| 
80 | 80 |     * Extended: To be able to execute on GPU using CUDA or OpenMP  | 
81 | 81 |     * Optional: Extend the magics for the wasm use case (xeus-cpp-lite)  | 
82 | 82 |     * Present the work at the relevant meetings and conferences  | 
83 |  | -      | 
84 |  | -- name: "Integrate Clad to PyTorch and compare the gradient execution times"  | 
 | 83 | +
  | 
 | 84 | +- name: "Enhancing LLM Training with Clad for efficient differentiation"  | 
 | 85 | +  description: |  | 
 | 86 | +    This project aims to leverage Clad, an automatic differentiation (AD)  | 
 | 87 | +    plugin for Clang, to optimize large language model (LLM) training primarily  | 
 | 88 | +    in C++. Automatic differentiation is a crucial component of deep learning  | 
 | 89 | +    training, enabling efficient computation of gradients for optimization  | 
 | 90 | +    algorithms such as stochastic gradient descent (SGD). While most modern LLM  | 
 | 91 | +    frameworks rely on Python-based ecosystems, their heavy reliance on  | 
 | 92 | +    interpreted code and dynamic computation graphs can introduce performance  | 
 | 93 | +    bottlenecks. By integrating Clad into C++-based deep learning pipelines,  | 
 | 94 | +    we can enable high-performance differentiation at the compiler level,  | 
 | 95 | +    reducing computational overhead and improving memory efficiency. This will  | 
 | 96 | +    allow developers to build more optimized training workflows without  | 
 | 97 | +    sacrificing flexibility or precision.  | 
 | 98 | +
  | 
 | 99 | +    Beyond performance improvements, integrating Clad with LLM training in C++  | 
 | 100 | +    opens new possibilities for deploying AI models in resource-constrained  | 
 | 101 | +    environments, such as embedded systems and HPC clusters, where minimizing  | 
 | 102 | +    memory footprint and maximizing computational efficiency are critical.  | 
 | 103 | +    Additionally, this work will bridge the gap between modern deep learning  | 
 | 104 | +    research and traditional scientific computing by providing a more robust  | 
 | 105 | +    and scalable AD solution for physics-informed machine learning models. By  | 
 | 106 | +    optimizing the differentiation process at the compiler level, this project  | 
 | 107 | +    has the potential to enhance both research and production-level AI  | 
 | 108 | +    applications, aligning with compiler-research.org's broader goal of  | 
 | 109 | +    advancing computational techniques for scientific discovery.  | 
 | 110 | +    | 
 | 111 | +  tasks: |  | 
 | 112 | +    * Develop a simplified LLM setup in C++  | 
 | 113 | +    * Apply Clad to compute gradients for selected layers and loss functions  | 
 | 114 | +    * Enhance clad to support it if necessary, and prepare performance benchmarks  | 
 | 115 | +    * Enhance the LLM complexity to cover larger projects such as llama  | 
 | 116 | +    * Repeat bugfixing and benchmarks  | 
 | 117 | +    * Develop tests to ensure correctness, numerical stability, and efficiency  | 
 | 118 | +    * Document the approach, implementation details, and performance gains  | 
 | 119 | +    * Present progress and findings at relevant meetings and conferences  | 
 | 120 | +   | 
 | 121 | +- name: "Integrate Clad in PyTorch and compare the gradient execution times"  | 
85 | 122 |   description: |  | 
86 | 123 |     PyTorch is a popular machine learning framework that includes its own  | 
87 | 124 |     automatic differentiation engine, while Clad is a Clang plugin for  | 
 | 
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