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Deep Soil Intelligence & Analysis Engine
=========================================
Provides comprehensive soil analysis with:
- Current soil data display (moisture, pH, nutrients, etc.)
- Soil health summary
- Key issues detection
- Actionable recommendations (irrigation, fertilizer, organic improvements)
- Yield optimization tips
- Priority levels for each action
"""
import json
import logging
from typing import Dict, List, Any, Tuple
logger = logging.getLogger(__name__)
# Soil parameter reference ranges for different crops
SOIL_RANGES = {
"TOMATO": {
"moisture": {"min": 40, "max": 70, "ideal": 55},
"ph": {"min": 6.0, "max": 7.5, "ideal": 6.8},
"nitrogen": {"min": 1.5, "max": 3.0, "ideal": 2.2}, # units based on soil type
"organic_matter": {"min": 2, "max": 5, "ideal": 3.5},
"potassium": {"min": 1.5, "max": 3.0, "ideal": 2.0},
"phosphorus": {"min": 1.0, "max": 2.5, "ideal": 1.8},
},
"WHEAT": {
"moisture": {"min": 35, "max": 60, "ideal": 50},
"ph": {"min": 6.5, "max": 8.0, "ideal": 7.2},
"nitrogen": {"min": 1.0, "max": 2.5, "ideal": 1.8},
"organic_matter": {"min": 1.5, "max": 3.5, "ideal": 2.5},
"potassium": {"min": 1.2, "max": 2.5, "ideal": 1.8},
"phosphorus": {"min": 0.8, "max": 2.0, "ideal": 1.5},
},
"RICE": {
"moisture": {"min": 60, "max": 90, "ideal": 75},
"ph": {"min": 6.0, "max": 7.5, "ideal": 6.8},
"nitrogen": {"min": 1.0, "max": 3.0, "ideal": 2.0},
"organic_matter": {"min": 2.0, "max": 4.5, "ideal": 3.2},
"potassium": {"min": 1.2, "max": 2.8, "ideal": 2.0},
"phosphorus": {"min": 1.0, "max": 2.5, "ideal": 1.8},
},
"MAIZE": {
"moisture": {"min": 45, "max": 70, "ideal": 60},
"ph": {"min": 6.0, "max": 7.5, "ideal": 6.8},
"nitrogen": {"min": 1.2, "max": 2.8, "ideal": 2.0},
"organic_matter": {"min": 1.5, "max": 4.0, "ideal": 2.8},
"potassium": {"min": 1.0, "max": 2.5, "ideal": 1.8},
"phosphorus": {"min": 0.8, "max": 2.2, "ideal": 1.5},
},
"ONION": {
"moisture": {"min": 50, "max": 75, "ideal": 65},
"ph": {"min": 6.0, "max": 7.5, "ideal": 6.5},
"nitrogen": {"min": 1.5, "max": 3.0, "ideal": 2.2},
"organic_matter": {"min": 2.5, "max": 5.0, "ideal": 3.5},
"potassium": {"min": 1.5, "max": 3.0, "ideal": 2.2},
"phosphorus": {"min": 1.2, "max": 2.5, "ideal": 2.0},
},
"DEFAULT": {
"moisture": {"min": 40, "max": 70, "ideal": 55},
"ph": {"min": 6.0, "max": 7.5, "ideal": 6.8},
"nitrogen": {"min": 1.0, "max": 2.5, "ideal": 1.8},
"organic_matter": {"min": 2.0, "max": 4.0, "ideal": 3.0},
"potassium": {"min": 1.0, "max": 2.5, "ideal": 1.8},
"phosphorus": {"min": 0.8, "max": 2.0, "ideal": 1.5},
}
}
def extract_soil_parameters(farm_data: Dict[str, Any], soil_properties: List[Dict] = None) -> Dict[str, Any]:
"""
Extract relevant soil parameters from farm data and processed properties.
Returns dict with available soil parameters:
- moisture (from farmer input or estimated)
- pH (from farmer input or ISRIC)
- nitrogen, phosphorus, potassium (from ISRIC)
- organic_matter
- temperature (from weather data)
"""
extracted = {}
# Get directly provided values
extracted["moisture"] = farm_data.get("soil_moisture", None)
extracted["ph"] = farm_data.get("soil_ph", None)
extracted["temperature"] = farm_data.get("temp", None)
# Try to extract from soil properties (ISRIC)
if soil_properties:
for prop in soil_properties:
param = prop.get("parameter", "").lower()
value = prop.get("value")
if value == "N/A" or value is None:
continue
if "nitrogen" in param:
extracted["nitrogen"] = value
elif "phosphorus" in param or "phosphate" in param:
extracted["phosphorus"] = value
elif "potassium" in param or "potash" in param:
extracted["potassium"] = value
elif "organic" in param or "carbon" in param:
extracted["organic_matter"] = value
elif "ph" in param and not extracted["ph"]:
extracted["ph"] = value
elif "water" in param or "moisture" in param:
if not extracted["moisture"]:
extracted["moisture"] = value
return {k: v for k, v in extracted.items() if v is not None}
def detect_key_issues(crop_type: str, extracted_params: Dict[str, Any]) -> List[Dict[str, Any]]:
"""
Detect key soil issues based on crop-specific ranges.
Returns list of issue dicts:
{
"issue": "Issue name",
"severity": "HIGH|MEDIUM|LOW",
"current_value": value,
"ideal_range": "min-max",
"description": "What this means"
}
"""
crop = crop_type.upper()
ranges = SOIL_RANGES.get(crop, SOIL_RANGES["DEFAULT"])
issues = []
for param_name, param_value in extracted_params.items():
if param_name not in ranges:
continue
range_info = ranges[param_name]
min_val = range_info["min"]
max_val = range_info["max"]
ideal_val = range_info.get("ideal", (min_val + max_val) / 2)
# Determine severity
severity = "LOW"
if param_value < min_val or param_value > max_val:
severity = "HIGH"
elif abs(param_value - ideal_val) > (max_val - min_val) * 0.25:
severity = "MEDIUM"
else:
severity = "LOW"
if severity == "LOW":
continue # Only report issues
# Get issue description
if param_name == "moisture":
if param_value < min_val:
desc = f"Soil is too dry ({param_value}%). Risk of plant stress and reduced water uptake."
else:
desc = f"Soil is too wet ({param_value}%). Risk of waterlogging and root rot."
elif param_name == "ph":
if param_value < min_val:
desc = f"Soil is too acidic (pH {param_value}). Nutrient availability is reduced."
else:
desc = f"Soil is too alkaline (pH {param_value}). Iron and other micronutrients may be locked."
elif param_name == "nitrogen":
desc = f"Nitrogen levels are low ({param_value}). Plants may show stunted growth and pale color."
elif param_name == "phosphorus":
desc = f"Phosphorus levels are low ({param_value}). Root development and flowering may be affected."
elif param_name == "potassium":
desc = f"Potassium levels are low ({param_value}). Fruit quality and disease resistance reduced."
elif param_name == "organic_matter":
desc = f"Organic matter is low ({param_value}%). Soil structure and water retention are poor."
else:
desc = f"{param_name.capitalize()} levels are outside ideal range ({param_value})."
issues.append({
"issue": param_name.capitalize(),
"severity": severity,
"current_value": param_value,
"ideal_range": f"{min_val}-{max_val}",
"description": desc
})
# Sort by severity
severity_order = {"HIGH": 0, "MEDIUM": 1, "LOW": 2}
issues.sort(key=lambda x: severity_order.get(x["severity"], 3))
return issues
def generate_soil_health_summary(crop_type: str, extracted_params: Dict[str, Any], issues: List[Dict]) -> str:
"""
Generate a brief, farmer-friendly soil health summary.
"""
if not issues:
return "β
**Excellent Soil Condition** - Your soil is in good health with balanced nutrients and proper moisture. Continue current management practices."
high_issues = [i for i in issues if i["severity"] == "HIGH"]
medium_issues = [i for i in issues if i["severity"] == "MEDIUM"]
if high_issues:
main_issue = high_issues[0]["issue"].lower()
if len(high_issues) == 1:
summary = f"β οΈ **Soil Health: CRITICAL** - Your soil has **{main_issue}** problem that needs urgent attention. Additionally, there are {len(medium_issues)} moderate issues to address."
else:
summary = f"π¨ **Soil Health: POOR** - Multiple critical issues detected including {main_issue}. Immediate intervention required."
elif medium_issues:
main_issue = medium_issues[0]["issue"].lower()
summary = f"β‘ **Soil Health: FAIR** - Your soil has moderate {main_issue} and needs optimization. Follow the recommendations below."
else:
summary = "β
**Soil Health: GOOD** - Minor issues detected but overall soil is suitable for {crop_type}."
return summary
def generate_actionable_recommendations(crop_type: str, extracted_params: Dict[str, Any], issues: List[Dict]) -> List[Dict[str, Any]]:
"""
Generate practical, farmer-friendly recommendations.
Returns list of dicts:
{
"recommendation": "Action to take",
"priority": "HIGH|MEDIUM|LOW",
"category": "Irrigation|Fertilizer|Organic|pH|Other",
"steps": ["Step 1", "Step 2", ...],
"expected_result": "What farmer should expect",
"timeline": "When to see results"
}
"""
recommendations = []
for issue in issues:
param = issue["issue"].lower()
if param == "moisture":
if extracted_params.get("moisture", 0) < SOIL_RANGES.get(crop_type, SOIL_RANGES["DEFAULT"])["moisture"]["min"]:
# Low moisture
recommendations.append({
"recommendation": "Increase Watering Frequency",
"priority": issue["severity"],
"category": "Irrigation",
"steps": [
"Water early morning (6-7 AM) or late evening (5-6 PM)",
"Apply water slowly at base of plants, not on leaves",
"Water 3-4 times per week instead of 2 times",
"Check soil moisture by pressing hand 2 inches deep - should feel damp",
"Mulch around plants to retain moisture"
],
"expected_result": "Soil moisture will improve within 2-3 days, plant stress will reduce",
"timeline": "1-3 days"
})
else:
# High moisture
recommendations.append({
"recommendation": "Improve Drainage & Reduce Watering",
"priority": issue["severity"],
"category": "Irrigation",
"steps": [
"Reduce watering to 1-2 times per week",
"Ensure field has proper drainage channels",
"Add raised beds if drainage is poor",
"Aerify soil by loosening with fork (5-6 inches deep)",
"Remove standing water if any"
],
"expected_result": "Waterlogging will reduce, root rot risk decreases",
"timeline": "5-7 days"
})
elif param == "ph":
current_ph = extracted_params.get("ph", 7)
if current_ph < SOIL_RANGES.get(crop_type, SOIL_RANGES["DEFAULT"])["ph"]["min"]:
# Acidic
recommendations.append({
"recommendation": "Apply Agricultural Lime to Raise pH",
"priority": issue["severity"],
"category": "pH",
"steps": [
f"Measure soil pH: Current is {current_ph} (acidic)",
"Apply agricultural lime (calcium carbonate) at 1-2 tons per acre",
"Mix lime into top 6 inches of soil",
"Water thoroughly after application",
"Wait 3-4 weeks before next planting"
],
"expected_result": "Soil pH will increase by 0.5-1 point, nutrient availability improves",
"timeline": "3-4 weeks"
})
else:
# Alkaline
recommendations.append({
"recommendation": "Apply Sulfur to Lower pH",
"priority": issue["severity"],
"category": "pH",
"steps": [
f"Current soil pH is {current_ph} (alkaline)",
"Apply elemental sulfur at 500 kg per acre",
"Incorporate sulfur into top 4-6 inches of soil",
"Water well after application",
"Monitor pH changes every 2 weeks"
],
"expected_result": "Soil pH will gradually decrease by 0.5-1 point over time",
"timeline": "4-8 weeks"
})
elif param == "nitrogen":
recommendations.append({
"recommendation": "Apply Nitrogen-Rich Fertilizer",
"priority": issue["severity"],
"category": "Fertilizer",
"steps": [
"Use urea (46-0-0) or ammonium nitrate (33-0-0)",
"Apply 50-100 kg per acre for moderate deficiency",
"Split application: Half now, half after 3-4 weeks",
"Mix thoroughly with top 2-3 inches of soil",
"Water immediately after application"
],
"expected_result": "Plants will show greener leaves and faster growth within 10-15 days",
"timeline": "10-15 days"
})
recommendations.append({
"recommendation": "Add Organic Nitrogen Sources",
"priority": "MEDIUM",
"category": "Organic",
"steps": [
"Apply farm yard manure at 10-15 tons per acre",
"Or use compost at 5-10 tons per acre",
"Or incorporate legume-based green manure",
"Mix well into soil 2-3 weeks before sowing",
"This builds long-term soil fertility"
],
"expected_result": "Gradual nitrogen release, improved soil structure and microbes",
"timeline": "2-4 weeks"
})
elif param == "phosphorus":
recommendations.append({
"recommendation": "Apply Phosphorus Fertilizer",
"priority": issue["severity"],
"category": "Fertilizer",
"steps": [
"Use single super phosphate (SSP) or DAP (18-46-0)",
"Apply 50-75 kg per acre",
"Mix into root zone (top 4-6 inches)",
"Phosphorus moves slowly, apply early",
"Water after application"
],
"expected_result": "Root development improves, flowering and seed formation enhance",
"timeline": "20-30 days"
})
elif param == "potassium":
recommendations.append({
"recommendation": "Apply Potassium Fertilizer",
"priority": issue["severity"],
"category": "Fertilizer",
"steps": [
"Use muriate of potash (0-0-60) or potassium nitrate",
"Apply 40-60 kg per acre",
"Best applied during fruiting stage",
"Mix with irrigation water for faster absorption",
"Apply in 2 splits if possible"
],
"expected_result": "Larger fruits, better color, improved disease resistance",
"timeline": "15-25 days"
})
recommendations.append({
"recommendation": "Use Wood Ash as Organic Potassium Source",
"priority": "MEDIUM",
"category": "Organic",
"steps": [
"Collect clean wood ash (no treated wood)",
"Apply 2-3 tons per acre",
"Spread evenly and mix into soil",
"Use only if soil pH is not already high",
"Avoid overuse (causes salt accumulation)"
],
"expected_result": "Gradual potassium release plus calcium benefits",
"timeline": "2-3 weeks"
})
elif param == "organic matter":
recommendations.append({
"recommendation": "Build Organic Matter with Compost & Manure",
"priority": issue["severity"],
"category": "Organic",
"steps": [
"Apply 8-12 tons of farm yard manure per acre",
"Or 5-8 tons of well-made compost per acre",
"Mix into top 6 inches of soil",
"Continue annual additions to build reserves",
"Use crop residue mulching"
],
"expected_result": "Better water retention, improved soil structure, more microbes",
"timeline": "4-8 weeks to see major benefits"
})
recommendations.append({
"recommendation": "Plant Green Manure Crops in Off-Season",
"priority": "MEDIUM",
"category": "Organic",
"steps": [
"Sow legumes (dhaincha, sesbania) in off-season",
"Grow for 6-8 weeks",
"Plow into soil 2 weeks before main crop",
"This adds nitrogen AND organic matter",
"Repeat every year for maximum benefit"
],
"expected_result": "Organic matter builds over time, nitrogen increases naturally",
"timeline": "Ongoing, benefits compound yearly"
})
return recommendations
def generate_optimization_tips(crop_type: str, extracted_params: Dict[str, Any]) -> List[str]:
"""
Generate smart optimization tips for better yield.
"""
tips = []
crop = crop_type.upper()
ranges = SOIL_RANGES.get(crop, SOIL_RANGES["DEFAULT"])
# Moisture optimization
moisture = extracted_params.get("moisture")
if moisture and moisture < ranges["moisture"]["ideal"]:
tips.append("π§ **Irrigation Timing**: Water early morning to minimize evaporation and maximize absorption.")
if moisture and moisture > ranges["moisture"]["ideal"] * 0.7:
tips.append("π§ **Soil Moisture**: Your soil has good moisture. Drip irrigation saves 30-40% water vs flood irrigation.")
# pH optimization
ph = extracted_params.get("ph")
if ph and ranges["ph"]["min"] < ph < ranges["ph"]["max"]:
tips.append("π§ͺ **pH Balance**: Your soil pH is optimal. Maintain it by avoiding excessive lime or sulfur applications.")
# Organic matter
organic = extracted_params.get("organic_matter")
if not organic or organic < ranges["organic_matter"]["ideal"]:
tips.append("πΏ **Soil Biology**: Add mulch around plants to feed microorganisms and improve soil structure over time.")
# General tips
if extracted_params.get("temperature", 0) > 35:
tips.append("π‘οΈ **Heat Protection**: Use shade cloth or intercroppings to reduce soil temperature stress during extreme heat.")
tips.append("π **Soil Testing**: Test soil every 2-3 years to track changes and adjust fertilizer application.")
tips.append("π± **Crop Rotation**: Rotate crops to break pest cycles and naturally restore soil fertility.")
tips.append("π **Minimum Tillage**: Reduce deep plowing to preserve soil structure and protect microorganisms.")
return tips
def deep_soil_intelligence(farm_data: Dict[str, Any], soil_report: Dict[str, Any]) -> Dict[str, Any]:
"""
Main function to generate comprehensive soil analysis.
Returns:
{
"extracted_parameters": {...},
"current_data_display": [...], # For UI display
"health_summary": "...",
"key_issues": [...],
"actionable_recommendations": [...],
"optimization_tips": [...],
"overall_priority": "HIGH|MEDIUM|LOW"
}
"""
crop_type = farm_data.get("crop_type", "DEFAULT")
# Extract parameters
soil_properties = soil_report.get("properties", [])
extracted = extract_soil_parameters(farm_data, soil_properties)
# Create display-friendly version of all parameters
current_data_display = []
# Add farmer-input parameters
if farm_data.get("soil_moisture") is not None:
current_data_display.append({
"name": "Soil Moisture",
"value": farm_data.get("soil_moisture"),
"unit": "%",
"source": "Farmer Input"
})
if farm_data.get("soil_ph") is not None:
current_data_display.append({
"name": "Soil pH",
"value": farm_data.get("soil_ph"),
"unit": "pH",
"source": "Farmer Input"
})
if farm_data.get("temp") is not None:
current_data_display.append({
"name": "Soil Temperature",
"value": farm_data.get("temp"),
"unit": "Β°C",
"source": "Weather Data"
})
if farm_data.get("humidity") is not None:
current_data_display.append({
"name": "Soil Humidity",
"value": farm_data.get("humidity"),
"unit": "%",
"source": "Weather Data"
})
# Add ISRIC properties (if available)
for prop in soil_properties:
if prop.get("value") != "N/A" and prop.get("value") is not None:
current_data_display.append({
"name": prop.get("parameter", "Unknown"),
"value": prop.get("value"),
"unit": prop.get("unit", ""),
"source": "ISRIC SoilGrids"
})
# Detect issues
issues = detect_key_issues(crop_type, extracted)
# Generate health summary
health_summary = generate_soil_health_summary(crop_type, extracted, issues)
# Generate recommendations
recommendations = generate_actionable_recommendations(crop_type, extracted, issues)
# Generate optimization tips
tips = generate_optimization_tips(crop_type, extracted)
# Determine overall priority
if any(i["severity"] == "HIGH" for i in issues):
overall_priority = "HIGH"
elif any(i["severity"] == "MEDIUM" for i in issues):
overall_priority = "MEDIUM"
else:
overall_priority = "LOW"
return {
"extracted_parameters": extracted,
"current_data_display": current_data_display,
"health_summary": health_summary,
"key_issues": issues,
"actionable_recommendations": recommendations,
"optimization_tips": tips,
"overall_priority": overall_priority
}
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