0DSTL Architecture — Basic Principle
The 0DSTL architecture is based on iterative developments from earlier versions (v1–v5), which explored neuromorphic and qubit-inspired approaches. These concepts were further refined and contributed to the design of the current v7 core.
Earlier versions assumed a model of computational propagation that follows continuous processes. However, practical implementation revealed certain limitations:
- The qubit-like elements were not physically entangled but behaved as individual deterministic units.
- High-frequency read/write operations would have been required under these assumptions.
This led to the following considerations:
A: Alternative qubit-like structures may be required that do not rely on classical coherence models.
B: Pure analog read/write processes can introduce inefficiencies and limit scalability.
As a result, the architecture evolved as follows:
v1: Digitally optimized gate structures.
v7: Hybrid approach — digitally interpreted (scalable) combined with an analog core (non-scaling), including bit-width scaling.
GenX (v1–v5): Optional conceptual layer.
The system can be described using hybrid representations combining digital and analog concepts (e.g., qubit-like, neuron-like, superposition-inspired models).
The earlier concepts served as exploratory foundations. The current v7 architecture represents a refined and structured implementation based on these findings.
Services
We also offer repair services for small electronic devices, including GPUs and related hardware.
For inquiries, please contact us via email: info@0dstl.de
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what — quantum information itself — not where in XYZ space or time t.
From classical digital logic to modern optimization techniques, everything has emerged from one deeper realization: Information is not a spatial or temporal phenomenon, but a state within a non-local, dimensionless continuum.
0DSTL embraces physics — using it to traverse reality as efficiently and precisely as possible.
It rejects the absurd idea that a marathon runner’s feet could be faster than his own body because of an “algorithm,” or that his shoes could somehow outrun his feet because of “AI.” Physics says no — the race must still be run, and 0DSTL runs it with pure causality, not illusion. ⚛️
The 0DSTL analog core operates as a deterministic direct-code-drive system. A selected digital state is translated into a calibrated analog voltage, processed by the analog kernel, and reconstructed via ADC quantization.
The DAC subsystem provides deterministic multi-channel analog signal generation with high precision and stability. Each channel enables calibrated voltage output, allowing reproducible excitation of the analog core.
The architecture supports synchronized signal control across multiple channels, forming a stable interface between digital control logic and analog processing.
This stage is designed for scalability toward full multi-bit operation, enabling precise state definition and consistent analog behavior within the 0DSTL system.
Description.Compact signal adapter for converting PWM or TTL signals (3.3V–48V) into clean, stable output signals. Ideal for CNC, laser control, 3D printers and microcontrollers like ESP32 or Arduino.
Supports both low-side (GND switched) and high-side signals and ensures reliable operation even with weak or unstable controller outputs.
Note: Signal adapter only – not intended for direct motor or high-power loads.
See image below for connection example.
This adapter solves common STEP/DIR signal issues when using servo drivers (e.g. JMC iHSV, TB6600).
Many controller boards only provide weak 3.3V signals, which can lead to:
This adapter provides a clean and stable signal path.
The 5V IN/OUT connectors can be used as a bridge to supply multiple adapters from a single external 5V source.
See image below for connection example.
Example of the adapter installed on the mainboard.
