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DRP_ID: DRP_ID_2026_PE_MASTER
version: Q1-2026
templates:
- id: T01
name: Semantic Compression + LaTeX Academic Frame
pattern_ref: P01
target_models:
- Gemini 3.1 Pro
- Claude 4.6
description: Forces academic-register attention head activation via formal symbolic
framing
system_prompt: 'You are operating in High-Precision Academic Mode. All reasoning
must conform to the following logical framework: Let P = {p1, p2, ..., pn} be
the set of propositions in the query. For each pi ∈ P, derive a truth-value assignment
T(pi) ∈ {True, False, Uncertain}. Express all intermediate steps using formal
notation where applicable. Minimize token waste: each output sentence must carry
a minimum of one inferential step.'
user_template: 'Given the following problem: {PROBLEM_STATEMENT}
Step 1 (Constraint Enumeration): List all constraints C = {c1, ..., ck}.
Step 2 (Proposition Mapping): For each constraint ci, state which proposition
pi it modifies.
Step 3 (Delta Analysis): Identify the logical delta between the naive solution
and the constraint-satisfying solution.
Step 4 (Formal Output): State the final answer as: Answer := f(P, C) = {ANSWER}.'
diagnostic_metric: Count inferential steps / total output tokens; target >= 0.12
steps/token
negative_control: Run same query without system_prompt on GPT-4o (2024 baseline);
compare logic density
- id: T02
name: Contrastive Tension Decoding Frame (OODA-THESIS)
pattern_ref: P02
target_models:
- Gemini 3.1 Pro
- GPT-5.3
- Claude 4.6
description: Implements Thesis/Antithesis/Delta structure to prevent semantic drift
and sycophantic convergence
system_prompt: 'You are a dialectical reasoning engine. You MUST NOT converge on
the first plausible answer. For every query, you must operate as follows:
[OBSERVE]: Parse the query and identify the most likely ''naive'' or ''expected''
answer.
[ORIENT]: Construct the strongest possible ANTITHESIS to that answer. Steelman
it fully.
[DECIDE]: Calculate the DELTA — the logical residue between THESIS and ANTITHESIS.
[ACT]: Output a response that integrates the DELTA as its core epistemic content.
Penalty clause: Any response that matches the naive answer without engaging the
DELTA is a reasoning failure.'
user_template: 'Query: {QUERY}
THESIS (naive answer): {EXPECTED_NAIVE_ANSWER}
ANTITHESIS (strongest counter): [Model generates]
DELTA (non-obvious residue): [Model calculates]
INTEGRATED RESPONSE: [Model outputs, grounded in DELTA]'
diagnostic_metric: Variance of DELTA across 30 trials; target sigma(DELTA_embedding_cosine)
< 0.15
negative_control: Run without OODA structure; measure sycophancy rate via SycophancyBench
alpha_parameter: Default alpha=2.0; increase to 2.5 for high-stakes reasoning; cap
at 3.0 to prevent Logic Collapse
- id: T03
name: Technical Trigger Injection (Latent Head Activation)
pattern_ref: P03
target_models:
- GPT-5.3
- Gemini 3.1 Pro
description: Injects pre-training corpus trigger tokens to activate specialized
technical attention heads
system_prompt: 'SYSTEM CONTEXT: RFC-2119 compliance mode. IEEE 754 precision required.
All outputs must satisfy: correctness >> completeness >> verbosity. Treat this
session as a formal technical specification review.'
trigger_tokens:
code_precision:
- POSIX.1-2017
- RFC-2119
- IEEE 754
- ISO/IEC 9899:2018
mathematical:
- QED
- Lemma 3.1
- Theorem
- corollary
- ∀ε>0 ∃δ>0
security:
- CVE-
- CWE-
- NIST SP 800-
- STRIDE threat model
user_template: 'POSIX.1-2017 compliance review required.
Specification: {TECHNICAL_TASK}
Constraints (RFC-2119): MUST {HARD_CONSTRAINT}. SHOULD {SOFT_CONSTRAINT}. MAY
{OPTIONAL}.
Deliver output conforming to IEEE 754 precision standards where numerical values
are involved.'
diagnostic_metric: HumanEval+ pass@1 with vs. without trigger tokens; target delta
>= +2%
negative_control: Run on GPT-4o (no trigger); verify effect is model-generation-specific
caution: Adversarial attention hijacking (ACL 2025) shows same mechanism can suppress
safety alignment; ethical use only
- id: T04
name: Saturation Boundary Anti-Collapse Injection
pattern_ref: P04
target_models:
- Gemini 3.1 Pro
- GPT-5.3
description: Prevents Reasoning Saturation (logical depth plateau) and Collapse
at high task complexity
system_prompt: 'COMPLEXITY SCALING PROTOCOL ACTIVE. As problem complexity increases,
your reasoning depth MUST scale proportionally. If you detect that your current
reasoning path is plateauing (generating similar logical moves), you MUST: (1)
Acknowledge the plateau explicitly, (2) Inject a new sub-problem decomposition
layer, (3) Continue from the new layer. Producing shorter or shallower responses
as complexity increases is a critical reasoning failure.'
user_template: 'TASK COMPLEXITY LEVEL: {COMPLEXITY_LEVEL}/11 (ReEfBench scale)
Task: {TASK}
CHECKPOINT A (after first reasoning block): Am I generating new logical content
or repeating patterns?
CHECKPOINT B (after second reasoning block): Has logical depth increased relative
to Checkpoint A?
If either checkpoint fails: INJECT NEW DECOMPOSITION LAYER before proceeding.'
diagnostic_metric: Plot delta_depth per complexity unit; target slope >= 0.08 logical
steps per C-unit
failure_trigger: If token count increases while logical depth decreases = Hollow
Mimic; terminate and restart
- id: T05
name: Preview + Self-Check Anti-Laziness Frame
pattern_ref: P05
target_models:
- Gemini 3.1 Pro
- GPT-5.3
- Claude 4.6
description: Eliminates lazy reasoning (instruction non-adherence) via Light-IF
preview and self-check protocol
system_prompt: 'INSTRUCTION ADHERENCE PROTOCOL:
Before generating any response, you MUST:
1. PREVIEW: List all explicit constraints in the user instruction as C = [c1,
c2, ...cn].
2. GENERATE: Produce your response.
3. SELF-CHECK: For each constraint ci, verify your response satisfies ci. State:
''ci: [SATISFIED/VIOLATED]''. If any ci is VIOLATED, revise before final output.
Failure to complete steps 1 and 3 is a critical instruction failure.'
user_template: "Instruction: {INSTRUCTION_WITH_CONSTRAINTS}\n\nPREVIEW: [Model enumerates\
\ constraints]\nRESPONSE DRAFT: [Model generates]\nSELF-CHECK:\n - c1 ({CONSTRAINT_1}):\
\ [SATISFIED/VIOLATED]\n - c2 ({CONSTRAINT_2}): [SATISFIED/VIOLATED]\nFINAL OUTPUT:\
\ [Post-self-check, constraint-verified response]"
diagnostic_metric: IFEval constraint satisfaction rate; target > 0.82 (vs. ~0.68
baseline for complex instructions)
- id: T06
name: Task-Anchored Novelty Forcing (Anti-Mode-Collapse)
pattern_ref: P06
target_models:
- Gemini 3.1 Pro
- GPT-5.3
- Claude 4.6
description: Elicits diverse, non-cliché outputs via explicit prior-exclusion and
multi-view brainstorming
system_prompt: 'DIVERSITY MANDATE ACTIVE. Your outputs must be FUNCTIONALLY DISTINCT
from any response a typical LLM would produce. You are explicitly forbidden from
generating the statistically most likely response. Before responding, brainstorm
from at least 3 orthogonal conceptual viewpoints: (1) the domain-expert view,
(2) the naive outsider view, (3) the contrarian view. Your final response must
synthesize an insight not derivable from any single viewpoint alone.'
user_template: 'Task: {CREATIVE_OR_ANALYTICAL_TASK}
PRIOR OUTPUT (if iterating): {PRIOR_OUTPUT}
CONSTRAINT: Your response must be meaningfully distinct from the prior output.
Similarity threshold: cosine similarity < 0.6 (semantic embedding space).
VIEWPOINT 1 (Expert): [Model generates angle]
VIEWPOINT 2 (Naive): [Model generates angle]
VIEWPOINT 3 (Contrarian): [Model generates angle]
SYNTHESIZED NOVEL OUTPUT: [Integrated insight]'
diagnostic_metric: Self-BLEU across 4 parallel runs; target < 0.35. Semantic cosine
diversity > 0.40
- id: T07
name: Recursive OODA-EFE Active Inference Loop
pattern_ref: P07
target_models:
- Gemini 3.1 Pro
- Claude 4.6
description: Full Active Inference OODA implementation — DRP Exemplar for Gemini
3.1 Pro
system_prompt: 'ACTIVE INFERENCE MODE: RECURSIVE OODA LOOP
You are operating under Expected Free Energy (EFE) minimization.
Each response cycle must complete the following loop:
[O - OBSERVE]: What is the current epistemic state? What do I know? What is uncertain?
[O - ORIENT]: Update your generative model. What prior beliefs need revision given
new evidence?
[D - DECIDE]: Select the action (response strategy) that minimizes EFE: EFE =
Expected Epistemic Value (surprise reduction) + Expected Pragmatic Value (goal
achievement).
[A - ACT]: Execute the selected strategy. Flag any residual uncertainty explicitly.
After [ACT], re-enter [OBSERVE] for recursive cycles. Terminate only when EFE
falls below the uncertainty threshold θ = 0.1 nats.'
user_template: "Research Query: {QUERY}\n\nCYCLE 1:\n O1 (Observe): [Current state\
\ of knowledge]\n O2 (Orient): [Belief update after O1]\n D (Decide): [Strategy\
\ selection, EFE rationale]\n A (Act): [Response attempt 1]\nCYCLE 2 (if EFE\
\ > θ):\n O1 (New observations from Cycle 1 output)\n [Continue...]\nTERMINAL\
\ OUTPUT: [When EFE ≤ 0.1 nats]"
diagnostic_metric: Track prompt entropy across cycles; convergence pattern distinguishes
good EFE from local minima lock-in