TSCT Planetary-System Class Derivation
TSCT Planetary-System Class Derivation
Table of Contents
0. Program definition
0.1 Research objective
0.2 Derive planetary-system classes from consequential architecture boundaries
0.3 Planetary system = host-field structure + planetary sub-architecture + coupling
0.4 Class = replay-stable architecture basin
0.5 Boundary = first consequential architecture fracture
0.6 Architecture boundary, not inherited taxonomy, generates class identity
0.7 Stellar count is not automatically a class
0.8 Planet count is not automatically a class
0.9 Planet type is not automatically a system class
0.10 Present architecture is not primordial architecture
0.11 Present stellar configuration is not primordial stellar configuration
0.12 Present membership is not primordial membership
0.13 Observation is not source
0.14 Unknown is not absent
0.15 Statistical cluster is not physical class
0.16 Replay is not ancestry
0.17 Architecture does not uniquely determine source
0.18 Population transition does not establish individual ancestry
0.19 Local irrelevance does not imply global nonexistence
0.20 No closure beyond executed architecture envelope
0.21 Typed access, representation, causal, ancestry and resource debt
Core architecture:
HOST FIELD MANIFOLD
+
CO-GENERATED PLANETARY SUB-ARCHITECTURE
+
HOST <-> PLANET COUPLING
-> CONSEQUENTIAL ARCHITECTURE FRACTURES
-> BASINS
-> PLANETARY-SYSTEM CLASSES
I. System object and host-field architecture
1. Time-indexed joint system state
1.1 Define joint state X(t)
1.2 Stellar bodies
1.3 Substellar bodies
1.4 Planetary bodies
1.5 Material field
1.6 Host gravitational field
1.7 Host radiative/thermal field
1.8 Pre-body dynamical topology
1.9 Material-access topology
1.10 Post-body orbital topology
1.11 Constitutive body-type state
1.12 Architecture relational state
1.13 Survivor membership state
1.14 Observation/access state
1.15 Generation graph
1.16 Constitutive graph
1.17 Ancestry hypergraph
1.18 Observational projection
2. Host Field Manifold
2.1 Host field as primary present-system constituent
2.2 Gravitational potential topology
2.3 Gravitational-gradient / tidal topology
2.4 Radiative flux topology
2.5 Thermal topology
2.6 High-energy/XUV topology
2.7 Wind / magnetic forcing where consequential
2.8 Host-field temporal evolution
2.9 Spatial domain over which host field is evaluated
2.10 Occupied planetary domain
2.11 Accessible planetary domain
2.12 Field dominance is domain-relative
2.13 Field dominance is scale-relative
2.14 Total mass share is not architectural dominance
2.15 Gravitational dominance is not radiative dominance
2.16 Host-field equivalence under representation change
3. Dynamically consequential centers
3.1 Primary field generator
3.2 Secondary field generator
3.3 Higher-order field generator
3.4 Perturbing body
3.5 Test-like occupant
3.6 Role determined by consequence, not astronomical label
3.7 Star acting as primary field generator
3.8 Stellar companion acting as secondary generator
3.9 P4/P5 body acting as secondary generator over a subdomain
3.10 Compact planetary ensemble acting as joint generator
3.11 Scale-dependent role assignment
3.12 Domain-dependent role assignment
3.13 Minimum consequential generator arity
3.14 Do not equate star with architectural Level 0 by name alone
4. Host stellar topology
4.1 One consequential stellar center
4.2 Two consequential stellar centers
4.3 Three or more consequential stellar centers
4.4 Hierarchical stellar topology
4.5 Strongly coupled stellar topology
4.6 Close binary topology
4.7 Wide binary topology
4.8 Hierarchical triple topology
4.9 Higher multiple topology
4.10 Nested potential domains
4.11 Shared potential domains
4.12 Separated potential domains
4.13 Overlapping influence regions
4.14 Stellar exchange corridors
4.15 Persistent stellar topology
4.16 Transient stellar topology
4.17 Bound but locally non-load-bearing stellar companion
4.18 Boundary where additional star first becomes architecturally consequential
5. Host gravitational versus radiative topology
5.1 Gravitational field map
5.2 Radiative field map
5.3 Thermal phase-boundary map
5.4 Envelope-stripping field map
5.5 Non-coincident gravitational/radiative boundaries
5.6 Same gravitational topology, different radiative topology
5.7 Same radiative regime, different gravitational topology
5.8 Joint gravitational × radiative separator
5.9 Derived gravitational/radiative scale ratios
5.10 Derived ratio does not replace underlying fields without ablation
II. Stellar-formation / planetary-formation boundary
6. Regime transition
6.1 Stellar formation as upstream regime
6.2 Completion of dominant stellar-body assembly
6.3 Terminal stellar relational state
6.4 Residual post-stellar material state
6.5 Surviving field coordinates
6.6 Surviving material coordinates
6.7 Extinguished stellar-formation coordinates
6.8 Do not transport upstream processes downstream automatically
6.9 Planetary formation begins from post-stellar joint state
6.10 Multi-stellar structure crossing the regime boundary
6.11 Regime-boundary uncertainty
6.12 Regime-boundary ancestry ledger
III. Pre-body dynamical accessibility
7. Pre-body dynamical topology
7.1 Dynamically quiet formation regions
7.2 Dynamically excited formation regions
7.3 Relative-velocity field among solids
7.4 Encounter geometry
7.5 Coagulation-permitting encounters
7.6 Fragmentation-dominated encounters
7.7 Capture-permitting regions
7.8 Capture-suppressing regions
7.9 Stellar-forced eccentricity structure
7.10 Stellar-forced inclination structure
7.11 Companion-generated stirring
7.12 Resonant forcing before mature planets
7.13 Dynamically accessible assembly domain
7.14 Dynamically forbidden assembly domain
7.15 Connected assembly topology
7.16 Partitioned assembly topology
7.17 Coagulation -> fragmentation boundary
7.18 Capture-access boundary
7.19 Planet-formation suppression boundary
8. Multi-stellar pre-body effects
8.1 Circumprimary assembly region
8.2 Circumsecondary assembly region
8.3 Circumbinary assembly region
8.4 Circummultiple assembly region
8.5 Companion-driven material truncation
8.6 Companion-driven stirring
8.7 Companion-driven transport barriers
8.8 Companion-driven exchange corridors
8.9 Multiple stellar heating domains
8.10 Stable versus hostile assembly zones
8.11 Irreducible stellar × material assembly boundary
IV. Post-stellar material organization
9. Material field
9.1 Refractory inventory
9.2 Volatile inventory
9.3 H/He inventory
9.4 Condensed material
9.5 Gaseous material
9.6 Material mass
9.7 Material volume
9.8 Density distribution
9.9 Temperature distribution
9.10 Pressure/state distribution
9.11 Radial distribution
9.12 Vertical distribution
9.13 Chemical gradients
9.14 Phase boundaries
9.15 Concentration gradients
9.16 Total material versus accessible material
10. Material transformation
10.1 Condensation
10.2 Sublimation
10.3 Freezing
10.4 Melting
10.5 Coagulation
10.6 Fragmentation
10.7 Radial drift
10.8 Settling
10.9 Mixing
10.10 Trapping
10.11 Release from traps
10.12 Planetesimal incorporation
10.13 Embryo incorporation
10.14 Planetary incorporation
10.15 Gas capture
10.16 Envelope acquisition
10.17 Carrier transformation versus material loss
10.18 Dust disappearance does not imply material disappearance
10.19 Volatile phase change does not imply volatile disappearance
10.20 Dynamical forcing coupled to material transformation
11. Material-access topology
11.1 Connected material domains
11.2 Weakly connected domains
11.3 Isolated material domains
11.4 Nested material domains
11.5 Shared stellar material pools
11.6 Stellar-centered material pools
11.7 Exchange pathways
11.8 Transport barriers
11.9 Feeding relations
11.10 Depletion relations
11.11 Radial accessibility
11.12 Thermal accessibility
11.13 Chemical accessibility
11.14 Capture accessibility
11.15 Incorporation accessibility
11.16 Time-window accessibility
11.17 Competition between forming bodies
11.18 Accessible inventory by formation domain
11.19 Multi-stellar material partitioning
11.20 Material topology without physical system escape
V. Constitutive planet-body derivation
12. Planet-body state
12.1 Body identity
12.2 Body ancestry
12.3 Mass
12.4 Radius
12.5 Volume
12.6 Bulk density
12.7 Exterior state
12.8 Envelope fraction
12.9 Bulk composition
12.10 Internal differentiation
12.11 Thermal state
12.12 Irradiation state
12.13 Internal energy output
12.14 Rotation state
12.15 Satellite structure
12.16 Orbital relation
12.17 Host-field relation
12.18 Multi-host relation
12.19 Direct coordinates
12.20 Reconstructed coordinates
12.21 Unknown coordinates
13. Derive body types
13.1 Construct body consequence signature
13.2 Walk refractory dominance
13.3 Walk volatile dominance
13.4 Walk H/He fraction
13.5 Walk condensed-body dominance
13.6 Walk envelope dominance
13.7 Walk surface/boundary state
13.8 Walk internal differentiation
13.9 Walk self-compression regime
13.10 Identify first consequential body fracture
13.11 Require recurrence
13.12 Require representation survival
13.13 Require minimal separator
13.14 Permit continuous regions with no type boundary
14. Constitutive body-type atlas
14.1 P1 exposed condensed body
14.2 P2 volatile-condensed body
14.3 P3 envelope-bearing condensed body
14.4 P4 envelope-dominated heavy-element body
14.5 P5 H/He-dominated giant
14.6 Hybrid boundary bodies
14.7 Irradiation as modifier
14.8 Inflation as modifier
14.9 Remnant ancestry as modifier
14.10 Orbital location as modifier
14.11 Body type does not encode history
15. Body-type transition topology
15.1 Identity-preserving 1 -> 1 transmutation
15.2 Envelope acquisition
15.3 Envelope stripping
15.4 Volatile enrichment
15.5 Volatile depletion
15.6 Collision-induced reconstitution
15.7 Coalescence 2 -> 1
15.8 Fracture/disruption 1 -> N
15.9 General ancestry hyperedge N -> M
15.10 Body-type transition boundary
15.11 Population transition is not individual ancestry
VI. Coupled body–architecture generation
16. Joint reachable-state object
16.1 Define Reach_PxA(S)
16.2 Body tuple
16.3 Host-field state
16.4 Orbital-relational state
16.5 Material-access state
16.6 Constitutive type state
16.7 Survivor state
16.8 Reach_P(S) as marginal projection
16.9 Reach_A(S) as marginal projection
16.10 Body types are not an independent upstream menu
16.11 Architecture and body type can be co-generated
16.12 One source -> multiple joint states
16.13 Multiple sources -> same joint state
17. Endogenous orbital topology
17.1 Planet-generated exclusion regions
17.2 Resonance-generated topology
17.3 Secular topology
17.4 Scattering topology
17.5 Collision regions
17.6 Ejection regions
17.7 Capture/exchange regions
17.8 Stable islands
17.9 Unstable gaps
17.10 Compact-chain topology
17.11 Giant-body topology rewriting
17.12 Higher-order ensemble topology
17.13 Minimum consequential dynamical arity
17.14 Pairwise generator
17.15 Triple generator
17.16 Higher-arity generator
17.17 Endogenous topology as constitutive architecture relation
18. Host-imposed × endogenous topology
18.1 Host-imposed domain topology
18.2 Planet-generated domain topology
18.3 Stellar × planetary coupling
18.4 Host-dominated regime
18.5 Planetary-self-organized regime
18.6 Joint host × planetary regime
18.7 Same host field, different planetary topology
18.8 Different host fields, equivalent planetary topology
18.9 Boundary where host dominance becomes consequential
18.10 Boundary where planetary self-organization becomes consequential
VII. System architecture representation
19. Planetary-system architecture
19.1 Architecture includes host field
19.2 Architecture includes planetary bodies
19.3 Architecture includes host–planet relations
19.4 Architecture includes planet–planet relations
19.5 Architecture includes multi-stellar domains
19.6 Ordered body-type sequence
19.7 Body-type multiplicity
19.8 Planetary mass allocation
19.9 Planetary volume allocation
19.10 Radial occupancy
19.11 Radial mass profile
19.12 Radial volume profile
19.13 Orbital-spacing structure
19.14 Period-ratio structure
19.15 Eccentricity structure
19.16 Inclination structure
19.17 Resonance structure
19.18 Gap structure
19.19 Dominant planetary body fraction
19.20 Stable-domain occupancy
19.21 Small-body structure
19.22 Satellite structure
19.23 Debris structure
19.24 Survivor membership
19.25 Host membership
20. Architecture consequence signature
20.1 Define ESIG_A
20.2 Host-field consequence
20.3 Body-type consequence
20.4 Type-ordering consequence
20.5 Multiplicity consequence
20.6 Mass-partition consequence
20.7 Volume-partition consequence
20.8 Stable-domain consequence
20.9 Multi-stellar consequence
20.10 Dynamical consequence
20.11 Persistence consequence
20.12 Membership consequence
20.13 Missing-body robustness
20.14 Missing-host robustness
20.15 Carrier robustness
20.16 Access robustness
20.17 Exclude system names
20.18 Exclude formation-story labels
VIII. Observation and inversion firewalls
21. Observational carriers
21.1 Transit
21.2 Radial velocity
21.3 Astrometry
21.4 Microlensing
21.5 Direct imaging
21.6 Timing
21.7 Spectroscopy
21.8 Disk imaging
21.9 Stellar-companion detection
21.10 Dynamical reconstruction
21.11 Carrier intersection
21.12 Carrier disagreement
21.13 Representation stripping
22. Disk-readout inversion wall
22.1 Readout versus carrier state
22.2 Carrier state versus total material
22.3 Dust opacity versus solids
22.4 Gas tracer versus volatile inventory
22.5 Gap versus material deficit
22.6 Gap versus already incorporated bodies
22.7 Ring versus transport barrier
22.8 Carrier absence versus material absence
22.9 Disk readout does not uniquely determine material topology
22.10 Material inverse fiber
23. System access envelope
23.1 Detectable planet mass
23.2 Detectable planet radius
23.3 Detectable orbital range
23.4 Detectable eccentricity
23.5 Detectable inclination
23.6 Detectable outer system
23.7 Detectable debris
23.8 Detectable stellar companion
23.9 Detectable secondary stellar field
23.10 Detectable multi-star hierarchy
23.11 System-specific access mask
23.12 UNKNOWN != ABSENT
23.13 EDEBT
24. Conditional and dynamical-shadow masks
24.1 Inner-system mask
24.2 Outer-system mask
24.3 Host-companion mask
24.4 Inner architecture conditioned on outer-known
24.5 Inner architecture conditioned on outer-unknown
24.6 Dynamically screened architecture
24.7 Dynamically shadowed architecture
24.8 Hidden body with visible dynamical residue
24.9 Hidden star with visible dynamical residue
24.10 Direct-access ledger
24.11 Consequence-access ledger
24.12 Masking object does not mask its historical consequence
25. Population normalization
25.1 Matched-access populations
25.2 Carrier matching
25.3 Distance matching
25.4 Baseline matching
25.5 Stellar-noise matching
25.6 Host-field matching
25.7 Multi-stellar topology matching
25.8 Conditional-mask matching
25.9 Dynamical-shadow matching
25.10 Downward degradation
25.11 Do not synthesize missing planets
25.12 Do not synthesize missing stellar companions
25.13 Preserve inaccessible structure as debt
IX. Architecture-boundary discovery
26. Architecture manifold
26.1 Architecture + access state
26.2 Partial-order comparison
26.3 Graph adjacency
26.4 Architecture neighborhoods
26.5 Dense regions
26.6 Sparse regions
26.7 Unobserved regions
26.8 Single-host regions
26.9 Multi-host regions
26.10 Cross-host equivalence
26.11 Density does not establish class
27. Initial architecture basin
27.1 Source-neutral architecture seed
27.2 Construct EFRAME
27.3 Execute contacts
27.4 Record inaccessible contacts
27.5 Construct ESIG_A
27.6 Determine EEQ
27.7 Grow replay-stable BASIN
27.8 Record basin debt
27.9 Test disconnected equivalent regions
28. Architecture boundary families
28.1 Host-field topology boundary
28.2 One-center / multi-center field boundary
28.3 Gravitational/radiative topology boundary
28.4 Body-type composition boundary
28.5 Body-type multiplicity boundary
28.6 Body-type transmutation boundary
28.7 Mass-allocation boundary
28.8 Volume-allocation boundary
28.9 Radial-ordering boundary
28.10 Radial-segregation boundary
28.11 Compact/wide boundary
28.12 Dominant-body boundary
28.13 Orbital-spacing boundary
28.14 Dynamical-excitation boundary
28.15 Eccentricity boundary
28.16 Inclination boundary
28.17 Resonance boundary
28.18 Gap boundary
28.19 Host-generated stable-domain boundary
28.20 Endogenous stable-domain boundary
28.21 Circumstellar/circumbinary boundary
28.22 Multi-domain architecture boundary
28.23 Debris/satellite boundary
28.24 Membership boundary
28.25 Collision/coalescence boundary
28.26 Ejection boundary
28.27 Capture/exchange boundary
28.28 Irreducible host × material boundary
28.29 Irreducible host × planetary boundary
28.30 Higher-arity planetary boundary
28.31 Access-generated apparent boundary
28.32 Unrepresented architecture distinction
29. EDGEQ
29.1 Known consequential boundaries
29.2 Host-field boundaries
29.3 Multi-stellar boundaries
29.4 Stable-domain boundaries
29.5 Body-type boundaries
29.6 Unrepresented distinctions
29.7 Outward contacts
29.8 Carrier disagreements
29.9 Access disagreements
29.10 No priority from famous systems
29.11 No priority from conventional taxonomy
29.12 No priority from rarity
30. EWALK
30.1 Walk host-field topology
30.2 Walk consequential stellar-center count
30.3 Walk planetary composition
30.4 Walk body-type abundance
30.5 Walk mass allocation
30.6 Walk volume allocation
30.7 Walk radial ordering
30.8 Walk radial extent
30.9 Walk spacing
30.10 Walk excitation
30.11 Walk resonance
30.12 Walk stable-domain topology
30.13 Walk multi-domain topology
30.14 Walk membership
30.15 Walk higher-order coupling
30.16 Stop at fracture/access/resource/cycle
31. BRACKET
31.1 Last equivalent interior architecture
31.2 First inequivalent exterior architecture
31.3 Preserve inside/outside pair
31.4 Refine crossing
31.5 Identify smallest consequential architecture difference
31.6 Test carrier substitution
31.7 Test matched access
31.8 Test conditional masks
31.9 Reject representation-only fracture
32. BSEED
32.1 Consequence difference
32.2 Single-coordinate separator
32.3 Joint separator
32.4 Host-field separator
32.5 Material separator
32.6 Body-type separator
32.7 Relational separator
32.8 Stable-domain separator
32.9 Membership separator
32.10 Higher-arity separator
32.11 Provenance
32.12 Representation invariance
32.13 Replay
32.14 Candidate boundary admission
33. Recursive architecture exploration
33.1 Exterior state becomes new basin origin
33.2 Construct exterior basin
33.3 Deduplicate basin signatures
33.4 Explore all new edges
33.5 Branching classes
33.6 Nested classes
33.7 Convergent classes
33.8 Disconnected equivalent classes
33.9 Cycle detection
33.10 Access debt
33.11 Resource debt
33.12 Stop only at fixed point or typed debt
34. Derive planetary-system classes
34.1 Class = replay-stable architecture basin
34.2 Class identity = minimal architecture signature
34.3 Boundary width
34.4 Class adjacency
34.5 Class nesting
34.6 Cross-cutting classes
34.7 Convergent classes
34.8 Boundary systems
34.9 Hybrid systems
34.10 Single-host classes
34.11 Multi-host classes
34.12 Cross-host equivalent classes
34.13 Provisional class
34.14 Replay-certified class
X. Source reconstruction after class derivation
35. Host-field boundary exploration
35.1 Walk stellar mass
35.2 Walk stellar number
35.3 Walk stellar mass ratio
35.4 Walk stellar separation
35.5 Walk stellar eccentricity
35.6 Walk hierarchy
35.7 Walk mutual inclination
35.8 Walk luminosity
35.9 Walk XUV / energetic field
35.10 Walk host-field temporal evolution
35.11 Determine first architecture consequence
35.12 Identify non-load-bearing host variables
35.13 Derive host-field basins from consequences
36. Multi-stellar architecture exploration
36.1 Single consequential center -> dual center
36.2 Dual center -> higher multiple
36.3 Wide -> close binary
36.4 Hierarchical -> strongly coupled
36.5 Circumstellar -> circumbinary topology
36.6 One planetary domain -> multiple subdomains
36.7 Companion-driven material truncation
36.8 Companion-driven dynamical excitation
36.9 Companion-driven architecture destruction
36.10 Companion-driven capture/exchange
36.11 Locally irrelevant wide companion
36.12 Scale at which companion becomes consequential
36.13 Multi-stellar exclusive architecture basin
37. Material-source exploration
37.1 Walk accessible material amount
37.2 Walk refractory inventory
37.3 Walk volatile inventory
37.4 Walk H/He inventory
37.5 Walk radial distribution
37.6 Walk thermal state
37.7 Walk material connectivity
37.8 Walk transport barriers
37.9 Walk capture accessibility
37.10 Walk incorporation accessibility
37.11 Body-type reachability fracture
37.12 Architecture fracture without body-type change
38. Host × material joint court
38.1 Source-realizable matched material states
38.2 Vary host field
38.3 Source-realizable matched host states
38.4 Vary material state
38.5 Direct host effect
38.6 Material-mediated host effect
38.7 Pre-body-dynamics-mediated host effect
38.8 Compensation
38.9 Amplification
38.10 Suppression
38.11 Irreducible joint source boundary
38.12 Counterfactual non-realizability debt
38.13 Do not erase mediated cause by fixing mediator
39. Host × planetary joint court
39.1 Host-generated topology
39.2 Planet-generated topology
39.3 Host-dominated architecture
39.4 Planet-dominated subdomain topology
39.5 Joint host × planet topology
39.6 P5 as secondary field generator
39.7 Compact chain as higher-order generator
39.8 Discover minimum consequential arity
39.9 Scale-dependent generator role
XI. Evolution and survivor architecture
40. Architecture transition graph
40.1 Nodes = architecture classes
40.2 Host-field transition edges
40.3 Body-type transition edges
40.4 Stable-domain transition edges
40.5 Radial-ordering transition edges
40.6 Membership transition edges
40.7 Reversible edges
40.8 Irreversible edges
40.9 Branching edges
40.10 Convergent edges
41. Survivor architecture
41.1 Present system as survivor state
41.2 Present planets not assumed primordial census
41.3 Present host configuration not assumed primordial host configuration
41.4 Migration
41.5 Scattering
41.6 Ejection
41.7 Collision
41.8 Coalescence
41.9 Capture
41.10 Inter-host transfer
41.11 Body-type transmutation
41.12 Stellar ejection
41.13 Stellar merger
41.14 Stellar hierarchy decay
41.15 Flyby restructuring
41.16 Persistent architecture basin rather than terminal frozen state
42. Joint ancestry hypergraph
42.1 Planet 1 -> 1 persistence
42.2 Planet 1 -> 1 transmutation
42.3 Planet 2 -> 1 coalescence
42.4 Planet 1 -> N fracture
42.5 Stellar S3 -> S2 + S1 decay
42.6 Stellar S2 -> S1 merger
42.7 Stellar ejection
42.8 Host reassignment
42.9 General N -> M ancestry edge
42.10 Present architecture does not invert uniquely to ancestry
42.11 Replay does not instantiate ancestor
XII. Cross-epoch reconstruction
43. Cross-epoch gluing bridge
43.1 Disk epoch
43.2 Assembly epoch
43.3 Transitional planetary epoch
43.4 Mature survivor epoch
43.5 Host coordinates surviving across epochs
43.6 Material coordinates not surviving across epochs
43.7 Population matching by stellar field
43.8 Population matching by stellar topology
43.9 Population matching by environment
43.10 Cross-epoch transport relation
43.11 Cross-epoch transport is not individual ancestry
43.12 Cross-epoch uncertainty/debt
44. Architecture-to-source inversion wall
44.1 Architecture -> inverse source fiber
44.2 Same architecture from different host fields
44.3 Same architecture from different material states
44.4 Same architecture from different ancestry
44.5 Same present single-star state from different stellar ancestries
44.6 Different architectures from one source basin
44.7 Source fiber shrinkage under new observations
44.8 Unique source only after independent discrimination
XIII. Certification and adversarial courts
45. Boundary certification
45.1 Nonempty consequence difference
45.2 Source ownership
45.3 Carrier survival
45.4 Coordinate survival
45.5 Access survival
45.6 Conditional-mask survival
45.7 Cross-system recurrence
45.8 Minimal separator
45.9 Joint irreducibility
45.10 Replay stability
45.11 No arbitrary cutoff
45.12 No density-only class
46. Host-field adversarial court
46.1 Large stellar mass, negligible local consequence
46.2 Small companion mass, strong local consequence
46.3 Stellar label changed, field topology unchanged
46.4 Field topology changed, stellar count unchanged
46.5 Radiative topology changes without gravitational fracture
46.6 Gravitational fracture without comparable radiative change
46.7 P5 acting as field generator
46.8 Stellar companion locally quotiented but retained in broader system state
47. Synthetic completeness court
47.1 Continuous populations
47.2 Known sharp boundaries
47.3 Hide planets
47.4 Hide outer giants
47.5 Hide stellar companions
47.6 Hide one member of multiple-star system
47.7 Preserve dynamical scars after masking
47.8 Test false architecture boundaries
47.9 Test missed architecture boundaries
48. Representation adversarial court
48.1 Coordinate remapping
48.2 Architecture metric changes
48.3 Carrier substitution
48.4 Stellar label erasure
48.5 Planet label erasure
48.6 Disk-readout substitution
48.7 Remove reconstructed variables
48.8 Require invariant boundary recovery
49. Causal ownership court
49.1 Direct host support
49.2 Material-mediated host support
49.3 Pre-body-dynamical host support
49.4 Post-body host support
49.5 Planet-generated support
49.6 Higher-order planetary support
49.7 Host × material support
49.8 Host × planetary support
49.9 Redundant pathways
49.10 Minimal sufficient source body
49.11 Source-realizable counterfactual
49.12 Unresolved ownership debt
XIV. Empirical architecture atlas
50. Architecture-class atlas
50.1 Class identifier
50.2 Minimal architecture signature
50.3 Host-field topology
50.4 Consequential host-center count
50.5 Body-type composition
50.6 Planetary multiplicity
50.7 Mass distribution
50.8 Volume distribution
50.9 Radial ordering
50.10 Stable-domain topology
50.11 Dynamical organization
50.12 Multi-domain structure
50.13 Survivor membership
50.14 Adjacent classes
50.15 Boundary definitions
50.16 Access limitations
50.17 Observed exemplars
51. Empirical exemplar families
51.1 Wide radially segregated architectures
51.2 Compact resonant chains
51.3 Compact envelope-bearing architectures
51.4 High-multiplicity compact architectures
51.5 Wide giant-dominated architectures
51.6 Circumbinary architectures
51.7 Multi-stellar circumstellar architectures
51.8 Hot-giant systems with neighboring planets
51.9 Mixed inner-small / outer-giant architectures
51.10 Boundary-proximal systems
51.11 Cross-host architecture analogues
52. Source-class atlas
52.1 One consequential host-center basins
52.2 Dual consequential host-center basins
52.3 Higher-order host-center basins
52.4 Wide-companion non-load-bearing regimes
52.5 Material-access basins
52.6 Pre-body dynamical basins
52.7 Host × material basins
52.8 Host × planetary basins
52.9 Source coordinates with no architecture consequence
53. Source-to-architecture cross-map
53.1 Reach_PxA(S)
53.2 Source class -> joint-state support
53.3 Source class -> architecture support
53.4 Architecture -> inverse source fiber
53.5 One source -> multiple architectures
53.6 Multiple sources -> one architecture
53.7 Single-host / multi-host convergence
53.8 Multi-host exclusive architecture regions
53.9 Cross-epoch mappings
53.10 Hidden source coordinates
XV. Observational decision outputs
54. Streetlight audit
54.1 Close-in detection bias
54.2 Compact-system bias
54.3 Long-period incompleteness
54.4 Hidden outer giants
54.5 Hidden stellar companions
54.6 Hidden multiple-star topology
54.7 Hidden debris architecture
54.8 Hidden architecture classes
54.9 Apparent rarity versus access rarity
55. Boundary-generated observation strategy
55.1 Systems nearest architecture boundaries
55.2 Systems nearest host-field boundaries
55.3 Systems nearest multi-stellar transitions
55.4 Hidden-companion discrimination
55.5 Outer-planet discrimination
55.6 Body-type discrimination
55.7 Disk-material discrimination
55.8 Dynamical-shadow discrimination
55.9 Source-fiber discrimination
55.10 Candidate new source coordinate
55.11 Candidate new physics
XVI. Terminal comparative placements
56. Solar-System placement
56.1 Host gravitational field
56.2 Host radiative field
56.3 One consequential stellar center
56.4 Planet-body type sequence
56.5 Planetary mass distribution
56.6 Planetary volume distribution
56.7 Radial segregation
56.8 Stable-domain topology
56.9 Dynamical organization
56.10 Debris architecture
56.11 Survivor membership
56.12 Architecture-basin placement
56.13 Nearest class boundaries
56.14 Source-fiber placement
56.15 Matched-access comparison only
57. Multi-stellar system placement
57.1 Circumstellar-in-binary architecture
57.2 Circumbinary architecture
57.3 Hierarchical triple architecture
57.4 Multiple planetary subdomains
57.5 Mixed circumstellar/circumbinary architecture
57.6 Stellar-exchange candidate architecture
57.7 Host-field-equivalent but stellar-count-different systems
57.8 Architecture convergence across host topologies
57.9 Architectures requiring multiple consequential host centers
XVII. Final TSCT outputs
58. Output products
58.1 Planet-body type map
58.2 Planet-body boundary atlas
58.3 Host-field manifold map
58.4 Consequential-center map
58.5 Pre-body dynamical-access map
58.6 Material-access topology map
58.7 Architecture basin map
58.8 Architecture boundary atlas
58.9 Architecture transition graph
58.10 Endogenous orbital-topology map
58.11 Multi-stellar domain map
58.12 Survivor-architecture map
58.13 Joint ancestry-hypergraph map
58.14 Cross-epoch transport map
58.15 Source-to-joint-state reachability graph
58.16 Architecture-to-source inverse-fiber map
58.17 Conditional-access map
58.18 Dynamical-shadow map
58.19 Empirical exemplar atlas
58.20 Observation-priority queue
58.21 Unrepresented-distinction queue
58.22 Unresolved recurrent-boundary map
58.23 Candidate new source coordinates
58.24 Candidate new physics
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