For a delivery fleet going electric, what charging setup minimizes downtime and demand charges?

For most delivery fleets, the lowest-downtime/lowest-demand-charge design is not “maximum chargers everywhere.” It’s a depot with enough charging power to meet every vehicle’s energy requirement, combined with dynamic managed charging and a site power ceiling.

Recommended setup

• Networked AC Level 2 or moderate-power DC chargers at every parking position. Give vehicles a plug wherever they normally dwell, so charging can happen opportunistically rather than creating a rush before departure.

• Central smart-charging controller. It should continuously allocate available power among vehicles based on:

• departure time

• required state of charge/range

• route energy requirement

• charger power

• building load

• utility demand-charge/TOU periods

• Set a hard site import limit. For example, if the utility connection can economically support 500 kW, have the controller keep combined EV + building demand below a predetermined threshold rather than letting 20 chargers simultaneously pull their maximum. DOE specifically identifies enforcing a power ceiling and avoiding coincident facility/EV peaks as core managed-charging strategies.

• Prioritize vehicles by departure urgency. A truck leaving in 90 minutes gets power before one sitting until tomorrow morning. This lets you use lower average charging power while still guaranteeing operational readiness.

• Use DC fast charging selectively. Reserve high-power DCFC for vehicles with short dwell times, mid-shift top-ups, or unusually demanding routes. Making every parking stall a high-power DCFC connection can create large peaks and expensive demand charges.

• Consider behind-the-meter battery storage if the tariff makes demand charges expensive. The battery can charge during low-cost/low-demand periods and discharge when many vehicles need power simultaneously. NREL finds storage particularly useful for shaving peaky, high-power charging loads.

• Negotiate the electricity rate before sizing the electrical infrastructure. Commercial tariffs can make demand charges a major part of charging cost, and the relevant peak can be based on a short measurement interval.

The key sizing principle

Think in terms of energy needed per dwell period, rather than charger nameplate power.

For example, suppose 40 vans return at 6 p.m. and remain parked until 6 a.m. If each needs 40 kWh:

40 × 40 = 1,600 kWh overnight.

You don't necessarily need 40 × 100 kW = 4 MW of electrical capacity. With a 12-hour dwell, the fleet's average energy requirement is only about 133 kW. A smart controller can distribute that energy across the night while reserving headroom for vehicles with earlier departures.

NREL's fleet analysis similarly identifies depot charging plus managed charging/queuing as a way to increase utilization while avoiding or reducing demand-related costs.

A practical architecture

Grid → site meter → optional battery → smart charging controller → many networked chargers → vehicles

The controller should optimize against two constraints simultaneously:

Operational constraint: every vehicle reaches the required SOC before departure. Electrical constraint: total site demand stays below the target peak. That combination is generally more effective than simply scheduling everything for the utility's cheapest hours, because having all vehicles respond simultaneously to an off-peak period can itself create a new peak.

If you give me fleet size, vehicle battery sizes, daily miles, arrival/departure window, and your utility's $/kW demand charge, I can sketch a concrete charger count, kW site limit, and battery size.

To minimize both vehicle downtime and punishing utility demand charges, a delivery fleet requires a hybrid charging architecture paired with an intelligent software-driven energy management system (EMS) . Because demand charges are triggered by your highest peak power draw (measured in kW)—often a 15-minute window that can dictate your utility bill for the entire month—letting every truck plug in at full speed simultaneously is a financial trap.

An optimized depot charging setup relies on the following key components and strategies:

1. Strategic Hybrid Hardware Mix
   • Level 2 AC Charging (The Backbone): Utilize smart Level 2 chargers for the bulk of your delivery fleet. If your vans or light-duty trucks have long overnight dwell times (8 to 12 hours) between shifts, Level 2 provides ample replenishment at a fraction of the hardware cost and with a low, steady baseline power draw.
   • Right-Sized DC Fast Chargers (The Exception): Install a minimal number of DC Fast Chargers (DCFC) strictly for multi-shift vehicles, emergency top-offs, or unexpected mid-day returns that require a rapid turnaround.
2. Software-Driven Smart Charging & Dynamic Load Management (DLM)
   • Deploy an OCPP-compatible Charging Management Platform (CPMS). Instead of sizing your electrical service for every charger to run at maximum capacity, a smart EMS enforces a hard site-level power cap matching your transformer limit.
   • When all vehicles plug in after an evening shift, the system dynamically allocates available power. It trickles or throttles current across vehicles, ramping up power for early morning departures and lowering it for vehicles with generous departure windows.
3. Stationary Battery Energy Storage Systems (BESS)
   • Pair your depot with a commercial battery storage system. The BESS charges slowly from the grid during cheap, off-peak hours.
   • When vehicles require a high-power surge or fast-charging boost during peak windows, the battery discharges to handle the load. This peak shaving prevents your grid import meter from spiking, keeping your utility demand charges minimal.
4. Predictive Route-to-SoC (State of Charge) Scheduling
   • Integrate telematics with your charging software so the system knows each vehicle’s exact return SoC and tomorrow's morning route mileage requirement.
   • Vehicles scheduled for light short-range runs the next day are placed on a delayed, low-power trickle schedule, while high-mileage or early-dispatch routes are prioritized for immediate charging.

If you want to tailor this further, tell me:

• What is your fleet size and vehicle class (e.g., Class 2b step vans vs. Class 4 box trucks)?
• What are your typical dwell times and daily mileage per vehicle?

I can help outline a more precise power capacity and infrastructure roadmap for your depot.

For most delivery fleets, the sweet spot is depot-based Level 2 / moderate-power AC charging plus dynamic smart-charge management, with a small amount of DC fast charging reserved for vehicles that truly need a rapid turnaround.

Recommended setup

• Charge primarily overnight or during long dwell periods. Instead of having every truck start charging at maximum power when it returns, stagger charging across the entire parking window. NREL research specifically finds that slower, managed depot charging can reduce peak demand.
• Install more plugs than you need simultaneous full-power charging. For example, 40 vehicles might have 40 charging connections but a site-level power limit sized for perhaps 15–25 vehicles charging at once. Software dynamically allocates that power according to departure time, battery SOC and route requirements.
• Put a hard site power ceiling into the charging system. If the depot has, say, 500 kW available for EVs, the charging-management system should never let the fleet exceed that limit—even if every charger is capable of much more. DOE specifically recommends power ceilings to prevent coincident peaks.
• Prioritize by departure time and energy required, not first-come/first-served. A truck leaving at 4 a.m. with a 20% battery gets priority over one leaving at 8 a.m. with 70%. This minimizes the amount of installed power needed while maintaining fleet readiness.
• Avoid charging during your utility's demand-charge peak. Demand charges are based on maximum kW demand, so a short period when many chargers run simultaneously can establish a costly monthly peak. Some tariffs also have demand-charge windows and ratchets that make occasional spikes particularly painful.
• Use DC fast charging selectively. Keep perhaps a few high-power DC chargers for late-returning vehicles, emergency turnaround, or routes with unusually high daily mileage. Don't make DCFC the default if vehicles have several hours to charge; high-power charging can create substantial demand charges.
• Consider on-site battery storage if the depot has large DC loads or expensive demand charges. A battery can shave the short, high-power peaks while the grid supplies energy more gradually. NREL finds storage particularly useful for peaky/low-utilization DCFC loads.

A practical architecture

Utility → main switchgear → energy-management system →

• 80–90% AC depot chargers
• a few DC fast chargers
• optional stationary battery
• optional solar

The key is that the chargers shouldn't independently decide how much power to draw. The fleet-energy-management system should see vehicle schedules, SOC, charger status, building load and the utility tariff, then continuously distribute a fixed power budget. DOE describes this as smart charge management.

The important economic trick

Don't size the electrical service for:

Number of vehicles × maximum charger power Size it around:

Required daily kWh ÷ available charging hours + operational reserve, constrained by the utility tariff and peak-demand limit. For example, if 50 vans collectively need 1,000 kWh overnight and have 10 hours at the depot, the average charging requirement is only 100 kW. You might install 50 × 11-kW chargers for flexibility, while software limits the aggregate EV load to ~120–150 kW. That gives every vehicle a connector without creating a 550-kW demand spike.

NREL's fleet modeling similarly shows depot charging becoming substantially more attractive when managed charging/queuing increases utilization and avoids demand costs.

Bottom line: lots of charging connections + relatively modest shared power + intelligent scheduling + a small DCFC layer is generally the best combination for minimizing both vehicle downtime and demand charges.

If you give me fleet size, vehicle battery size, miles/day, depot dwell time, and your utility/rate, I can sketch the optimal charger count, kW capacity, and a sample overnight charging schedule.

A managed smart-charging depot combining overnight Level 2 AC chargers, strategic low-power DC fast chargers (DCFC), and an onsite battery energy storage system (BESS) minimizes both vehicle downtime and high utility demand charges.

To successfully balance operational uptime with minimal electrical utility costs, fleet operators must integrate hardware, software, and energy buffers effectively.

Core Components of an Optimized Setup

• Managed Smart-Charging Software (Load Management): Employs software that throttles or staggers charging speeds automatically. It ensures all vehicles reach a full charge by morning without simultaneously pulling maximum power, which flattens the peak load and slashes demand charges.
• Overnight Level 2 AC Foundation: Handles 70% to 80% of light- and medium-duty delivery vans that sit idle for 6 to 10 hours overnight. This slow-rate charging keeps infrastructure installation costs low and is gentle on vehicle battery health.
• Strategic DC Fast Charging (DCFC) Top-Offs: Allocates a small bank of 50kW–150kW fast chargers for vehicles working multi-shift operations or returning mid-day with depleted batteries needing a rapid turnaround.
• Battery Energy Storage Systems (BESS): Stores energy during off-peak hours or from onsite solar panels and discharges it during peak vehicle plug-in windows. This acts as a buffer so the depot does not pull massive power spikes from the local utility grid, which triggers costly commercial demand charges.
• Time-of-Use (TOU) Integration: Programs charging schedules to strictly align with local utility off-peak pricing brackets, ensuring power is drawn when electricity rates are lowest.

Comparison of Charging Strategies

If you share your fleet size, average daily mileage per vehicle , and typical daily parking window (dwell time) , I can help calculate the ideal ratio of Level 2 to DC fast chargers for your depot.

To minimize both vehicle downtime and painful demand charges (which spike when too many chargers pull maximum power simultaneously), a modern fleet needs an integrated hardware and software approach known as Managed Smart Charging with Stationary Energy Storage (BESS).

Here is the blueprint for an optimal setup:

• Dynamic Load Management (Smart Charging Software): Implement an intelligent Smart charge management system (like those detailed by the Department of Energy Managed EV Charging Guide or platforms like Ampcontrol ) integrated with your fleet telematics. Instead of every truck pulling 1 5 0 k W the second it plugs in, the software throttles or sequences charging sessions based on departure time, state of charge (SoC), and real-time building load. This flattens the power curve and prevents expensive peak demand spikes.
• On-Site Battery Energy Storage Systems (BESS): Pair your Level 3 DC fast chargers and Level 2 chargers with a stationary commercial battery system. The BESS charges slowly from the grid over 24 hours (or during cheap off-peak hours) and then discharges at a high rate to fast-charge your vehicles when they return to the depot. This completely uncouples your vehicle charging speed from your grid service size, mitigating massive utility demand charges.
• Telematics-Driven Priority Sequencing: Feed real-time vehicle duty-cycle data (from systems like Geotab ) into your charging logic. Vehicles heading out on early morning double-shifts get prioritized for rapid top-offs, while trucks sitting idle for 36 hours are trickled up slowly during the deepest off-peak hours.
• Redundant & Modular Hardware with 24/7 Monitoring: Choose modular power cabinets where if one rectifier fails, the charger doesn't go completely offline, keeping Mean Time to Repair (MTTR) low. Combine this with round-the-clock remote diagnostics to catch hardware failures before they sideline a route.

To dial this in further, tell me:

• What is the average daily mileage and return-to-depot schedule of your fleet?
• Are you operating mostly light-duty vans or medium/heavy-duty trucks?

I can help outline the ideal mix of Level 2 vs. DC Fast Chargers for your specific footprint.

For a delivery fleet, the sweet spot is usually overnight Level 2 charging + centralized smart charge management, with a small amount of DC fast charging for vehicles that have unusually short turnaround times.

Recommended architecture

• Install enough L2 ports for the fleet, but don't size the electrical service as if every charger will run at full power simultaneously. L2 is ideal when vans sit for 6–12 hours overnight.
• Put every charger behind a load-management system. The system should continuously allocate a fixed site power ceiling among vehicles, prioritizing vans by departure time, route requirements, and state of charge. DOE specifically recommends power ceilings and departure-time-based scheduling to prevent coincident peaks.
• Charge primarily in off-peak/low-cost periods, while using the available dwell time rather than immediately charging every vehicle at maximum power.
• Keep a few DC fast chargers for vehicles returning late, emergency top-ups, or routes requiring rapid turnaround. Don't make DCFC the default overnight solution unless the operational schedule really requires it.
• Integrate the charger controller with fleet telematics/dispatch. The objective isn't simply "minimize kW"; it's "deliver the required SOC by departure while minimizing the site's peak kW." DOE describes this combination of fleet schedules, vehicle SOC, utility rates and charger controls as smart charge management.
• Set a hard site import limit below the level that would trigger an expensive demand peak. Demand charges can be based on the highest 15-minute demand, so a short period of simultaneous charging can materially affect the monthly bill.

Where a battery makes sense

If you need substantial DCFC power or your utility's demand charge is high, add a behind-the-meter battery energy-storage system (BESS). It can charge when grid demand is low and discharge during fleet charging peaks, effectively flattening the site's grid draw. Battery storage is one of the principal demand-charge mitigation strategies identified by the Transportation Energy Institute.

A useful hierarchy is:

Grid → smart load management → L2 chargers → vehicles

and, where needed:

Grid + BESS → DCFC → vehicles

Solar can be added, but I would treat it primarily as an energy-cost/energy-generation asset—not as the core solution to downtime. The charging controller and adequate charging capacity are what protect vehicle availability.

The key design principle

Don't ask, "How many 150-kW chargers do we need?"

Ask:

"How much energy does each vehicle need, when must it leave, and how much grid power can the depot draw without creating a costly peak?" For example, 20 vans each needing 40 kWh overnight require 800 kWh. If they have a 10-hour charging window, the average fleet load is only 80 kW, even though 20 individual chargers could theoretically demand hundreds of kW simultaneously. Smart charging turns that flexibility into lower infrastructure and demand costs. DOE specifically notes that managed charging can reduce both charger-installation costs and demand charges.

If you're in Massachusetts, this is particularly worth modeling against the actual utility tariff: Massachusetts has programs specifically aimed at mitigating EV charging demand charges, and National Grid describes a Demand Charge Alternative program for EV charging.

If you give me fleet size, vehicle battery size, miles/day, depot hours, and utility, I can sketch the optimal number of L2/DCFC ports, transformer size, smart-charging limit, and whether a BESS pays off.

For most delivery fleets, the sweet spot is networked Level 2 charging + dynamic load management + a smaller number of DC fast chargers for turnaround vehicles, rather than putting a high-power DC charger on every truck.

Recommended setup

• Install enough L2 ports for the vehicles that dwell overnight. Use roughly 7–19 kW per vehicle depending on battery size, dwell time, and daily energy consumption. You don't need every charger running at maximum power simultaneously.
• Use a fleet-wide smart charging controller. It should know each vehicle's departure time, required state of charge, current battery SOC, and charger availability, then allocate power accordingly. DOE specifically recommends power ceilings and prioritizing vehicles based on SOC and departure time.
• Set a hard site power cap below the utility demand threshold. For example, if the depot can economically support a 300-kW peak, configure the charging system so the combined EV load never exceeds ~250–300 kW. This prevents a dozen vehicles arriving simultaneously from creating a new monthly demand peak.
• Charge opportunistically during low-load/low-rate periods. Don't simply tell every vehicle to start charging at 6 p.m. Stagger charging throughout the dwell window and exploit TOU rates. A modeled heavy-duty fleet achieved a 64–75% reduction in charging peak load with optimized scheduling.
• Reserve DC fast charging for operational exceptions. Vehicles with short dwell times, unexpectedly low SOC, or long next-day routes get priority. A few 50–150+ kW DCFC units can provide resilience without making the entire electrical system dependent on enormous simultaneous loads.
• Integrate the depot's building load. The controller should reduce EV charging when HVAC, refrigeration, manufacturing equipment, etc. are already creating a site peak. That's particularly important because demand charges are often based on the site's highest short-duration power draw.
• Talk to the utility before sizing the service. Ask about TOU rates, demand-charge alternatives, EV-specific tariffs, managed-charging incentives, and available capacity. The optimal charger mix can change dramatically based on the tariff.
• Consider a stationary battery if the tariff makes demand charges severe. The battery can shave brief depot peaks while the fleet controller maintains vehicle readiness. Batteries are one of the established demand-charge mitigation strategies for EV charging.

The basic architecture

Utility → site meter → energy-management system → chargers → vehicles

The EMS continuously maintains something like:

EV charging load + building load ≤ site power limit while solving the operational constraint:

Every vehicle reaches the required SOC before its next departure. That's much better than simply buying the fastest chargers possible. DOE reports that managed charging can simultaneously reduce demand charges, avoid electrical upgrades, and maintain vehicle readiness.

If you give me your fleet size, vehicle battery sizes, daily miles, overnight dwell time, and utility rate (or ZIP code), I can sketch an example depot architecture—including number/type of chargers, transformer size, power cap, and likely demand-charge savings.

To minimize both downtime (keeping vehicles on the road) and demand charges (spikes in utility bills from high concurrent power draws), a delivery fleet needs a hybrid architecture combining hardware strategy, software control, and localized energy buffers.

1. The Ideal Hardware Mix: Right-Sized DC Fast + Level 2

• Level 2 (AC) Chargers for Overnight Staging: Use standard 19.2 kW Level 2 chargers for the bulk of your fleet. If vehicles sit for 6 to 8 hours overnight, Level 2 easily replenishes 100% of a standard delivery van's daily route without hammering the grid.
• Targeted DC Fast Chargers (DCFC): Install a small footprint of DC fast chargers (50 kW to 150 kW) only for high-utilization vehicles, multi-shift vans, or unexpected mid-day top-offs. Avoid outfitting every stall with ultra-fast 350 kW chargers, which trigger massive demand charges.

2. Software-Driven Managed (Smart) Charging

• Load Shifting & Peak Shaving: Implement a US Department of Energy Managed EV Charging framework. Cloud-based energy management software automatically throttles or staggers charging speeds based on real-time depot loads and local utility rate structures.
• Dynamic Power Capping: Set a strict site power ceiling. If the warehouse or office building is drawing heavy power, the software automatically dials back EV charging rates so total facility demand never breaches a costly utility threshold.
• Priority-Based Queueing: Program rules ensuring vehicles leaving on early morning routes finish charging first, while afternoon-return vehicles are ramped up slowly during late-night off-peak hours.

3. Battery Energy Storage Systems (BESS)

• The Ultimate Demand Buffer: Pair your chargers with a stationary commercial SparkCharge Battery Energy Storage Systems Go to product viewer dialog for this item. unit or similar BESS.
• How it Works: The battery trickle-charges slowly from the grid 24/7 at a low, flat rate. When vehicles plug in and demand high power, the energy is pulled instantly from the local battery buffer rather than spiking the utility grid meter—effectively flattening your peak demand profile to zero-out high utility penalties.

Would you like to explore specific software providers for fleet load management or look into solar-plus-storage integration for your depot?

To minimize both vehicle downtime and crippling demand charges (the peak k W k cap W𝑘𝑊 fees utilities charge commercial sites), a delivery fleet needs an integrated hardware-and-software ecosystem . Uncoordinated "plug-in-and-charge" behavior creates massive instantaneous power spikes that wreck utility bills.

An optimized depot charging setup relies on the following core components and strategies:

• Hardware Architecture (Right-Sizing Level 2 vs. DC Fast Charging)
  • Mixed-Speed Layout: Utilize high-power DC Fast Chargers (DCFC, 5 0𝑘𝑊 to 1 5 0𝑘𝑊) strictly for vehicles on multi-shift operations or emergency mid-day top-offs. For vehicles parked overnight (8--1 0 hours), deploy networked Level 2 (1 9.2𝑘𝑊) chargers. Level 2 drastically lowers peak k W k cap W𝑘𝑊 draw while easily restoring 1 0 0% charge by morning.
  • Dual-Port and Satellite Systems: Use centralized power pools where a single large cabinet dynamically routes varying amperage to multiple dispenser stalls based on vehicle priority.
• Smart Charge Management (SCM) & Software
  • Automated Load Balancing / Peak Shaving: Implement an SCM platform that caps the total aggregate power drawn from the grid at any given minute. If 30 vehicles are plugged in, the software throttles individual speeds so the depot never crosses a costly utility threshold.
  • Telematics Integration: Sync the charging software with your fleet management system. The system reads vehicle state-of-charge (SoC) and next-day departure times, prioritizing vehicles that need to roll out first while delaying charging for vehicles with low-urgency schedules until deep off-peak hours.
• Stationary Battery Energy Storage Systems (BESS)
  • Peak Shaving Buffers: Pair your chargers with a commercial BESS (e.g., a 2 5 0𝑘𝑊/5 0 0𝑘𝑊ℎ lithium-iron-phosphate battery). When the fleet needs a high-power burst of charge, the energy is pulled locally from the battery rather than spiking the utility grid demand.
  • Slow-Trickle Grid Recharge: The BESS recharges itself slowly from the grid during cheap, off-peak hours, flattening your facility's load profile entirely.
• On-Site Renewable Integration (Solar PV)
  • Microgrid Generation: Canopy solar arrays over the fleet parking lot offset base energy consumption and feed directly into the BESS or vehicles during daytime staging hours, reducing reliance on peak grid pricing.

To tailor this setup more precisely, could you tell me:

• What is the size of your fleet and the average daily mileage per vehicle?
• Are your vehicles parked overnight only , or running multi-shift operations?

For most delivery fleets, the charging setup that minimizes vehicle downtime and utility demand charges is not the one with the most powerful chargers. It is a managed depot charging system that combines the right charger mix, load control, and scheduling.

A strong design usually looks like this:

1. Use “enough chargers,” not “a charger for every vehicle”

Instead of installing one high-power charger per truck/van:

• Install fewer shared chargers sized around fleet dwell time.
• Use a mix of: - Level 2 AC chargers for vehicles parked overnight or for long dwell periods.
• DC fast chargers only for vehicles with tight turnaround requirements.
• Rotate vehicles through chargers automatically.

A delivery van returning at 5–6 PM and leaving at 6 AM has ~12 hours of dwell time; it usually does not need a 150 kW charger. A controlled 7–19 kW AC charger may provide all required energy while dramatically reducing peak load.

2. Add smart charging / energy management software

The biggest demand-charge savings usually come from controlling when vehicles charge.

A fleet energy management system should:

• Track each vehicle’s: - departure time
• route requirement
• battery state of charge
• required energy
• Delay or throttle charging when the depot hits a power limit.
• Prioritize vehicles that leave first or need the most energy.

This creates a “charging queue” instead of every vehicle starting at once. DOE describes smart charge management as a way to coordinate vehicles, chargers, building loads, and utility signals to reduce peak demand and ensure vehicle readiness.

3. Set a hard site power cap

A common mistake is designing chargers first and discovering the utility bill later.

A better approach:

1. Determine your maximum acceptable depot load (for example, 300 kW).
2. Install chargers capable of more than that.
3. Use software to keep actual grid draw below the cap.

Example:

• 50 vans × 11 kW chargers = 550 kW potential load
• Smart controller limits depot draw to 250 kW
• Vehicles charge sequentially overnight

The fleet gets the same energy, but the utility sees a flatter load profile.

4. Charge during off-peak windows

Pair managed charging with your utility tariff:

• Start charging after peak pricing ends.
• Spread charging across the night.
• Avoid coinciding with building HVAC, refrigeration, or other large loads.

Unmanaged charging can create a large demand spike when drivers return and plug in simultaneously. Managed charging shifts that load while still meeting departure requirements.

5. Consider onsite battery storage for high-power depots

Battery energy storage becomes attractive when:

• The fleet needs many DC fast chargers.
• Utility upgrades are expensive or delayed.
• Demand charges are high.

A typical setup:

Grid → Battery → Chargers → Vehicles

The battery charges slowly when electricity is cheap, then supplies short high-power charging bursts to keep grid demand lower.

6. Design around operations, not charger count

The optimal setup starts with fleet data:

• Number of vehicles
• Daily miles per vehicle
• kWh consumed per route
• Arrival/departure times
• Required state of charge
• Utility tariff and demand charges

A last-mile delivery fleet with predictable overnight parking can often use mostly managed AC charging. A parcel fleet with multiple shifts may need DC fast charging plus battery storage and more aggressive scheduling.

A practical “low downtime + low demand” architecture

For a typical delivery depot:

• Networked smart chargers
• Central charge management software
• Site power limit controller
• Overnight staggered charging schedule
• Small number of DC fast chargers for exceptions
• Optional battery storage where demand charges or grid capacity are limiting

The key metric is not “maximum kW available.” It is the lowest average kW that still guarantees every vehicle leaves ready for its route.

If you share your fleet size, vehicle type (vans vs trucks), daily miles, return/departure times, and utility location/rate structure, I can sketch a more specific charger count and power design.