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ASPR Gardener

Adaptive Structural Regulation for AI Systems

ASPR (Adaptive Structural Pruning & Reporting) is a regulatory framework designed to control structural complexity in AI inference systems.

Instead of relying on static cleanup, ASPR introduces a continuous regulation layer ("Gardener") that observes system behavior and maintains equilibrium through adaptive pruning.

License: MIT Python 3.8+ arXiv


🧠 Abstract

Modern AI systems tend to accumulate structural complexity over time. Components that are no longer functionally relevant remain active, consuming resources and degrading overall system efficiency.

ASPR introduces a continuous regulatory mechanism that:

  • observes usage patterns
  • detects underutilized or idle structures
  • applies adaptive, reversible pruning

The result is a system that self-regulates instead of passively growing.


⚠️ Problem Statement

AI systems exhibit monotonic growth without natural decay:

  • Obsolete components persist indefinitely
  • Resource consumption increases without proportional utility
  • Structural noise accumulates silently
  • System efficiency degrades over time

There is currently no standard mechanism for runtime structural regulation in AI systems.


💡 Approach

ASPR introduces a parallel agent ("Gardener") that operates continuously:

  • detects low-usage clusters
  • removes unnecessary components
  • stabilizes the system dynamically
  • reports efficiency metrics

It does not modify the core system — it regulates it.


🔁 System Dynamics

Without ASPR:

growth → accumulation → inefficiency → degradation

With ASPR:

growth → detection → pruning → stabilization

👉 Result: dynamic equilibrium instead of uncontrolled expansion


📊 Experimental Results

Simulation: 10 million requests, standard parameters

Metric Baseline ASPR Delta
Avg Clusters 24.0 20.8 −13.3%
Energy Consumption 2400 u. 2082 u. −13.28%
Latency p50 5.17 ms 5.17 ms 0
Latency p95 5.53 ms 5.53 ms 0
Latency p99 5.61 ms 5.61 ms 0

Key result: Structural and energy reduction without latency degradation


📈 Structural Evolution (Simulated)

Cluster evolution over time:

Clusters
 30 |            ████
 28 |           ██████
 26 |          ████████
 24 | ██████████████████   ← baseline (unbounded growth)
 22 | ████████████████
 20 | ██████████████       ← ASPR stabilizes
 18 | ███████████
 16 |
    +--------------------------------
      0   20   40   60   80   100 epochs

👉 Without ASPR: cumulative growth 👉 With ASPR: progressive stabilization


⚠️ Not Just Pruning

ASPR is not a static cleanup tool.

Traditional approaches rely on:

  • fixed thresholds
  • one-time deletion
  • no system awareness

ASPR introduces:

  • continuous structural regulation
  • behavior-aware pruning
  • system-level equilibrium

👉 The goal is not deletion — it is stability under evolution ASPR is not a threshold-based cleanup system.

It operates as a continuous regulatory loop that adapts to system dynamics, preventing structural drift rather than reacting to it.

🧱 Architecture

aspr-gardener/
│
├── mvp_compare.py   # Simulation engine
├── launch.py        # Launcher + dashboard
├── data/            # Generated CSV results
├── logs/            # Runtime logs
└── lib/             # Optional dependencies

🚀 Usage

Run simulation

python mvp_compare.py

Custom parameters

python mvp_compare.py --requests 1000000 --epochs 50 --clusters 48

Dashboard

pip install flask plotly
python launch.py --dashboard

Open:

http://localhost:7771

📊 Output

Each run generates:

data/results_YYYYMMDD_HHMMSS.csv

Format:

metric,baseline,aspr,delta_pct

Compatible with GHG Protocol Scope 3 reporting.


🧪 Production Integration

ASPR is designed as a sidecar process:

Observation mode

aspr = System(enable_pruning=False)

Active mode

aspr = System(enable_pruning=True)

✔ Non-intrusive ✔ Fully reversible ✔ Auditable


🧬 Future — Ghost Registry

Next iteration introduces a memory layer:

  • tracks historical pruning patterns
  • identifies recurring structural failures
  • prevents re-emergence of inefficient configurations

👉 This transforms ASPR from reactive pruning to evolutionary regulation


📄 Paper (in progress)

ASPR: Adaptive Structural Regulation for AI System Efficiency Ramiro Guevara, 2025


📌 Project Status

  • ✅ Baseline vs ASPR simulation
  • ✅ Interactive dashboard
  • ✅ CSV export
  • 🚧 Ghost Registry (memory layer)
  • 🚧 Production validation
  • 🚧 Kubernetes sidecar

🤝 Contributions

Areas of interest:

  • hardware-level metrics (RAPL, IPMI)
  • Kubernetes integration
  • GHG / ISO measurement frameworks
  • real-world deployment cases

🧪 Pilot Program

Looking for early adopters to validate ASPR in real infrastructure.

Contact: ramiguevara@gmail.com


📜 License

MIT License


🧠 Closing Thought

Systems that only grow will eventually collapse under their own complexity. Systems that regulate themselves can evolve.## Public Key Fingerprint SHA-256: 5482f712f89270b7755219a75cef214e0b137ea7fd9ee012dbe504875d600769

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