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import json
import random
# Create a Modal app
app = modal.App("agentic-ecosystem-simple")
# Simple image without image processing dependencies
simple_image = modal.Image.debian_slim().pip_install("requests")
# ------------------------------------------------------
# LOCAL HELPER FUNCTIONS (Not Modal functions)
# ------------------------------------------------------
def analyze_environment(environment_text):
"""Extract detailed features from the environment description."""
env_features = {
"type": "temperate", # default
"climate": "moderate",
"moisture": "medium",
"light": "bright",
"terrain": "flat",
"time_of_day": "day",
"season": "spring",
"keywords": []
}
text_lower = environment_text.lower()
# Environment types
env_types = {
"tropical": ["tropical", "rainforest", "jungle", "humid"],
"desert": ["desert", "arid", "sand", "dry", "cactus"],
"arctic": ["arctic", "cold", "snow", "ice", "frozen"],
"aquatic": ["lake", "pond", "river", "stream", "water"],
"mountain": ["mountain", "alpine", "peak", "high altitude"],
"grassland": ["grassland", "prairie", "meadow", "plain"],
"forest": ["forest", "woodland", "trees", "canopy"],
"cave": ["cave", "underground", "dark", "cavern"]
}
for env_type, keywords in env_types.items():
if any(keyword in text_lower for keyword in keywords):
env_features["type"] = env_type
break
# Climate assessment
if any(word in text_lower for word in ["hot", "warm", "tropical", "humid"]):
env_features["climate"] = "hot"
elif any(word in text_lower for word in ["cold", "cool", "arctic", "frozen"]):
env_features["climate"] = "cold"
else:
env_features["climate"] = "moderate"
# Moisture levels
if any(word in text_lower for word in ["humid", "wet", "moist", "rain", "water"]):
env_features["moisture"] = "high"
elif any(word in text_lower for word in ["dry", "arid", "desert"]):
env_features["moisture"] = "low"
else:
env_features["moisture"] = "medium"
# Light conditions
if any(word in text_lower for word in ["dark", "cave", "underground", "night"]):
env_features["light"] = "dim"
elif any(word in text_lower for word in ["bright", "sunny", "open"]):
env_features["light"] = "bright"
else:
env_features["light"] = "moderate"
# Extract keywords for species generation
env_features["keywords"] = [word for word in text_lower.split() if len(word) > 3]
return env_features
def local_generate_species(environment: str, count: int = 6):
"""Generate species based on environment analysis (local version)."""
env_features = analyze_environment(environment)
species_list = []
# Generate plants (60% of species)
plant_count = max(1, int(count * 0.6))
# Environment-specific plant templates
plant_templates = {
"tropical": [
{"name": "Broad-leaf Fern", "type": "plant", "description": "Large tropical fern with broad fronds"},
{"name": "Jungle Vine", "type": "plant", "description": "Climbing vine with colorful flowers"},
{"name": "Palm Frond", "type": "plant", "description": "Tall palm with fan-shaped leaves"}
],
"desert": [
{"name": "Barrel Cactus", "type": "plant", "description": "Round cactus that stores water"},
{"name": "Desert Sage", "type": "plant", "description": "Hardy shrub with silver leaves"},
{"name": "Prickly Pear", "type": "plant", "description": "Flat-padded cactus with bright flowers"}
],
"arctic": [
{"name": "Arctic Moss", "type": "plant", "description": "Low-growing moss adapted to cold"},
{"name": "Tundra Grass", "type": "plant", "description": "Hardy grass that survives freezing"},
{"name": "Ice Flower", "type": "plant", "description": "Small flower that blooms in snow"}
],
"forest": [
{"name": "Oak Sapling", "type": "plant", "description": "Young oak tree with broad leaves"},
{"name": "Forest Moss", "type": "plant", "description": "Soft moss covering forest floor"},
{"name": "Wild Fern", "type": "plant", "description": "Delicate fern growing in shade"}
]
}
# Get templates for environment type
templates = plant_templates.get(env_features["type"], plant_templates["forest"])
# Generate plants
for i in range(plant_count):
base_template = templates[i % len(templates)]
plant = {
"name": f"{env_features['climate'].title()} {base_template['name']}",
"type": "plant",
"description": f"{base_template['description']} adapted to {env_features['climate']} {env_features['type']} conditions",
"habitat": f"{env_features['type']} with {env_features['moisture']} moisture and {env_features['light']} light",
"behavior": f"Grows in {env_features['climate']} conditions, thrives in {env_features['light']} light",
"need": f"{env_features['moisture']} moisture levels"
}
species_list.append(plant)
# Generate animals (40% of species)
animal_count = count - plant_count
animal_templates = {
"tropical": [
{"name": "Colorful Bird", "type": "animal", "description": "Bright tropical bird"},
{"name": "Tree Frog", "type": "animal", "description": "Small amphibian living in trees"}
],
"desert": [
{"name": "Desert Lizard", "type": "animal", "description": "Heat-adapted reptile"},
{"name": "Sand Mouse", "type": "animal", "description": "Small rodent that burrows"}
],
"arctic": [
{"name": "Snow Hare", "type": "animal", "description": "White rabbit adapted to cold"},
{"name": "Arctic Fox", "type": "animal", "description": "Small predator with thick fur"}
],
"forest": [
{"name": "Forest Squirrel", "type": "animal", "description": "Agile tree-dwelling rodent"},
{"name": "Woodland Bird", "type": "animal", "description": "Small songbird living in trees"}
]
}
animal_temps = animal_templates.get(env_features["type"], animal_templates["forest"])
for i in range(animal_count):
base_template = animal_temps[i % len(animal_temps)]
animal = {
"name": f"{env_features['season'].title()} {base_template['name']}",
"type": "animal",
"description": f"{base_template['description']} active during {env_features['time_of_day']}",
"habitat": f"{env_features['type']} environment with {env_features['terrain']} terrain",
"behavior": f"Forages during {env_features['time_of_day']}, seeks {env_features['climate']} conditions",
"need": f"shelter and food in {env_features['type']} habitat"
}
species_list.append(animal)
return species_list
def local_simulate_interactions(species_list, environment):
"""Simulate realistic interactions between species."""
interactions = []
env_features = analyze_environment(environment)
# Create interaction scenarios based on environment
if len(species_list) < 2:
return ["The ecosystem is too sparse for meaningful interactions."]
plants = [s for s in species_list if s["type"] == "plant"]
animals = [s for s in species_list if s["type"] == "animal"]
# Plant-animal interactions
if plants and animals:
plant = random.choice(plants)
animal = random.choice(animals)
interactions.append(f"The {animal['name']} finds shelter beneath the {plant['name']}, creating a symbiotic relationship.")
# Environmental interactions
if env_features["climate"] == "hot":
interactions.append(f"During the hot {env_features['time_of_day']}, species seek shade and conserve energy.")
elif env_features["climate"] == "cold":
interactions.append(f"The cold conditions force species to cluster together for warmth.")
# Competition for resources
if len(species_list) >= 3:
competitors = random.sample(species_list, 2)
interactions.append(f"The {competitors[0]['name']} and {competitors[1]['name']} compete for limited resources in the {env_features['type']} habitat.")
# Seasonal behaviors
interactions.append(f"As {env_features['season']} progresses, species adapt their behavior to the changing {env_features['type']} environment.")
# Random positive interaction
if len(species_list) >= 2:
pair = random.sample(species_list, 2)
interactions.append(f"The {pair[0]['name']} and {pair[1]['name']} form an unexpected alliance, helping each other survive in the {env_features['climate']} conditions.")
return interactions
def local_generate_summary(species_list, interactions, environment):
"""Generate a narrative summary of the ecosystem."""
env_features = analyze_environment(environment)
summary = f"In this {env_features['climate']} {env_features['type']} environment, "
summary += f"a diverse ecosystem has emerged with {len(species_list)} unique species. "
plants = [s for s in species_list if s["type"] == "plant"]
animals = [s for s in species_list if s["type"] == "animal"]
if plants:
summary += f"The {len(plants)} plant species form the foundation of this ecosystem, "
summary += f"adapted to {env_features['light']} light and {env_features['moisture']} moisture conditions. "
if animals:
summary += f"The {len(animals)} animal species have evolved behaviors suited to the {env_features['terrain']} terrain "
summary += f"and {env_features['time_of_day']} activity patterns. "
summary += f"Throughout the {env_features['season']} season, these species engage in {len(interactions)} "
summary += f"different types of interactions, creating a complex web of relationships that sustains the ecosystem."
return summary
# Removed visual components (Google Images Search Integration)
# ------------------------------------------------------
# MODAL FUNCTIONS (These are the deployed functions)
# ------------------------------------------------------
@app.function(image=simple_image)
def simulate_ecosystem(environment: str):
"""Main function to simulate a complete text-based ecosystem."""
try:
print(f"Starting ecosystem simulation for: {environment}")
# Step 1: Generate species (using local function)
print("Generating species...")
species_list = local_generate_species(environment, 6)
# Step 2: Simulate interactions (using local function)
print("Simulating interactions...")
interactions = local_simulate_interactions(species_list, environment)
# Step 3: Generate summary (using local function)
print("Generating summary...")
summary = local_generate_summary(species_list, interactions, environment)
# Format events as text
events_text = "🌿 Daily Ecosystem Events:\n\n"
for i, interaction in enumerate(interactions, 1):
events_text += f"{i}. {interaction}\n\n"
print("Ecosystem simulation completed successfully!")
return {
'species': species_list,
'images': [], # No images in text-only version
'events': events_text,
'summary': summary,
'audio': None, # No audio generation in simple version
'error': None
}
except Exception as e:
print(f"Error in ecosystem simulation: {str(e)}")
import traceback
traceback.print_exc()
return {
'species': [],
'images': [],
'events': f"Error: {str(e)}",
'summary': f"Simulation failed: {str(e)}",
'audio': None,
'error': str(e)
}
@app.function(image=simple_image)
def generate_species(environment: str, count: int = 6):
"""Generate species based on environment analysis."""
return local_generate_species(environment, count)
@app.function(image=simple_image)
def simulate_interactions(species_list, environment):
"""Simulate interactions between species."""
return local_simulate_interactions(species_list, environment)
@app.function(image=simple_image)
def generate_summary(species_list, interactions, environment):
"""Generate a narrative summary of the ecosystem."""
return local_generate_summary(species_list, interactions, environment)
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