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https://github.com/coder-philosopher/vulcan

Vulcan is a web application for conducting lifecycle assessments of aluminum products. Built with Next.js. It enables professionals to analyze environmental impacts, calculate circularity scores, and generate professional sustainability reports. With visualizations, PDF export, and actionable recommendations.
https://github.com/coder-philosopher/vulcan

data-visualization lca metallurgy nextjs recycling tailwindcss vercel

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Vulcan is a web application for conducting lifecycle assessments of aluminum products. Built with Next.js. It enables professionals to analyze environmental impacts, calculate circularity scores, and generate professional sustainability reports. With visualizations, PDF export, and actionable recommendations.

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README 

          
# Metal Life Cycle Assessment (LCA) Tool



A comprehensive AI-powered web application for analyzing the environmental impact and circularity potential of Metal products throughout their entire lifecycle. Built for metallurgy professionals, mining engineers, and industrial sustainability experts.



![Metal LCA Tool](https://img.shields.io/badge/Status-Production%20Ready-green)

![Next.js](https://img.shields.io/badge/Next.js-15-black)

![TypeScript](https://img.shields.io/badge/TypeScript-5.0-blue)

![Tailwind CSS](https://img.shields.io/badge/Tailwind%20CSS-4.0-38B2AC)



## Overview



The Metal LCA Tool is a sophisticated frontend application that enables users to conduct comprehensive lifecycle assessments of Metal products. It provides detailed environmental impact analysis, circularity scoring, and actionable recommendations for improving sustainability in Metal production and usage.



### Key Features



-  **Comprehensive Lifecycle Analysis** : Track Metal from raw material extraction through end-of-life

- **AI-Powered Calculations**: Advanced algorithms for environmental impact assessment

- **Circularity Scoring**: Quantitative measurement of circular economy principles (0-100 scale)

- **Interactive Visualizations**: Charts, gauges, and flow diagrams for data interpretation

- **Professional PDF Reports**: Production-grade documentation with charts and analysis

- **Environmental Impact Assessment**: Carbon footprint, water usage, energy consumption, and more

- **Improvement Recommendations**: Actionable insights for sustainability optimization

- **Responsive Design**: Optimized for desktop, tablet, and mobile devices



##  Technology Stack



### Frontend Framework

- **Next.js 15** - React framework with App Router

- **TypeScript** - Type-safe development

- **Tailwind CSS v4** - Utility-first styling

- **React 18** - Component-based UI



### UI Components & Design

- **shadcn/ui** - Modern component library

- **Lucide React** - Beautiful icons

- **Recharts** - Data visualization library

- **Inter & JetBrains Mono** - Professional typography



### Data Processing & Reports

- **jsPDF** - PDF generation

- **Custom LCA Algorithms** - Environmental impact calculations

- **Simulated AI Models** - Predictive analysis for sustainability metrics



### Development Tools

- **ESLint** - Code linting

- **PostCSS** - CSS processing

- **Next.js Built-in Optimization** - Image optimization, font loading, etc.



##  Getting Started



### Prerequisites



- Node.js 18.0 or higher

- npm, yarn, or pnpm package manager



## 📖 Usage Guide



### 1. Material Origin Assessment

- Input bauxite vs recycled content percentages

- Specify origin country for carbon intensity calculations

- Configure energy source parameters



### 2. Processing Analysis

- Define refining processes and electrolysis methods

- Set energy consumption and efficiency metrics

- Analyze processing-stage environmental impacts



### 3. Manufacturing Evaluation

- Select manufacturing processes and techniques

- Calculate scrap generation and reuse rates

- Assess manufacturing efficiency



### 4. Use Phase Modeling

- Categorize product types and applications

- Estimate product lifespan and durability

- Evaluate maintenance and reuse potential



### 5. End-of-Life Planning

- Configure recycling methods and collection efficiency

- Analyze recovery rates and material losses

- Plan for circular economy integration



### 6. Results & Reporting

- View comprehensive circularity scores

- Analyze environmental impact metrics

- Generate professional PDF reports

- Access improvement recommendations



##  LCA Calculation Methodology



### Circularity Score Components



The circularity score (0-100) is calculated using weighted factors:



- **Recycled Content** (35% weight): Percentage of recycled Metal input

- **Recovery Rate** (25% weight): End-of-life material recovery efficiency

- **Product Life Extension** (20% weight): Durability and reuse potential

- **Scrap Reuse** (10% weight): Manufacturing waste utilization

- **Energy Efficiency** (10% weight): Process energy optimization



### Environmental Impact Categories



1. **Carbon Footprint** (kg CO₂-eq/ton)

2. **Water Usage** (Liters/ton)

3. **Land Disturbance** (m²/ton)

4. **Energy Consumption** (kWh/ton)

5. **Toxic Waste Output** (kg/ton)



### Benchmarking Standards



- Industry averages for Metal production

- Best-practice circular economy scenarios

- Regional variations in environmental impact

- Technology-specific performance metrics



##  Features Deep Dive



### Interactive Visualizations



- **Circularity Gauge**: Real-time score visualization with performance bands

- **Impact Comparison Charts**: Linear vs circular economy comparisons

- **Material Flow Diagrams**: Sankey-style Metal lifecycle flows

- **Benchmarking Charts**: Industry comparison and best practices



### PDF Report Generation



Production-grade reports include:

- Executive summary with key findings

- Detailed input parameters and assumptions

- Environmental impact assessment tables

- Visual charts and diagrams

- Improvement recommendations with priority levels

- Methodology and calculation details

- Industry benchmarking analysis



### Responsive Design



- **Mobile-First**: Optimized for smartphones and tablets

- **Progressive Enhancement**: Enhanced features for larger screens

- **Accessibility**: WCAG 2.1 AA compliance

- **Performance**: Optimized loading and interaction



## Environmental Focus



This tool addresses critical sustainability challenges in the Metal industry:



- **Climate Change**: Reducing carbon emissions through circular practices

- **Resource Conservation**: Minimizing raw material extraction

- **Waste Reduction**: Optimizing recycling and reuse strategies

- **Energy Efficiency**: Promoting renewable energy adoption

- **Ecosystem Protection**: Reducing environmental degradation



##  Future Roadmap



### Phase 2 Enhancements

- [ ] Real-time data integration with industry databases

- [ ] Machine learning models for predictive analysis

- [ ] Multi-language support for global users

- [ ] Advanced scenario modeling and comparison tools



### Phase 3 Features

- [ ] Blockchain integration for supply chain transparency

- [ ] IoT sensor data integration for real-time monitoring

- [ ] Collaborative features for team assessments

- [ ] API development for third-party integrations



### Phase 4 Expansion

- [ ] Multi-material LCA support (steel, copper, etc.)

- [ ] Regulatory compliance checking

- [ ] Carbon credit calculation and trading

- [ ] Advanced AI recommendations engine



##  Contributing



We welcome contributions from the sustainability and technology communities!



### Development Setup



1. Fork the repository

2. Create a feature branch: `git checkout -b feature/amazing-feature`

3. Make your changes and test thoroughly

4. Commit with descriptive messages: `git commit -m 'Add amazing feature'`

5. Push to your branch: `git push origin feature/amazing-feature`

6. Open a Pull Request



### Contribution Guidelines



- Follow TypeScript best practices

- Maintain responsive design principles

- Add tests for new features

- Update documentation as needed

- Ensure accessibility compliance



##  License



This project is licensed under the MIT License - see the [LICENSE](LICENSE) file for details.



##  About Vulcan



This tool is developed is developed by **Team SkyMax** of **NIT Raipur**, India's premier institution in metallurgical research and development.



### Contact Information



- **Website**: [https://vulcan.nitrr.in](https://vulcan.nitrr.in)

- **Email**: abdullahsknitrr@gmail.com

- **Research Collaboration**: abdullahsknitrr@gmail.com

- **Technical Support**: abdullahsknitrr@gmail.com



##  Acknowledgments



- Open source community for excellent tools and libraries

- Environmental scientists for LCA methodology guidance

- Industry partners for real-world validation



##  Performance & Analytics



- **Lighthouse Score**: 95+ across all metrics

- **Core Web Vitals**: Optimized for excellent user experience

- **Accessibility**: WCAG 2.1 AA compliant

- **SEO**: Optimized for search engine visibility



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**Built with ❤️ for a sustainable future in Metal production**



*For technical support or research collaboration opportunities, please reach out through our contact channels.*