Open LLMs/Snowflake

Open-Weight LLM · Private & Custom AI

snowflake-arctic-instruct

A 480B dense-MoE hybrid for enterprise ops automation and custom AI—built for private deployment with manageable active parameters (17B) and Apache-2.0 freedom.

Arctic is Snowflake's openly-licensed hybrid MoE transformer combining a 10B dense core with 128 expert modules (480B total, 17B active). For ops teams, it trades peak capability for inference efficiency and full control—you can self-host it, fine-tune it for domain workflows, and keep customer data locked in your environment.

478.6B
Parameters
apache-2.0
License (OSI/permissive)
Unknown
Context
36.6k
Downloads

Model facts

DeveloperSnowflake
Parameters478.6B
Context windowUnknown
Licenseapache-2.0 — OSI/permissive
Tasktext-generation
GatedNo
Downloads36.6k
Likes362
Updated2024-05-21
SourceSnowflake/snowflake-arctic-instruct

Private deployment

Run snowflake-arctic-instruct in your own environment

Arctic requires a single 8xH100 instance (or equivalent A100/H100 multi-GPU setup) with DeepSpeed quantization (FP8/FP6) to run practically. The custom-code dependency (trust_remote_code=True) adds friction; you must audit and manage the codebase. Benefit: full data residency—no API calls, no third-party logging, complete audit trail within your infrastructure.

Operational AI use cases

01

Support & Incident Triage Automation

Route inbound support tickets, summarize incidents, draft responses, and escalate to humans. Arctic's instruct-tuning handles multi-turn conversations; MoE efficiency keeps per-ticket latency low on a single GPU cluster. Deploy entirely on-prem so ticket content never leaves the data center.

02

Financial & Operational Reporting

Extract line items from invoices, reconcile GL accounts, flag anomalies, auto-generate audit narratives. The dense core + MoE routing means faster inference per request; run a LoRA or QLoRA fine-tune for your chart of accounts and compliance language—without retraining from scratch.

03

Internal Knowledge Agent & Documentation

Build a chatbot over internal wikis, runbooks, and policy docs. Arctic's 17B active parameters are sufficient for retrieval-augmented generation (RAG) over 100k+ documents. MoE gating keeps compute predictable; self-host so employee queries on confidential procedures never touch external APIs.

Custom AI

As a base for custom AI

Strong candidate for domain-specific fine-tuning and LoRA/QLoRA adaptation. The MoE architecture supports sparse parameter updates; you can fine-tune a subset of experts for vertical tasks (e.g., healthcare coding, legal NER, financial analysis) without full retraining. Apache-2.0 means you can productize the fine-tuned artifact as a proprietary asset or internal tool.

In the operating system

Where it fits

Arctic serves as the **inference engine** in an AI operating system's agent and workflow layers. Use it for: (1) synchronous ops tasks (ticket triage, classification, extraction), (2) asynchronous batch pipelines (reporting, reconciliation), and (3) as the backbone for multi-step agents that orchestrate APIs and databases. Pair it with a vector DB (private or self-hosted) for RAG, and workflow orchestration (Temporal, Dagster) for ops automation.

Data control & security

Self-hosting Arctic means all prompts, completions, and intermediate reasoning stay within your network boundary—no data transits to Snowflake, OpenAI, or other SaaS. You control model versioning, access logs, and inference audit trails. **Note:** Apache-2.0 license does not guarantee data protection at runtime; you remain responsible for securing GPU instances, managing API keys, and encrypting data in transit and at rest.

Hardware footprint

**Estimate (FP8 quantization, DeepSpeed):** ~200–240 GiB VRAM across 8xH100. **FP16 (no quant):** ~400+ GiB (not practical for single node). **FP6 (aggressive):** ~150–180 GiB. Recommendation: 8xH100 (640 GiB total) for headroom. Inference latency per request: ~500ms–2s (token-dependent), batch throughput: ~10–20 req/s at FP8.

Integration

Arctic requires `transformers>=4.39` and `deepspeed>=0.14.2`; custom-code dependencies add deployment complexity. Integrate via: (1) Python FastAPI/Uvicorn for synchronous API endpoints (with request queuing), (2) Hugging Face Text Generation Inference (TGI) or vLLM for optimized multi-user serving, (3) batch submission to Kubernetes Job or Airflow for async workflows. Tokenizer must be loaded from HuggingFace hub; configure caching and offline mode for air-gapped environments. Supports chat templates for multi-turn ops flows.

When it's not the right fit

  • Sub-second latency required: MoE overhead and multi-GPU coordination introduce >300ms baseline latency; use smaller quantized models (7B–13B) if you need <200ms response times.
  • Extreme resource scarcity: Requires 8xH100 or equivalent; if your infrastructure maxes at 2xA100, consider Llama 2–3 or Mistral variants.
  • Regulatory compliance bottleneck: Model card does not detail training data provenance, GDPR/CCPA compliance, or bias audits; downstream liability remains yours.
  • Model updates and versioning: MoE architecture and custom-code dependency mean upgrades require requalification and re-deployment; not a drop-in replacement model.

Alternatives to consider

Meta Llama 3.1 (70B, 405B)

Llama 3.1 70B offers better single-GPU fit (~90 GiB FP8) with comparable or superior general-purpose performance; 405B variant trades Arctic's MoE efficiency for density. Llama is mainstream; larger ecosystem of quantization/serving tools.

Mistral 8x22B MoE

Similar dense-MoE hybrid (141B total, 39B active); smaller total VRAM footprint than Arctic. Fewer commercial deployments reported; less ops-focused tuning but faster routing overhead due to denser experts.

Databricks DBRX Instruct

16B dense transformer with optimized inference; no MoE complexity. Fits single A100; strong on enterprise ops tasks (summarization, routing). Trade-off: lower ceiling on complex reasoning; better for ops-only vs. custom-AI hybrid use cases.

FAQ

Can I run Arctic entirely on-premises without cloud or third-party APIs?

Yes. Deploy on your own 8xH100+ GPU cluster, configure internal serving (vLLM, TGI), and integrate via FastAPI. Model weights and tokenizer must be downloaded once from HuggingFace; thereafter, all inference is local. No Snowflake or internet connectivity required post-deployment.

Is Apache-2.0 license permissive enough to fine-tune and productize Arctic?

Yes. Apache-2.0 allows modification, distribution, and commercial use. You may fine-tune Arctic, bundle it in a proprietary application, and resell—provided you include the original Apache-2.0 license and any NOTICE files. No royalties or usage restrictions.

How does the MoE routing affect inference cost and latency for ops tasks?

Only 17B of 480B parameters are active per token, reducing VRAM bandwidth and compute. Per-request latency is ~500ms–2s; batch throughput ~10–20 req/s at FP8. For high-volume ops (e.g., 10k tickets/day), batch processing is more efficient than synchronous API calls.

What's the deployment risk with the custom-code dependency?

Arctic uses HuggingFace's custom_models feature (requires trust_remote_code=True). You must review Snowflake's modeling code in the repo before deploying. Risk is low (code is open-source and auditable), but non-zero; plan a security review as part of on-boarding.

Build Private, Custom AI on Arctic

Arctic delivers enterprise-grade inference with full data control. Let LLM.co help you design a self-hosted MoE system that automates ops workflows and keeps sensitive data in-house. Start a private architecture review with our team.