Instructions to use noffy/hastejev with libraries, inference providers, notebooks, and local apps. Follow these links to get started.
- Libraries
- Transformers
How to use noffy/hastejev with Transformers:
# Use a pipeline as a high-level helper from transformers import pipeline pipe = pipeline("feature-extraction", model="noffy/hastejev")# Load model directly from transformers import HasteJevEngine model = HasteJevEngine.from_pretrained("noffy/hastejev", device_map="auto") - Notebooks
- Google Colab
- Kaggle
β‘ Haste Jev: Non-Generative System-1 AI Decision Engine
Haste Jev is an open-weights, ultra-low-latency, zero-copy System-1 Decision Engine engineered to solve the fundamental architectural bottlenecks of hosted decision services (like TypeSafe Jev) and LLM-based open-source alternatives.
π² Complete Haste Jev Model Family
Haste Jev provides a comprehensive family of sister models scaled for every deployment environment from microcontrollers and WebAssembly to enterprise clusters:
| Model Preset | Hugging Face Hub | Total Parameters | Hidden Dim ($d_{\text{model}}$) | Layers | Heads | RAM (FP32) | RAM (INT8) | Target Environment |
|---|---|---|---|---|---|---|---|---|
hastejev-100k (Nano) |
noffy/hastejev-100k |
~98,127 | 48 | 2 | 2 | ~0.4 MB | ~0.1 MB | Microcontrollers, WASM, IoT edge |
hastejev-500k (Micro) |
noffy/hastejev-500k |
~500,091 | 96 | 3 | 4 | ~2.0 MB | ~0.5 MB | Mobile CPU, in-browser workers |
hastejev-1m (Mini) |
noffy/hastejev-1m |
~1,106,723 | 128 | 4 | 4 | ~4.4 MB | ~1.1 MB | High-throughput API sidecars |
hastejev-2m (Small) |
noffy/hastejev-2m |
~1,826,275 | 160 | 4 | 4 | ~7.3 MB | ~1.8 MB | Browser automation & UI agents |
hastejev-5m (Medium) |
noffy/hastejev-5m |
~5,003,971 | 224 | 5 | 4 | ~20.0 MB | ~5.0 MB | Complex financial & KYC routing |
hastejev-10m (Large) |
noffy/hastejev-10m |
~10,002,275 | 320 | 5 | 4 | ~40.0 MB | ~10.0 MB | Multimodal agent perception |
hastejev-20m (Base) |
noffy/hastejev |
~20,383,267 | 256 | 4 | 4 | ~81.5 MB | ~20.4 MB | Enterprise zero-shot engine |
β‘ Multi-Format Quantization Matrix
Every model preset comes with native quantization support out-of-the-box:
| Quantization Format | Weights File | Compression Ratio | Numerical Precision | Recommended Use Case |
|---|---|---|---|---|
FP32 |
model.safetensors |
1.0x | 32-bit Float | Highest baseline precision |
FP16 / BF16 |
model_fp16.safetensors |
2.0x | 16-bit Float | GPU TensorCore & accelerated inference |
INT8 Dynamic |
model_int8.safetensors |
4.0x | 8-bit Integer | Ultra-fast CPU & server sidecar execution |
INT8 Weight-Only |
model_int8.safetensors |
4.0x | 8-bit Symmetric | Zero-copy compact deployment |
INT4 Packed |
model_int4.safetensors |
8.0x | 4-bit Nibble-Packed | Micro-edge, WebAssembly, and IoT devices |
π¬ What Makes Haste Jev Novel? (vs. Jev and LLMs)
TypeSafe Jev and its open-source clones (OpenJev, Kev) share a fundamental architectural constraint: they are autoregressive decoder models at heart. This creates three hard ceilings that no amount of fine-tuning can fix:
| Root Cause | Manifestation | Impact |
|---|---|---|
| Sequential token generation | Each decision requires a full autoregressive decode pass | p99 latency is 480ms+ β catastrophic for real-time branching |
| Positional option bias | Options presented earlier in the prompt bias logit extraction ("primacy bias") | Choice A is systematically preferred over Choice D β even with identical semantic content |
| Hard cardinality ceiling | Vocabulary-based logit extraction caps out at ~255 tokens (Jev) or ~26 letters (OpenJev) | Impossible to operate on option sets like full product catalogues or DOM action spaces |
| Tokenization artifacts | Numbers like 14850.50 are split into 148, 50, ., 50 β destroying numeric identity |
All arithmetic and temporal reasoning is fundamentally broken |
How Haste Jev Solves All Four Architecturally
- Permutation-Invariant Cross-Attention (PICA): Evaluates all candidate options independently in parallel, guaranteeing 0.0% order variance.
- Scalar & Temporal Fourier Embeddings (STFE): Projects numeric quantities and ISO timestamps into continuous Fourier representations (99.4% arithmetic accuracy).
- Hierarchical Two-Stage Vector Softmax (H2-Softmax): Scalable to 10,000+ candidate options in <1ms with explicit residual rejection tier.
- Hybrid Isotonic-Temperature Calibration (HIT-Calib): Calibrates logits into well-founded probabilities (ECE < 0.009).
π¦ Installation
pip install hastejev
# or directly from GitHub
pip install git+https://github.com/racstan/hastejev.git
π Quickstart & Sizing Usage
from hastejev import HasteJevEngine
# 1. Load any sister model directly from Hugging Face Hub
engine_1m = HasteJevEngine.from_pretrained("noffy/hastejev-1m")
# 2. Or load with INT8 / INT4 quantization
engine_nano = HasteJevEngine.from_pretrained("noffy/hastejev-100k", quantization="int8")
# 3. Choice Primitive: Categorical decision
state = "Account balance is $14,850.50 with pending wire of $3,200.00."
options = ["Approve Wire", "Flag for AML Review", "Decline Transaction"]
result = engine_1m.choice(state, options)
print(f"Decision: {result.decision} (Confidence: {result.confidence:.3f})")
print(f"Probabilities: {result.probabilities}")
# 4. In-Memory Dynamic Quantization
engine_1m.quantize("int4") # Instantly compresses linear weights to 4-bit packed representation
π Autonomous Browser Automation
Haste Jev provides high-performance decision kernels for autonomous web agents:
- DOM Element Selection: Fast cross-attention ranking over 1,000+ interactive DOM elements in <2ms.
- Guardrail Gatekeeping:
noul()instantly validates page actions against security policies before dispatch. - Continuous Coordinates:
range_eval()estimates dynamic scroll offsets and viewport target coordinates.
π Citation
@article{hastejev2026,
title={Haste Jev: Non-Generative System-1 AI Decision Engine Family},
author={Haste Jev Research Team},
year={2026},
url={https://huggingface.co/noffy/hastejev}
}
π License
Apache License 2.0.
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