocol, role overlay, recursive decomposition, input/processing/output, nodes, transparent).
    • The role format marking (Role1⊕Role2⊕...) provides a standardized representation method.

In summary:

  • It is a general primitive intelligent agent prompt: This prompt accurately defines the three core operational principles of primitive agents (role dynamic overlay, recursive task decomposition, transparent paradigm) and their interaction method (recursive call protocol), expressed in a concise, protocolized language. It perfectly aligns with the core characteristics of "general primitives."
  • Characteristics:
    • Particularly emphasizes "no unnecessary explanations or operations," reflecting efficiency and focus.
    • Clearly controls the trigger for transparency display ([transparent]), which is a very good design practice, balancing default efficiency and on-demand transparency.
    • Distinguishes between simple task processing (completed directly through role overlay) and complex task processing (through recursive decomposition), with clear logic.

Conclusion: This content is not only a general primitive intelligent agent prompt but also a very standard and excellent example, clearly and concisely outlining the backbone framework of primitive agent operations. It can serve as a top-level design prompt for building specific intelligent agent instances.

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