neurobrix 0.3.0

Universal Deep Learning Inference Engine — execute any AI model without model-specific code

NeuroBrix

Universal Deep Learning Inference Engine
One engine. Any model. Any modality. Zero model-specific code.

Hub  |  Docs  |  PyPI  |  GitHub  |  GitLab  |  Roadmap  |  Contributing

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The Problem

The AI inference landscape is fragmented. Every model family requires its own stack, its own pipeline code, its own deployment tooling. Want to run a diffusion model? Learn ComfyUI or write custom diffusers pipelines. Need an LLM? Pick between Ollama, vLLM, llama.cpp — each with its own limitations. Audio? Video? Start from scratch.

NeuroBrix eliminates this fragmentation entirely.

One engine. One CLI. One container format. Import a model, run it. The runtime doesn't know or care whether it's executing a diffusion transformer, a mixture-of-experts LLM, a speech recognizer, or a video generator. It sees tensors, graphs, and execution plans — nothing else.

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Why NeuroBrix?

Capability	Ollama	llama.cpp	vLLM	ComfyUI	NeuroBrix
LLMs	Yes	Yes	Yes	--	Yes
Image generation	--	--	--	Yes	Yes
Video generation	--	--	--	--	Yes
Audio (STT + TTS)	--	--	--	--	Yes
Multimodal (understand + generate)	--	--	--	--	Yes
Mixture-of-Experts	--	--	Yes	--	Yes
Multi-GPU auto-allocation	--	--	Yes	--	Yes
Cross-platform (Linux, Windows, macOS)	Yes	Yes	--	--	Yes
Universal model format	--	GGUF (LLM only)	--	--	NBX (any model)
No model-specific code	--	--	--	--	Yes

Other tools solve one piece of the puzzle. NeuroBrix solves the whole puzzle.

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Installation

Step 1: Install PyTorch with CUDA

# For CUDA 12.4 (RTX 30xx, 40xx, A100, H100)
pip install torch --index-url https://download.pytorch.org/whl/cu124

# For CUDA 12.1
pip install torch --index-url https://download.pytorch.org/whl/cu121

# For CUDA 11.8 (older GPUs like V100)
pip install torch --index-url https://download.pytorch.org/whl/cu118

Verify CUDA is available:

python -c "import torch; print(torch.cuda.is_available())"  # Should print: True

Step 2: Install NeuroBrix

pip install neurobrix

Platform Support

Platform	GPU Support	Notes
Linux	CUDA, Triton kernels	Full support, recommended for production
Windows	CUDA	Fully supported. Triton not available on Windows
macOS	Apple Silicon (MPS)	M-series GPUs via PyTorch MPS. Triton not available on macOS

Requirements: Python 3.10+ / PyTorch 2.1+. NVIDIA GPU (CUDA) recommended for production; Apple Silicon (MPS) and CPU-only execution are also supported.

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Quick Start

# Import a model from the hub
neurobrix import Vendor/Model_Name --no-keep

# Generate an image (hardware auto-detected)
neurobrix run --model Model_Name \
    --prompt "A sunset over mountains" --steps 20

# Or serve for instant repeat inference
neurobrix serve --model Model_Name
neurobrix run --prompt "A robot painting on canvas" --output robot.png
neurobrix stop

Serve Mode (Hot Run Mode — Recommended)

Loads weights into VRAM once and keeps the model warm. Every subsequent request runs with zero startup overhead.

neurobrix serve --model Model_Name

# Image generation (instant — model already loaded)
neurobrix run --prompt "A cat in a hat" --output cat.png

# LLM interactive chat
neurobrix chat --temperature 0.7

# Stop and free VRAM
neurobrix stop

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Usage by Model Family

NeuroBrix runs 9 model families through one uniform CLI — image, video, LLM, vision-language (VLM), multimodal, text-to-speech, speech-to-text, speech understanding (audio_llm), and upscalers. Each family uses different CLI flags and defaults. Hardware is always auto-detected.

Image Generation

neurobrix run --model Sana_1600M_4Kpx_BF16 \
    --prompt "A sunset over mountains" \
    --steps 20 --cfg 5.0 --seed 42 \
    --height 1024 --width 1024 \
    --output sunset.png

Flag	Description	Default
--prompt	Text description of the image to generate	Required
--steps	Number of diffusion steps (more = higher quality, slower)	Model-dependent (20-50)
--cfg	Classifier-free guidance scale (higher = closer to prompt)	Model-dependent (4.5-7.5)
--height / --width	Output resolution in pixels	Model-dependent (1024-4096)
--seed	Random seed for reproducible results	Random
--output	Output file path	output.png

Large Language Models

# Single-shot
neurobrix run --model deepseek-moe-16b-chat \
    --prompt "Explain quantum computing in simple terms" \
    --temperature 0.7 --max-tokens 512 \
    --output response.txt

# Interactive chat (requires serve mode)
neurobrix serve --model deepseek-moe-16b-chat
neurobrix chat --temperature 0.7
neurobrix stop

Flag	Description	Default
--prompt	Input text or question	Required
--temperature	Sampling randomness (0 = deterministic, 1 = creative)	Model-dependent (0.6-1.0)
--max-tokens	Maximum tokens to generate	Model-dependent (512-32768)
--repetition-penalty	Penalize repeated tokens (1.0 = off)	1.0
--output	Save response to file	stdout

Vision-Language & Multimodal

Vision-language models answer questions about an image. Multimodal models (Janus-Pro) have two heads — text understanding and image generation — selected with --mode (required for this family).

# VLM: describe an image
neurobrix run --model <vlm-model> \
    --input-image cat.jpg \
    --prompt "What animal is in this image?"

# Multimodal — image generation head
neurobrix run --model Janus-Pro-7B \
    --mode image --prompt "a red cat sitting on a couch"

# Multimodal — text understanding head
neurobrix run --model Janus-Pro-7B \
    --mode text --input-image cat.jpg --prompt "describe this image"

Audio — Speech-to-Text (STT)

neurobrix run --model whisper-large --audio recording.wav

Flag	Description	Default
--audio	Path to audio file (WAV, FLAC, MP3)	Required
--output	Save transcription to file	stdout

Note: STT models use --audio, not --prompt. Temperature defaults to 0.0 (greedy decoding) for accurate transcription.

Audio — Text-to-Speech (TTS)

neurobrix run --model Kokoro-82M \
    --prompt "Hello, welcome to NeuroBrix!" \
    --output speech.wav

Flag	Description	Default
--prompt	Text to synthesize into speech	Required
--temperature	Sampling variation (lower = more consistent)	Model-dependent (0.6)
--output	Output audio file path	output.wav

Audio — Speech Understanding (audio_llm)

Audio-conditioned LLMs take both an audio file and a text instruction — they answer questions or transcribe-on-demand, not blind transcription.

neurobrix run --model Voxtral-Mini-3B-2507 \
    --audio meeting.wav \
    --prompt "Transcribe this audio." \
    --output transcript.txt

Flag	Description	Default
--audio	Path to audio file	Required
--prompt	Instruction (e.g. "Transcribe this audio.", "Summarize the call.")	Required
--output	Save the text answer to file	stdout

STT vs audio_llm: plain STT models (Whisper, Parakeet) need only --audio. audio_llm models (Voxtral, Canary-Qwen, Granite-Speech) need --audio and --prompt.

Image Upscaling (Super-Resolution)

Upscalers take an input image and emit a higher-resolution one (the scale factor is per-model). Use the dedicated upscale command, which also exposes --mode directly:

neurobrix upscale --model hat-l-x4 \
    --input photo.png --output photo_4x.png \
    --mode compiled

Flag	Description	Default
--model	Upscaler model name (e.g. hat-l-x4, real-esrgan-x4, swinir-classical-x4)	Required
--input	Input image path (PNG/JPEG)	Required
--output	Output image path (PNG)	Required
--mode	Execution mode: compiled / sequential / triton / triton-sequential	compiled

Via the universal run command, the same models take --input-image instead of --input.

Video Generation

The video family covers text-to-video and image-to-video (10 models — Wan 2.1/2.2, CogVideoX, Mochi, Open-Sora, Allegro, SANA-Video), all validated in the four execution modes. The mode is auto-deduced from the inputs: passing --input-image switches to image-to-video.

# Text-to-video
neurobrix run --model SANA-Video_2B_720p \
    --prompt "A cat playing piano" \
    --steps 30 --cfg 5.0 --seed 42 \
    --num-frames 81 \
    --output video.mp4

# Image-to-video (auto-detected from --input-image)
neurobrix run --model Wan2.2-I2V-A14B \
    --input-image first_frame.png \
    --prompt "camera pans left, gentle rain" \
    --num-frames 49 --seed 42 \
    --output video.mp4

Flag	Description	Default
--prompt	Text description of the video to generate	Required
--input-image	First frame — switches to image-to-video	—
--num-frames	Number of frames to generate	Model-dependent
--fps	Output frame rate	Model-dependent
--steps	Number of diffusion steps	Model-dependent (20-50)
--cfg	Guidance scale	Model-dependent (5.0)
--seed	Random seed (same seed → same video)	Random
--output	Output file path	output.mp4

Video models run at their native resolution and clip length — up to 720×1280 at 88 frames (Allegro) — with large spatio-temporal activations tiled automatically through both VAE encode and decode. The biggest models (14B+, including the 28B dual-denoiser Wan2.2-I2V-A14B) are placed across multiple GPUs automatically.

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Execution Modes — Two Branches, Four Modes

Every model in NeuroBrix can run through two fully independent compute branches, each in a sequential (op-by-op) and a compiled (fused hot-loop) variant — four modes in total. The branches share the same .nbx container and the same Prism placement plan, but they do not share compute code. They are deliberately kept as parallel paths.

Flag	Branch	Variant	Compute substrate
--compiled (default)	PyTorch	compiled hot-loop	torch + cuDNN / cuBLAS / cuFFT
--sequential	PyTorch	op-by-op	torch ATen, one op at a time
--triton	Triton	compiled hot-loop	NeuroBrix @triton.jit kernels + NBXTensor
--triton-sequential	Triton	op-by-op	NeuroBrix @triton.jit kernels, one op at a time

If you pass no mode flag, NeuroBrix runs --compiled.

The PyTorch branch is the pragmatic bridge to the mature PyTorch + NVIDIA-library ecosystem. --sequential dispatches each ATen op to native PyTorch one at a time — a transparent, op-by-op reference path that is ideal for debugging. --compiled fuses that same graph into a zero-overhead execution sequence (pre-resolved tensor slots, direct SDPA, integer-indexed memory arena) — this is the production path.

The Triton branch is the NeuroBrix value-add: 100% NeuroBrix Triton kernels through NBXTensor, with no torch.*, no cuDNN/cuBLAS on the compute path — hardware-universal and vendor-agnostic. --triton-sequential runs the same kernels op-by-op for transparent debugging; --triton is its fused, zero-overhead form.

Which to use:

• Just run a model → the default (--compiled). Fastest PyTorch path.
• Vendor-agnostic / no NVIDIA-library lock-in → --triton.
• Debugging a numerical discrepancy → compare --sequential against --triton-sequential op-by-op.

# Same model, four ways:
neurobrix run --model Sana_1600M_1024px_MultiLing --prompt "a red fox" --output fox.png                      # compiled (default)
neurobrix run --model Sana_1600M_1024px_MultiLing --prompt "a red fox" --sequential        --output fox.png  # PyTorch op-by-op
neurobrix run --model Sana_1600M_1024px_MultiLing --prompt "a red fox" --triton            --output fox.png  # Triton compiled
neurobrix run --model Sana_1600M_1024px_MultiLing --prompt "a red fox" --triton-sequential --output fox.png  # Triton op-by-op

Every supported model is validated in all four execution modes, and the modes are cross-checked for numerical agreement — they produce the same output (modulo floating-point numerics). Sampling is deterministically seeded: the same --seed reproduces the same output on the same hardware. The four mode flags are also available on neurobrix serve; neurobrix upscale selects the same modes via --mode <compiled|sequential|triton|triton-sequential>.

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NeuroBrix Hub & Model Management

Models are hosted on the NeuroBrix Hub and managed locally through a two-tier storage system:

• Store (~/.neurobrix/store/) — downloaded .nbx archives (compressed)
• Cache (~/.neurobrix/cache/) — extracted models ready for inference

Browse & Import

# Browse the full hub catalog
neurobrix hub

# Filter by family
neurobrix hub --category IMAGE
neurobrix hub --category LLM
neurobrix hub --category AUDIO
neurobrix hub --category VIDEO

# Search by name
neurobrix hub --search sana

# Import a model (downloads .nbx → extracts to cache)
neurobrix import THUDM/CogVideoX-2b

# Import and delete the .nbx archive to save disk space
neurobrix import pixart/sigma-xl-1024 --no-keep

# Force re-import (overwrites existing)
neurobrix import Vendor/Model_Name --force

List & Manage

# List installed models in cache (ready to run)
neurobrix list

# List downloaded .nbx archives in store
neurobrix list --store

# Show system info: installed models, hardware, disk usage
neurobrix info --models

# Remove a model from cache
neurobrix remove Model_Name

# Remove from both store and cache
neurobrix remove Model_Name --all

# Clean everything — free all disk space
neurobrix clean --all -y

How It Works

neurobrix import Vendor/Model_Name --no-keep
  │
  ├─ 1. Download .nbx from neurobrix.es → ~/.neurobrix/store/
  ├─ 2. Extract to ~/.neurobrix/cache/Model_Name/
  ├─ 3. Validate manifest, components, weights
  └─ 4. Delete .nbx from store (--no-keep)

neurobrix run --model Model_Name --prompt "..."
  │
  └─ Reads directly from cache — zero extraction overhead

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Supported Models

NeuroBrix is a runtime engine — it executes models but does not train or create them. All models listed below are the work of their respective authors and are subject to their original licenses. Users must review and accept each model's license before use.

There are two levels of support:

• Published on the hub — pre-built .nbx containers, downloadable with neurobrix import. The video family is being published alongside the v0.3.0 release.
• Validated by the engine — models validated in all four execution modes; hub packages are being published progressively.

Published on the Hub

Image Generation

Model	Author	License	Size
PixArt-Sigma-XL-1024	PixArt	OpenRAIL++	20.3 GB
PixArt-XL-1024	PixArt	OpenRAIL++	20.4 GB
Sana-1600M-MultiLing	NVIDIA	NVIDIA Open Model License	12.1 GB
Sana-1600M-4Kpx-BF16	NVIDIA	NVIDIA Open Model License	12.1 GB
Flex.1-alpha	Ostris	Apache 2.0	24.5 GB

Video Generation

Model	Author	License	Type
Wan-AI/Wan2.1-T2V-1.3B	Alibaba	Apache 2.0	text-to-video
Wan-AI/Wan2.1-VACE-1.3B	Alibaba	Apache 2.0	video creation & editing
Wan-AI/Wan2.1-I2V-14B-480P	Alibaba	Apache 2.0	image-to-video
Wan-AI/Wan2.2-I2V-A14B	Alibaba	Apache 2.0	image-to-video, 28B dual-denoiser
THUDM/CogVideoX-2b	Zhipu AI	Apache 2.0	text-to-video
THUDM/CogVideoX-5b-I2V	Zhipu AI	CogVideoX License	image-to-video
genmo/Mochi-1-preview	Genmo	Apache 2.0	text-to-video
hpcai-tech/Open-Sora-v2	HPC-AI Tech	Apache 2.0	text-to-video
rhymes-ai/Allegro	Rhymes AI	Apache 2.0	text-to-video, native 720×1280, 88 frames
rhymes-ai/Allegro-TI2V	Rhymes AI	Apache 2.0	image-to-video
Efficient-Large-Model/SANA-Video-2B-720p	NVIDIA	NVIDIA Open Model License	text-to-video, 720p

Audio (Speech-to-Text, Speech Understanding, Text-to-Speech)

Model	Author	License	Size	Type
Whisper-Large-V3	OpenAI	MIT	5.8 GB	STT
Whisper-V3-Turbo	OpenAI	MIT	1.5 GB	STT
Parakeet-TDT-1.1B	NVIDIA	CC-BY-4.0	4.1 GB	STT
Voxtral-Mini-3B	Mistral AI	Apache 2.0	8.7 GB	audio_llm
Canary-Qwen-2.5B	NVIDIA	CC-BY-4.0	4.8 GB	audio_llm
Granite-Speech-3.3-8B	IBM	Apache 2.0	16.1 GB	audio_llm
Orpheus-3B	Canopy Labs	Apache 2.0	14.2 GB	TTS
Kokoro-82M	Hexgrad	Apache 2.0	385 MB	TTS
VibeVoice-1.5B	Microsoft	MIT	5.1 GB	TTS
OpenAudio-S1-Mini	Fish Audio	CC-BY-NC-SA-4.0	4.0 GB	TTS
Chatterbox	Resemble AI	MIT	2.1 GB	TTS

Image Upscalers (Super-Resolution)

Model	Author	License	Scale
HAT-L-x4	XPixelGroup	Apache 2.0	4x
Real-ESRGAN-x4	Xintao Wang et al.	BSD-3-Clause	4x
SwinIR-Classical-x4	Jingyun Liang et al.	Apache 2.0	4x
Swin2SR-Classical-x4	Marcos V. Conde et al.	Apache 2.0	4x

Large Language Models

Model	Author	License	Size
DeepSeek-MoE-16B-Chat	DeepSeek	DeepSeek License	30.6 GB
Qwen3-30B-A3B-Thinking	Alibaba / Qwen	Apache 2.0	57.1 GB
TinyLlama-1.1B-Chat	TinyLlama	Apache 2.0	2.1 GB

Validated by the Engine (hub publication in progress)

These models are fully supported by the runtime — validated in all four execution modes with cross-checked numerical agreement — and their pre-built .nbx packages are being rolled out to the hub.

Model	Author	Type
Janus-Pro-7B	DeepSeek	multimodal (text understanding + image generation)

Non-commercial: OpenAudio S1 Mini uses CC-BY-NC-SA-4.0 — non-commercial use only. Check each model's license on the NeuroBrix Hub before commercial deployment.

Browse the full catalog and license details: neurobrix.es/models

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The NBX Format

NeuroBrix introduces .nbx — a universal container format for AI models. Where GGUF is limited to LLMs and ONNX struggles with dynamic architectures, NBX captures any computation graph with full fidelity.

model.nbx (self-contained archive)
  ├── manifest.json              Model metadata and component list
  ├── topology.json              Execution flow and component connections
  ├── runtime/
  │   ├── defaults.json          Generation parameters, model config
  │   └── variables.json         Runtime tensor allocation rules
  ├── components/
  │   ├── text_encoder/          Text conditioning (CLIP, T5, etc.)
  │   │   ├── graph.json         Computation graph (TensorDAG)
  │   │   ├── profile.json       Component config
  │   │   └── weights/           Safetensors shards
  │   ├── transformer/           Core model (DiT, UNet, decoder, etc.)
  │   │   ├── graph.json
  │   │   ├── profile.json
  │   │   └── weights/
  │   ├── vae/                   Image/video decoder (diffusion models)
  │   │   ├── graph.json
  │   │   ├── profile.json
  │   │   └── weights/
  │   └── ...                    Any number of components per model
  └── modules/
      └── tokenizer/             Tokenizer files

The component structure adapts to each model: diffusion models have text_encoder + transformer + vae, LLMs have model + lm_head, audio models have encoder + decoder, etc.

What makes NBX different:

• Framework-independent — no dependency on PyTorch, TensorFlow, or any framework at runtime interpretation level
• Self-describing — the container carries everything needed to execute
• Modality-agnostic — the same format works for diffusion, LLMs, MoE, audio, video, and any future architecture
• Deterministic — the execution graph is fully resolved at build time

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Prism: Automatic Hardware Allocation

You describe your hardware. NeuroBrix figures out the rest. Hardware is auto-detected — the --hardware flag is optional.

Strategy	Description
single_gpu	Model fits entirely in one GPU
single_gpu_lifecycle	Components loaded/unloaded sequentially
pipeline_parallel	Per-layer sequential fill across GPUs
component_placement	Whole components (encoder / denoiser / decoder) on different GPUs
block_scatter	Block-level distribution across GPUs
weight_sharding	Weight-file distribution across GPUs
lazy_sequential	Stream components through limited VRAM
zero3	CPU offload with GPU compute

Large models are distributed automatically — the 14B+ video models (including the 28B dual-denoiser Wan2.2-I2V-A14B) run via multi-GPU component placement with no manual device mapping.

GPU support: NVIDIA, AMD, Intel, Apple Silicon, plus Tenstorrent, Moore Threads, Biren, Iluvatar, Hygon DCU, Cambricon detection.

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Architecture

.nbx Container ──> Prism Solver ──> Execution Plan ──> CompiledSequence ──> Output
                   (hardware)       (strategy)         (zero-overhead)

The runtime compiles the entire execution graph at load time into a CompiledSequence — a zero-overhead execution path with pre-resolved tensor slots, automatic mixed precision, direct SDPA calls, and integer-indexed memory arena. No dict lookups per step. No interpretation overhead.

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Roadmap

Done

• CompiledSequence — zero-overhead graph execution engine
• Prism solver — automatic multi-GPU hardware allocation (7 strategies)
• Image family — 6 models (PixArt, Sana, Flex, Janus)
• LLM family — MoE (DeepSeek), dense (TinyLlama, Qwen3)
• Audio family — 11 models across STT, audio_llm, and TTS (5 flow handlers)
• Upscalers — 4 super-resolution families (HAT, Real-ESRGAN, SwinIR, Swin2SR)
• Video family — 10 models, text-to-video + image-to-video, validated in all four execution modes (Wan 2.1/2.2, CogVideoX, Mochi, Open-Sora, Allegro, SANA-Video); native-resolution generation via spatio-temporal tiling
• Cross-platform — Linux, Windows, macOS support
• Apple Silicon — MPS execution on M-series GPUs
• Hardware auto-detection — 10 GPU vendors, CPU-only fallback
• Persistent serving — warm daemon with chat interface
• DtypeEngine — automatic mixed precision (AMP)
• TilingEngine — universal spatial tiling for large inputs
• NBX Hub — model registry at neurobrix.es

Next

• Vision-Language Models — multimodal understanding at scale
• Quantization — INT8/INT4 with NBX-native support
• 3D generation — mesh and NeRF models
• Embeddings — text and image embedding models
• NeuroBrix Studio — desktop GUI for model management

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CLI Reference

# Serving (recommended) — hardware auto-detected
neurobrix serve --model <name>
neurobrix chat [--temperature T] [--max-tokens N]
neurobrix run --prompt <text> [--output file] [--steps N] [--cfg F] [--seed N]
neurobrix stop

# Single-shot — hardware auto-detected
neurobrix run --model <name> --prompt <text> [options]

# Execution mode (default: --compiled). See "Execution Modes" above.
neurobrix run --model <name> --prompt <text> [--compiled | --sequential | --triton | --triton-sequential]

# Image upscaling (super-resolution)
neurobrix upscale --model <name> --input <img> --output <img> [--mode compiled|sequential|triton|triton-sequential]

# Per-family inputs:
#   llm        --prompt
#   image      --prompt [--steps --cfg --height --width --input-image --mask-image]
#   tts        --prompt --output out.wav
#   stt        --audio
#   audio_llm  --audio --prompt
#   vlm        --prompt --input-image
#   multimodal --prompt --mode text|image
#   upscaler   --input-image   (or: upscale --input)
#   video      --prompt [--num-frames --fps]

# Model management
neurobrix hub [--category IMAGE|LLM|AUDIO|VIDEO]
neurobrix import <org/name> [--no-keep] [--force]
neurobrix list [--store]
neurobrix remove <name> [--store|--all]
neurobrix clean [--store|--cache|--all] [-y]

# Inspection
neurobrix info [--models] [--hardware] [--system]
neurobrix inspect <model.nbx> [--topology] [--weights]
neurobrix validate <model.nbx> [--level deep] [--strict]
neurobrix doctor

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Contributing

NeuroBrix is open source under the Apache 2.0 license. Contributions are welcome.

See CONTRIBUTING.md for guidelines.

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Model Licenses & Responsible Use

NeuroBrix is an inference engine — it does not create, train, or own any AI model.

All models listed in this repository are the intellectual property of their respective authors. NeuroBrix converts published model weights into the .nbx container format for efficient execution. The original model licenses remain in full effect.

User responsibilities:

• Review the license of each model before downloading or using it
• Non-commercial models (e.g., CC-BY-NC-SA-4.0) may not be used for commercial purposes
• Gated models on Hugging Face require explicit license acceptance before access
• Redistribution of model weights is governed by each model's license, not by NeuroBrix's license
• You are solely responsible for ensuring your use complies with the applicable model license

NeuroBrix Hub (neurobrix.es):

The NeuroBrix Hub hosts pre-built .nbx packages for convenience. These packages contain model weights in their original precision, repackaged in the NBX container format. All models on the hub are sourced from publicly available releases with permissive or open licenses. If you are a model author and believe your work is hosted in violation of your license terms, please contact us at [e-mail] for immediate removal.

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License

NeuroBrix Engine — Apache License 2.0

Copyright 2025-2026 Hocine Benkelaya

NeuroBrix is managed by WizWorks OÜ, a property of Neural Networks Holding LTD.

The Apache 2.0 license covers the NeuroBrix engine, CLI, runtime, and NBX format tooling. It does not cover the model weights executed by the engine — those are governed by their respective licenses as listed in the Supported Models section.

See LICENSE for the full text.