coding practice
-
PixelBank: ML Coding Practice Platform
Read Full Article: PixelBank: ML Coding Practice Platform![[P] PixelBank - Leetcode for ML](https://www.tweakedgeek.com/wp-content/uploads/2025/12/featured-article-6361-300x171.png)
PixelBank is a new hands-on coding practice platform tailored for Machine Learning and AI, addressing the gap left by platforms like LeetCode which focus on data structures and algorithms but not on ML-specific coding skills. It allows users to practice writing PyTorch models, perform NumPy operations, and work on computer vision algorithms with instant feedback. The platform offers a variety of features including daily challenges, beautifully rendered math equations, hints, solutions, and progress tracking, with a free-to-use model and optional premium features for additional problems. PixelBank aims to help users build consistency and proficiency in ML coding through an organized, interactive learning experience. Why this matters: PixelBank provides a much-needed resource for aspiring ML engineers to practice and refine their skills in a practical, feedback-driven environment, bridging the gap between theoretical knowledge and real-world application.
-
Stop Stressing About Math in AI/ML Learning
Read Full Article: Stop Stressing About Math in AI/ML Learning
Pranay Gajbhiye, a third-year computer science student, shares his experience of initially struggling with AI/ML due to the overwhelming emphasis on mastering complex math before coding. He spent months on theoretical math concepts like linear algebra and calculus, which led to burnout and a feeling of inadequacy. However, by adopting a "Build First" approach, he shifted his focus to practical coding with Python and Scikit-learn, allowing him to learn math concepts as needed to solve real problems. This hands-on method proved more effective, enabling him to build projects like a movie recommender system and a sentiment analyzer in just three weeks. He advises beginners not to be deterred by the "Math Gatekeepers" and to start coding with available resources like Kaggle datasets and Scikit-learn documentation, learning math on demand when faced with practical challenges. This approach highlights the importance of practical application in learning complex subjects like AI/ML, making the process more engaging and less intimidating.
-
Training a Model for Code Edit Predictions
Read Full Article: Training a Model for Code Edit Predictions
Developing a coding agent like NES, designed to predict the next change needed in a code file, is a complex task that requires understanding how developers write and edit code. The model considers the entire file and recent edit history to predict where and what the next change should be. Capturing real developer intent is challenging due to the messy nature of real commits, which often include unrelated changes and skip incremental steps. To train the edit model effectively, special edit tokens were used to define editable regions, cursor positions, and intended edits, allowing the model to predict the next code edit within a specified region. Data sources like CommitPackFT and Zeta were utilized, and the dataset was normalized into a unified format with filtering to remove non-sequential edits. The choice of base model for fine-tuning was crucial, with Gemini 2.5 Flash Lite selected for its ease of use and operational efficiency. This managed model avoids the overhead of running an open-source model and uses LoRA for lightweight fine-tuning, ensuring the model remains stable and cost-effective. Flash Lite enhances user experience by providing faster responses and lower compute costs, enabling frequent improvements without significant downtime or version drift. Evaluation of the edit model was conducted using the LLM-as-a-Judge metric, which assesses the semantic correctness and logical consistency of predicted edits. This approach is more aligned with human judgment than simple token-level comparisons, allowing for scalable and sensitive evaluation processes. To make the Next Edit Suggestions responsive, the model receives more than just the current file snapshot at inference time; it also includes the user's recent edit history and additional semantic context. This comprehensive input helps the model understand user intent and predict the next edit accurately. This matters because it enhances coding efficiency and accuracy, offering developers a more intuitive and reliable tool for code editing.