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@@ -131,174 +131,3 @@ generate_docker_command("Find all the containers that have exited with a status
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  generate_docker_command("I would like to see the names and statuses of all running containers, please.")
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- ## Training Details
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- ### Training Data
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- The model was fine-tuned on a specialized dataset focused on Docker commands and containerization workflows. The training data likely included:
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- **Docker Documentation**: Official Docker documentation, command references, and best practice guides to ensure accuracy and completeness of generated commands.
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- **Community Resources**: Stack Overflow discussions, GitHub repositories, and community tutorials related to Docker and containerization practices.
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- **Instructional Datasets**: Curated instruction-response pairs specifically designed for Docker command generation and DevOps task automation.
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- **Code Repositories**: Analysis of Dockerfiles, docker-compose files, and containerization scripts from open-source projects to understand real-world usage patterns.
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- The training process built upon the strong foundation of the DeepSeek-Coder-1.3B-Instruct base model, which was originally trained on 2 trillion tokens comprising 87% code and 13% natural language data in English and Chinese.
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- ### Training Procedure
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- #### Base Model Foundation
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- The training began with the DeepSeek-Coder-1.3B-Instruct model, which provides several key advantages:
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- **Code-Optimized Architecture**: The base model uses a LLaMA-based transformer architecture specifically optimized for code generation and instruction following tasks.
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- **Large Context Window**: With a 16K token context window, the model can handle complex, multi-step Docker workflows and project-level containerization tasks.
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- **Instruction Tuning**: The base model was already fine-tuned on 2 billion tokens of instruction data, providing a strong foundation for following Docker-related instructions.
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- #### Fine-tuning Process
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- **Hardware**: Training was conducted on NVIDIA A100 GPU for 1 hour, demonstrating efficient fine-tuning capabilities.
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- **Training Duration**: The focused 1-hour training session on high-performance hardware allowed for rapid specialization while maintaining the base model's general capabilities.
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- **Optimization Strategy**: The training likely employed parameter-efficient fine-tuning techniques to specialize the model for Docker tasks while preserving the underlying code generation capabilities.
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- #### Training Hyperparameters
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- Based on the model configuration and training setup:
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- - **Training Hardware**: NVIDIA A100 GPU
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- - **Training Duration**: 1 hour
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- - **Base Model**: deepseek-ai/deepseek-coder-1.3b-instruct
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- - **Context Length**: 16,384 tokens
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- - **Architecture**: LlamaForCausalLM with 24 layers
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- - **Hidden Size**: 2,048
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- - **Attention Heads**: 16
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- - **Vocabulary Size**: 32,256 tokens
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- ### Speeds, Sizes, Times
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- **Model Size**: Approximately 5.4 GB (based on safetensors files)
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- **Parameters**: ~1.3 billion parameters (inherited from base model)
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- **Training Time**: 1 hour on A100 GPU
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- **Inference Speed**: Optimized for real-time command generation
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- **Memory Requirements**: Recommended 8GB+ GPU memory for optimal performance
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- ## Technical Specifications
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- ### Model Architecture and Objective
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- The model employs a **LlamaForCausalLM** architecture, which is a decoder-only transformer optimized for autoregressive text generation. Key architectural features include:
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- **Transformer Layers**: 24 transformer decoder layers with multi-head self-attention mechanisms
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- **Hidden Dimensions**: 2,048-dimensional hidden states for rich representation learning
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- **Attention Mechanism**: 16 attention heads with 128-dimensional head size for effective context modeling
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- **Positional Encoding**: RoPE (Rotary Position Embedding) with linear scaling factor of 4.0 for extended context handling
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- **Activation Function**: SiLU (Sigmoid Linear Unit) activation for improved gradient flow
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- **Normalization**: RMSNorm with epsilon of 1e-06 for stable training
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- **Training Objective**: The model was trained using standard causal language modeling objectives, predicting the next token in Docker command sequences and instructional text.
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- ### Compute Infrastructure
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- #### Hardware
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- **Training Hardware**: NVIDIA A100 GPU
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- - High-performance tensor processing capabilities
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- - 40GB/80GB HBM2e memory for large batch processing
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- - Optimized for transformer model training and inference
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- **Inference Hardware**: Compatible with various GPU configurations
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- - Minimum: 8GB GPU memory for basic inference
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- - Recommended: 16GB+ GPU memory for optimal performance
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- - CPU inference supported but with reduced speed
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- #### Software
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- **Framework**: Built using the Transformers library ecosystem
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- - **Transformers Version**: 4.54.1
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- - **PyTorch**: Compatible with PyTorch framework
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- - **Safetensors**: Model weights stored in Safetensors format for security and efficiency
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- - **Tokenizer**: Custom tokenizer optimized for code and Docker command tokenization
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- **Deployment Options**:
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- - Hugging Face Transformers pipeline
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- - Text Generation Inference (TGI) for production deployment
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- - GGUF quantization support for resource-constrained environments
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- - Integration with popular inference frameworks
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- ## Environmental Impact
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- The environmental impact of training this model was minimized through efficient fine-tuning practices:
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- **Hardware Type**: NVIDIA A100 GPU
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- **Hours Used**: 1 hour
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- **Training Efficiency**: Leveraged pre-trained base model to minimize computational requirements
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- **Carbon Footprint**: Significantly reduced compared to training from scratch due to short training duration
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- The brief training period demonstrates the efficiency of fine-tuning specialized models from strong base models, reducing both computational costs and environmental impact while achieving targeted performance improvements.
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- Carbon emissions can be estimated using the [Machine Learning Impact calculator](https://mlco2.github.io/impact#compute) presented in [Lacoste et al. (2019)](https://arxiv.org/abs/1910.09700).
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- ## Evaluation
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- ### Performance Characteristics
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- While specific benchmark scores are not available, the model demonstrates strong performance in Docker-related tasks based on its foundation:
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- **Base Model Performance**: The DeepSeek-Coder-1.3B-Instruct base model achieves state-of-the-art performance among open-source code models on multiple programming benchmarks including HumanEval, MultiPL-E, MBPP, DS-1000, and APPS.
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- **Specialization Benefits**: Fine-tuning on Docker-specific data enhances the model's ability to generate accurate, executable Docker commands while maintaining the base model's strong code generation capabilities.
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- **Context Understanding**: The 16K context window enables the model to understand complex, multi-step containerization workflows and maintain coherence across extended interactions.
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- ### Expected Use Cases Performance
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- **Command Accuracy**: High accuracy in generating syntactically correct Docker commands for common use cases
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- **Best Practices**: Incorporates Docker best practices and security considerations in generated responses
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- **Error Handling**: Provides helpful debugging suggestions for common Docker issues
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- **Multi-step Workflows**: Capable of generating comprehensive containerization workflows including Dockerfile creation, image building, and container orchestration
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- ## Citation
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- **BibTeX:**
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- ```bibtex
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- @misc{deepseek-instruct-docker-commands,
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- title={DeepSeek-Instruct-Docker-Commands: A Specialized Language Model for Docker Command Generation},
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- author={DeonJudeSchellito},
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- year={2025},
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- publisher={Hugging Face},
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- url={https://huggingface.co/DeonJudeSchellito/deepseek-instruct-docker-commands}
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- }
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- ```
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- **APA:**
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- DeonJudeSchellito. (2025). *DeepSeek-Instruct-Docker-Commands: A Specialized Language Model for Docker Command Generation*. Hugging Face. https://huggingface.co/DeonJudeSchellito/deepseek-instruct-docker-commands
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- ## Model Card Authors
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- **Primary Author**: DeonJudeSchellito
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- **Model Card Creation**: Manus AI
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- **Documentation Date**: February 2025
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- ## Model Card Contact
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- For questions, issues, or collaboration opportunities related to this model, please:
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- - **Open an issue** in the model repository
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- - **Contact the model author** through Hugging Face: [@DeonJudeSchellito](https://huggingface.co/DeonJudeSchellito)
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- - **Community discussions** are welcome in the Community tab of the model page
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- For technical support or questions about the base DeepSeek-Coder model, refer to the [official DeepSeek repository](https://github.com/deepseek-ai/DeepSeek-Coder) or contact [email protected].
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- ---
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- *This model card was generated to provide comprehensive information about the DeepSeek-Instruct-Docker-Commands model. For the most up-to-date information and model files, please visit the [official model page](https://huggingface.co/DeonJudeSchellito/deepseek-instruct-docker-commands).*
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  generate_docker_command("I would like to see the names and statuses of all running containers, please.")
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