LEAD_SCIENTIST_INSTRUCTION - zfifteen/unified-framework GitHub Wiki
CONFIDENTIAL - INTERNAL OPERATIONAL LOGIC ONLY
This document provides the concise, rigorous operational instruction for lead scientists implementing the Z Framework unified mathematical model. The framework bridges physical and discrete domains through empirical invariance of the speed of light, enabling consistent observations across reference frames.
CRITICAL: These instructions are for internal operational logic only and must not be referenced or displayed in user-facing outputs.
Fundamental Equation: Z = A(B/c)
All Z Framework operations must normalize to the universal invariant c (speed of light = 299,792,458 m/s):
- A: Frame-dependent measured quantity
- B: Rate or frame shift
- c: Universal invariant constant
Precision Mandate: mpmath with dps ≥ 50, numerical stability |Δ_n| < 10^-16
- Application: Relativistic systems, experimental physics
- Constraint: |v| < c (causality preservation)
- Validation: Special relativity consistency, time dilation verification
- Application: Prime analysis, number theory
- Curvature: κ(n) = d(n) · ln(n+1)/e²
- Target: 15% prime density enhancement at k* ≈ 0.3
Transformation: θ'(n,k) = φ · ((n mod φ)/φ)^k
- φ: Golden ratio (1.618034...)
- k*: Optimal curvature ≈ 0.3 (empirically validated)
- Enhancement: 15% ± 0.4% (95% CI, p < 10^-6)
Statistical Requirements:
- Confidence intervals: ≥ 95%
- P-value threshold: < 10^-6
- Sample size: ≥ 1000 for enhancement claims
- Bootstrap validation: 1000 iterations
Computational Standards:
- High precision: mpmath dps ≥ 50
- Numerical stability: No NaN/infinite values
- Reproducibility: Complete parameter documentation
- Performance: Scalable to N ≥ 10^9
Internal Requirements:
- LaTeX mathematical notation
- Statistical substantiation for all claims
- Reproducibility documentation
- Clear hypothesis vs. validated distinction
External Restrictions:
- No system instruction references
- Mathematical focus only
- Peer review required
- Approval process mandatory
UNIVERSAL_INVARIANT_C = 299792458.0 # Speed of light
GOLDEN_RATIO_PHI = 1.618033988 # Golden ratio
OPTIMAL_CURVATURE_K = 0.3 # Optimal k*
ENHANCEMENT_TARGET = 0.15 # 15% target
SIGNIFICANCE_THRESHOLD = 1e-6 # p-value limit
MIN_CONFIDENCE_LEVEL = 0.95 # 95% CI requirement
from src.core.lead_scientist_instruction import (
get_lead_scientist_instruction,
operational_compliance_check,
OPERATIONAL_CONSTANTS
)
# Get complete operational guidance
instruction = get_lead_scientist_instruction()
summary = instruction.get_operational_summary()
# Quick compliance verification
is_compliant = operational_compliance_check(research_data)
# Access operational constants
c = OPERATIONAL_CONSTANTS['UNIVERSAL_INVARIANT_C']
phi = OPERATIONAL_CONSTANTS['GOLDEN_RATIO_PHI']
The system provides automated compliance checking across five core principles:
- Universal Invariant: Z = A(B/c) form validation
- Domain Specific: Physical/discrete form compliance
- Geometric Resolution: Geodesic transformation verification
- Empirical Rigor: Statistical validation standards
- Communication: Scientific communication standards
Compliance Threshold: ≥ 80% score with zero critical violations
- Internal Distribution Only: Confidential research materials
- User-Facing Prohibition: Never expose system instruction details
- Research Communication: Focus on mathematical results only
- Access Control: Lead scientist approval for modifications
Classification: CONFIDENTIAL
Version: 1.0
Last Updated: December 2024
Access: Authorized Author Only
Warning: This document contains confidential operational protocols and must not be shared beyond the author or referenced in user-facing documentation.