Auditable Decision Engine

When to Use Traditional AI vs. Machine Learning

A deterministic evaluation framework for software architects. Compare Symbolic GOFAI, Classical ML (Gradient Boosters), Deep Neural Networks, and Neuro-Symbolic Hybrids against liability, explainability, data availability, and latency bounds.

Scenarios:
Architectural Pick
Symbolic AI (GOFAI)
Rules • A* Search • Prolog
94%
Determinism
Auditability
Footprint
Architectural Pick
Classical ML
XGBoost • LightGBM • Trees
42%
Tabular Power
Auditability
Train Speed
Architectural Pick
Deep Learning
LLMs • Transformers • CNNs
18%
Perceptual
Black-box Risk
Compute Need
Architectural Pick
Neuro-Symbolic
Guardrails • RAG + Solver
61%
Flexibility
Safety Shield
Dev Complexity
🛡️
Optimal Symbolic Environment

Given strict determinism and zero tolerance for statistical error, Good Old-Fashioned AI (GOFAI) provides mathematically guaranteed outcomes without risk of hallucination or non-deterministic drift.

Multi-Vector Architectural Alignment Matrix
Live trade-off visualizer

Automated Behavioral Simulation: "Sample Query Execution"

Input: Formal state verification test
Symbolic Engine
Deterministic [100.0%]
100% auditable proof trace
Classical ML
Probability: 0.884
Feature split in node 14
Deep Neural Net
Hallucination Risk: HIGH
Softmax entropy: 0.42
Neuro-Symbolic Guard
Intercepted & Bound
Rule engine clamped token
Decision Matrix updated. Architecture consensus ready.
Engineering Handbook

The 3 Governing Principles of Architecture Selection

Machine learning and deep learning are statistical engines that guess the most probable outcome. Here is how to know when statistical approximation is a critical engineering liability.

⚖️ 1. Explainability & Legal Liability

In 2022, Air Canada tried to argue its hallucinating chatbot was a "separate legal entity." The tribunal held the airline liable. When compliance requires a traceable causal path (e.g., Fair Lending, medical diagnostics, tax calculation), rule-based expert systems allow human auditors to verify exactly which variable triggered a decision.

Case: Regulatory Compliance & Air Canada Lawsuit

đź§­ 2. Strict Mathematical Rules

If an environment has known, fixed governing laws—such as aircraft separation geometry, GPS pathfinding, or structural tolerances—statistical probability is a defect. A* search and constraint logic programming calculate mathematically guaranteed solutions every time without inventing physical impossibilities.

Case: Avionics, GPS, A* Search

⚡ 3. Zero-Data & Microcontroller Limits

Training neural networks requires vast labeled corpuses and cloud GPUs. Traditional AI requires zero training data. If an engineer knows the temperature and pressure envelope of an industrial turbine, those rules execute in 64 kilobytes of memory on an edge microchip with instant deterministic latency.

Case: Edge IoT, Turbines, Automotive ECU
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