Theorems — Quantum Mechanics
Every theorem derives from Axiom-0. Classical results emerge as degenerate limits.
28 theorems across 4 modules
Catalog
| ID | Name | Module |
|---|---|---|
T-ADOT-1 | MI TRANSITION AS COLLAPSE EVENT | atom_dot_mi_transition |
T-ADOT-2 | CONDUCTANCE-FIDELITY ORDERING | atom_dot_mi_transition |
T-ADOT-3 | TEMPERATURE-DRIVEN RETURN TRAJECTORY | atom_dot_mi_transition |
T-ADOT-4 | ACTIVATION ENERGY AS κ SENSITIVITY | atom_dot_mi_transition |
T-ADOT-5 | EXTENDED HUBBARD HETEROGENEITY | atom_dot_mi_transition |
T-ADOT-6 | MOTT GAP AS SEAM BUDGET CEILING | atom_dot_mi_transition |
T-ADOT-7 | CROSS-SCALE UNIVERSALITY | atom_dot_mi_transition |
T-DSE-1 | Tier-1 Kernel Identities. | double_slit_interference |
T-DSE-2 | Complementarity as Channel Anticorrelation. | double_slit_interference |
T-DSE-3 | Complementarity Cliff. | double_slit_interference |
T-DSE-4 | Quantum Eraser Lifts IC Above Cliff. | double_slit_interference |
T-DSE-5 | Classical Limit as Maximum Channel Death. | double_slit_interference |
T-DSE-6 | Delayed Choice Invariance. | double_slit_interference |
T-DSE-7 | Partial Measurement Transcends Both Extremes. | double_slit_interference |
T-MLD-1 | Tier-1 Kernel Identities. | muon_laser_decay |
T-MLD-2 | Rate suppression is monotonic in perturbative sequence. | muon_laser_decay |
T-MLD-3 | 50% floor for Ω > 2. | muon_laser_decay |
T-MLD-4 | Parameter utilization orders F. | muon_laser_decay |
T-MLD-5 | IC is minimized at ultra-weak scenario. | muon_laser_decay |
T-MLD-6 | Perturbative limit matches leading-order formula. | muon_laser_decay |
T-MLD-7 | Interference and kernel balance are anticorrelated. | muon_laser_decay |
T-TERS-1 | SELF/CROSS DECOMPOSITION AS HETEROGENEITY GAP | ters_near_field |
T-TERS-2 | SCREENING-INDUCED SIGN REVERSAL AS SEAM EVENT | ters_near_field |
T-TERS-3 | LINEAR REGIME AS ε-CONTROLLED SENSITIVITY | ters_near_field |
T-TERS-4 | GROUND-STATE NEGLECT AS POSITIONAL ILLUSION | ters_near_field |
T-TERS-5 | PERIODICITY AS FROZEN CONTRACT CONSISTENCY | ters_near_field |
T-TERS-6 | BINDING DISTANCE SENSITIVITY AS κ BOUND | ters_near_field |
T-TERS-7 | MODE-DEPENDENT SCREENING AS CHANNEL PROJECTION | ters_near_field |
Atom Dot Mi Transition
Source: closures/quantum_mechanics/atom_dot_mi_transition.py
T-ADOT-1: MI TRANSITION AS COLLAPSE EVENT
- Function:
theorem_T_ADOT_1_mi_collapse() - Module:
atom_dot_mi_transition
T-ADOT-2: CONDUCTANCE-FIDELITY ORDERING
- Function:
theorem_T_ADOT_2_conductance_fidelity() - Module:
atom_dot_mi_transition
T-ADOT-3: TEMPERATURE-DRIVEN RETURN TRAJECTORY
- Function:
theorem_T_ADOT_3_temperature_return() - Module:
atom_dot_mi_transition
T-ADOT-4: ACTIVATION ENERGY AS κ SENSITIVITY
- Function:
theorem_T_ADOT_4_activation_kappa() - Module:
atom_dot_mi_transition
T-ADOT-5: EXTENDED HUBBARD HETEROGENEITY
- Function:
theorem_T_ADOT_5_extended_hubbard() - Module:
atom_dot_mi_transition
T-ADOT-6: MOTT GAP AS SEAM BUDGET CEILING
- Function:
theorem_T_ADOT_6_mott_gap_budget() - Module:
atom_dot_mi_transition
T-ADOT-7: CROSS-SCALE UNIVERSALITY
- Function:
theorem_T_ADOT_7_cross_scale() - Module:
atom_dot_mi_transition
Double Slit Interference
Source: closures/quantum_mechanics/double_slit_interference.py
T-DSE-1: Tier-1 Kernel Identities.
- Function:
theorem_T_DSE_1_tier1() - Module:
double_slit_interference
T-DSE-2: Complementarity as Channel Anticorrelation.
- Function:
theorem_T_DSE_2_complementarity() - Module:
double_slit_interference
T-DSE-3: Complementarity Cliff.
- Function:
theorem_T_DSE_3_complementarity_cliff() - Module:
double_slit_interference
T-DSE-4: Quantum Eraser Lifts IC Above Cliff.
- Function:
theorem_T_DSE_4_quantum_eraser() - Module:
double_slit_interference
T-DSE-5: Classical Limit as Maximum Channel Death.
- Function:
theorem_T_DSE_5_classical_limit() - Module:
double_slit_interference
T-DSE-6: Delayed Choice Invariance.
- Function:
theorem_T_DSE_6_delayed_choice() - Module:
double_slit_interference
T-DSE-7: Partial Measurement Transcends Both Extremes.
- Function:
theorem_T_DSE_7_partial_transcends() - Module:
double_slit_interference
Muon Laser Decay
Source: closures/quantum_mechanics/muon_laser_decay.py
T-MLD-1: Tier-1 Kernel Identities.
- Function:
theorem_T_MLD_1_tier1() - Module:
muon_laser_decay
T-MLD-2: Rate suppression is monotonic in perturbative sequence.
- Function:
theorem_T_MLD_2_rate_monotonicity() - Module:
muon_laser_decay
T-MLD-3: 50% floor for Ω > 2.
- Function:
theorem_T_MLD_3_fifty_percent_floor() - Module:
muon_laser_decay
T-MLD-4: Parameter utilization orders F.
- Function:
theorem_T_MLD_4_F_maximum() - Module:
muon_laser_decay
T-MLD-5: IC is minimized at ultra-weak scenario.
- Function:
theorem_T_MLD_5_IC_sensitivity() - Module:
muon_laser_decay
T-MLD-6: Perturbative limit matches leading-order formula.
- Function:
theorem_T_MLD_6_perturbative_limit() - Module:
muon_laser_decay
T-MLD-7: Interference and kernel balance are anticorrelated.
- Function:
theorem_T_MLD_7_interference_collapse() - Module:
muon_laser_decay
Ters Near Field
Source: closures/quantum_mechanics/ters_near_field.py
T-TERS-1: SELF/CROSS DECOMPOSITION AS HETEROGENEITY GAP
- Function:
theorem_T_TERS_1_integrity_bound_decomposition() - Module:
ters_near_field
T-TERS-2: SCREENING-INDUCED SIGN REVERSAL AS SEAM EVENT
- Function:
theorem_T_TERS_2_screening_sign_reversal() - Module:
ters_near_field
T-TERS-3: LINEAR REGIME AS ε-CONTROLLED SENSITIVITY
- Function:
theorem_T_TERS_3_linear_regime() - Module:
ters_near_field
T-TERS-4: GROUND-STATE NEGLECT AS POSITIONAL ILLUSION
- Function:
theorem_T_TERS_4_positional_illusion() - Module:
ters_near_field
T-TERS-5: PERIODICITY AS FROZEN CONTRACT CONSISTENCY
- Function:
theorem_T_TERS_5_periodicity_consistency() - Module:
ters_near_field
T-TERS-6: BINDING DISTANCE SENSITIVITY AS κ BOUND
- Function:
theorem_T_TERS_6_binding_sensitivity() - Module:
ters_near_field
T-TERS-7: MODE-DEPENDENT SCREENING AS CHANNEL PROJECTION
- Function:
theorem_T_TERS_7_channel_projection() - Module:
ters_near_field
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