Compute · Simulate · Test

Scientific computing, modeling, and measurement

ORION, Daniel’s personal high-performance compute system, anchors a local environment for simulation, AI inference, analysis, and reproducible computational experiments.

  • ORION personal supercomputer
  • NVIDIA compute
  • Numerical analysis
  • Simulation
  • Signal processing
  • Reproducible workflows
ORION, Daniel Joseph Mueller’s black personal computing tower with connected hardware
ORION, Daniel Mueller’s personal high-performance compute system for local AI, simulation, and computational research. Image: Daniel Joseph Mueller

01

ORION and local computational work

ORION is Daniel’s personal supercomputer: a high-performance local compute system assembled for AI inference, simulation, data analysis, and computational research. Keeping substantial compute close to the work provides direct control over software, storage, model behavior, and experimental configuration.

The broader setup includes a multi-display development workstation and compact NVIDIA compute systems. Together they support a practical workflow that can move between code, visualization, hardware monitoring, and long-running local workloads.

02

Model → build → instrument → measure

Daniel’s preferred workflow begins with a model, moves through implementation and measurement, and treats invalidation as useful information. The result is a process that can expose weak assumptions before they become embedded in a larger system.

Typical interests include Fourier analysis, resonance measurements, probability, statistics, optimization, differential systems, nonlinear behavior, and computational modeling.

03

Software as an experimental instrument

Python, numerical libraries, Jupyter-style workflows, browser visualization, and custom data pipelines can all serve as instruments when intermediate states remain visible. Daniel generally favors transparent transformations and inspectable output over opaque automation.

Public graphics and simulation repositories show experimentation with rendering, geometry, and dynamic scenes. Separate project pages connect computation with plant-growth measurement and thermopower-microscopy theory.

04

Reproducible analysis

A reproducible computation records input data, units, assumptions, parameters, software versions, intermediate results, and the checks used to reject an invalid run. Visualization then becomes a diagnostic tool rather than decoration: it can reveal outliers, unstable behavior, discontinuities, and disagreements between a model and observation.

The emphasis is on making enough of the process visible that another person can inspect what was attempted, identify limitations, and repeat or improve the analysis.

Compute environment

Local compute environment

ORION, the surrounding development workstation, compact NVIDIA systems, and a public simulation output.

Daniel Mueller’s multi-display coding workstation with two compact NVIDIA compute systems
Multi-display workstation for local computational development.Image: Daniel Joseph MuellerFull size ↗
Two compact NVIDIA compute systems at Daniel Mueller’s development workstation
Local NVIDIA compute systems used for AI and scientific workloads.Image: Daniel Joseph MuellerFull size ↗
Experimental 3D scene simulating a fan, cloth, water, and vector-cloud fluid behavior
An experimental fan, cloth, and water scene from Daniel J. Mueller’s public py_3d project.Image: Daniel J. Mueller / py_3dFull size ↗