Search
Close this search box.

AMPL In Energy

Empowering Energy Optimization with Precision and Reliability

Optimize your energy operations with precision and reliability. AMPL’s advanced modeling capabilities help you streamline production, distribution, and energy resource management for a more efficient and sustainable future.

AMPL in Enterprise supports the work of industries such as renewable energy - Picture shows wind turbines in green field.

Scalability for Complex Models

Solve large-scale energy optimization problems, from production scheduling to grid management, with ease and flexibility.

Real-Time Decision Making

AMPL helps you quickly adapt to changing demands and conditions, ensuring your energy systems stay optimized in real time.

Renewables Integration

Seamlessly model renewable energy resources, optimizing energy mix and grid balancing for a sustainable future.

Reliability & Stability

Backed by decades of use in the energy sector, AMPL provides the stability needed for long-term operational success.

Use Cases in Energy with AMPL

Energy Production & Distribution

Optimize energy generation schedules, allocate resources effectively, and reduce operational costs for power plants and energy grids.

Renewable Energy Planning

Model and optimize the integration of renewable sources like wind and solar, ensuring efficient energy production and grid stability.

Energy Demand Forecasting

Leverage AMPL to forecast and respond to fluctuating energy demand, ensuring supply meets demand in real-time.

ampl model example: Unit Commitment in the Energy Industry

# Sets
set GENERATORS; # Set of power generators
set TIME; # Set of time periods

# Parameters
param demand{TIME}; # Electricity demand at each time period
param cost{GENERATORS}; # Cost of operating each generator per unit of power
param max_gen{GENERATORS}; # Maximum generation capacity of each generator
param min_gen{GENERATORS}; # Minimum generation level for each generator
param startup_cost{GENERATORS};# Cost of starting up each generator

# Variables
var gen{GENERATORS, TIME} >= 0, <= max_gen; # Power generated by each generator in each time period
var on{GENERATORS, TIME}, binary; # Whether a generator is on (1) or off (0) at each time period
var startup{GENERATORS, TIME}, binary; # Whether a generator is started up at each time period

# Objective: Minimize the total cost (generation + startup)
minimize total_cost:
     sum {g in GENERATORS, t in TIME}
     (cost[g] * gen[g, t] + startup_cost[g] * startup[g, t]);

# Constraints
# Ensure demand is met at each time period
subject to meet_demand {t in TIME}:
     sum {g in GENERATORS} gen[g, t] >= demand[t];

# Limit generation to on/off status
subject to generation_limits {g in GENERATORS, t in TIME}:
gen[g, t] <= max_gen[g] * on[g, t];

# Ensure minimum generation level if the generator is on
subject to min_generation {g in GENERATORS, t in TIME}:
gen[g, t] >= min_gen[g] * on[g, t];

# Startup constraint: A generator can only start if it was off the previous period
subject to startup_logic {g in GENERATORS, t in TIME: t > 1}:
startup[g, t] >= on[g, t] – on[g, t-1];

*For illustrative purposes only – used to gain understanding of AMPL syntax in action.

Use Cases in Energy with AMPL

Energy Production & Distribution

Optimize energy generation schedules, allocate resources effectively, and reduce operational costs for power plants and energy grids.

Renewable Energy Planning

Model and optimize the integration of renewable sources like wind and solar, ensuring efficient energy production and grid stability.

Energy Demand Forecasting

Leverage AMPL to forecast and respond to fluctuating energy demand, ensuring supply meets demand in real-time.

ampl model example: Unit Commitment in the Energy Industry

set GENERATORS;
set TIME;

param demand{TIME};
param cost{GENERATORS};
param max_gen{GENERATORS}; 
param min_gen{GENERATORS}; 
param startup_cost{GENERATORS};

var gen{GENERATORS, TIME} >= 0, <= max_gen;
var on{GENERATORS, TIME}, binary;
var startup{GENERATORS, TIME}, binary; 

minimize total_cost:
     sum {g in GENERATORS, t in TIME}
     (cost[g] * gen[g, t] + startup_cost[g] * startup[g, t]);


subject to meet_demand {t in TIME}:
     sum {g in GENERATORS} gen[g, t] >= demand[t];

subject to generation_limits {g in GENERATORS, t in TIME}:
     gen[g, t] <= max_gen[g] * on[g, t];

subject to min_generation {g in GENERATORS, t in TIME}:
     gen[g, t] >= min_gen[g] * on[g, t];

subject to startup_logic {g in GENERATORS, t in TIME: t > 1}:
     startup[g, t] >= on[g, t] – on[g, t-1];

*For illustrative purposes only – used to gain understanding of AMPL syntax in action.

Start Optimizing Your Energy Decisions Today

View our price list, or speak to our team for tailored solutions and custom packages for your business.

Group 14 Copy 2

Experience everything AMPL, integrations and partnerships provides.

Group 19 Copy 2

AMPL offers a wealth of resources to help modelers and developers get the most out of the language.