All Models
DeepSeekReasoningOpen WeightsReleased: 2025-01-20

DeepSeek R1

DeepSeek-R1 is an open-weights frontier reasoning model trained via large-scale reinforcement learning without supervised cold-start, featuring a 671B parameter Mixture-of-Experts architecture with 37B active parameters.

Foundation DNA84/100
MOE Arch671B params
At a Glance Specifications
Context Window

128k

~96k words input

Token Pricing

$0.55 / $2.19

Prompt / Completion per 1M

Top Benchmark

79.8 % pass@1

AIME 2024

Hardware Tier

320 GB VRAM

Local GPU sizing

6-Axis Foundation Model DNA

Holistic Capability Distribution

Normalized 0-100 rating vectors balanced across intelligence, throughput, and economics.

Overall Index:84/100
ReasoningCodingSpeedEconomicsContextFlexibility
Context: 76/100 (Window Horizon)
ReasoningGPQA / Logic / Math
96/100
CodingSWE-bench / LCB
82/100
SpeedTokens / Second
74/100
EconomicsCost Efficiency
98/100
ContextWindow Horizon
76/100
FlexibilityTool Use & Open
90/100
Performance Evaluations

Verified LLM Benchmarks

Empirical evaluations across academic reasoning, software engineering, agentic execution, and human preference.

AIME 2024 Headline
79.8% pass@1
official_report
MathematicsDeepSeek-R1 Technical Report
MATH-500 Headline
97.3% pass@1
lm-eval-harness
MathematicsDeepSeek-R1 Technical Report
SWE-bench Verified Headline
49.2% resolved
swebench.harness
CodingDeepSeek-R1 Technical Report
Chatbot Arena Elo Headline
1364Elo
LMSYS Blind Pairwise Battles
Human Preferencehttps://chat.lmsys.org/
GPQA Diamond Headline
71.5% pass@1
Inspect
Academic ReasoningDeepSeek-R1 Technical Report
MMLU
90.8% pass@1
lm-eval-harness
Academic ReasoningDeepSeek-R1 Technical Report
Real-Time Provider Telemetry

Inference Latency & Generation Throughput

Empirical telemetry benchmarking generation throughput (Tokens/Second) and Time to First Token (TTFT).

Peak Generation Speed
60tokens/sec

Measured under concurrent production load

Lowest Time to First Token
620ms

p95 latency: 1800 ms

Telemetry Verification
99.7%uptime

Across 1,200 monitored requests

Production Trade-Offs

Architectural Strengths vs. Operational Considerations

An objective technical balance sheet analyzing deployment advantages and production constraints.

Operational Advantages

Key Architectural Strengths

  • Unprecedented open-weights mathematics and competition-grade reasoning performance.
  • Fully permissive MIT license allows commercial use, self-hosting, and weight distillation.
  • Multi-head Latent Attention (MLA) drastically minimizes KV cache VRAM footprint.
  • Extremely economical API inference pricing ($0.55/1M input, $2.19/1M output).
Production Constraints

Operational Considerations

  • Full unquantized 671B model requires multi-node GPU clusters (e.g. 8x H100) to serve locally.
  • Reasoning chain of thought length can introduce higher output token usage on simpler questions.
Technical Specifications

Hardware & Execution Parameters

Architecture Typemoe
Total Parameters671B
Active Parameters (MoE)37B
Attention MechanismMLA
Context Window128,000 tokens
Max Output Tokens32,768 tokens
Supported Modalities
text
License Typemit
Commercial Use Allowed
Model DistillationPermitted
Zero Data RetentionAvailable
Knowledge Cutoff2024-07
Model Heritage & Evolutionary Lineage

Genealogical Provenance

Trained directly on top of DeepSeek-V3 base weights using multi-stage pure RL alignment.

Base Precursor

deepseek ai deepseek v3

Current Architecture

DeepSeek R1

deepseek r1 distill qwen 32bdeepseek r1 distill llama 70b
Engineering Deep-Dive

Architecture Engineering & Capability Deep-Dive

Topology & Attention Mechanics

DeepSeek-R1 employs a 671B parameter Sparse Mixture of Experts architecture where 37B parameters are activated per token across 256 routed experts and 1 shared expert.

Evaluation Profile & Reasoning Capabilities

Pioneers cold-start-free RL reasoning where the model self-discovers reflection, error-correction, and verification routines without human supervised traces.

Inference Economics & Cost Optimization

Offers one of the lowest price-per-intelligence ratios across the entire AI ecosystem.

Primary Production Workloads & Suitability

Complex mathematical and formal verification tasks
Algorithmic competitive programming
Distillation of domain-specific smaller models
Self-hosted enterprise private reasoning
Compute & Deployment Architecture

Cloud Deployment Architecture & Hardware Sizing

Cloud Deployment Architecture

Distributed enterprise serving infrastructure, autoscaling semantics, and runtime execution profile.

Self-Hosted Cluster320 GB VRAM Sizing

Open-weights foundation model available for private cloud deployment on bare-metal GPU clusters, Kubernetes, or serverless vLLM orchestration.

SLA: 99.9% Cloud Availability
Rate Limit: Scaled via Provider Quota
Cache: Automatic Prefix Compression
Serving Model

Self-Hosted GPU or Cloud API

Continuous autoscaling with regional failover

Hardware Overhead

320 GB Local VRAM

Minimum single-node allocation

Context Capacity

128k tokens

Supported with automated KV cache prefix compression

Self-Hosted Precision Tiers & Quantization

Precision / QuantizationWeights SizeMin Recommended VRAMTarget GPU Hardware
FP161340 GB1400 GB16x H100 (80GB)
FP8670 GB720 GB8x H100 (80GB) or 8x A100 (80GB)
INT4 / AWQ340 GB380 GB4x A100 (80GB) or 4x H100 (80GB)

SDK Installation

$npm install openai
$pip install openai
Inference Economics & Total Cost of Ownership

Commercial Token Rates & Cost Estimator

Base Input Tokens

$0.55 / 1M

Standard prompt context ingestion

Base Output Tokens

$2.19 / 1M

Generated completion & thinking tokens

Prompt Cache ReadUp to 80% Off

$0.14 / 1M

Re-used prompt prefix context

Monthly Production Cost Simulator

Daily Prompt Ingestion5M tokens/day (~150M/mo)
Daily Completion Generation1M tokens/day (~30M/mo)
Prompt Prefix Cache Hit Rate40%
Estimated Monthly Spend

$123.60

Includes prompt caching

Monthly Cache Savings

-$24.60

Saved via prefix context caching

Frontier Alternatives

Comparable Foundation Architectures

Alternative foundation models with comparable intelligence benchmarks, context windows, and deployment profiles.

OpenAIMultimodal

GPT-4o

OpenAI's flagship omni model natively processing text, audio, and vision with low-latency multimodal reasoning and a 128,000 token context window.

Context:128k ctx
Parameters:Proprietary
Input Rate:$2.5/1M
Compare Architecture
AnthropicCode

Claude Sonnet 3.7

Claude Sonnet 3.7 is a hybrid reasoning and code model from Anthropic with a 200,000-token context window, supporting text, image, and PDF modalities with dynamic test-time compute control.

Context:200k ctx
Parameters:Proprietary
Input Rate:$3/1M
Compare Architecture
MetaGeneral

Llama 3.3 70B Instruct

Meta's flagship 70B parameter open-weights model delivering capability competitive with previous generation 405B models on a single-node GPU footprint with 128k context.

Context:128k ctx
Parameters:70B
Input Rate:$0.35/1M
Compare Architecture
AnthropicReasoning

Claude Opus 4

Claude Opus 4 is Anthropic's flagship frontier reasoning model for the Claude 4 generation, featuring an advanced hybrid test-time reasoning engine, 200k context window, and breakthrough scores on graduate-level STEM and multi-step deduction.

Context:200k ctx
Parameters:Proprietary
Input Rate:$15/1M
Compare Architecture
Developer Quickstart

SDK Installation & API Integration

$npm install openai
$pip install openai
import OpenAI from 'openai';

const client = new OpenAI({
  baseURL: 'https://api.deepseek.com',
  apiKey: process.env.DEEPSEEK_API_KEY,
});

const response = await client.chat.completions.create({
  model: 'deepseek-reasoner',
  messages: [
    { role: 'user', content: 'Solve this logic puzzle step by step...' }
  ],
});

console.log(response.choices[0].message.content);
Knowledge Base

Frequently Asked Questions about DeepSeek R1

Engineering specifications, VRAM sizing, commercial licensing terms, token economics, and empirical benchmark evaluations.

Topic:

DeepSeek R1 is an open 671B-parameter Mixture-of-Experts (MoE) reasoning model trained via large-scale Reinforcement Learning (RL) without human supervised fine-tuning in its primary discovery phase. It activates 37B parameters per token using DeepSeek-V3 base architecture with Multi-head Latent Attention (MLA) and DeepSeekMoE routing.

Verified Engineering FAQ

Hosting unquantized FP16 DeepSeek R1 requires ~1,300 GB of VRAM (typically 16x H100 80GB GPUs). In 4-bit quantization (FP4/INT4), it runs on 380-420 GB VRAM (8x RTX 4090 or 4x A100/H100). For single-GPU local workstations, DeepSeek provides official distilled models (R1-Distill-Qwen-1.5B to 70B) that run smoothly on 8GB to 24GB GPUs.

Verified Engineering FAQ
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