CAPEXNULL

Reduce energy and computational costs across data centers, AI systems, distributed computing, autonomous systems and other high-load infrastructures. Increase throughput, reduce latency and improve resource efficiency — CAPEX = 0.

Validated Research Results

Experimental results across four areas: large-scale control of dynamic systems, structural analysis of complex organizations, computational-core performance, and fundamental properties of autonomous AI.

19
tests
single series of validated results
19 PASS
results
across all presented tests
1 000 000
objects
validated test scale

Four Research Areas

From controlling million-scale dynamic systems and structurally analyzing complex organizations to computational-core performance and fundamental capabilities of autonomous AI.

Scale and Resilience

Dynamic Systems

Tests at scales of up to 1,000,000 devices and drones, 40 million events, 200 million state transitions, and simulated losses up to 99%.

Structural Analysis

Complex Organizational Systems

Structural test covering 240,000 employees, 64 legal entities, 38,000 management positions, and 1.8 million functional and process dependencies: 2,000 of 2,000 injected structural defects detected, FP = 0, FN = 0.

Performance

Computational Core

System-level acceleration up to 47.87× and computational-core performance increase up to 28.39× with validated preservation of functional output and mathematical equivalence.

Fundamental AI Properties

Autonomous Learning and Adaptation

Individualization, continual learning, causal environment modeling, concept formation, long-context retention, attention control, and autonomous self-correction.

Complete Summary

19 Research Results

Measured metrics for each test and areas of potential application are compiled on a dedicated results page.

All Research Results →

CAPEX = 0

Core engineering principle.

Extracting additional capability from existing infrastructure through mathematics, algorithms, and software orchestration.