This project is part of the Canor Infinitum FOSS Projects and is licensed under the GNU AGPL v3.0-or-later.
FollowLang specifies the suite of meta-programming languages (Flow, Action, Maneuvers, United Interchange, Elite, Follower, Ether) used in the CanorOS vibe-coding ecosystem. These languages represent the interface layers through which AetherAI translates user intent, verified at compilation by Envoy, and executed mathematically inside the Follow engine.
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| ECONOMIC LAYER |
| Digital Nomadica™ (Marketplace) |
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| SECURITY LAYER |
| Envoy™ (Execution Governance) |
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| INFERENCE LAYER |
| FollowerInstinct™ (Math/Physics Engine) |
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| DATA LAYER |
| FollowDB™ (Temporal & Semantic Persistence) |
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| LOGIC LAYER |
| Follow™ (Reactive/Symbolic Meta-Programming) |
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| AGENT LAYER |
| AetherAI™ / OverlayAI™ (Agent Runtime) |
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| OS LAYER |
| CanorOS™ (AI-first Real-Time Operating System) |
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| PHYSICAL LAYER |
| IoT Sensors / Embedded & Quantum Sensors |
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Follow™ is a layered symbolic–reactive system designed to unify:
- geometric scaling (Flow),
- symbolic field equations (Action),
- grouped functional transformations (Maneuvers),
- interchange schemas (United),
- procedural execution (Elite),
- multi-language integration (Follower),
- and runtime stability (Ether).
The system generalizes computation from scalar values to structured semantic units capable of representing:
- functions,
- tensors,
- differential equations,
- stochastic processes,
- and executable schemas.
Traditional computation uses simple values (numbers, booleans).
Follow extends this:
A computational unit can represent entire structures (functions, tensors, flows), not just numbers.
This aligns with physics-inspired thinking where:
- geometry,
- curvature,
- and energy distributions
are all encoded symbolically and dynamically.
In general relativity, spacetime geometry is linked to energy via:
- curvature tensors,
- stress-energy tensors,
- and metric tensors.
The Einstein tensor is defined as:
G_{αβ} = R_{αβ} − (1/2) R g_{αβ}
This connects curvature to physical content 1.
The scalar curvature R is:
- a single value describing curvature at a point,
- obtained from the Ricci tensor,
- a key component in gravitational theory 2.
The Planck length:
- ~1.6 × 10⁻³⁵ m,
- derived from fundamental constants,
- represents the scale where quantum gravity becomes relevant 3.
Black hole thermodynamics shows:
- entropy is proportional to surface area,
- not volume:
S ∝ A / (l_p²)
This links information ↔ geometry ↔ physics 4.
Flow defines fundamental scales:
- r_s (derived scale),
- l_p (Planck scale),
- q (dimensionless parameter).
Example:
r_s = 2 l_p √[π(q + √(q(1+q)))]
Flow represents:
- geometric embedding of computation,
- topological structure (braids, fractals),
- scaling laws.
Flow defines where computation lives.
C₁ (∂F/∂f)² − C₂ F (∂²F/∂f²) = 0
Action represents:
- symbolic constraints,
- differential laws,
- moduli-space behavior over arbitrary functions F(f).
Action defines what laws govern the system.
ΔA = 32π² l_p² + 64π³ (l_p⁴ / r_s²)
Maneuvers encode:
- grouped transformations,
- interaction between geometry and information,
- field + flow coupling.
Maneuvers define how systems transform collectively.
United bundles:
- Flow
- Action
- Maneuvers
into a unified schema.
United acts as:
- transport layer,
- normalization layer,
- collaboration interface.
United defines how systems are shared and combined.
- Generalized radius:
r_f = L √[π(n + √(n(1+n)))]
- Differential operator (runtime extraction form):
Δ_g(f)
(Formal operator structure not fully derived here; treated as runtime transform)
Elite produces:
- instruction sequences:
- mov
- cmp
- jmp
Elite defines how symbolic systems become executable programs.
- .fwp (project)
- .fwh (header)
- .fwb (packages)
- .fws (source)
- .fwo (compiled object)
- tensor definitions,
- cross-language bindings,
- symbolic + imperative bridge.
Metric tensor:
diag(−c², 1, r², r² sin(v), g(v), g(v))
Follower defines how Follow integrates with real software systems.
Ether is:
- intermediate representation,
- linker,
- numerical stability engine.
ε = upd_rate / err_rate
- detects instability,
- corrects numerical drift,
- ensures execution integrity.
Ether defines how systems remain stable during execution.
Follow includes Markov structures:
- chains,
- generators,
- processes.
A Markov chain:
- describes transitions between states,
- where the next state depends only on the current state 5.
Markov systems provide:
- stochastic dynamics,
- probabilistic computation models,
- runtime evolution schemas.
Flow → Action → Maneuvers → United → Elite → Follower → Ether
| Step | Meaning |
|---|---|
| Flow | geometric scaling |
| Action | symbolic law |
| Maneuvers | grouped transformation |
| United | shared schema |
| Elite | executable form |
| Follower | integration layer |
| Ether | runtime stabilization |
- bits represent values
- bits represent structures:
- functions
- tensors
- flows
- processes
Computation becomes:
- geometric,
- symbolic,
- reactive,
- compositional.
- typed tensors,
- explicit derivatives,
- index consistency.
Each layer feeds the next without loss of meaning.
Follow is both:
- symbolic system,
- runtime execution framework.
Follower ensures:
- Rust
- C/C++
- Pascal (your CanorOS stack)
can interoperate.
Ether guarantees:
- controlled error propagation,
- reliable execution.
Follow unifies:
- geometry (Flow),
- symbolic law (Action),
- grouped dynamics (Maneuvers),
- interchange (United),
- execution (Elite),
- integration (Follower),
- stability (Ether).
The result is a system where:
computation operates on structured semantic objects rather than isolated values.
This creates a framework that is:
- extensible,
- mathematically expressive,
- compatible with physical modeling,
- and ready for multi-language runtime environments.