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.github/profile/README.md

Raul Montoya Cardenas

ML Systems & Agent Evaluation Engineer

San Marcos, Texas · montoyaraul34@gmail.com

GitHub Projects · Hugging Face · Limen Neural

Building reproducible model systems and coding-agent evaluation infrastructure on hardware I can own.

I build Rust/Python/CUDA tooling for model systems, coding-agent evaluation, and reproducible ML experiments: open-weight checkpoint analysis, MoE compression experiments, engineering-trajectory datasets, agent review/repair loops, and neuromorphic runtimes.

My current hiring focus is ML systems, coding-agent / eval infrastructure, model tooling, and research engineering. Neuromorphic computing is a specialist research track rather than a prerequisite for understanding the rest of the portfolio. Pursuing AI Engineering @ WGU.


Recruiter snapshot

Area Evidence
Agent systems & evals Coding-agent trajectories, synthetic-data validation, multi-agent worktree experiments, deterministic review/repair gates
Model systems Raw checkpoint parsing, MoE routing analysis, GGUF/Safetensors tooling, route-preserving quantization experiments
Systems engineering Rust-first CLIs/runtimes, Python data/eval tooling, CUDA/GPU validation, CI, reproducible artifacts
External OSS Merged xAI/Grok provider work in agent-afk, including API-key + OAuth support and a later compatibility fix
Public artifacts Hugging Face datasets, telemetry corpora, Grok-1 research packs, manifests, experiment reports
Research specialty SNN / neuromorphic runtimes, telemetry-driven control, FPGA-oriented export and validation

What I optimize for

Measurable results · reproducibility · provenance · fail-closed validation · explicit scope boundaries · humans merge


Selected engineering proof

Upstream open-source contributions

These matter to me because they test a different skill than owning my own repositories: understanding another project's architecture, satisfying its contracts, and getting work accepted upstream.

Public ML / data artifacts


Flagship projects

Project What it demonstrates
xai-dissect Rust CLI for read-only structural analysis of open Grok-1 checkpoints: raw shard parsing, tensor inventory, MoE expert/routing maps, statistics, and machine-readable manifests
synthetic-factory Synthetic-data generation and curation with schemas, provenance, strict audit gates, failure-oriented fixtures, and public Hugging Face release plumbing
operation-prometheus Software-engineering trajectory forge: issue → implementation → review → fix → validation → merge datasets for coding-agent research
grok-ozempic Real Grok-1 compression experiments focused on expert precision, routing fidelity, residual drift, and reproducible comparison reports
corinth-canal End-to-end Rust reference pipeline spanning telemetry encoding, spiking hidden state, projection, GGUF/Safetensors model inspection, MoE routing, and SAAQ validation
Spikenaut-SNN From-scratch SNN research runtime and export target for telemetry / neuromorphic experiments

Shared libraries

I also maintain modular libraries under Limen Neural, including projects such as neuromod, axon-encoder, nir-rs, synaptic-mesh, and brainstem-daemon.


Technical focus

Languages

Rust · Python · Julia · CUDA C/C++ · SystemVerilog

ML / model systems

PyTorch · Hugging Face · MoE · GGUF · Safetensors · LoRA/QLoRA · quantization experiments · SNN / neuromorphic systems

Engineering / infrastructure

GitHub Actions · Docker · Linux · self-hosted GPU CI · structured JSON/JSONL/Parquet artifacts · reproducible experiment manifests · automated review gates

Local research hardware

NVIDIA RTX 5080 16 GiB · AMD Ryzen 9 9950X · Fedora Linux


How I work with AI coding agents

I use coding agents heavily, but I do not treat generated output as ground truth.

Typical flow:

issue / hypothesis
      ↓
isolated branch or worktree
      ↓
implementation
      ↓
local tests / lint / benchmark / experiment gate
      ↓
pull request
      ↓
independent review + repair
      ↓
human merge / release decision

Agent assistance is explicitly attributed in PRs, commit trailers, experiment notes, or release provenance where appropriate. I care about being able to explain and reproduce the result—not about pretending the tools were not used.


Research programs

The repositories compose into five broader programs. Recruiters do not need to read all five to understand the flagship work above; these links are the deeper map.

  1. Autonomous Software Engineering — coding-agent worktrees, evaluation, engineering trajectories, review/repair loops.
  2. Frontier Model Systems & Compression — Grok-1 structural analysis, routing fidelity, quantization, SAAQ, GGUF/Safetensors tooling.
  3. Artificial Neuromorphic Supervisor for LLMs — event-driven/SNN state for resource-aware agents; deterministic systems retain safety authority.
  4. Agoge Model Forge — engineering trajectories → post-training → evaluation → export/serve.
  5. Theseus Machine Physiology — GPU/CPU/power/VRAM telemetry and machine-state datasets for model/control experiments.

System map

Machine telemetry / physiology
        ↓
Event-driven / SNN state
        ↓
Agents + LLM systems
        ↑
Agent evaluation + engineering trajectories
        ↑
Model analysis / compression / post-training

Current priorities

  • Agent evaluation: measurable coding-agent tasks, trajectories, graders, and failure analysis.
  • ML systems: checkpoint tooling, model-format infrastructure, quantization experiments, routing fidelity.
  • Post-training: connect curated engineering trajectories to reproducible training/evaluation loops.
  • Neuromorphic research: keep SNN work grounded in measurable telemetry/runtime experiments rather than biological imitation claims.

README attribution

Primary author and maintainer: Raul Montoya Cardenas (rmems).

Recruiter-focused structure and editorial rewrite co-authored on 2026-08-21 with OpenAI ChatGPT — GPT-5.6 Sol. Project-specific AI contributions remain attributed in their respective commits, PRs, experiment records, and release provenance.

Popular repositories Loading

  1. metabolic-ledger metabolic-ledger Public

    Bio-inspired simulation ledger: ATP cellular energy metaphors, adaptive Kelly energy commitment, and metabolic cost tracking for multi-asset SNN portfolios.

    Rust 1

  2. Ship-of-Theseus-HPC Ship-of-Theseus-HPC Public

    Localized HPC node for Bio-MEMS simulation, RTL design (SystemVerilog/Rust), and hardware diagnostics. Documentation for the 'Ship of Theseus' workstation.

  3. LiquidCortex.jl LiquidCortex.jl Public

    GPU-accelerated sparse Liquid State Machine for neuromorphic inference — 65k-neuron/lobe CUDA LSM with OU-SDE dynamics and STDP learning

    Julia

  4. NeuroPulse.jl NeuroPulse.jl Public

    NERO: Neuromorphic Evaluation of Relevance and Orchestration — multi-lobe SNN relevance scoring with cross-lobe inhibition and softmax normalisation

    Julia 1

  5. limbic-critic limbic-critic Public

    Modulator Mapping: into constrained f32 vectors representing Dopamine (reward), Serotonin (risk/patience), and Cortisol (stress/telemetry)

    Rust

  6. SpikeStream.jl SpikeStream.jl Public

    Streaming time-series feature extraction for spiking neural networks: Hurst exponent, Hawkes intensity, GBM surprise Z-score — SNN-compatible output ranges, zero allocation

    Julia