autumn-carbon

byPrasana

create app using language python The problem statement β€œCarbon Footprint Monitoring in Smart Cities – Complete Analysis & Solution” basically means: πŸ‘‰ Simple meaning It is about tracking, analyzing, and reducing the amount of carbon emissions (COβ‚‚ and other greenhouse gases) produced in a smart city using technology. πŸ” Break it down 1. Carbon Footprint This refers to the total amount of harmful gases released into the environment due to: Vehicles πŸš— Industries 🏭 Electricity usage ⚑ Waste πŸ—‘οΈ Example: If a city uses more fuel, electricity, and produces more waste β†’ higher carbon footprint. 2. Monitoring This means: Collecting real-time data Measuring pollution levels Tracking sources of emissions Using: Sensors (IoT devices) Smart meters Satellite or AI data 3. Smart Cities A smart city uses technology like: IoT (Internet of Things) AI Data analytics to improve urban living (traffic, pollution, energy, etc.) 🎯 What the full problem is asking You need to design a system that can: βœ… 1. Measure emissions From traffic, industries, electricity usage βœ… 2. Analyze data Identify which area causes more pollution Detect peak pollution times βœ… 3. Provide solutions Suggest ways to reduce emissions Optimize traffic, energy usage Promote green alternatives βœ… 4. Visualize results Dashboard for government/public Real-time alerts πŸ’‘ Example (easy to understand) Imagine your app: Detects heavy traffic in an area 🚦 Calculates COβ‚‚ emissions Suggests alternate routes Alerts government about high pollution πŸš€ In one line: πŸ‘‰ The problem is about building a smart system that tracks and reduces pollution in cities using technology. 🧠 1. System Architecture (End-to-End) πŸ”· Layer 1: Data Collection (Input Layer) Sources of data: πŸš— Traffic sensors (vehicle count, speed) 🌫️ Air quality sensors (COβ‚‚, PM2.5) ⚑ Smart meters (electricity usage) 🏭 Industrial emission APIs πŸ“± Mobile app (user travel data – optional) πŸ‘‰ Tools: IoT devices (ESP32 – fits your project idea πŸ”₯) GPS modules Public datasets (government APIs) πŸ”· Layer 2: Communication Layer Transfers data to cloud MQTT / HTTP protocols WiFi / 4G / LoRa πŸ‘‰ Tools: MQTT Broker (Mosquitto) REST APIs πŸ”· Layer 3: Data Processing & Backend This is the brain 🧠 Store incoming data Clean & process Calculate carbon emissions πŸ‘‰ Example logic: Vehicles Γ— emission factor = COβ‚‚ output πŸ‘‰ Tools: Backend: Python (Flask / FastAPI) Database: MongoDB (real-time data) Firebase (easy for hackathon) πŸ”· Layer 4: AI & Analytics Layer Predict pollution trends Identify hotspots Suggest optimizations πŸ‘‰ Tools: Python (Pandas, NumPy) ML (Scikit-learn / TensorFlow) πŸ”· Layer 5: Application Layer (Frontend) User interface (VERY important for judging) πŸ“Š Dashboard for government πŸ“± Mobile app for citizens πŸ‘‰ Shows: Real-time pollution map Carbon footprint per area Suggestions πŸ‘‰ Tools: Flutter (you’re already using πŸ”₯) Google Maps API (for visualization) πŸ”· Layer 6: Action Layer (Smart Response) Traffic rerouting Alerts to users Energy-saving recommendations ✨ 2. Key Features (Make your project stand out) 🌍 Core Features Real-time carbon emission tracking Area-wise pollution heatmap Source identification (traffic, industry, energy) πŸ€– Smart Features (HIGH IMPACT) AI-based pollution prediction Smart traffic suggestions Carbon footprint calculator (for individuals) πŸ“± User Features Personal carbon tracker Eco-friendly suggestions Notifications (high pollution alerts) πŸ›οΈ Government/Admin Features Dashboard with analytics Identify high-emission zones Policy recommendation insights

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System Requirements

System Requirement Document
Page 1 of 6

System Requirements Document (SRD)

Project Name: autumn-carbon

1. Introduction

The autumn-carbon project aims to address the critical issue of carbon footprint monitoring and reduction in smart cities. By leveraging advanced technologies such as IoT, AI, and data analytics, this system will enable real-time tracking, analysis, and actionable solutions for reducing carbon emissions. The project is designed to cater to both city administrators and everyday citizens, fostering a collaborative approach to environmental sustainability.

This document outlines the system requirements for the autumn-carbon project, detailing its functional and non-functional requirements, user personas, design concepts, and technical architecture.

2. System Overview

The autumn-carbon system is a comprehensive platform designed to monitor, analyze, and reduce carbon emissions in smart cities. It integrates IoT devices, AI-driven analytics, and user-friendly interfaces to provide actionable insights and solutions.

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Key Objectives:

  1. Real-Time Monitoring: Collect data on emissions from traffic, industries, electricity usage, and waste.
  2. Data Analysis: Identify pollution hotspots, predict trends, and suggest optimizations.
  3. User Engagement: Provide citizens with tools to track their personal carbon footprint and adopt eco-friendly practices.
  4. Government Insights: Equip city administrators with dashboards to monitor emissions and implement policies.

Target Users:

  • City Administrators: For monitoring and decision-making.
  • Everyday Citizens: For personal carbon tracking and eco-friendly suggestions.

3. Functional Requirements

Story Points:

  • As a City Administrator, I should be able to monitor real-time carbon emissions across different areas of the city.
  • As a City Administrator, I should be able to identify high-emission zones and their sources (traffic, industries, energy).
  • As a City Administrator, I should receive AI-driven policy recommendations to reduce emissions.
  • As a Citizen, I should be able to track my personal carbon footprint based on my activities.
  • As a Citizen, I should receive eco-friendly suggestions to reduce my carbon footprint.
  • As a Citizen, I should receive notifications about high pollution levels in my area.
  • As a System, I should provide a real-time pollution heatmap for the city.
  • As a System, I should predict future pollution trends using AI.
  • As a System, I should suggest traffic rerouting to reduce congestion and emissions.

4. User Personas

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1. City Administrator

Role: Government official responsible for urban planning and environmental policies.
Goals:

  • Monitor and analyze city-wide emissions.
  • Identify pollution hotspots and implement solutions.
  • Use data-driven insights to create policies.

2. Citizen

Role: Everyday individual living in the smart city.
Goals:

  • Track personal carbon footprint.
  • Adopt eco-friendly practices.
  • Stay informed about local pollution levels.

5. Visuals Colors and Theme

Unique Color Palette:

  • Background: #F5F8FA (Soft Sky Blue)
  • Surface: #FFFFFF (Pure White)
  • Text: #2C3E50 (Deep Charcoal)
  • Accent: #27AE60 (Eco Green)
  • Muted Tones: #BDC3C7 (Light Gray)

This palette reflects a clean, eco-friendly, and modern aesthetic, aligning with the project's focus on sustainability and technology.

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6. Signature Design Concept

Interactive Carbon Map with Dynamic Heat Zones

The homepage of the autumn-carbon platform will feature an interactive carbon map of the city. This map will display real-time pollution levels using dynamic heat zones that change color based on emission intensity (e.g., green for low emissions, red for high emissions).

Key Features:

  1. Hover Interactions: Users can hover over different areas to view detailed emission statistics (e.g., COβ‚‚ levels, sources of pollution).
  2. Time-Lapse Animation: A slider allows users to view how pollution levels have changed over time, providing historical and predictive insights.
  3. AI-Driven Suggestions: Clicking on a hotspot will display actionable recommendations, such as traffic rerouting or energy-saving tips.
  4. Micro-Interactions: Subtle animations, such as pulsating hotspots and smooth transitions, enhance user engagement.

This design will create a vivid and memorable first impression, making the platform both functional and visually captivating.

7. Non-Functional Requirements

  • Performance: The system must process real-time data with a latency of less than 2 seconds.
  • Scalability: The platform should support up to 1 million users simultaneously.
  • Security: All data must be encrypted during transmission and storage.
  • Availability: The system should have 99.9% uptime.
  • Localization: The platform should support Indian regional languages for broader accessibility.

8. Tech Stack

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Frontend:

  • React for Web
  • React Native for Mobile App

Backend:

  • Python
  • FastAPI

Database:

  • MongoDB for real-time data
  • MySQL for structured data

AI Models:

  • GPT 5.4 for user-friendly responses
  • Claude 4.6 Opas for academic or coding work
  • Google Nano Banana for image generation

AI Tools:

  • Litellm for LLM Routing
  • Langchain

Orchestration:

  • Docker for local orchestration
  • Kubernetes for server-side orchestration
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9. Assumptions and Constraints

Assumptions:

  • IoT devices and sensors will be deployed across the city for data collection.
  • Citizens will have access to smartphones for using the mobile app.
  • Government APIs will provide additional data on industrial emissions.

Constraints:

  • Limited internet connectivity in some areas may affect real-time data collection.
  • Budget constraints may limit the deployment of IoT devices.

10. Glossary

  • Carbon Footprint: The total amount of greenhouse gases emitted by human activities.
  • IoT (Internet of Things): A network of interconnected devices that collect and exchange data.
  • AI (Artificial Intelligence): Technology that simulates human intelligence for data analysis and decision-making.
  • PM2.5: Fine particulate matter that is harmful to health.
  • MQTT: A lightweight messaging protocol for IoT devices.
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