title
GEO-INFER-ENERGY: Energy Systems and Grid Analysis
description
Renewable energy siting, grid optimization, and energy systems modeling
purpose
Provide geospatial analysis for energy planning, renewable resource assessment, and grid infrastructure
module_type
Domain Application
status
Alpha
last_updated
2026-02-25
dependencies
compatibility
GEO-INFER-SPACE
GEO-INFER-TIME
GEO-INFER-DATA
GEO-INFER-CLIMATE
tags
energy
renewable
solar
wind
grid
power-systems
difficulty
Intermediate
estimated_time
55
GEO-INFER-ENERGY: Energy Systems and Grid Analysis
GEO-INFER-ENERGY provides comprehensive geospatial capabilities for energy systems analysis and planning. The module enables:
Renewable Resource Assessment : Solar, wind, and hydro potential mapping
Site Selection : Optimal location for energy infrastructure
Grid Analysis : Transmission network modeling and optimization
Demand Forecasting : Spatiotemporal energy demand prediction
Energy Transition Planning : Decarbonization pathway analysis
Solar Resource Assessment
from geo_infer_energy import SolarAnalyzer
# Analyze solar potential
solar = SolarAnalyzer ()
potential = solar .assess_potential (
area = study_region ,
data_source = "nsrdb" ,
resolution = "1km" ,
metrics = ["ghi" , "dni" , "capacity_factor" ]
)
print (f"Annual GHI: { potential .ghi_avg } kWh/m²/year" )
print (f"Optimal tilt: { potential .optimal_tilt } °" )
print (f"Capacity factor: { potential .capacity_factor } %" )
from geo_infer_energy import WindAnalyzer
# Analyze wind potential
wind = WindAnalyzer ()
assessment = wind .assess (
area = wind_farm_area ,
hub_height = 100 , # meters
turbine_model = "generic_3mw" ,
wake_model = "jensen"
)
print (f"Mean wind speed: { assessment .mean_speed } m/s" )
print (f"Power density: { assessment .power_density } W/m²" )
print (f"Annual energy: { assessment .annual_energy } GWh" )
Site Suitability Analysis
from geo_infer_energy import SiteSuitability
# Find optimal sites for solar farms
suitability = SiteSuitability ()
sites = suitability .analyze (
energy_type = "solar_pv" ,
region = county_boundary ,
criteria = {
"slope" : {"max" : 5 }, # degrees
"land_use" : {"exclude" : ["wetland" , "forest" , "urban" ]},
"distance_to_grid" : {"max" : 10 }, # km
"solar_resource" : {"min" : 4.5 } # kWh/m²/day
}
)
print (f"Suitable area: { sites .total_area_km2 } km²" )
print (f"Potential capacity: { sites .potential_mw } MW" )
from geo_infer_energy import GridAnalyzer
# Analyze transmission grid
grid = GridAnalyzer ()
# Load grid data
grid .load_network (transmission_lines , substations )
# Analyze capacity constraints
constraints = grid .analyze_capacity (
new_generation = proposed_solar_farms ,
scenario = "2030_load_forecast"
)
print (f"Constrained segments: { constraints .bottlenecks } " )
print (f"Upgrade needed: { constraints .upgrade_cost } M" )
Resource
Analysis Capabilities
Solar PV
GHI/DNI mapping, shading, rooftop potential
Solar Thermal
CSP suitability, DNI requirements
Wind
Resource mapping, wake modeling, noise setbacks
Hydropower
Stream flow, head calculation, run-of-river
Geothermal
Heat flow, reservoir assessment
Biomass
Feedstock availability, logistics
from geo_infer_energy import PowerFlow
# Run power flow analysis
pf = PowerFlow ()
# Load system data
pf .load_system (network_model )
# Run analysis
results = pf .run (
method = "ac_power_flow" ,
scenario = "peak_summer"
)
print (f"Total losses: { results .losses_mw } MW" )
print (f"Voltage violations: { results .voltage_violations } " )
print (f"Overloaded lines: { results .overloads } " )
Module
Integration
GEO-INFER-CLIMATE
Weather data, climate projections
GEO-INFER-SPACE
Spatial analysis, terrain
GEO-INFER-TIME
Temporal demand patterns
GEO-INFER-ECON
Economic analysis, LCOE
GEO-INFER-RISK
Infrastructure vulnerability
# Install energy module
uv pip install -e " ./GEO-INFER-ENERGY"
# With all analysis tools
uv pip install -e " ./GEO-INFER-ENERGY[full]"
Renewable Energy Planning
from geo_infer_energy import RenewablePlanner
planner = RenewablePlanner (region = "state_california" )
# Plan renewable portfolio
plan = planner .optimize (
target = {"renewable_percent" : 100 , "year" : 2045 },
technologies = ["solar" , "wind" , "storage" ],
constraints = {"land_use" : land_constraints }
)
print (f"Optimal mix: { plan .technology_mix } " )
print (f"Required investment: ${ plan .investment_billions } B" )
Status : Alpha - Core functionality implemented
Last Updated : 2026-02-25
Full framework documentation, guides, and tutorials are available in the GEO-INFER-INTRA documentation hub .