EVopt Planner

EVopt-Planner models driving and charging operations to determine the optimum size of the electric fleet, vehicle batteries, and charging/energy infrastructure, aiming to minimize capital and operational costs. Its built-in simulation and “what-if” analysis functions aid in evaluating the impact of changes to operating conditions, mitigating risks arising from uncertainties.

Modules and Outcomes

EVopt models and analyzes the fleet electrification system in a step-by-step manner.

Modules:

Operations Assessment
Define vehicle deployment strategies, operating
schedules, and fleet requirements.

Energy Modeling
Simulate route-level energy use and determine
vehicle battery sizing.

Infrastructure Planning
Select charger types, power levels, load profiles,
and onsite energy resources.

System Scheduling & Costs
Generate charging schedules and evaluate capital,
operational, and emissions costs.

Outcomes:

Right-Sized Systems
Accurately size batteries, chargers, fleets, and
supporting infrastructure.

Cost & Grid Optimization
Minimize total cost of ownership while
addressing utility and grid constraints.

Deployment Confidence
Validate staged rollout plans with data-driven,
site-specific insights.

Actionable Insights
Support strategic decisions with outputs aligned
to real-world fleet operations.

Technology Underpinnings

EVopt-Planner integrates technology developed in national laboratories, incorporates advanced algorithms developed through fleet consulting projects across the globe, and has been thoroughly validated against real-world performance data. Now available in a user-friendly cloud-based application.

Use Cases

Prev Next
  • Minimize data input using GTFS data
  • Develop charging strategy (depot charging, layover charging, on-route charging)
  • Optimize system design (battery size, charger size, fleet size)
  • Manage lane geometry constraints
  • Manage grid constraints
  • Optimize charging schedule to minimize electricity cost
  • Integrate DER/microgrids
  • Minimize Data Input using EPA form.
  • Develop Charging Strategy (Overnight Charging, Overnight + Midday Charging, Home Charging)
  • Optimize System Design (Battery Size, Charger Size, Fleet Size)
  • Manage Grid Constraints
  • Optimize Charging Schedule to minimize electricity cost.
  • Quantify V2G Benefits.
  • Integrate DER/Microgrids.
  • Minimize data input using telematics data
  • Develop charging strategy (depot charging, layover charging, public charging)
  • Optimize system design (battery size, charger size, fleet size)
  • Manage grid constraints
  • Optimize charging schedule to minimize electricity cost
  • Integrate DER/microgrids