naimulislam/reasoning_conversations_advanced_1m
💻 Reasoning Conversations Advanced 1M 📖 Dataset Summary Reasoning Conversations Advanced 1M is a massive-scale, synthetic dataset specifically engineered to improve the algorithmic reasoning and problem-solving capabilities of Large Language Models (LLMs). Featuring 1,000,000 unique coding samples, this dataset spans multiple programming languages (Python, JS, C++, etc.) and focuses on logic-heavy development tasks. A key feature of this dataset is its Adaptive… See the full description on the dataset page: https://huggingface.co/datasets/naimulislam/reasoning_conversations_advanced_1m.
💻 Reasoning Conversations Advanced 1M
📖 Dataset Summary
Reasoning Conversations Advanced 1M is a massive-scale, synthetic dataset specifically engineered to improve the algorithmic reasoning and problem-solving capabilities of Large Language Models (LLMs). Featuring 1,000,000 unique coding samples, this dataset spans multiple programming languages (Python, JS, C++, etc.) and focuses on logic-heavy development tasks.
A key feature of this dataset is its Adaptive Reasoning Architecture. Unlike standard instruction datasets, the Chain-of-Thought (CoT) traces are strictly correlated with difficulty levels and are encapsulated within <thinking> tags to train the model's "internal monologue" before it emits code.
⚙️ Dataset Structure
Each record follows a structured JSON format optimized for fine-tuning:
Data Instance Example (Hard Difficulty)
{
"serial_number": 88210,
"difficulty": "Hard",
"question": "Python: Write a function to check if a binary tree is height-balanced.",
"reasoning": "<thinking>To check if a tree is balanced, I need to calculate the height of left and right subtrees for every node. A tree is balanced if the absolute difference between heights is ≤ 1. I should use a recursive DFS approach. To optimize, I can return -1 if a subtree is unbalanced to avoid redundant calculations.</thinking>",
"final_answer": "def is_balanced(root):\n def check(node):\n if not node: return 0\n left = check(node.left)\n right = check(node.right)\n if left == -1 or right == -1 or abs(left - right) > 1: return -1\n return max(left, right) + 1\n return check(root) != -1"
}🧠 Difficulty & Reasoning Logic
This dataset is designed to teach models when to invoke deep reasoning. The reasoning field population follows a strict probability distribution:
💻 How to Use
Load the dataset via the Hugging Face datasets library:
from datasets import load_dataset
# Replace with your actual repository path
dataset = load_dataset("naimulislam/reasoning_code_advanced_1m")
# Accessing a Hard sample
sample = dataset['train'][10]
print(f"[{sample['difficulty']}] {sample['question']}\n{sample['final_answer']}")🛠️ Dataset Creation & Scope
The dataset was synthetically generated using a logic engine designed to simulate real-world programming scenarios across:
- Data Structures: Trees, Graphs, Linked Lists, and Hash Maps.
- Algorithms: Sorting, Searching, Dynamic Programming, and Recursion.
- System Design: Basic architecture patterns and class structures.
- Debugging: Identifying and fixing logical errors in provided snippets.
- Optimization: Converting O(n²) solutions into O(n log n).
📜 License
This dataset is released under the MIT License.
🤝 Citation
If you use this dataset in your research or LLM training, please credit:
@dataset{reasoning_code_advanced_1m,
author = {Naimul Islam Nahid},
title = {Reasoning Code Advanced 1M},
year = {2025},
publisher = {Hugging Face},
journal = {naimulislam/reasoning_code_advanced_1m},
}