Create app.py

app.py

@@ -0,0 +1,120 @@
+import gradio as gr
+import requests
+
+def get_solar_data(api_key, latitude, longitude, system_capacity, tilt, azimuth, array_type, module_type, losses):
+    url = f'https://developer.nrel.gov/api/pvwatts/v6.json?api_key={api_key}&lat={latitude}&lon={longitude}&system_capacity={system_capacity}&azimuth={azimuth}&tilt={tilt}&array_type={array_type}&module_type={module_type}&losses={losses}'
+    response = requests.get(url)
+    data = response.json()
+    return data
+
+def evaluate_solar_panels(api_key, latitude, longitude, annual_energy_consumption, panels):
+    suitable_panels = []
+    
+    for panel in panels:
+        solar_data = get_solar_data(api_key, latitude, longitude, panel['system_capacity'], panel.get('tilt', 0), panel.get('azimuth', 180), panel.get('array_type', 1), panel.get('module_type', 0), panel.get('losses', 14))
+        annual_energy = solar_data['outputs']['ac_annual']
+        
+        if annual_energy >= annual_energy_consumption:
+            panel['annual_energy'] = annual_energy
+            suitable_panels.append(panel)
+    
+    suitable_panels = sorted(suitable_panels, key=lambda x: x['cost'])
+    
+    return suitable_panels
+
+def solar_panel_evaluator(latitude, longitude, annual_energy_consumption):
+    api_key = '7jjEPVEpY5cnTvfB5CJweAPtauqkua4LpYUT0FEa'
+
+    panels = [
+        {
+          "image_url":"https://m.media-amazon.com/images/I/71Ihgr3NphL._SX425_.jpg",
+          "url":"https://www.amazon.de/EPP-Solar%C2%AE-Balcony-Hoymiles-HMS-800W-2T-Inverter/dp/B0CK4RFCLM/",
+          "system_capacity": 2.0,
+          "tilt": 0,
+          "azimuth": 180,
+          "array_type": 1,
+          "module_type": 0,
+          "losses": 14,
+          "cost": 449.00
+        },
+        {
+          "image_url":"https://m.media-amazon.com/images/I/71MzmX9rbSL._AC_SX569_.jpg",
+          "url":"https://www.amazon.de/PIANETA-Balcony-Station-Inverter-Throttle/dp/B0C9Q2L3MJ/",
+          "system_capacity": 0.83,
+          "tilt": 0,
+          "azimuth": 180,
+          "array_type": 1,
+          "module_type": 0,
+          "losses": 14,
+          "cost": 319.95
+        },
+        {
+          "image_url":"https://m.media-amazon.com/images/I/71c7bVpYKuL._SX425_.jpg",
+          "url":"https://www.amazon.de/Portable-Monocrystalline-Charging-Controller-Waterproof/dp/B07JVJ47K3",
+          "system_capacity": 0.08,
+          "tilt": 0,
+          "azimuth": 180,
+          "array_type": 3,
+          "module_type": 0,
+          "losses": 14,
+          "cost": 69.77
+        },
+        {
+          "image_url":"https://cwuzkkgiia.cloudimg.io/https://www.topregal.com/out/pictures/generated/product/1/1600_1100_100/211432_223307_SPM420-108_Solarpanel_top-frontal_mit_Verpackung.jpg?w=1600&h=1100&org_if_sml=1",
+          "url":"https://www.topregal.com/de/solartechnik/36-solarmodule-spm420-108-max-leistung-420-w-pro-modul-soloport.html?gmc=1&cur=0&gad_source=1&gclid=CjwKCAjw1K-zBhBIEiwAWeCOF4kI3I5NhMe-cWqb5vkPCBo6tiQzEf7XBsKdFD-dnh6YslCjfPXhwhoCasQQAvD_BwE",
+          "system_capacity": 15.12,
+          "tilt": 0,
+          "azimuth": 180,
+          "array_type": 0,
+          "module_type": 0,
+          "losses": 14,
+          "cost": 2209.90
+        }
+    ]
+
+    suitable_panels = evaluate_solar_panels(api_key, latitude, longitude, annual_energy_consumption, panels)
+
+    if suitable_panels:
+        output_html = f"<h2>Suitable Solar Panels for Latitude {latitude}, Longitude {longitude}:</h2>"
+        output_html += "<div style='display: flex; flex-wrap: wrap;'>"
+        
+        for panel in suitable_panels:
+            output_html += "<div style='border: 1px solid #ccc; border-radius: 8px; padding: 10px; margin: 10px; width: 300px;'>"
+            
+            output_html += f"<img src='{panel['image_url']}' style='max-width: 100%; border-radius: 8px;'>"
+            
+            output_html += "<div style='margin-top: 10px;'>"
+            output_html += f"<strong>System Capacity:</strong> {panel.get('system_capacity', 'N/A')} kW<br>"
+            output_html += f"<strong>Tilt:</strong> {panel.get('tilt', 'N/A')} degrees<br>"
+            output_html += f"<strong>Azimuth:</strong> {panel.get('azimuth', 'N/A')} degrees<br>"
+            output_html += f"<strong>Array Type:</strong> {panel.get('array_type', 'N/A')}<br>"
+            output_html += f"<strong>Module Type:</strong> {panel.get('module_type', 'N/A')}<br>"
+            output_html += f"<strong>Losses:</strong> {panel.get('losses', 'N/A')}%<br>"
+            output_html += f"<strong>Cost:</strong> ${panel.get('cost', 'N/A')}<br>"
+            output_html += f"<strong>Annual Energy Output:</strong> {panel.get('annual_energy', 'N/A'):.2f} kWh<br>"
+            output_html += f"<a href='{panel.get('url', '#')}' style='text-decoration: none; color: blue;' target='_blank'>View on Amazon</a>"
+            output_html += "</div>"
+            
+            output_html += "</div>"
+        
+        output_html += "</div>"
+        
+        return output_html
+    else:
+        return "<p>No suitable solar panel setup found.</p>"
+
+iface = gr.Interface(
+    fn=solar_panel_evaluator,
+    inputs=[
+        gr.Number(label="Latitude", minimum=-90, maximum=90, value=40.7128),
+        gr.Number(label="Longitude", minimum=-180, maximum=180, value=-74.0060),
+        gr.Number(label="Annual Energy Consumption (kWh)", minimum=0, maximum=200000000)
+    ],
+    outputs=gr.HTML(),
+    title="Solar Panel Evaluator",
+    description="Find the best solar panels for your location based on energy needs and budget."
+)
+
+
+         
+iface.launch()