Parameters
14B
Context Length
131.072K
Modality
Text
Architecture
Dense
License
MIT License
Release Date
27 Dec 2024
Knowledge Cutoff
Jul 2024
Attention
Attention Structure
Multi-Layer Attention
Attention Heads
80
Key-Value Heads
80
Attention Head Dimension
-
Position Embedding
ROPE
RoPE Theta
1,000,000
Sliding Window Attention
No
Sliding Window Size
131,072
Normalization
RMS Normalization
Activation Function
SwigLU
Dimensions
Hidden Dimension Size
5,120
Number of Layers
40
FFN Intermediate Size (Dense)
13,824
Multi-Token Prediction Heads
-
Tokenizer
Vocabulary Size
152,064
DeepSeek-R1-Distill-Qwen-14B is a dense large language model within the DeepSeek-R1 series, engineered for advanced reasoning capabilities. This model is a product of distillation from the formidable 671B DeepSeek-R1 (a Mixture-of-Experts model), with its foundational architecture rooted in the Qwen 2.5 14B model. The primary objective of this distillation process is to efficiently transfer sophisticated reasoning skills, particularly in the domains of mathematics and coding, from the larger DeepSeek-R1 into a more compact and computationally efficient dense model.
The technical architecture of DeepSeek-R1-Distill-Qwen-14B is based on a transformer framework. It incorporates Rotary Position Embeddings (RoPE) for effective positional encoding, utilizes SwiGLU as its activation function, and employs RMSNorm for robust normalization. The attention mechanism includes QKV bias, characteristic of the Qwen 2.5 series from which it is derived. Unlike its larger DeepSeek-R1 progenitor, this variant maintains a dense architecture, optimizing for direct parameter utilization rather than expert sparsity.
This model is designed to support a substantial context length, accommodating up to 131,072 tokens, which facilitates the processing of extensive inputs. Its application extends across various natural language processing tasks, encompassing text generation, data analysis, and the synthesis of code. The model's heritage from DeepSeek-R1 underscores its proficiency in complex reasoning tasks, making it suitable for mathematical problem-solving and programming. Furthermore, it supports both few-shot and zero-shot learning paradigms and is optimized for local deployment, offering flexibility for integration into diverse applications via an API.
DeepSeek-R1 is a model family developed for logical reasoning tasks. It incorporates a Mixture-of-Experts architecture for computational efficiency and scalability. The family utilizes Multi-Head Latent Attention and employs reinforcement learning in its training, with some variants integrating cold-start data.
No evaluation benchmarks for DeepSeek-R1 14B available.
Overall Rank
-
Coding Rank
-
Total Score
64
/ 100
The model demonstrates high transparency regarding its architectural origins and licensing, providing clear documentation on its relationship to its parent models. However, it suffers from significant opacity in its training data provenance and specific compute resource disclosure. While the model's identity and technical specifications are well-defined, the lack of public access to the distillation datasets and detailed training metrics limits a full transparency validation.
Architectural Provenance
The model's lineage is explicitly documented as a distillation of the DeepSeek-R1 (671B) into the Qwen-2.5-14B base. The technical report details the transition from the Mixture-of-Experts architecture of the teacher model to the dense architecture of the student, including the use of specific components like RoPE, SwiGLU, and RMSNorm inherited from the Qwen-2.5 framework.
Dataset Composition
While the technical report mentions a distillation dataset of 800,000 samples, the actual data is not public. Furthermore, the foundational training data for the Qwen-2.5 base model remains undisclosed by its original developers, and the specific filtering or cleaning methodologies for the distillation corpus are described only in high-level categorical terms without verifiable samples.
Tokenizer Integrity
The model utilizes the Qwen-2.5 tokenizer, which is fully documented with a vocabulary size of 151,643 tokens. The tokenizer configuration files, including the merge rules and vocabulary mappings, are publicly accessible via the Hugging Face repository, allowing for full verification of tokenization behavior across supported languages.
Parameter Density
The model is clearly defined as a 14.7 billion parameter dense architecture. Unlike its MoE progenitor, all parameters are active during inference. Detailed architectural configurations, including the number of layers (48), hidden dimensions (5120), and attention heads (40), are explicitly provided in the public configuration files.
Training Compute
The technical report provides general information about the hardware cluster used for the DeepSeek-R1 family (H100 GPUs), but it fails to disclose the specific compute hours, energy consumption, or carbon footprint associated with the distillation of the 14B variant specifically. The information provided is high-level and lacks granular resource accounting.
Benchmark Reproducibility
DeepSeek provides extensive benchmark results across standard sets like AIME, MATH, and MMLU. However, the specific evaluation scripts and the exact few-shot prompts used for the distilled variants are not as comprehensively documented as the main model, and third-party verification of the distillation-specific gains is still emerging.
Identity Consistency
The model consistently identifies itself as a distilled version of DeepSeek-R1 and correctly attributes its base architecture to Qwen. It maintains a clear distinction between its capabilities as a reasoning-optimized model and its identity as an AI developed by DeepSeek, with minimal confusion regarding its versioning.
License Clarity
The model is released under the MIT License, which is one of the most permissive and transparent open-source licenses available. This license is clearly stated in the GitHub repository and on Hugging Face, explicitly allowing for commercial use, modification, and distribution without conflicting proprietary terms.
Hardware Footprint
Official documentation provides the model size and basic VRAM requirements for standard precision (BF16). While it lacks a comprehensive official matrix for quantization-specific performance trade-offs or context-length memory scaling, the community-driven deployment data for this specific 14B variant is extensive and verifiable.
Versioning Drift
The model follows a clear naming convention within the R1 family, but there is no formal semantic versioning system or public changelog for the distilled weights. Updates to the model family are frequent, but the specific 14B variant lacks a documented history of iterations or a clear deprecation path for previous checkpoints.
Full Calculator
Choose the quantization method for model weights
Context Size: 1,024 tokens
APX AI
Online