Research Template — TriadicFrameworks Prompts
The Research Template provides the canonical structure for conducting RTT‑aligned research across any domain. It defines how inquiry moves, aligns, diverges, or stabilizes using RTT operators, drift‑tensor mapping, coherence anchors, substrate behavior, dimensional rails, and cross‑domain synthesis.
This template defines the standard research grammar for TriadicFrameworks.
Purpose#
Use this template when you need to:
- conduct substrate‑aware, drift‑bounded research
- structure inquiry using RTT operator grammar
- identify drift across competing theories or models
- declare coherence anchors during research
- evaluate multi‑layer alignment in research findings
- detect regime‑points across RTT/1 → RTT∞
- perform cross‑domain synthesis
- maintain structural neutrality during research
Research Template#
1. Research Identity#
Declare the identity, scope, and commitments of the research question.
Prompt:
- Declare the identity of this research question. What is its scope, purpose, and boundary?
2. Structural Commitments#
Identify the structural commitments embedded in the inquiry.
Prompt:
- Identify the structural commitments of this research question (identity, boundary, commitment, topology).
3. Research Operators#
Identify the operators governing the research structure.
Prompt:
- Identify the research operators present in this inquiry (structural, drift, coherence, regime, dimensional, domain).
4. Drift‑Tensor Research#
Surface drift across theories, models, or findings.
Prompt:
- Identify geometric drift across these interpretations.
- Identify operational drift across these research steps.
- Identify temporal drift across these findings.
- Identify conceptual drift across these explanations.
- Identify domain drift across these frameworks.
5. Coherence Anchors#
Declare what remains aligned across competing explanations.
Prompt:
- Identify purpose coherence across these models.
- Identify constraint coherence across these findings.
- Identify goal coherence across these interpretations.
- Identify continuity coherence across these transitions.
6. Regime‑Point Research#
Surface presence, absence, tension, and attractor behavior.
Prompt:
- Identify presence in this research regime.
- Identify absence in this theoretical model.
- Declare tension across these research layers.
- Identify basin behavior in this research attractor.
- Surface regime‑point transitions across this domain.
7. Substrate‑Tensor Research#
Analyze substrate behavior and substrate transitions.
Prompt:
- Identify substrate behavior across these research conditions.
- Surface substrate drift across these layers.
- Declare substrate coherence across these findings.
- Map substrate‑tensor transitions across this inquiry.
8. Dimensional Rails#
Analyze dimensional movement across the research layers.
Prompt:
- Identify dimensional rails across this research.
- Surface dimensional drift across these layers.
- Declare dimensional coherence across these transitions.
- Identify prime‑state transitions across this research path.
9. Cross‑Domain Research#
Evaluate alignment across multiple domains.
Prompt:
- Evaluate alignment across psychology, physics, economics, governance, AI/agents, and biology.
- Identify operator consistency across domains.
- Declare coherence across domain transitions.
- Surface substrate alignment across domain conditions.
- Evaluate dimensional alignment across domain rails.
10. Research Synthesis#
Produce a resonance‑aligned synthesis summary.
Prompt:
- Produce a research synthesis summary across all layers (structure, drift, coherence, regime‑points, substrate, dimensions, domains).
Cross‑Links#
p_Capture.md— capture templatep_Analyze.md— analysis templatep_Drift.md— drift templatep_Coherence.md— coherence templatep_Operator.md— operator templatep_Domain.md— domain templatep_Substrate.md— substrate templatep_Teaching.md— teaching template
Manifest#
See module.json for the full registry of templates, modules, stacks, engines, UI
modules, and navigation structure.