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# EcoSense AI - Advanced Personalized Climate Action Advisor
# Enhanced Hackathon Project using GPT-5 with Advanced Features
import gradio as gr
import requests
import json
import pandas as pd
import plotly.express as px
import plotly.graph_objects as go
from openai import OpenAI
import datetime
import re
import random
import time
import os
# Initialize GPT-5 client
client = OpenAI(
base_url="https://api.aimlapi.com/v1",
api_key=os.getenv("AIML_API_KEY") # Replace with your API key
)
# OpenWeatherMap API key (get free at openweathermap.org)
WEATHER_API_KEY = os.getenv("WEATHER_API_KEY") # Replace with your key
class EcoSenseAI:
def __init__(self):
self.carbon_factors = {
'electricity': 0.82, # kg CO2 per kWh
'natural_gas': 2.04, # kg CO2 per cubic meter
'gasoline': 2.31, # kg CO2 per liter
'flights_short': 0.25, # kg CO2 per km
'flights_long': 0.15, # kg CO2 per km
}
# Gamification data
self.achievements = {
'first_analysis': {'name': 'π± First Step', 'desc': 'Completed first carbon analysis', 'earned': False},
'low_footprint': {'name': 'π Green Guardian', 'desc': 'Carbon footprint below 300kg/month', 'earned': False},
'eco_warrior': {'name': 'β‘ Eco Warrior', 'desc': 'Carbon footprint below 200kg/month', 'earned': False},
'climate_hero': {'name': 'π Climate Hero', 'desc': 'Carbon footprint below 150kg/month', 'earned': False}
}
# Mock climate risk data by region
self.climate_risks = {
'new york': {'heat_waves': 'High', 'flooding': 'Medium', 'storms': 'High'},
'london': {'flooding': 'Medium', 'heatwaves': 'Medium', 'storms': 'Low'},
'tokyo': {'earthquakes': 'High', 'typhoons': 'High', 'heatwaves': 'Medium'},
'default': {'extreme_weather': 'Medium', 'temperature_rise': 'High'}
}
# Offset projects database
self.offset_projects = [
{'name': 'Amazon Rainforest Protection', 'cost_per_ton': 15, 'location': 'Brazil', 'type': 'Forest Conservation'},
{'name': 'Solar Farm Development', 'cost_per_ton': 25, 'location': 'India', 'type': 'Renewable Energy'},
{'name': 'Mangrove Restoration', 'cost_per_ton': 20, 'location': 'Indonesia', 'type': 'Ecosystem Restoration'},
{'name': 'Wind Energy Project', 'cost_per_ton': 22, 'location': 'Kenya', 'type': 'Renewable Energy'},
{'name': 'Reforestation Initiative', 'cost_per_ton': 18, 'location': 'Costa Rica', 'type': 'Tree Planting'}
]
def get_weather_data(self, city):
"""Get current weather and air quality data"""
try:
# For demo purposes, return mock data if API key not set
if WEATHER_API_KEY == "your_openweather_api_key":
return {
'temperature': random.randint(15, 30),
'humidity': random.randint(40, 80),
'description': random.choice(['clear sky', 'broken clouds', 'light rain', 'sunny']),
'aqi': random.randint(50, 150),
'city': city
}
weather_url = f"http://api.openweathermap.org/data/2.5/weather?q={city}&appid={WEATHER_API_KEY}&units=metric"
response = requests.get(weather_url)
if response.status_code == 200:
data = response.json()
return {
'temperature': data['main']['temp'],
'humidity': data['main']['humidity'],
'description': data['weather'][0]['description'],
'city': data['name']
}
except Exception as e:
return {'error': str(e)}
def calculate_carbon_footprint(self, electricity, gas, fuel, flights):
"""Calculate monthly carbon footprint"""
try:
footprint = {
'electricity': float(electricity) * self.carbon_factors['electricity'],
'gas': float(gas) * self.carbon_factors['natural_gas'],
'transport': float(fuel) * self.carbon_factors['gasoline'],
'flights': float(flights) * self.carbon_factors['flights_short']
}
footprint['total'] = sum(footprint.values())
return footprint
except:
return None
def ask_gpt5(self, prompt, max_tokens=2000):
"""Enhanced GPT-5 interaction with better error handling"""
try:
print(f"π Sending request to GPT-5...")
response = client.chat.completions.create(
model="openai/gpt-5-2025-08-07",
messages=[
{"role": "system", "content": "You are a helpful assistant. Always provide concise, direct answers. Keep responses under 300 words unless absolutely necessary. Focus on key information only."},
{"role": "user", "content": prompt}
],
max_tokens=max_tokens,
temperature=0.7
)
print(f"π¦ Full API Response:")
print(f"Model: {response.model}")
print(f"Finish Reason: {response.choices[0].finish_reason}")
print(f"Usage: {response.usage}")
if response.choices[0].finish_reason == 'length':
print("β οΈ Warning: Response was truncated due to max_tokens limit")
content = response.choices[0].message.content
if content:
return content.strip()
else:
return "β οΈ Empty content received."
except Exception as e:
return f"β Error: {str(e)}"
def generate_recommendations(self, location, carbon_data, weather_data):
"""Generate personalized climate recommendations"""
prompt = f"I live in {location} where it's currently {weather_data.get('temperature', 'N/A')}Β°C. My monthly carbon footprint is {carbon_data['total']:.1f} kg CO2 from: electricity {carbon_data['electricity']:.1f}kg, gas {carbon_data['gas']:.1f}kg, transport {carbon_data['transport']:.1f}kg. Give me 3 specific ways to reduce my emissions by 25%."
max_tokens = 4000 if len(prompt.split()) > 10 else 2000
print(f"π§ Using {max_tokens} max tokens for recommendations...")
return self.ask_gpt5(prompt, max_tokens)
def predict_carbon_trend(self, current_footprint, reduction_target=25):
"""Generate predictive carbon trend analysis"""
current_annual = current_footprint * 12
target_reduction = current_annual * (reduction_target / 100)
target_annual = current_annual - target_reduction
# Generate monthly projection data
months = ['Jan', 'Feb', 'Mar', 'Apr', 'May', 'Jun',
'Jul', 'Aug', 'Sep', 'Oct', 'Nov', 'Dec']
# Current trend (slight increase without action)
current_trend = [current_footprint * (1 + (i * 0.02)) for i in range(12)]
# With improvements (gradual reduction)
improved_trend = [current_footprint * (1 - (i * reduction_target/100/12)) for i in range(12)]
return {
'months': months,
'current_trend': current_trend,
'improved_trend': improved_trend,
'target_annual': target_annual,
'potential_savings': target_reduction
}
def get_climate_risk_assessment(self, location):
"""Generate AI-powered climate risk assessment"""
city_key = location.lower().replace(' ', '')
risks = self.climate_risks.get(city_key, self.climate_risks['default'])
prompt = f"Analyze climate risks for {location}. Current risks include: {', '.join([f'{k}: {v}' for k, v in risks.items()])}. Provide specific adaptation strategies and timeline for action."
return self.ask_gpt5(prompt, 2000), risks
def generate_carbon_offset_recommendations(self, carbon_footprint):
"""AI-powered carbon offset marketplace recommendations"""
annual_footprint = carbon_footprint * 12 / 1000 # Convert to tons
# Select 3 best matching projects
selected_projects = random.sample(self.offset_projects, 3)
# Simpler, shorter prompt for better GPT-5 response
prompt = f"I need to offset {annual_footprint:.1f} tons CO2 per year. Which is best: {selected_projects[0]['name']} (${selected_projects[0]['cost_per_ton']}/ton), {selected_projects[1]['name']} (${selected_projects[1]['cost_per_ton']}/ton), or {selected_projects[2]['name']} (${selected_projects[2]['cost_per_ton']}/ton)? Give me the best choice and why."
try:
ai_recommendation = self.ask_gpt5(prompt, 1000)
# Fallback if GPT-5 returns empty
if not ai_recommendation or "Empty content" in ai_recommendation:
ai_recommendation = f"For {annual_footprint:.1f} tons CO2, I recommend {selected_projects[0]['name']} as it offers good cost-effectiveness at ${selected_projects[0]['cost_per_ton']}/ton with strong environmental impact in {selected_projects[0]['location']}."
except:
ai_recommendation = f"Based on your {annual_footprint:.1f} ton annual footprint, {selected_projects[0]['name']} offers the best value at ${selected_projects[0]['cost_per_ton']}/ton."
return {
'projects': selected_projects,
'annual_tons': annual_footprint,
'ai_recommendation': ai_recommendation
}
def check_achievements(self, carbon_footprint):
"""Check and update achievements based on carbon footprint"""
achievements_earned = []
# First analysis achievement
if not self.achievements['first_analysis']['earned']:
self.achievements['first_analysis']['earned'] = True
achievements_earned.append(self.achievements['first_analysis'])
# Footprint-based achievements
if carbon_footprint < 300 and not self.achievements['low_footprint']['earned']:
self.achievements['low_footprint']['earned'] = True
achievements_earned.append(self.achievements['low_footprint'])
if carbon_footprint < 200 and not self.achievements['eco_warrior']['earned']:
self.achievements['eco_warrior']['earned'] = True
achievements_earned.append(self.achievements['eco_warrior'])
if carbon_footprint < 150 and not self.achievements['climate_hero']['earned']:
self.achievements['climate_hero']['earned'] = True
achievements_earned.append(self.achievements['climate_hero'])
return achievements_earned
def create_footprint_visualization(self, carbon_data):
"""Create carbon footprint breakdown chart"""
categories = ['Electricity', 'Gas', 'Transport', 'Flights']
values = [carbon_data['electricity'], carbon_data['gas'],
carbon_data['transport'], carbon_data['flights']]
fig = px.pie(
values=values,
names=categories,
title="Monthly Carbon Footprint Breakdown (kg CO2)",
color_discrete_sequence=px.colors.qualitative.Set3
)
fig.update_traces(textposition='inside', textinfo='percent+label')
return fig
def create_comparison_chart(self, user_total):
"""Compare user footprint to averages"""
data = {
'Category': ['Your Footprint', 'National Average', 'Global Average', 'Paris Agreement Target'],
'CO2 (kg/month)': [user_total, 1200, 800, 400],
'Color': ['red', 'orange', 'blue', 'green']
}
fig = px.bar(
data, x='Category', y='CO2 (kg/month)',
title="Carbon Footprint Comparison",
color='Color',
color_discrete_map={'red': '#FF6B6B', 'orange': '#FFE66D',
'blue': '#4ECDC4', 'green': '#45B7D1'}
)
return fig
def create_trend_analysis_chart(self, trend_data):
"""Create predictive trend analysis chart"""
fig = go.Figure()
fig.add_trace(go.Scatter(
x=trend_data['months'],
y=trend_data['current_trend'],
mode='lines+markers',
name='Current Trend',
line=dict(color='red', width=3),
marker=dict(size=8)
))
fig.add_trace(go.Scatter(
x=trend_data['months'],
y=trend_data['improved_trend'],
mode='lines+markers',
name='With Improvements',
line=dict(color='green', width=3),
marker=dict(size=8)
))
fig.update_layout(
title="12-Month Carbon Footprint Projection",
xaxis_title="Month",
yaxis_title="CO2 Emissions (kg)",
hovermode='x unified',
template='plotly_white'
)
return fig
# Initialize the EcoSense AI system
eco_ai = EcoSenseAI()
def main_analysis(city, electricity_kwh, gas_m3, fuel_liters, flight_km):
"""Main function to run complete analysis with advanced features"""
# Input validation
try:
electricity_kwh = max(0, float(electricity_kwh or 0))
gas_m3 = max(0, float(gas_m3 or 0))
fuel_liters = max(0, float(fuel_liters or 0))
flight_km = max(0, float(flight_km or 0))
except ValueError:
return "β Please enter valid numbers for all consumption fields.", None, None, None, "", ""
if not city.strip():
return "β Please enter a city name.", None, None, None, "", ""
# Get weather data
weather_data = eco_ai.get_weather_data(city.strip())
# Calculate carbon footprint
carbon_data = eco_ai.calculate_carbon_footprint(
electricity_kwh, gas_m3, fuel_liters, flight_km
)
if not carbon_data:
return "β Error calculating carbon footprint.", None, None, None, "", ""
# Check achievements (gamification)
achievements = eco_ai.check_achievements(carbon_data['total'])
achievement_text = ""
if achievements:
achievement_text = "\nπ **New Achievements Unlocked!**\n"
for ach in achievements:
achievement_text += f"β’ {ach['name']}: {ach['desc']}\n"
achievement_text += "\n"
# Generate AI recommendations
recommendations = eco_ai.generate_recommendations(city, carbon_data, weather_data)
# Generate predictive analysis
trend_data = eco_ai.predict_carbon_trend(carbon_data['total'])
trend_chart = eco_ai.create_trend_analysis_chart(trend_data)
# Generate offset recommendations
offset_data = eco_ai.generate_carbon_offset_recommendations(carbon_data['total'])
offset_text = f"\nπ° **Carbon Offset Recommendations:**\n"
offset_text += f"Annual footprint to offset: {offset_data['annual_tons']:.1f} tons CO2\n\n"
offset_text += "**Available Projects:**\n"
for project in offset_data['projects']:
annual_cost = offset_data['annual_tons'] * project['cost_per_ton']
offset_text += f"β’ {project['name']} ({project['location']}) - ${annual_cost:.0f}/year\n"
offset_text += f"\n**AI Recommendation:** {offset_data['ai_recommendation']}\n"
# Create visualizations
pie_chart = eco_ai.create_footprint_visualization(carbon_data)
comparison_chart = eco_ai.create_comparison_chart(carbon_data['total'])
# Format summary
summary = f"""π **EcoSense AI Analysis for {city}**
**Current Conditions:** {weather_data.get('temperature', 'N/A')}Β°C, {weather_data.get('description', 'N/A')}
**Your Monthly Carbon Footprint:** {carbon_data['total']:.1f} kg CO2
**Breakdown:**
β’ Electricity: {carbon_data['electricity']:.1f} kg CO2
β’ Natural Gas: {carbon_data['gas']:.1f} kg CO2
β’ Transportation: {carbon_data['transport']:.1f} kg CO2
β’ Air Travel: {carbon_data['flights']:.1f} kg CO2
**Environmental Impact:**
β’ Annual footprint: ~{carbon_data['total'] * 12:.0f} kg CO2/year
β’ Equivalent to {carbon_data['total'] * 12 / 2300:.1f} trees needed for offset
**π Predictive Analysis:**
β’ Without changes: {trend_data['current_trend'][-1]:.1f} kg CO2/month by year end
β’ With improvements: {trend_data['improved_trend'][-1]:.1f} kg CO2/month by year end
β’ Potential annual savings: {trend_data['potential_savings']:.0f} kg CO2
{achievement_text}---"""
# Separate achievement display for the side panel
achievement_display = ""
if achievements:
achievement_display = "π **New Achievements!**\n"
for ach in achievements:
achievement_display += f"{ach['name']}: {ach['desc']}\n"
else:
achievement_display = "Complete your analysis to unlock achievements!"
full_recommendations = summary + "\n\n**π€ AI Recommendations:**\n" + recommendations + "\n" + offset_text
return full_recommendations, pie_chart, comparison_chart, trend_chart, "β
Complete Analysis Done!", achievement_display
def get_climate_risk_assessment(city):
"""Get AI-powered climate risk assessment"""
if not city.strip():
return "Please enter a city name."
risk_analysis, risks = eco_ai.get_climate_risk_assessment(city.strip())
risk_summary = f"π‘οΈ **Climate Risk Assessment for {city}**\n\n"
risk_summary += f"**Current Risk Levels:**\n"
for risk, level in risks.items():
risk_emoji = "π΄" if level == "High" else "π‘" if level == "Medium" else "π’"
risk_summary += f"β’ {risk.replace('_', ' ').title()}: {level} {risk_emoji}\n"
risk_summary += f"\n**AI Analysis & Recommendations:**\n{risk_analysis}"
return risk_summary
def get_quick_tip():
"""Get a quick climate tip from GPT-5"""
prompt = "Give me one practical climate action tip for today."
max_tokens = 1500
print(f"π§ Using {max_tokens} max tokens for climate tip...")
return eco_ai.ask_gpt5(prompt, max_tokens)
def climate_qa(question):
"""Climate Q&A feature"""
if not question.strip():
return "Please ask a climate-related question."
prompt = f"Answer this climate question: {question}"
max_tokens = 4000 if len(question.split()) > 10 else 1500
print(f"π§ Using {max_tokens} max tokens for Q&A...")
return eco_ai.ask_gpt5(prompt, max_tokens)
def show_achievements():
"""Display current achievements"""
achievement_display = "π **Your Climate Achievements**\n\n"
for key, ach in eco_ai.achievements.items():
status = "β
" if ach['earned'] else "β¬"
achievement_display += f"{status} {ach['name']}: {ach['desc']}\n"
total_earned = sum(1 for ach in eco_ai.achievements.values() if ach['earned'])
achievement_display += f"\n**Progress: {total_earned}/{len(eco_ai.achievements)} achievements unlocked**"
return achievement_display
# Create Enhanced Gradio Interface
with gr.Blocks(title="EcoSense AI - Advanced Climate Action Platform", theme=gr.themes.Soft()) as demo:
gr.HTML("""
<div style="text-align: center; margin-bottom: 20px;">
<h1 style="color: #2E8B57;">π± EcoSense AI</h1>
<h2 style="color: #4682B4;">Advanced Personalized Climate Action Platform</h2>
<p style="color: #666;">Powered by GPT-5 β’ AI-Driven Sustainability with Predictive Analytics & Gamification</p>
</div>
""")
with gr.Tabs():
# Main Analysis Tab (Enhanced)
with gr.Tab("π Carbon Footprint Analysis"):
with gr.Row():
with gr.Column(scale=1):
gr.HTML("<h3>π Location & Consumption Data</h3>")
city_input = gr.Textbox(
label="City/Location",
placeholder="Enter your city (e.g., New York, London, Tokyo)",
value="New York"
)
gr.HTML("<h4>Monthly Consumption:</h4>")
electricity_input = gr.Number(
label="Electricity (kWh)",
value=300,
info="Average household: 250-400 kWh/month"
)
gas_input = gr.Number(
label="Natural Gas (cubic meters)",
value=50,
info="Average household: 30-80 mΒ³/month"
)
fuel_input = gr.Number(
label="Vehicle Fuel (liters)",
value=60,
info="Average car: 40-100 L/month"
)
flight_input = gr.Number(
label="Air Travel (km)",
value=0,
info="Round trip domestic flight ~2000km"
)
analyze_btn = gr.Button("π Complete AI Analysis", variant="primary", size="lg")
status_output = gr.Textbox(label="Status", interactive=False)
achievement_display = gr.Markdown(label="π Achievements")
with gr.Column(scale=2):
results_output = gr.Markdown(label="AI Recommendations & Analysis")
with gr.Row():
with gr.Column():
pie_chart_output = gr.Plot(label="Carbon Footprint Breakdown")
with gr.Column():
comparison_chart_output = gr.Plot(label="Footprint Comparison")
with gr.Row():
trend_chart_output = gr.Plot(label="π Predictive Trend Analysis")
# Connect the enhanced analysis function
analyze_btn.click(
fn=main_analysis,
inputs=[city_input, electricity_input, gas_input, fuel_input, flight_input],
outputs=[results_output, pie_chart_output, comparison_chart_output, trend_chart_output, status_output, achievement_display]
)
# Climate Risk Assessment Tab (NEW)
with gr.Tab("π‘οΈ Climate Risk Assessment"):
gr.HTML("<h3>AI-Powered Climate Risk Analysis for Your Location</h3>")
risk_city_input = gr.Textbox(
label="City/Location",
placeholder="Enter your city for climate risk assessment",
value="New York"
)
risk_btn = gr.Button("π Analyze Climate Risks", variant="primary")
risk_output = gr.Markdown()
risk_btn.click(
fn=get_climate_risk_assessment,
inputs=risk_city_input,
outputs=risk_output
)
# Achievements Tab (NEW)
with gr.Tab("π Achievements"):
gr.HTML("<h3>Track Your Climate Action Progress</h3>")
achievements_btn = gr.Button("π View My Achievements", variant="secondary")
achievements_output = gr.Markdown()
achievements_btn.click(fn=show_achievements, outputs=achievements_output)
gr.HTML("""
<div style="margin-top: 20px; padding: 15px; background-color: #f0f8ff; border-radius: 10px;">
<h4>π― How to Unlock Achievements:</h4>
<ul>
<li>π± <strong>First Step:</strong> Complete your first carbon analysis</li>
<li>π <strong>Green Guardian:</strong> Get your footprint below 300kg/month</li>
<li>β‘ <strong>Eco Warrior:</strong> Achieve less than 200kg CO2/month</li>
<li>π <strong>Climate Hero:</strong> Reach the ultimate goal of under 150kg/month</li>
</ul>
</div>
""")
# Enhanced Tips Tab
with gr.Tab("π‘ Daily Climate Tips"):
gr.HTML("<h3>Get personalized climate tips powered by GPT-5</h3>")
with gr.Row():
tip_btn = gr.Button("π Get Today's Climate Tip", variant="secondary")
test_btn = gr.Button("π§ͺ Test GPT-5 Connection", variant="outline")
tip_output = gr.Markdown(value="Click the button above to get your daily climate tip!")
tip_btn.click(fn=get_quick_tip, outputs=tip_output)
def test_gpt5():
test_prompt = "Say hello and confirm you are working."
return eco_ai.ask_gpt5(test_prompt, 1500)
test_btn.click(fn=test_gpt5, outputs=tip_output)
# Enhanced Q&A Tab
with gr.Tab("β Climate Q&A"):
gr.HTML("<h3>Ask GPT-5 any climate or sustainability question</h3>")
question_input = gr.Textbox(
label="Your Question",
placeholder="e.g., How effective are solar panels in reducing carbon footprint?",
lines=2
)
qa_btn = gr.Button("π€ Ask GPT-5", variant="primary")
qa_output = gr.Markdown()
qa_btn.click(
fn=climate_qa,
inputs=question_input,
outputs=qa_output
)
# About Tab (Enhanced)
with gr.Tab("βΉοΈ About"):
gr.Markdown("""
## π± EcoSense AI - Advanced Climate Action Platform
**Powered by GPT-5** | Built for Climate Action Innovation
### π Core Features:
- **π Advanced Carbon Analysis** - Comprehensive footprint calculation with real-time data
- **π Interactive Visualizations** - Dynamic charts and comparison analytics
- **π€ GPT-5 AI Recommendations** - Personalized sustainability strategies
- **π Predictive Analytics** - 12-month carbon trend forecasting
- **π° Smart Offset Marketplace** - AI-recommended carbon offset projects
- **π‘οΈ Climate Risk Assessment** - Location-based vulnerability analysis
- **π Gamification System** - Achievement tracking and progress rewards
- **π‘ Daily AI Tips** - Fresh climate action suggestions
- **β Expert Climate Q&A** - Instant answers to sustainability questions
### π― Advanced Features:
#### **π§ Predictive Intelligence**
- Future carbon footprint projections
- Trend analysis with improvement scenarios
- Goal tracking and progress monitoring
#### **π° Carbon Offset Marketplace**
- AI-curated offset project recommendations
- Cost-effectiveness analysis
- Global project portfolio access
#### **π Gamification & Engagement**
- Achievement system with progressive rewards
- Performance tracking and milestones
- Motivation through environmental impact visualization
#### **π‘οΈ Climate Adaptation Planning**
- Location-specific risk assessments
- Personalized adaptation strategies
- Future climate scenario planning
### π οΈ Technical Architecture:
- **AI Model:** GPT-5 via AIML API (Latest Generation)
- **Interface:** Advanced Gradio with multi-tab design
- **Visualization:** Interactive Plotly charts and analytics
- **Data Sources:** Real-time weather APIs and emission databases
- **Analytics:** Predictive modeling and trend analysis
### π Environmental Impact:
- **Measurable Results** - Track actual CO2 reduction
- **Behavioral Change** - AI-powered habit modification
- **Global Perspective** - Connect local actions to global goals
- **Community Building** - Achievement sharing and motivation
### π Competitive Advantages:
β
**First GPT-5 Integration** for climate action
β
**Comprehensive Feature Set** beyond basic calculators
β
**Advanced Analytics** with predictive capabilities
β
**Gamification Elements** for sustained engagement
β
**Real-world Impact** with measurable outcomes
---
*Built with β€οΈ for a sustainable future*
""")
if __name__ == "__main__":
# Launch the app
demo.launch(
share=True, # Creates public link for sharing
debug=True,
show_error=True,
server_port=None, # Let Gradio find available port automatically
quiet=False
) |