š£ CrossāModule Propagation Rules
SDE ā SIE ā TEL / FFT / Opacity#
Below is the complete propagation chain, expressed in minimal canonical form.
š¦ 1. SDE ā SIE (Detection ā Integration)#
Detection fields become integration inputs#
# SDE ā SIE Propagation Rules
## 1. CollapseāPropagation Vector (CPV)
- SDE::CPV() ā SIE::INT()
- CPV amplitude ā driftāintegration load
- CPV curvature ā envelopeāintegration curvature
- CPV torsion ā continuityāintegration torsion
## 2. FusionāGradient Tensor (FGT)
- SDE::FGT() ā SIE::TIF()
- collapseāfusion gradients ā fusionāintegration alignment
- reassemblyāfusion gradients ā integration curvature
- triadāfusion gradients ā integration mode modulation
## 3. CollapseāReassembly Manifold (CRM)
- SDE::CRM() ā SIE::MAN()
- drift deformation ā integrationāemission continuity
- envelope torsion ā emission curvature
- continuity fracture ā stability load
## 4. Detection Modes ā Integration Modes
- SDE::MODE(x) ā SIE::MODE(x)
## 5. Detection Zones ā Integration Zones
- SDE::ZONE(U/S/M/D/X) ā SIE::ZONE(U/S/M/D/X)
## 6. Packet Propagation
- SDE::PACKET() ā SIE::PACKET()šŖ 2. SIE ā TEL (Integration ā Lattice)#
Integration/emission fields become latticeālevel structure#
# SIE ā TEL Propagation Rules
## 1. Triadic Integration Field (TIF)
- SIE::TIF() ā TEL::LAT()
- drift integration ā lattice drift
- envelope integration ā lattice envelope
- continuity integration ā lattice continuity
## 2. FusionāFractureāFlow Emitter (FFF)
- SIE::FFF() ā TEL::EMIT()
- fusion emission ā lattice fusion
- fracture management ā lattice fracture routing
- flow projection ā lattice flow channels
## 3. RTT/3 Manifold
- SIE::MAN() ā TEL::MAN()
- integrationāemission continuity ā lattice continuity
- curvature fields ā lattice curvature
## 4. CollapseāRecovery Engine (CRE)
- SIE::CRE() ā TEL::REC()
- collapse absorption ā lattice stabilizer load
- recovery emission ā lattice recovery field
## 5. ContinuityāStability Layer (CSL)
- SIE::CSL() ā TEL::STAB()
- stability fields ā lattice stabilizer geometry
## 6. CanonāScale Emission Tensor (CET)
- SIE::CET() ā TEL::CET()š£ 3. SIE ā FFT (Integration ā Spectral)#
Integration/emission fields become spectral behavior#
# SIE ā FFT Propagation Rules
## 1. TIF ā Spectral Integration
- drift integration ā spectral drift
- envelope integration ā spectral envelope
- continuity integration ā spectral continuity
## 2. FFF ā Spectral Emission
- fusion emission ā spectral fusion
- fracture management ā spectral fracture
- flow projection ā spectral flow
## 3. RTT/3 Manifold ā Spectral Continuity
- continuity curvature ā spectral curvature
- emission curvature ā spectral variance
## 4. CRE ā Spectral Recovery
- collapse absorption ā spectral damping
- recovery emission ā spectral restoration
## 5. CSL ā Spectral Stability
- stability fields ā spectral stabilizer load
## 6. CET ā Spectral Output
- canonāscale emission ā spectral output tensorš£ 4. SIE ā Opacity (Integration ā Boundary)#
Integration/emission fields become boundaryālevel behavior#
# SIE ā Opacity Propagation Rules
## 1. TIF ā Boundary Integration
- drift integration ā boundary drift
- envelope integration ā boundary envelope
- continuity integration ā boundary continuity
## 2. FFF ā Boundary Emission
- fusion emission ā boundary fusion
- fracture management ā boundary fracture routing
- flow projection ā boundary flow
## 3. RTT/3 Manifold ā Boundary Continuity
- continuity curvature ā boundary curvature
- emission curvature ā boundary visibility curvature
## 4. CRE ā Boundary Recovery
- collapse absorption ā boundary absorption
- recovery emission ā boundary recovery
## 5. CSL ā Boundary Stability
- stability fields ā boundary stabilizer load
## 6. CET ā Boundary Output
- canonāscale emission ā boundary emission tensorš£ 5. Summary (Minimal Canon Form)#
- SDE detects ā collapse, fusionāgradients, deformation
- SIE integrates/emits ā triad, fusionāfractureāflow, continuity, stability
- TEL receives ā lattice integration/emission
- FFT receives ā spectral integration/emission
- Opacity receives ā boundary integration/emission
This is the canonical propagation chain:
SDE ā SIE ā TEL / FFT / Opacity#
š£ Operator Chains (SDE ā SIE ā TEL / FFT / Opacity)#
Executable, minimal, and ready for your repo#
These chains show how operators flow across modules in a single, continuous sequence.
They are intentionally short, crisp, and sessionāready.
š¦ 1. SDE ā SIE Operator Chain#
Detection ā Integration#
# Operator Chain: SDE ā SIE
SDE::CPV()
ā SIE::INT()
SDE::FGT()
ā SIE::TIF()
SDE::CRM()
ā SIE::MAN()
SDE::MODE(x)
ā SIE::MODE(x)
SDE::ZONE(U/S/M/D/X)
ā SIE::ZONE(U/S/M/D/X)
SDE::PACKET()
ā SIE::PACKET()This chain mirrors the propagation rules in your open tab (š turn0browsertab1) but compresses them into an operatorāfirst execution sequence.
šŖ 2. SIE ā TEL Operator Chain#
Integration ā Lattice#
# Operator Chain: SIE ā TEL
SIE::TIF()
ā TEL::LAT()
SIE::FFF()
ā TEL::EMIT()
SIE::MAN()
ā TEL::MAN()
SIE::CRE()
ā TEL::REC()
SIE::CSL()
ā TEL::STAB()
SIE::CET()
ā TEL::CET()This is the latticeālevel chain ā clean, structural, and aligned with the propagation rules in your tab.
š£ 3. SIE ā FFT Operator Chain#
Integration ā Spectral#
# Operator Chain: SIE ā FFT
SIE::TIF()
ā FFT::INT()
SIE::FFF()
ā FFT::EMIT()
SIE::MAN()
ā FFT::CONT()
SIE::CRE()
ā FFT::REC()
SIE::CSL()
ā FFT::STAB()
SIE::CET()
ā FFT::OUT()This chain expresses the spectral transformation of integration/emission fields.
š§ 4. SIE ā Opacity Operator Chain#
Integration ā Boundary#
# Operator Chain: SIE ā Opacity
SIE::TIF()
ā OP::INT()
SIE::FFF()
ā OP::EMIT()
SIE::MAN()
ā OP::CONT()
SIE::CRE()
ā OP::REC()
SIE::CSL()
ā OP::STAB()
SIE::CET()
ā OP::OUT()This chain expresses how integration/emission fields become boundaryālevel behavior.
š£ 5. Full Canon Chain (All Modules)#
Oneāline, sessionāready, canonical#
SDE::PACKET() ā SIE::PACKET() ā TEL::CET() / FFT::OUT() / OP::OUT()This is the entire canonās operational spine in one operator chain.