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.
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.
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.
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.
Without ASPR:
growth → accumulation → inefficiency → degradation
With ASPR:
growth → detection → pruning → stabilization
👉 Result: dynamic equilibrium instead of uncontrolled expansion
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
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
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.
aspr-gardener/
│
├── mvp_compare.py # Simulation engine
├── launch.py # Launcher + dashboard
├── data/ # Generated CSV results
├── logs/ # Runtime logs
└── lib/ # Optional dependencies
python mvp_compare.pypython mvp_compare.py --requests 1000000 --epochs 50 --clusters 48pip install flask plotly
python launch.py --dashboardOpen:
http://localhost:7771
Each run generates:
data/results_YYYYMMDD_HHMMSS.csv
Format:
metric,baseline,aspr,delta_pct
Compatible with GHG Protocol Scope 3 reporting.
ASPR is designed as a sidecar process:
aspr = System(enable_pruning=False)aspr = System(enable_pruning=True)✔ Non-intrusive ✔ Fully reversible ✔ Auditable
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
ASPR: Adaptive Structural Regulation for AI System Efficiency Ramiro Guevara, 2025
- ✅ Baseline vs ASPR simulation
- ✅ Interactive dashboard
- ✅ CSV export
- 🚧 Ghost Registry (memory layer)
- 🚧 Production validation
- 🚧 Kubernetes sidecar
Areas of interest:
- hardware-level metrics (RAPL, IPMI)
- Kubernetes integration
- GHG / ISO measurement frameworks
- real-world deployment cases
Looking for early adopters to validate ASPR in real infrastructure.
Contact: ramiguevara@gmail.com
MIT License
Systems that only grow will eventually collapse under their own complexity. Systems that regulate themselves can evolve.## Public Key Fingerprint SHA-256: 5482f712f89270b7755219a75cef214e0b137ea7fd9ee012dbe504875d600769