Take-Home Fleet Drivers
Need to charge your work vehicle at home?
ABCs of EV Charging
There are three types of electric vehicle chargers: Level 1, Level 2 and Level 3—also known as Direct Current Fast Charging (DCFC).
Level 1 Charging
Typically included with your EV purchase, Level 1 home chargers plug into a standard 120-volt electrical outlet but only provide 3-5 miles of charging per hour.
Level 2 Charging
Level 2 chargers are found in both residential and commercial settings. They’re popular for home charging since they can fully replenish your EV battery overnight while you sleep.
Level 3 Charging (DC Fast)
These charging stations replenish your battery to about 80% in 30 minutes but are found exclusively in commercial settings and not available for home installation.
For home charging, Qmerit recommends a Level 2 system for the ideal combination of speed and convenience. DC Fast chargers are more optimal for work-based fleets with high utilization rates or rapid turnaround requirements.
Frequently Asked Questions
What are the upfront costs of EVs compared to internal combustion engine vehicles, and how do incentives or grants help offset these expenses?
EVs have higher upfront costs than internal combustion engine vehicles, primarily due to expensive battery components, but these costs can be significantly offset by federal tax credits, state rebates, and local incentives for vehicle purchases and EV charging infrastructure. Visit the Qmerit blog to read more about EV charging rebates and tax credits.
How does the total cost of ownership (TCO) of EVs compare to traditional vehicles, considering maintenance, fuel, and operational costs?
The total cost of ownership (TCO) for EVs is often lower than traditional vehicles due to significant savings in fuel, maintenance, and operational expenses. EVs have fewer moving parts than ICE vehicles, leading to lower maintenance costs, and electricity as a fuel source is typically cheaper than gasoline or diesel, especially when charging during off-peak hours. Visit the Qmerit blog to read more about the TCO for EV fleets.
What are the key differences in infrastructure investment between Level 2 and DC fast charging stations, and how do demand charges impact costs?
Level 2 chargers are more cost-effective and simpler to install, while DC Fast Chargers require significant investment along with specialized infrastructure upgrades. Additionally, DC fast chargers incur higher operational costs, making them a strategic rather than universal choice. Visit the Qmerit blog to learn more differences about Level 2 and DCFC Chargers.
What type of charging stations are best for fleet needs (Level 2 vs. DC fast charging), and how should charging stations be placed to optimize efficiency?
Level 2 chargers are suitable for fleets with predictable, low-urgency charging needs, such as overnight charging at home and at depots. They’re cost-effective and meet the energy demands of most light- and medium-duty vehicles, with a charging time of 4–8 hours for a full charge.
For fleets with take-home vehicles, providing Level 2 home chargers can reduce depot congestion and streamline operations.
DC Fast Chargers are more ideal for fleets with high utilization rates or rapid turnaround requirements, such as long-haul or delivery vehicles. They can recharge batteries in under an hour but involve significantly higher infrastructure and operational costs.
For fleets with take-home vehicles, providing Level 2 home chargers can reduce depot congestion and streamline operations.
DC Fast Chargers are more ideal for fleets with high utilization rates or rapid turnaround requirements, such as long-haul or delivery vehicles. They can recharge batteries in under an hour but involve significantly higher infrastructure and operational costs.
How can fleets ensure access to reliable charging options at depots, drivers’ homes, and on public routes?
Fleets can ensure reliable charging by installing dedicated Level 2 or DC fast chargers at depots, supported by energy management tools to optimize costs and efficiency.
For take-home vehicles, providing home chargers with reimbursement programs reduces dependency on depots and enhances flexibility. Visit the Qmerit Blog to learn why EV fleets adopt overnight at-home charging for drivers.
Access to public charging networks, especially DC fast chargers on key routes, can be secured through partnerships with network providers and the use of telematics to guide drivers to available stations.
For take-home vehicles, providing home chargers with reimbursement programs reduces dependency on depots and enhances flexibility. Visit the Qmerit Blog to learn why EV fleets adopt overnight at-home charging for drivers.
Access to public charging networks, especially DC fast chargers on key routes, can be secured through partnerships with network providers and the use of telematics to guide drivers to available stations.
What is the optimal ratio of EV chargers to vehicles, and how can charging schedules reduce costs and downtime?
The optimal charger-to-vehicle ratio depends on fleet size, operations, and charging needs.
A 1:1 ratio is ideal for take-home vehicles, where each driver can reliably charge overnight, while ratios of 1 charger per 2–3 vehicles are typical for fleets with staggered schedules, ensuring efficient utilization of charging infrastructure. Fleets with tight turnaround times or high daily mileage may require a 1:1 ratio for DC fast chargers to minimize downtime.
Charging vehicles during off-peak electricity hours significantly reduces energy costs. And for depot-based fleets, scheduling vehicles to charge at different times can optimize charger use, avoid overloading electrical infrastructure, and reduce the need for additional chargers.
Visit the Qmerit blog to read more best practices for charging infrastructure deployment.
A 1:1 ratio is ideal for take-home vehicles, where each driver can reliably charge overnight, while ratios of 1 charger per 2–3 vehicles are typical for fleets with staggered schedules, ensuring efficient utilization of charging infrastructure. Fleets with tight turnaround times or high daily mileage may require a 1:1 ratio for DC fast chargers to minimize downtime.
Charging vehicles during off-peak electricity hours significantly reduces energy costs. And for depot-based fleets, scheduling vehicles to charge at different times can optimize charger use, avoid overloading electrical infrastructure, and reduce the need for additional chargers.
Visit the Qmerit blog to read more best practices for charging infrastructure deployment.
How can telematics and smart charging tools enhance route planning and energy efficiency for EV fleets?
Telematics and smart charging tools optimize EV fleet efficiency by analyzing real-time data to plan energy-efficient routes, monitor battery usage, and reduce energy consumption. These tools schedule charging during off-peak hours to lower costs and dynamically adjust charging rates based on fleet needs and electricity demand. This integration enhances operational efficiency, minimizes downtime, and ensures vehicles are always ready for use.
How can fleets overcome utility-related challenges, such as insufficient grid capacity or long infrastructure installation timelines?
Fleets can address utility challenges by working with utilities early to assess grid capacity and plan for necessary upgrades, such as transformer additions or substation enhancements. Temporary solutions like mobile charging units or battery energy storage systems can bridge gaps during infrastructure installation delays. Smart charging systems and demand management strategies can also mitigate peak power issues, reducing strain on the grid while optimizing costs.
What are best practices for handling driver reimbursement costs with at-home EV fleets?
The electricity to run an EV costs a fraction of what gas costs to go the same distance. But, determining the cost to charge the vehicle can be a lot more complex than keeping track of gas purchases, particularly for an at-home EV fleet. To fairly handle EV driver reimbursements (and get an accurate picture of your fleet operation), you need to separate the energy spend from EV charging versus other uses of electricity.
What training or operational changes are necessary for drivers transitioning to EVs?
Drivers transitioning to EVs need training on efficient driving practices, such as regenerative braking and route optimization, to maximize. Drivers (and managers) who use take-home vehicles must also learn about utility rate schedules, including time-of-use and on/off-peak times. EV charging times can be programmed and scheduled on the EV itself, but it’s good to understand how and why the rates differ from on-peak and off-peak times.
Visit the Qmerit blog to learn more about time-of-use (TOU) electricity rates.
Visit the Qmerit blog to learn more about time-of-use (TOU) electricity rates.
Driving Their EV Fleet Transition
Case Study: Biopharma Client
Qmerit’s Charge@Home™ solution helped the client meet differing compliance requirements spanning both the West Coast and the East Coast, while standardized pricing supported budget planning.
