This project focuses on analyzing catalysis data to explore catalyst performance, emissions reduction, and process efficiency. The analysis uses Python for data processing and visualization, incorporating key techniques such as:
- Scatter Plots to analyze relationships between catalyst properties, performance, and operating conditions.
- Line and Bar Charts to visualize trends in emissions reduction and catalyst efficiency.
- Correlation Heatmaps to identify strong relationships between key metrics.
The dataset is processed to extract insights into catalyst behavior, enabling optimization of catalytic processes for improved performance and reduced emissions.
- Data Processing: Processes raw catalysis data to extract meaningful insights.
- Performance Analysis: Analyzes catalyst performance under varying operating conditions.
- Emissions Reduction Analysis: Evaluates the effectiveness of catalysts in reducing emissions.
- Efficiency Analysis: Assesses process efficiency using key performance indicators.
- Visualization: Generates scatter plots, line charts, bar charts, and correlation heatmaps for clear interpretation of results.
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Prepare the Data:
- Ensure the dataset (
catalysis.json) is placed in thedata/directory. - The dataset should include catalyst properties, performance metrics, and operating conditions.
- Ensure the dataset (
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Run the Python Analysis:
- Execute the script to generate visualizations and save plots:
python analysis.py
- The output will include scatter plots, line charts, bar charts, and a correlation heatmap.
- Execute the script to generate visualizations and save plots:
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Interpret Results:
- Analyze the generated plots to understand catalyst performance, emissions reduction, and process efficiency.
- Use insights to optimize catalytic processes for improved outcomes.
- Adesoye Michael Ademola:, Phone: 07015060745
- Enoch o. Oladipupo: , Phone: 09135619975
For inquiries or collaboration, feel free to contact the authors.
This project is open-source and free for use in research and development. Proper attribution is appreciated.
- Incorporate machine learning models to predict catalyst performance under new conditions.
- Expand the dataset to include additional catalysts and operating conditions.
- Automate data collection and processing for real-time monitoring.
We acknowledge the contributions of researchers and institutions involved in catalysis research. Additionally, we leveraged the following resources to gather data and support this research: