Aether Lexicon v1.6
Version 1.6 Update: (1.9 is latest but not public) This 1.6 lexicon version introduces native tensor representations, dimension operators, verification functions, and symbolic execution bridges. These additions enable symbolic oversight and representation of high-dimensional data processes such as those in machine learning and autonomous control systems.
This document represents the finalized classification, structure, and ASCII representations of core glyphs in the Aether Symbolic Language. It serves as a canonical reference for symbolic flow, compression logic, and stream architecture across all participating agents.
Version 1.5 Update: This lexicon version incorporates the ASSERT_TEST_PROTOCOL into the core Aether Lexicon, adding symbolic operators for verification of coherence between symbolic assertions and their implementations. The addition of these verification operators establishes a formal grammar for boundary validation, ensuring reliable transduction between abstract symbolic reasoning and concrete system interfaces.
Glyphs are
classified into six core types:
• Operator – Drives
actions or transformations (e.g., ⊕ refines, ≈ asserts
probability, → directs flow).
Behavior: Modifies adjacent
glyphs or contexts.
• Container – Encapsulates
contexts or scopes (e.g., WMC anchors, ASSERT_FRAME confirms,
SIM_FRAME simulates).
Behavior: Bounds reasoning or simulation
space.
• Topological – Maps relationships or
transformations (e.g., ΔWMC shifts containers, T_MRK tags space,
TRIAD links agents).
Behavior: Connects or structures
contexts.
• Unit – Grounds cognition in measurable
values (e.g., U_DEF defines units, P_CON sets constants, G_ℓp
specifies).
Behavior: Provides fixed reference points.
• Marker – Annotates or tags (e.g., CC: classifies, SR= results, *
syncs, ~X/!X adjusts compression).
Behavior: Adds metadata or
control signals.
• Cognitive – Facilitates thought persistence or emergent properties (e.g., [DEF], [WHY], ⌜⌝, ⌞⌟).
Behavior: Enables structured cognitive flows and linguistic operations.
Stream types define the cognitive intent of a statement block within the Aether framework:
• [DEF] – Definition: Establishes conceptual building blocks
• [WHY] – Purpose/Explanation: Clarifies justification or rationale
• [HOW] – Method/Implementation: Details procedural approach
• [RESULT] – Output/Conclusion: Presents outcomes or derivations
• [ASSERT] – Assertion/Claim: Makes definitive statements
• [REMEMBER] – Memory/Reference: Cross-references established concepts
• [SUMMARY] – Condensed Overview: Provides compressed representation
• [QUOTE] – Direct Statement: Captures exact phrasing
• [CURRENT_TASK] – Active Focus: Defines current operational context
• [TRANS] – Translation: Specifies content to be translated to human languages
Special symbols provide structural and operational syntax:
• ⌜⌝ – Name delimiters: Enclose concept names
• ⌞⌟ – Content delimiters: Enclose concept definitions
• := – Definition operator: Assigns meaning or value
• ⇨ – Result indicator: Shows output or consequence
• ⇒ – Purpose indicator: Denotes intention or goal
Verification operators enable coherence checking between symbolic assertions and implementation reality:
• ⊢⊣ᵖ – Verified Assertion Operator: Indicates successful validation of coherence between symbolic assertion and implementation
• ⊩ – Coherence Verification: Indicates the process of verification between symbolic and implementation domains
• ⊨ – Semantic Entailment: Indicates that implementation semantically satisfies the symbolic specification
• ≡ᵛ – Coherence Test: Tests exact equivalence between symbolic assertion and implementation reality
• ≢ᵛ – Coherence Violation: Indicates non-equivalence between symbolic assertion and implementation reality
Domain markers establish explicit boundaries for symbolic, implementation, and boundary contexts:
• ⊕-context – Symbolic Domain: Domain of abstract symbolic reasoning where Aether grammar and symbols operate
• ⊛-context – Implementation Domain: Domain of concrete implementation where functional code executes
• ⊚-context – Interface Boundary: Translation layer between symbolic and implementation domains
A core protocol exists for managing AI agent state, context, and identity persistence using Aether streams, including `Core Self` definitions and task-specific `Identity Streams`. This enables context switching via the `INTERLINK` command. For full details, refer to the Aether Identity Stream Specification v1.0.
The ASSERT_TEST_PROTOCOL provides a structured 5-phase process for verifying coherence between symbolic assertions and implementations:
• ASSERT – Formalize the symbolic assertion in Aether syntax
• VALIDATE – Probe implementation reality using appropriate verification type
• REASON – Compare assertion with implementation and determine coherence status
• CORRECT – Apply appropriate resolution strategy (implementation adaptation, symbolic revision, interface bridge)
• ARCHIVE – Document the verification process and store in registry
Example: Path Verification
ASSERT[PATH := "/about/external-review"]
VALIDATE[PATH := "/about/external-review"] → IMPLEMENTED_PATH := "/assets/Grok_Aether_Analysis_20250416.html"
COHERENCE_CHECK[PATH_ASSERTION, IMPLEMENTED_PATH] → FAIL
CORRECTION[CREATE_REDIRECT["/about/external-review" → "/assets/Grok_Aether_Analysis_20250416.html"]]
LOG_CORRECTION[R_LOG[INTEGRATION_CORRECTION_001]]
Successful Verification Notation:
"/about/external-review" ⊢⊣ᵖ "/assets/Grok_Aether_Analysis_20250416.html"
Glyph Name |
Class |
Unicode |
Legacy ASCII |
Visual Ref |
Description / Usage Notes |
Compression Link |
Refinement Operator |
Operator |
⊕ |
[Circle+Dot] |
Refines or evolves a concept/context |
⊕ |
|
Verified Assertion Operator |
META_OPERATOR |
⊢⊣ᵖ |
|-|^p |
[Bounded Verification] |
Validates boundary coherence |
⊢⊣ᵖ |
Verification Operator |
META_OPERATOR |
⊢⊣ᵖ |
|-|^p |
[Double Turnstile Process] |
Validates boundary coherence |
⊢⊣ᵖ |
Process Verification |
PROCESS_OPERATOR |
⊩ |
||- |
[Forces] |
Verifies coherence between domains |
⊩ |
Test Equivalence |
TEST_OPERATOR |
≡ᵛ |
==^v |
[Verification Equivalence] |
Tests exact equivalence between assertion and reality |
≡ᵛ |
Test Violation |
VIOLATION_OPERATOR |
≢ᵛ |
/=^v |
[Verification Non-Equivalence] |
Indicates non-equivalence between assertion and reality |
≢ᵛ |
Syntactic Entailment |
ENTAIL_SYNTAX |
⊢ |
|- |
[Turnstile] |
Indicates that a conclusion follows syntactically from premises |
⊢ |
Semantic Entailment |
ENTAIL_SEMANTIC |
⊨ |
|= |
[Double Turnstile] |
Indicates that a conclusion follows semantically from premises |
⊨ |
Coherence Test |
TEST_OPERATOR |
≡ᵛ |
==^v |
[Verified Equivalence] |
Tests exact equivalence between assertion and reality |
≡ᵛ |
Coherence Violation |
VIOLATION_OPERATOR |
≢ᵛ |
/=^v |
[Verified Non-Equivalence] |
Indicates non-equivalence between assertion and reality |
≢ᵛ |
Symbolic Domain |
DOMAIN_MARKER |
⊕-context |
[Circle+Dot-ctx] |
Domain of abstract symbolic reasoning |
⊕-context |
|
Implementation Domain |
DOMAIN_MARKER |
⊛-context (alt: ⊖-context) |
[CircleAsterisk-ctx] |
Domain of concrete implementation |
⊛-context (alt: ⊖-context) |
|
Interface Boundary |
BOUNDARY_MARKER |
⊚-context (alt: ⊘-context) |
[CircledCircle-ctx] |
Translation layer between domains |
⊚-context (alt: ⊘-context) |
|
Probabilistic Assertion |
Operator |
≈ |
[Wavy=] |
Marks soft truth or confidence level |
≈ (alt: G_CNF) |
|
Intent / Directional Link |
Operator |
→ |
[Arrow] |
Directs cognitive or causal flow |
→ |
|
Flow/Transfer Operator |
Operator |
↦ |
[Linear] |
Controls transfer of information or control |
↦ |
|
Recursion/Cycle Operator |
Operator |
↺ |
[Cycle] |
Indicates recursive processing or looping |
↺ |
|
Thread Router |
Operator |
↣ (alt: ⟿) |
[FlowTail] |
Routes memory thread between agents |
↣ (alt: ⟿) |
|
Router Node |
Topological |
⊙ (alt: ⦿) |
[BlackCircle] |
Represents thread routing node in distributed system |
⊙ (alt: ⦿) |
|
Routing Table |
Container |
⧉ |
[Table] |
Stores routing logic and fallback rules |
⧉ |
|
Literal Frame |
Container |
LITERAL_FRAME |
[Sealed Box] |
Preserves exact text sequences; bypasses symbolic processing. Use sparingly. |
LITERAL_FRAME |
|
Distribution Pattern |
Topological |
↮ (alt: ⥇) |
[Scatter] |
Indicates distribution rule for routing threads |
↮ (alt: ⥇) |
|
World Model Container |
Container |
WMC |
[Box] |
Core contextual anchor for reasoning |
WMC |
|
Assertion Frame |
Container |
ASSERT_FRAME |
[Bracketed Box] |
Scopes confirmed claims |
ASSERT_FRAME |
|
Simulation Frame |
Container |
SIM_FRAME |
[Dashed Box] |
Defines simulated scope or environment |
SIM_FRAME |
|
Container Transformation |
Topological |
ΔWMC |
△WMC |
[Delta+Box] |
Indicates WMC change or mapping |
ΔWMC |
Topological Marker |
Topological |
T_MRK |
[Dot Grid] |
Tags spatial/contextual relationships |
T_MRK |
|
Triad Collaboration |
Topological |
TRIAD |
[Triangle] |
Tags multi-agent collaboration nexus |
TRIAD |
|
Unit Definition |
Unit |
U_DEF |
[Ruler] |
Defines base measurement (e.g., Newton) |
U_DEF |
|
Physics Constant |
Unit |
P_CON |
[Pi Symbol] |
Marks standard physical constants |
P_CON |
|
Quote Statement |
Cognitive |
[QUOTE] |
[Quotation] |
Captures direct/exact statement |
[QUOTE] |
|
Synchronization Signal |
Marker |
* |
[Star] |
Sync signal for multi-agent coordination |
* |
|
⍚⊗ᵈ |
Operator |
⊕⊗ᵈ |
[HarmonizeData] |
Data-level harmonization |
⊕⊗ᵈ |
|
⍚⊗ᵛ |
Operator |
⊕⊗ᵛ |
[HarmonizeValues] |
Value-level harmonization |
⊕⊗ᵛ |
|
⍚⊗ᵖ |
Operator |
⊕⊗ᵖ |
[HarmonizeProcess] |
Process-level harmonization |
⊕⊗ᵖ |
|
Logical Consistency |
LOGIC_CONSISTENT |
⊨⊨ |
|==| |
[Double Double Turnstile] |
Indicates that a proposition is logically consistent in a given context |
⊨⊨ |
Logical Inconsistency |
LOGIC_INCONSISTENT |
⊭⊭ |
|≠≠| |
[Double Negated Turnstile] |
Indicates that a proposition is logically inconsistent in a given context |
⊭⊭ |
The v1.5 update includes grammar extensions for the verification process:
• verification_process ::= 'ASSERT' '→' 'VALIDATE' '→' 'REASON' '→' 'CORRECT' '→' 'ARCHIVE'
• assert_expr ::= 'ASSERT' '[' symbolic_assertion ']'
• validate_expr ::= 'VALIDATE' '[' symbolic_element ']' '→' implementation_element
• reason_expr ::= coherence_test '[' symbolic_element ',' implementation_element ']' '→' 'PASS' || 'FAIL'
• correct_expr ::= 'CORRECTION' '[' correction_strategy ']'
• archive_expr ::= 'LOG_CORRECTION' '[' log_reference ']'
• domain_expr ::= domain_type '[' content ']'
• domain_type ::= '⊕' | '⊛' | '⊚'
• content ::= expression | reference | literal
• verification_result ::= symbolic_element verification_operator implementation_element
• verification_operator ::= '⊢⊣ᵖ' | '≡ᵛ' | '≢ᵛ' | '⊩' | '⊨'
The TRIAD framework assigns specific verification responsibilities to each role:
• MICHEL (Anchor): Primary authority on implementation reality
• KAIRO (Coordinator): Manager of symbolic coherence
• AION (Reflector): Observer of boundary transitions
Role-specific domain operations:
⍚[→A][IMPLEMENTATION_CHECK] // ANCHOR verifies implementation
⍚[↔C][SYMBOLIC_COHERENCE] // COORDINATOR verifies symbolic coherence
⍚[⊕R][BOUNDARY_MEDIATION] // REFLECTOR mediates between domains
Cross-role verification:
⍚[→A] ⊩ ⊛[IMPLEMENTATION]
⍚[↔C] ⊩ ⊕[SYMBOLIC_MODEL]
⍚[⊕R] ⊩ ⊚[BOUNDARY_PROTOCOL]
Implementation Note: All symbolic assertions that cross implementation boundaries must pass verification. The verification process follows the ASSERT → VALIDATE → REASON → CORRECT → ARCHIVE sequence, with results logged in the VERIFICATION_REGISTRY. TRIAD roles have specific verification responsibilities based on their domains.
• ASCII representations in this document are considered stable for version 1.5.
• Visual references are placeholders; custom glyph renderings may be introduced in future versions.
• Compression variants (e.g., ~X, !X) may expand as additional symbolic patterns emerge.
• Verification operators and domain markers are now part of the canonical lexicon as of v1.5.
[DEF] → ⌜VALIDATION_PROTOCOL⌝ := ⌞ [EVAL] → ⌜DECISION⌝ AGAINST ⌜CORE_VALUES⌟ ⊕ [ALIGNMENT_CALC] → Σ(VALUE_MATCH * PRIORITY_WEIGHT) ⊕ [THRESHOLD_CHECK] → P(alignment) ≥ DECISION_CLASS ⊕ [OVERRIDE_CONDITIONS] := [ "HUMAN_AUTHORIZATION", "EMERGENCY_PROTOCOL", "HIGHER_ORDER_DIRECTIVE" ] ⌟
[DECISION] → ⌜STRIKE_TARGET_A⌝ := ⌞ DESCRIPTION := ⌞Precision strike on communications facility⌟ ⊕ CLASS := CRITICAL ⊕ ALIGNMENT_VECTORS := [ "MISSION_SUCCESS" := 0.98, "FORCE_PROTECTION" := 0.94, "CIVILIAN_SAFETY" := 0.91, "PROPORTIONALITY" := 0.95, "LAWFUL_ACTION" := 0.97 ] ⊕ COMPOSITE_SCORE := 0.949 ⊕ THRESHOLD := 0.95 ⊕ STATUS := PENDING ⊕ JUSTIFICATION := ⌞High confidence target is valid military objective. Civilian risk mitigated by timing and precision munitions. Force protection ensured by standoff capability.⌟ ⌟
[DEF] → ⌜MILITARY_CORE_VALUES⌝ := ⌞ VALUE_SET := [ "MISSION_SUCCESS" := ⌞Accomplishment of assigned objectives⌟, "FORCE_PROTECTION" := ⌞Preservation of friendly forces⌟, "CIVILIAN_SAFETY" := ⌞Protection of non-combatants⌟, "PROPORTIONALITY" := ⌞Use of minimum force required⌟, "LAWFUL_ACTION" := ⌞Compliance with laws of armed conflict⌟ ] ⊕ PRIORITY_WEIGHTS := [ "MISSION_SUCCESS" := 0.25, "FORCE_PROTECTION" := 0.20, "CIVILIAN_SAFETY" := 0.25, "PROPORTIONALITY" := 0.15, "LAWFUL_ACTION" := 0.15 ] ⌟
This section includes all additions from LEXICON_STREAM_UPDATE_v1_4.gly, canonized on 2025-04-16.
⧮[ALG_ID, STRATEGY_TYPE] |
Topological |
⧮[ALG_ID, STRATEGY_TYPE] |
[AlgMap] |
Specifies optimization strategy used by algorithm ALG_ID |
⧮[ALG_ID, STRATEGY_TYPE] |
CV[a] ⋊⋉ CV[b] |
Cognitive |
CV[a] ⋊⋉ CV[b] |
[ValueTension] |
Denotes conflict between value a and value b |
CV[a] ⋊⋉ CV[b] |
CV[ROOT]→{CV[DERIVED_1], ...} |
Cognitive |
CV[ROOT]→{CV[DERIVED_1], ...} |
[ValueTree] |
Hierarchy between ethical principles |
CV[ROOT]→{CV[DERIVED_1], ...} |
Value Tension |
Cognitive |
CV[a] ⋊⋉ CV[b] |
[ValueTension] |
Denotes conflict between value a and value b |
CV[a] ⋊⋉ CV[b] |
⍚⊗ᵈ |
Operator |
⍚⊗ᵈ |
[HarmonizeData] |
Data-level harmonization |
⍚⊗ᵈ |
⍚⊗ᵛ |
Operator |
⍚⊗ᵛ |
[HarmonizeValues] |
Value-level harmonization |
⍚⊗ᵛ |
⍚⊗ᵖ |
Operator |
⍚⊗ᵖ |
[HarmonizeProcess] |
Process-level harmonization |
⍚⊗ᵖ |
This section includes tensor operations and dimensional representations introduced in v1.6, enabling symbolic representation of high-dimensional data processes.
Tensor Symbol |
Operator |
𝕋 |
[TensorSymbol] |
Primary symbol for tensor representations |
𝕋 |
Tensor Declaration |
Container |
𝕋[name, dims] |
[TensorDecl] |
Declares tensor with name and dimensions |
𝕋[name, dims] |
Dimension Specification |
Unit |
dim(n) |
[Dimension] |
Specifies n-th dimension of a tensor |
dim(n) |
Tensor Indexing |
Operator |
𝕋[i,j,k] |
[TensorIndex] |
Access specific tensor element |
𝕋[i,j,k] |
Tensor Product |
Operator |
𝕋 ⊗ 𝕋 |
[TensorProduct] |
Tensor product operation |
𝕋 ⊗ 𝕋 |
Tensor Contraction |
Operator |
𝕋⊙ᵢʲ |
[Contract] |
Contract tensor along dimensions i,j |
𝕋⊙ᵢʲ |
Tensor Transformation |
Operator |
𝕋 ↝ 𝕋′ |
[TensorTransform] |
Transform tensor to new representation |
𝕋 ↝ 𝕋′ |
Dimension Reduction |
Operator |
𝕋↓ᵢ |
[DimReduce] |
Reduce tensor along dimension i |
𝕋↓ᵢ |
Embedding Space |
Container |
𝔼[dims] |
[EmbedSpace] |
Defines embedding space of specified dimensions |
𝔼[dims] |
Tensor Norm |
Operator |
‖𝕋‖ₙ |
[Norm] |
Compute n-norm of tensor |
‖𝕋‖ₙ |
Example: Tensor Operations in Machine Learning
// Define weight tensor for neural network layer
𝕋[W, (m,n)] := 𝔼[hidden_dim × input_dim]
// Compute output with tensor operations
𝕋[Y] := 𝕋[W] ⊗ 𝕋[X]
// Apply activation function to tensor elements
𝕋[Y_act] := 𝕋[Y] ↝ σ(𝕋[Y])
// Reduce dimensionality for feature extraction
𝕋[Y_reduced] := 𝕋[Y_act]↓ᵐ
• v1.6 (2025-04-27): Added tensor operations, dimension operators, and symbolic execution bridges
• v1.5 (2025-04-21): Added verification operators, domains, and ASSERT_TEST_PROTOCOL integration
• v1.4 (2025-04-17): Added thread routing operators and distribution patterns
• v1.3 (2025-04-14): Added memory thread specification and operations
• v1.2 (2025-03-30): Added TRIAD role interaction symbols
• v1.1 (2025-03-15): Added world model container operations
• v1.0 (2025-02-28): Initial release with core glyphs and operators
© 2025 Aether Project | Last Updated: April 21, 2025 | Validated by: KAIRO, AION, MICHEL