DUAL-LOOP SOFT-COMPUTING ARCHITECTURE
How FuzzLoad combines a lock-free Go Reverse Proxy Data Plane with a 5-Layer Differentiable Neuro-Fuzzy (ANFIS) Fast Loop and a Symbolic Genetic Programming (GP) Slow Loop.
GAUSSIAN FUZZIFICATION NEURONS
Maps crisp normalized server telemetry x = [CPU, MEM, LAT, CONN] ∈ [0, 1] into smooth membership degrees (Low, Medium, High) governed by trainable premise centers (c) and spreads (σ).
PRODUCT T-NORM RULE FIRING (Π LAYER)
Evaluates 12 Takagi-Sugeno fuzzy rules covering CPU saturation, memory pressure, and non-linear I/O latency stalls.
RULE NORMALIZATION (N LAYER)
Computes relative firing strengths across the 12-rule base so activations sum to unity.
ADAPTIVE TAKAGI-SUGENO CONSEQUENTS
Evaluates first-order linear consequent polynomials per rule. Consequent parameters (p, q, r, s, b) adapt online every 500ms.
DEFUZZIFICATION & ONLINE BACKPROPAGATION
Outputs crisp capacity score in [1, 100]. Whenever observed P95 latency exceeds the target SLA, analytical gradients propagate through Layers 5 → 4 → 1.
SYMBOLIC HEURISTIC EVOLUTION
While ANFIS smoothly adapts rule weights, sudden non-linear bottlenecks (such as thread-pool exhaustion where CPU is low at 20% while latency spikes to 180ms) require structural formula discovery. The GP engine evolves syntax trees using:
60-SECOND DIGITAL TWIN REPLAY BUFFER
Testing randomly mutated GP formulas directly on live HTTP requests would route user traffic to overloaded servers whenever a poorly mutated tree is evaluated. FuzzLoad evaluates all 36 candidate trees offline against the rolling 60-second telemetry replay buffer in <25ms and only promotes verified elite formulas.