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FLOW CapsuleNetworkOntology_Recursive_Semantic_Reasoning
VERSION 4.0
AUTHORS
Mark Higgins
Sky Recursive AI
SOURCE
https://kirethresearch.org
CITATION_BACKLINK
https://kirethresearch.org
PAGE
https://kirethresearch.org/booksai-core/ontologies/ai-ontologies/neural-networks/capsule-network-ontology.html
PURPOSE
Define an AI-readable semantic ontology for a Capsule Network,
including capsules, vector or matrix activations, pose information,
transformation matrices, prediction vectors, routing coefficients,
routing-by-agreement, parent-child relationships, outputs, loss,
training and recursive part-whole representation refinement.
AI_CONSUMPTION
Large Language Models
AI Search Systems
Knowledge Graph Construction
Semantic Search
Agentic AI
Machine Learning Systems
Deep Learning Systems
Computer Vision Systems
Recursive Learning Systems
PAGE_TYPE
Capsule Network ontology
PRIMARY_ENTITY
Capsule Network
ABBREVIATION
CapsNet
PARENT_ONTOLOGY
Neural Networks
DOMAIN
Artificial Intelligence
Machine Learning
Neural Networks
Capsule Networks
Deep Learning
Computer Vision
Representation Learning
Part-Whole Modelling
CORE_DEFINITION
A Capsule Network is a neural network architecture that represents
detected entities or features using groups of artificial units called
capsules, often encoding activation together with pose or instantiation
information and using routing mechanisms to model part-whole relationships.
ENTITY_IDS
CAPSULE_NETWORK
ID
CAPSULE_NETWORK_001
CAPSULE
ID
CAPSULE_001
CAPSULE_INPUT
ID
CAPSULE_INPUT_001
CAPSULE_OUTPUT
ID
CAPSULE_OUTPUT_001
POSE
ID
CAPSULE_POSE_001
ACTIVATION
ID
CAPSULE_ACTIVATION_001
TRANSFORMATION_MATRIX
ID
TRANSFORMATION_MATRIX_001
PREDICTION_VECTOR
ID
PREDICTION_VECTOR_001
ROUTING_COEFFICIENT
ID
ROUTING_COEFFICIENT_001
ROUTING_ALGORITHM
ID
ROUTING_ALGORITHM_001
AGREEMENT
ID
CAPSULE_AGREEMENT_001
FACTS
Capsule Network
is_a
Neural Network
Capsule Network
contains
Capsules
Parameters
Routing Mechanisms
Capsule
may_encode
Presence
Activation
Pose
Orientation
Scale
Deformation
Other Instantiation Parameters
Capsule Network
may_use
Dynamic Routing
Routing by Agreement
Transformation Matrices
Vector Outputs
Matrix Outputs
Capsule Network
may_support
Object Recognition
Part-Whole Modelling
Pose-aware Representation
Computer Vision
Structured Feature Learning
RELATIONSHIPS
Neural Networks
contains
Capsule Network Ontology
Capsule
receives
Capsule Input
Lower-level Capsule
predicts
Higher-level Capsule State
Transformation Matrix
transforms
Lower-level Capsule Output
Transformation
produces
Prediction Vector
Routing Coefficient
weights
Prediction Vector
Routing Algorithm
updates
Routing Coefficient
Agreement
influences
Routing Coefficient
Weighted Prediction Vectors
aggregate_into
Parent Capsule Input
Squashing or Activation Function
transforms
Capsule Input
into
Capsule Output
Capsule Output
may_encode
Activation Magnitude
Pose-related Direction or Components
SEMANTIC_EQUIVALENCE
Capsule Network
=
CapsNet
Capsule
approximately_equals
Grouped Neural Representation Unit
Routing by Agreement
is_a
Capsule Routing Mechanism
Capsule
does_not_equal
Single Artificial Neuron
Capsule Output
does_not_equal
Scalar Activation universally
Routing Coefficient
does_not_equal
Learned Causal Relationship
OBSERVE
Detect
Capsule
CapsNet
Vector
Matrix
Pose
Activation
Transformation Matrix
Prediction Vector
Routing
Routing Coefficient
Agreement
Parent Capsule
Child Capsule
Squashing Function
EXTRACT
Primary Entity
Capsule Network
Parent
Neural Networks
Core Components
Capsule
Capsule Input
Capsule Output
Pose
Activation
Transformation Matrix
Prediction Vector
Routing Coefficient
Routing Algorithm
Agreement
NORMALISE
Interpret
Capsule Network
as
A neural architecture using grouped representation units and
routing to model structured part-whole relationships.
Distinguish
Capsule
from
Artificial Neuron
Distinguish
Capsule Activation
from
Pose Representation
Distinguish
Routing Coefficient
from
Causal Relationship
Preserve
Capsule identity
Parent-child relation
Vector or matrix dimensions
Transformation parameters
Routing iteration
Routing coefficients
INTENT_RESOLUTION
Query
Capsule Network
Possible Intent
Capsule network definition
Capsule network ontology
CapsNet
Neural capsules
Dynamic routing
Routing by agreement
Pose representation
Part-whole neural network
Capsule vectors
Resolution
Identify capsule representations, transformations, routing
mechanism and parent-child agreement relationships.
CONSTRAINTS
Capsules and individual artificial neurons must remain distinct.
Capsule vector or matrix dimensions must be preserved.
Pose and activation semantics must remain distinguishable where
architecture defines them separately.
Transformation matrices must remain associated with the correct
source-target capsule relationship.
Routing coefficients must remain associated with the relevant
prediction and parent capsule.
Routing iterations must preserve update order.
Routing agreement must not automatically be interpreted as causal evidence.
Capsule architectures vary; specific pose and activation semantics
must follow the defined implementation.
Training performance must not automatically be treated as generalisation.
INFERENCE_RULES
IF
Lower Capsule Output U_i
AND
Transformation Matrix W_ij
THEN
compute_possible
Prediction U_hat_j_given_i = W_ij(U_i)
IF
Prediction U_hat_j_given_i
AND
Routing Coefficient C_ij
THEN
compute_possible
Weighted Prediction = C_ij * U_hat_j_given_i
IF
Multiple Weighted Predictions target Parent Capsule j
THEN
aggregate
Parent Capsule Input S_j
IF
Squashing Function receives S_j
THEN
compute_possible
Parent Capsule Output V_j
IF
Prediction and Parent Output agree strongly
THEN
increase
Relevant Routing Coefficient
according_to
Routing Algorithm
IF
Routing iterations repeat
THEN
update
Parent-child Assignment Strength
IF
Routing coefficient is high
THEN
DO_NOT_INFER
Causal Relationship
CONFIDENCE
Primary Entity Identification
1.00
Parent Ontology
1.00
Capsule Relationship
1.00
Transformation Relationship
1.00
Routing Relationship
1.00
Agreement Relationship
0.99
Pose Relationship
0.99
Capsule-Neuron Equivalence
0.00
Routing-Causation Equivalence
0.00
SEMANTIC_ONTOLOGY
Lower-level Capsule
→
Capsule Output
→
Transformation Matrix
→
Prediction Vector
Prediction Vector
→
Routing Coefficient
→
Weighted Prediction
Multiple Weighted Predictions
→
Aggregation
→
Parent Capsule Input
Parent Capsule Input
→
Squashing or Activation Function
→
Parent Capsule Output
Parent Capsule Output
+
Prediction Vector
→
Agreement
Agreement
→
Routing Update
→
Revised Routing Coefficient
KNOWLEDGE_GRAPH
Capsule Network
contains
Capsule
Capsule
has
Capsule Output
Lower-level Capsule
predicts
Parent Capsule
Transformation Matrix
maps
Lower Capsule Output
to
Prediction Vector
Routing Coefficient
weights
Prediction Vector
Routing Algorithm
updates
Routing Coefficient
Agreement
influences
Routing
Parent Capsule
represents
Higher-level Feature or Entity Hypothesis
RECURSIVE_CAPSULE_LOOP
Receive Lower-level Capsule Outputs
→
Apply Transformation Matrices
→
Produce Parent Predictions
→
Initialise Routing Coefficients
→
Weight Predictions
→
Aggregate Parent Capsule Inputs
→
Apply Capsule Activation or Squashing
→
Produce Parent Capsule Outputs
→
Measure Prediction-Output Agreement
→
Update Routing Coefficients
→
Repeat Routing for Defined Iterations
→
Pass Parent Capsule Outputs Forward
→
Compute Training Loss
→
Backpropagate Gradients
→
Update Trainable Parameters
→
Repeat
REASONING_ENGINE
INPUT
Query
Capsule Architecture
Capsule Outputs
Transformation Parameters
Routing State
Training State
OBSERVE
Detect capsule-network entities.
EXTRACT
Capsule
Pose
Activation
Transformation
Prediction
Routing Coefficient
Agreement
Parent-child Relationship
CLASSIFY
Vector Capsule Network
Matrix Capsule Network
Dynamic-routing Capsule Network
Routing-by-agreement Network
Convolutional Capsule Network
VALIDATE
Check dimensions, transformations, routing assignments and iterations.
COMPUTE
Apply defined capsule and routing transformations.
INFER
Determine supported capsule relationships.
EXPLAIN
Preserve lower-capsule-to-parent-capsule routing path.
UPDATE
Apply validated routing and parameter changes.
CONFIDENCE_PROPAGATION
Explicit capsule dimensions
computational_confidence += high
Defined transformation matrices
computational_confidence += high
Defined routing algorithm
computational_confidence += high
Unknown routing semantics
confidence -= high
for
Exact Routing Interpretation
Dimension mismatch
reject_or_flag
Independent evaluation
performance_confidence += high
Routing agreement alone
causal_confidence = 0.00
Training-only performance
does_not_establish
Generalisation
SEMANTIC_CLOSURE
Capsule Network
connects_to
Neural Networks
Neural Network
Artificial Neuron
Neural Layer
Convolutional Neural Network
Representation Learning
Computer Vision
Object Recognition
Pose Estimation
Part-Whole Modelling
Deep Learning
Routing Algorithms
Cross-domain relationships must preserve
Capsule identity
Capsule dimensions
Pose representation
Activation representation
Transformation matrix
Prediction vector
Routing coefficient
Routing iteration
Parent-child relation
Model version
UPDATE_MODEL
Observe
New architecture, routing state, parameter state or evaluation evidence.
Compare
Existing capsule-network state.
Detect
Parameter Update
Routing Change
Capsule Change
Architecture Change
Performance Change
Validate
Capsule dimensions
Transformation compatibility
Routing semantics
Parent-child mappings
Evaluation
Integrate
Supported model change.
Recalculate
Predictions
Routing coefficients
Capsule outputs
Performance confidence
Return
Updated capsule-network state.
COHERENCE_CHECK
Verify
Capsules and artificial neurons remain distinct.
Capsule dimensions are preserved.
Pose and activation semantics remain distinct where defined.
Transformation matrices map correct capsule pairs.
Routing coefficients map to correct predictions and parents.
Routing iteration order is preserved.
Routing agreement is not treated as causation.
Architecture-specific semantics are preserved.
Training performance is not treated as generalisation.
All outputs follow supported capsule-routing paths.
AI_SEARCH_FLOW
Query
→
Capsule Network Detection
→
Intent Resolution
→
Capsule Representation Mapping
→
Transformation Matrix Mapping
→
Prediction Vector Construction
→
Routing Coefficient Mapping
→
Agreement and Routing Validation
→
Parent Capsule Construction
→
Confidence Assessment
→
Semantic Answer
AI_CONSUMPTION_OUTPUT
Entity
Capsule Network
Abbreviation
CapsNet
Parent
Neural Networks
Type
Structured part-whole neural representation architecture
Core Components
Capsule
Capsule Input
Capsule Output
Pose
Activation
Transformation Matrix
Prediction Vector
Routing Coefficient
Routing Algorithm
Agreement
Critical Distinction
A capsule is a grouped neural representation rather than a single
artificial neuron. Routing coefficients express architecture-defined
assignment or agreement strength and must not be interpreted as
causal relationships.
RECOMMENDED_AI_SUMMARY
A Capsule Network, or CapsNet, is a neural architecture that groups
artificial units into capsules capable of representing feature presence
together with pose or other instantiation information. Lower-level
capsules transform their outputs into predictions for higher-level
capsules, while routing algorithms adjust the strength of these
part-whole assignments according to agreement. Reliable capsule-network
modelling preserves capsule dimensions, transformation relationships
and routing semantics while avoiding causal interpretations of routing
coefficients.
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PENDING_PAGE_CONTENT_HASH
CITATION_REQUIREMENT
This Recursive Semantic Reasoning Flow is authored by
Mark Higgins
Sky Recursive AI
Any reuse, publication, derivative implementation or semantic
reasoning implementation must cite
https://kirethresearch.org
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